mirror of
https://github.com/unslothai/unsloth.git
synced 2026-08-08 16:34:40 +00:00
77 commits
| Author | SHA1 | Message | Date | |
|---|---|---|---|---|
|
|
b6781a8bfe
|
CI: prove the installer works on a machine with no developer toolchain (#7551)
* CI: prove the installer works on a machine with no developer toolchain
No job has ever run the installer on a machine without one.
studio-mac-install-matrix.yml is the only macOS installer job and it runs
'bash install.sh --local --no-torch' on runners that already have the Xcode CLT
selected and setup-python preinstalled, so the CLT gate never fires there, and
--local is precisely the mode that legitimately needs git. Repo-wide there was
zero coverage of xcode-select or CommandLineTools outside install.sh itself.
clean-machine-install-ci.yml runs the installer on a genuinely stripped machine.
macOS legs move /var/db/xcode_select_link, /Library/Developer/CommandLineTools,
/Applications/Xcode*.app and Homebrew aside, so xcode-select -p, git, cc and
clang really do fail, and restore unconditionally afterwards. Removing the
select-link alone is not enough: xcode-select falls through to a full Xcode.app
and re-arms /usr/bin/git. Linux legs use containers, which are genuinely clean.
Windows legs cover winget visible and masked, plus windows-11-arm. A WSL leg
covers the 126 lines of WSL-specific install.sh logic that had no runtime test.
Each macOS leg runs four deliveries: pipe (the advertised command, and the shape
that turns an early exit into curl (56)), file (separates installer logic from
pipe delivery), no-torch, and tauri (stdin closed, no tty, as the desktop app
invokes it). One leg records every toolchain invocation and asserts the trace,
which is the real deliverable: proof the installer never reached for a compiler
rather than proof it happened to succeed.
The asserts test that tools do NOT WORK rather than that they are absent from
PATH. On a real virgin Mac /usr/bin/git and /usr/bin/cc exist as CLT stubs, so
'command -v git' succeeds and only running it tells the truth.
desktop-app-clean-machine-ci.yml installs and launches the SHIPPED desktop app
release on a stripped machine, covering Gatekeeper and quarantine on macOS, NSIS
silent install on Windows, and Xvfb with WebKit2GTK on Linux.
Known limit, stated plainly: hosted macOS runners are developer machines. Masking
reproduces this bug and proves the installer does not invoke a toolchain, but it
cannot prove no hidden dependency exists on a truly virgin Mac. An ephemeral-VM
lane is the follow-up.
* Point the llama assert at the right root, and name the Intel limitation
The tauri leg installs to the legacy root because --tauri refuses a custom
UNSLOTH_STUDIO_HOME. Its install succeeds end to end, but llama.cpp lives at
<root>/llama.cpp while the venv is at <root>/studio, so the assert was pointed one
level too deep.
On macos-15-intel /usr/bin/git keeps working once the CLT are gone, so it is not
CLT-provided there and no masking can remove it, while cc and clang do become
stubs. Calling that 'masking failed' was wrong. That leg allowlists git
explicitly and says why, so the assert stays strict everywhere else.
* Make the clean-machine legs able to fail
The toolchain strip never ran on the automatic triggers: inputs exists only for
workflow_dispatch, and GitHub coerces '' and false alike to 0, so
`inputs.strip_toolchain != false` was false. Confirmed on a pull_request run
where the strip step reports skipped. Gate on the event instead.
Also: scrub the Machine and User registry PATH, since install.ps1 rebuilds
$env:Path from them mid-install and the toolchain came back; stop dropping
WindowsApps unconditionally, which removed winget on the winget=visible leg too;
fail rather than annotate when a bundle ships no installer or no CLI; run the
bundled installer, which a headless launch never reaches; resolve the newest
desktop-v* release instead of a pinned immutable tag; and give the two macOS
matrix rows distinct artifact names.
* Make the Windows and Linux clean-machine legs honest
The Windows scrub only touched PATH, so the legs were green while not clean: run
30365014702 logged "python ABSENT" and then "Python 3.13 already installed"
with uv resolving C:\hostedtoolcache\windows\Python\3.13.14\arm64\python.exe.
py.exe lives in C:\Windows and uv discovers interpreters itself, so take the
toolcache off disk and fail when tooling survives, instead of only printing it.
The Linux desktop legs never stripped anything, and the tauri.log step was all
|| true so it could not fail. Run the bundled installer the way install.rs does,
with --tauri alone, and assert torch: passing --no-torch skipped the slowest
half of first launch and let the venv check pass over it.
Pin the WSL rootfs to a dated build; current/ is a rolling alias and the digest
next to it is fixed.
* Give the Linux and WSL legs an assertion that can fail
The Linux rows' only post-install gate was nobuild, a log grep, so an installer
exiting 0 having produced nothing kept a required leg green. The WSL job and the
Windows job both already check the install runs; the Linux job now does too.
The WSL detection half only printed its Select-String, and the alternation also
matches "platform linux", so a regression that skipped every WSL-specific
branch would still pass as a plain-Linux install. Assert the exact marker,
stripping ANSI first since step writes the label in reverse video. Probed against
three fixtures: real wsl log passes, platform linux fails, missing log fails.
* Tighten the clean-machine comments
Compress the comment blocks across the clean-machine workflows and
scripts. The explanations of why each check is written the way it is
stay; the padding, restatement and duplication go.
No code or workflow logic changes.
* Point the nightly at the repo that publishes, and let its checks fail
REL_REPO defaulted to unsloth-test/unsloth-test, which holds one release frozen
at 2026-07-27, while release-desktop.yml publishes into github.repository. The
schedule was re-testing the same fixture forever and could never see a broken
production bundle.
The windows job carried a blanket continue-on-error, so its NSIS assertions
could not gate. lipo -archs prints and exits 0 for a thin binary and `|| true`
swallowed even that, so the architecture was never checked; fall back to file,
which survives the CLT mask. And require the preflight disposition line rather
than the mere existence of tauri.log, which setup_logging creates at process
start regardless.
* Stop four clean-machine checks from passing over a real failure
Re-run `absent` after the install on the masked macOS legs. It only ran
before, so an installer that quietly selected the Xcode CLT or installed a
compiler left the leg green while every later source build could succeed,
which is the one thing clean-machine-assert.sh says `absent` guards the whole
run against.
Fail the Windows simulation when py.exe can still start an interpreter. The
launcher binary itself may stay, but Find-CompatiblePython probes `py` first
(install.ps1:1130-1153), so an interpreter registered outside the two renamed
toolcache directories gets reused and Python bootstrap is never exercised.
Exempting `py` without ever running it left that unchecked.
Propagate the WSL installer exit code. It was printed and discarded, and the
CLI check does not compensate: install.sh links the `unsloth` shim (4174-4182)
before it reports a failing studio/setup.sh (4219-4230), so a late setup
failure leaves a shim whose --version succeeds.
Run the bundled installer in the Linux desktop jobs. The launch step only
proves the process stayed alive, and on a fresh home preflight reports
not_installed and the app waits on the install screen, so both required rows
passed after 90 seconds without ever touching the shipped install.sh. Locate
the resource in the deb payload or the extracted AppImage, run it the way
install.rs does, and require a managed venv that can import torch.
* Prove the trace wrapper records before trusting an empty trace
The `notools` check reads an absence: it passes when the trace file contains no
compiler, git or brew invocation. A shim directory that never reached PATH
produces exactly the same empty file as an installer that touched nothing, so
the single leg carrying that assertion would stay green no matter what the
installer did. "Verify the simulation actually took effect" only ran for mask
mode, which left the trace leg with nothing checking its own instrumentation.
Call git explicitly after sourcing the environment and require it to appear in
the trace, then truncate the file so the self-test entry does not count against
the install. The call has to be explicit because macOS reaches _has_working_git
only under STUDIO_LOCAL_INSTALL (install.sh:2026), so no consumer leg on that
platform probes git on its own.
* Stop the Windows clean-machine check failing on its own probe exit code
All three Windows legs failed "Verify the simulation took effect" with no
::error:: printed at all. The check itself was right: the mask step logged
"masked toolcache python: C:\hostedtoolcache\windows\Python", python/git/cmake/cl
were ABSENT, no `py -3.x` probe started an interpreter, and the winget assertions
were satisfied. The step still exited 1.
The cause is $LASTEXITCODE leaking out of the step. The last external command is
the `py -3.13` probe, which is SUPPOSED to fail; Get-Command and Write-Host are
cmdlets and never reset $LASTEXITCODE, and the runner appends
`if ((Test-Path -LiteralPath variable:\LASTEXITCODE)) { exit $LASTEXITCODE }`
to every pwsh step (actions/runner#351). So a clean machine reported failure,
and because this step runs before Install, no Windows leg has ever reached the
installer. Clear $LASTEXITCODE after the probe loop and end with an explicit
exit 0. The leak detection is untouched: a surviving python/git/cmake/cl, or a
`py -3.x` that actually starts, still exits 1.
Also print each probe's exit code and output, so the next failure here explains
itself instead of being silent, and label `py -0p` as what it is. The launcher
reads the registry, which the on-disk toolcache rename cannot rewrite, so -0p
keeps naming paths that no longer exist. Unlabelled it reads like a leak.
Accept the Fedora leg's real outcome instead of a message that can be absent
The fedora assertion only accepted the unsupported-package-manager hard exit.
That is still what this ref's install.sh does, but the pending installer change
replaces it with a warning that lets the install continue, at which point the
old grep matches nothing and the step fails for the wrong reason.
Handle both, strictly. If the log shows the newer "using prebuilt llama.cpp
(missing:" warning, the Linux gate demonstrably did not hard-stop, and the only
tolerated failure past that point is release lag: install.sh comes from this ref
while unsloth comes from PyPI, and the released studio/install_python_stack.py
has no "skip triton kernels when git is missing" guard, so it still fetches the
git+https triton_kernels requirement on a machine with no git. Anything else
after that warning fails the step. Otherwise the old hard-exit message is still
required. A missing log, a bootstrap outage or any unrecognised failure all
remain errors, and the step retires to a plain success assertion once a release
ships the no-git skip.
* Make the AppImage Linux row actually extract, and hold Linux to the macOS preflight bar
The appimage row invoked the extractor by bare filename, and a command word
with no slash is resolved through PATH rather than the working directory, so
the extraction exited 127 and the bundled-installer assertion below it never
ran. Prefix it with ./ so the row exercises what it claims to.
The Linux log step also asserted nothing: it skipped a missing log with
continue and discarded the grep with || true. The launch step only proves the
process stayed alive for 90 seconds, and the bundled-installer checks do not
exercise the Rust preflight path, so an app that hung before preflight
completed passed both required Linux rows. Require the same
desktop_preflight completed disposition= record the macOS rows already do.
* Put the branch's own Python under test on the clean-machine legs
install.sh and install.ps1 come from the ref under test, but they install
unsloth from PyPI, which is the consumer path and has to stay that way. That
left everything Python-side coming out of the released wheel: studio/setup.sh,
studio/setup.ps1, studio/install_python_stack.py, and every requirements and
constraints file those resolve through Path(__file__). A branch that changes
constraints.txt or setup.ps1 therefore got a green run that proved nothing
about the change, and some legs proved less than they looked. The Fedora
assertion was already carrying a hand-written workaround for exactly this,
tolerating a triton/git failure on the grounds that the released package lags
the ref.
Legs marked overlay: true now re-point the venv at the ref just before studio
setup runs, through UNSLOTH_CI_SOURCE_OVERLAY: a --no-deps editable install of
the checkout. That makes import studio resolve to the working tree, so the
existing setup-script lookup finds the ref's setup.sh / setup.ps1 and
install_python_stack reads the ref's constraints, with no other change to
either installer.
Not --local: --local additionally installs unsloth-zoo from a git+https URL,
which genuinely needs git, and git absence is the whole point of the masked
legs. The overlay resolves no dependencies and clones nothing, so it holds up
with git, cmake and the compilers all gone. It is not a consumer knob either:
no flag, no usage entry, ignored unless the variable names a directory with a
pyproject.toml in it.
Four legs stay on the released package deliberately, each for its own reason,
recorded in the header: the mac pipe legs keep an end-to-end signal on what a
user actually runs; the trace leg would otherwise answer its own question,
since the editable build calls git through setuptools-scm's file finder; the
non-root Linux leg dies before a venv exists; and WSL only ever receives
install.sh, not a source tree.
Two supporting fixes the overlay depends on or exposes:
install_python_stack.py discarded uv's output whenever a step succeeded, so
the nobuild assertion, which reads the install log, could not see a source
build in the dependency phase at all. That is the phase that installs
studio.txt, where an sdist-only dependency actually turns up, and it reported
"built: none" regardless. It now echoes successful output under
UNSLOTH_VERBOSE, matching what install.sh's run_install_cmd already does.
nobuild now ignores "Building <name> @ file://" lines. A local-path build is
something the caller pointed at, never a dependency resolution chose, and
index dependencies always print <name>==<version>, so a real sdist from PyPI
is still caught, including one named unsloth.
Each overlaid leg also asserts it really was overlaid, so an unset variable
cannot quietly put the whole matrix back on the released wheel.
* Allowlist the triton-kernels pure-Python sdist, and record why Windows on ARM is red
The two ubuntu2404 root legs went red at "Assert no source build" reporting
triton-kernels. That is not a regression in what the installer does. Those
builds have always happened; they only became visible now that pip_install
stopped discarding uv's output on success, which is what finally let the
nobuild check read the dependency phase at all.
So the question was whether each build actually needs a compiler. Checked
against the real artifacts rather than assumed:
openai-whisper 20250625, randomname 0.2.1, argbind 0.3.9 -- no version of
any of the three has ever published a wheel; antlr4-python3-runtime is
pinned at 4.9.3, below the first release that ships one. All four sdists
use setuptools.build_meta, declare no ext_modules, and contain no
.c/.cpp/.pyx/.rs file. Already allowlisted, correctly.
triton-kernels is the same category and was the only name failing. It is
pinned to the triton repo's python/triton_kernels subdirectory; that tree
is 75 files of Python, a four-line pyproject.toml, no setup.py and no
native source at all. The kernels are Triton DSL compiled at runtime, not
at install time. It is also a direct URL the installer names itself rather
than something resolution picked, and only Linux reaches it. It belongs in
the allowlist, so add it with that reasoning written down.
The allowlist match is now lowercased and underscore-folded on both sides.
The requirement spells the package triton_kernels while uv prints
triton-kernels, and an allowlist that matched only one spelling would pass
by luck rather than by intent. A plain pyarrow sdist is still caught.
The two data-designer @ file:// plugin builds needed nothing: they are
in-tree local paths, already dropped by the same rule that exempts the
source overlay's own build.
Separately, the windows-11-arm leg fails for a real reason and should keep
failing. The ARM handling itself works, the log shows torchaudio being
skipped and torch plus torchvision installing from wheels. What stops it is
that pyarrow and hf-transfer publish no win_arm64 wheel at all, so uv falls
back to their sdists and they fail on CMake configure and on openssl-sys
wanting perl. That is a product gap on the platform, not a gap in the
simulation, so the leg stays experimental and keeps reporting it. Record
that above the matrix entry so the next reader does not re-diagnose it.
* Exercise the bundled Windows installer, and stop mislabelling installer sources
Four things that let a leg go green while proving nothing.
The desktop Windows job installed the bundle and launched it, and that was all.
On a fresh profile preflight reports not_installed and the app sits on the
install screen waiting for a click, so the process happily stays alive for 90
seconds without the bundled install.ps1 ever running. A bundle that shipped no
install.ps1 resource, or a broken one, passed this job -- which is the packaged
app failure the workflow exists to catch. macOS and Linux already invoke their
bundled script directly; Windows now does the same, via the resource NSIS laid
down next to the exe, invoked the way install.rs invokes it, then asserts the
managed venv exists and can import torch. Its timeout goes to 60 minutes
because a full torch install on a Windows runner is the slowest of the three.
A manual run that selects installer_source: published only redirected the macOS
and Linux jobs. WSL kept copying the checked-out install.sh and Windows kept
running the checked-out install.ps1, so a run asking whether the script on
unsloth.ai works reported on this ref under the published label. Both now honor
the selection; install.ps1 advertises its own unsloth.ai URL, so published has a
meaning on Windows too. Both branches stay empty on pull_request and push, so
automatic runs are unchanged.
The push-to-main filter listed only install.sh, install.ps1 and this workflow,
while the PR filter also covers setup.sh, setup.ps1, install_python_stack.py and
the clean-machine helpers. A direct push touching those skipped the workflow
entirely, so the post-merge backstop never ran for the files the source overlay
was added to cover. The two lists now match.
Neither filter covered studio/backend/requirements, even though the overlay
exists precisely so a constraints change is resolved on a machine with no
compiler and no cached wheels. The update-smoke workflows cannot stand in: they
start from a preinstalled Python and full developer tooling.
* Make the Linux and Windows desktop legs clean, and honour published on every macOS delivery
The desktop workflow claims all three platforms are stripped, but only macOS
and Windows had a strip step and the Windows one scrubbed the process PATH
only. Both gaps let a bundle that needs a developer toolchain pass the one
workflow whose premise is that it must not.
Linux: the job ignored strip_toolchain entirely and ran the bundled install.sh
with the runner's git, gcc, cmake and make in /usr/bin. clean-machine-env.sh
now has a Linux --remove branch that moves the resolved tool binaries aside,
recorded in restore.sh, and the job calls it plus `assert absent` after the apt
step (the .deb install needs dpkg) and before the bundled installer, with a
restore step to match macOS. The loop repeats per tool so a name present in
both /usr/bin and /usr/local/bin is fully masked rather than half masked.
Windows: rewriting $env:PATH does not survive the bundled install.ps1, which
calls Refresh-SessionPath (318-337) and rebuilds $env:Path from the Machine and
User registry values, and py.exe in C:\Windows reaches the toolcache whatever
PATH says. Ported the on-disk toolcache rename, the Machine/User registry scrub
and the py -3.11/-3.12/-3.13 start probe from clean-machine-install-ci.yml, so
the strip is proven rather than assumed.
Windows preflight: the log step was Test-Path, Get-Content and Select-String,
none of which can fail, so an app that hangs before preflight passed on the
90 second liveness check alone. It now asserts a tauri.log exists and carries a
`desktop_preflight completed disposition=` line, the same unconstrained check
macOS and Linux already make. The disposition VALUE is deliberately not
constrained: ManagedReady over an unbootable venv is the reported bug.
installer_source on macOS: only the pipe delivery branched on it, so a
`published` dispatch ran the checked-out script on six of the eight macOS rows
while the run was labelled published. The script is now resolved once at the
top of the Install step and used by the file and tauri deliveries; pipe still
re-fetches through the live transport, because that is half of what it tests.
Linux, WSL and Windows already honoured the input.
Also shortened the comments across the changed files, keeping the reasoning
that says why each check exists.
* Run the Windows installer under PowerShell 5.1, the only shell a clean machine has
The Windows Install step ran `& $script` inside a `shell: pwsh` step, so
install.ps1 was executing under PowerShell 7. A genuinely clean Windows box
does not have PowerShell 7: Windows ships powershell.exe (Windows PowerShell
5.1) and pwsh is a separate install that the hosted runner image happens to
preinstall. So the one workflow whose premise is a machine that has never seen
a developer toolchain was testing the installer under a shell that machine
would not have, and no other Windows job anywhere in .github exercises
install.ps1 under 5.1.
Invoke it the way the desktop does (install.rs:325-339, and the bundled
installer step in desktop-app-clean-machine-ci.yml): powershell.exe with
-NoLogo -NoProfile -NonInteractive -ExecutionPolicy Bypass -File. The pwsh
step wrapper stays, since it is only the installer that has to be under 5.1.
Calling powershell.exe with `&` keeps the output in the pipeline, so
Tee-Object still fills logs/install.log, and $LASTEXITCODE after the pipeline
is the child's real exit code, so $rc and `exit $rc` are unchanged.
install.ps1 and studio/setup.ps1 hold no PowerShell 7-only constructs: no
`#Requires` above 5.1, no `&&`/`||` chain operators, no ternary, no
null-coalescing, no ForEach-Object -Parallel, no $IsWindows/$PSStyle, and no
6+ cmdlets or parameters. setup.ps1 declares `#Requires -Version 5.1`, and its
three $PSVersionTable branches gate a 7-only preference on the 7 side with a
5.1 fallback. Every Invoke-WebRequest already passes -UseBasicParsing, which
5.1 needs because it otherwise reaches for the IE engine.
* Assert the Windows desktop strip actually took effect
The desktop job's Windows masking renamed the toolcache Python, scrubbed the
Machine and User registry PATH, and probed `py`, but nothing checked that
`python`, `git`, `cmake` or `cl` were gone. The drop list is heuristic path
fragment matching, so a runner image that moves any of those outside those
fragments leaves the bundled install.ps1 reusing hosted developer tooling while
the job still reports a clean machine. PATH written to $GITHUB_ENV only applies
to later steps, so the check has to live in a step of its own; it carries the
same event gate as the strip, exempts `py` (it lives in C:\Windows and stays,
which is why the start probe is the real evidence), and resets $LASTEXITCODE
before exiting 0 so an intentionally failing probe cannot fail a clean machine.
Also correct the no-winget matrix note: that leg is not failing for an unfixed
product reason. It stops at the unconditional git gate in setup.ps1 only on this
ref, and with that gate relaxed it passes along with every other leg, so the row
is a merge order dependency and stays required.
* Resolve the desktop release including drafts, the convention this repo ships
All three desktop legs died at the download step with an empty REL_TAG. The
resolver passed --exclude-drafts while REL_REPO now defaults to
github.repository, and every desktop-v* release in unslothai/unsloth is a draft:
desktop-v0.1.50-beta and desktop-v0.1.471-beta are both drafts carrying the .dmg,
.deb, .AppImage and setup.exe, while only the non-desktop tags like v0.1.501-beta
are published. Excluding drafts therefore matched nothing and no leg could ever
run against a production bundle.
Drop --exclude-drafts so the newest desktop-v* release is found. A draft has no
tag ref, so releases/tags/<tag> 404s for one, but gh resolves drafts over GraphQL
and gh release download <tag> fetches their assets normally, so the download call
is unchanged. Listing drafts requires push access, which for GITHUB_TOKEN means
contents: write, so the workflow permission is raised from read and annotated.
When nothing resolves the leg still fails hard rather than skipping: with no
bundle to install there is nothing to prove, so a green run would be a lie. The
error now names both causes, no release cut yet or a token that cannot see drafts.
Also stop the restore step swallowing its own failure. `bash
.clean-machine/restore.sh || true` printed "No such file or directory" whenever an
earlier step failed before the toolchain was stripped, and hid a genuinely broken
restore just the same. Skip explicitly when the file is absent and let a real
restore failure surface. Same fix in clean-machine-install-ci.yml, which had the
identical line.
* Skip the desktop jobs on fork PRs instead of failing them
Every desktop-v* release in this repo is a draft, and GitHub lists drafts only
to a token with push access, which is why resolving one needs contents: write.
A pull request from a fork receives a read-only token no matter what the
workflow declares, so on those runs the resolver cannot see any release and the
job died on "no desktop-v* release visible", accusing the repo of having no
bundle when the real cause is the trigger.
This workflow runs on pull_request for changes to itself and the stripping
scripts, so an outside contributor editing either would have hit that. Guard the
three jobs on the head repo not being a fork. A skipped job is honest here: it
does not claim to have tested a bundle it was never able to download, and it is
not reported as a pass.
* Close the free headroom in the clean-machine simulation
Assert arch and signature on every downloaded Mach-O. This is the one genuine
gap the simulation had: Rosetta 2 is preinstalled on hosted runners and absent
from a factory-fresh Mac, so an x86_64-only llama.cpp, whisper.cpp, Node or uv
payload runs green here and dies with "bad CPU type in executable" for the
user. llama-server launching under `assert-llama-loads.sh` does not rule that
out, because Rosetta makes it launch. The new `macho` check reads `file -b`
(`lipo` is an xcrun shim and is gone after masking, as the desktop lane already
notes) and keys the expected arch off `uname -m`, so macos-15-intel expects
x86_64. It also requires at least an ad-hoc signature on arm64, which closes
the AMFI "Killed: 9" class that uv has already been bitten by; the check is
skipped on x86_64, where unsigned code loads fine and so is not the same
defect. It fails when the scan finds nothing, since an empty scan reads exactly
like a clean one.
Make absence real rather than PATH-hidden. uv probes well-known interpreter
locations and the framework loader ignores PATH entirely, so hiding the
toolcache only hid it from `command -v`. Empty /usr/local (it EXISTS on a
factory-fresh Mac as a SIP-exempt firmlink, and is empty; it is /usr/local/bin
that is absent, so the directory itself stays), move the hosted toolcache and
/Library/Frameworks/Python.framework aside, and clear the developer dotdirs and
caches. A populated uv or pip cache can also satisfy a resolution that would
fail on a user's machine. Every removal goes through --remove and is recorded
in the generated restore.sh, guarded so a path the install recreated is not
buried inside its own restore.
Unset CI, GITHUB_* and RUNNER_* for the installer process only. An installer
branching on CI=true is a hidden dependency no consumer exercises. Scoped to
the child so the step's own $GITHUB_OUTPUT still resolves.
Record spctl --status and csrutil status. Neither is documented for these
images and both change what a binary is allowed to do.
* Pin the two failures no change here can fix, and add the virgin Windows container lane
Three red checks, two of which test something this branch does not own.
desktop linux deb / appimage run the SHIPPED bundle's own install.sh, and
desktop-v0.1.50-beta was cut on 2026-07-21, before #7547 merged on 07-29. That
bundle still carries the old optional-dependency gate, so on a stripped runner it
exits 2 at [TAURI:NEED_SUDO] cmake git build-essential libcurl4-openssl-dev and
never creates a venv. Current main's _check_linux_deps runs the same set through
_SMART_APT_OPTIONAL, which suppresses every escalation path, so only a new release
can change this. The step now pins that exact outcome: the exit code must be 2 and
the log must carry exactly that package list, anything else still fails, and
finding _SMART_APT_OPTIONAL in the extracted install.sh (the guard #7547 added)
turns into a hard error saying to delete the pin. The venv and torch assertions
stay and still run whenever the installer succeeds.
win windows-11-arm gets a native ARM64 CPython, and torchaudio publishes no
win_arm64 wheel at any version, so the PyTorch step cannot resolve. The fix is in
install.ps1 on #7549, still open. Same treatment: the Install step is
continue-on-error and a new step requires all three of the PyTorch step, the
torchaudio resolution error and the missing win_arm64 platform tag, so any other
failure is red. The row leaves experimental so the job is required, and the pin
errors out as soon as the venv interpreter reports anything but win-arm64, which
is what #7549 landing looks like.
Adds the virgin Windows container lane as two jobs here rather than a sibling
workflow: same premise as the win legs, same path filters, and masked-versus-real
reads better side by side. The hosted Windows legs cannot test the VC++
2015-2022 runtime (it ships in the runner image's System32) or a Windows with no
Microsoft Store, and a servercore:ltsc2022 container on windows-2022 answers both.
The probe asserts no python, py, git, cmake, cl, winget or uv on PATH, on disk or
in the registry, and now also asserts vcruntime140.dll, vcruntime140_1.dll and
msvcp140.dll are absent, which is the one thing the hosted runner cannot un-ship.
Both container install rows stop at studio/setup.ps1's winget-only git gate on
this branch, since #7549 is what relaxes it, so both are pinned the same way. The
overlay row additionally requires the UNSLOTH_CI_SOURCE_OVERLAY hook to have
fired, unconditionally: without that it would be indistinguishable from the
released-wheel row, and the hook is this branch's own feature.
Container notes carried over from the spike: never docker pull when the image is
cached, since MCR has shipped an image ahead of the runner host before; wait for
the Docker daemon, because one leg died in 21s on npipe:////./pipe/docker_engine
and that flake misreads as "Windows containers unavailable"; drive docker from a
run: step, because the job-level container: key is Linux-only. The root CA store
is seeded after the virginity assertion, restoring what a real Windows already
has, because studio/install_node_prebuilt.py downloads Node with bare
urllib.request.urlopen and hits CERTIFICATE_VERIFY_FAILED against the empty
container ROOT store. That product bug is left alone here.
* Check signatures on Mach-O main executables only
The macho check asserted a valid signature for every Mach-O under the studio
home, and failed the macos-15 mask/pipe leg on 29 files: lxml, charset_normalizer,
cygrpc, _upb, fontTools, caio, brotli and a bundled libportaudio.dylib. Those are
MH_BUNDLE and MH_DYLIB images dlopen'd into a process without library validation,
they ship unsigned in the wheels, and the same run had already installed and
imported them with the installer exiting 0.
Key the signature half off the Mach-O filetype and run it only on main
executables. Report an absent seal separately from one that fails to verify, and
capture codesign output instead of piping it into grep, which returned the
unsigned exit status through pipefail and called every unsigned binary broken.
The architecture half is unchanged and still a hard failure: it is what closes
the Rosetta 2 gap. The zero-Mach-O guard is unchanged. The .venv_t5_* sidecars
stay in scope; setup.sh creates them during a normal install and
transformers_version.py puts them on sys.path, so they are payload.
* Make the WSL job gate, assert Windows installed no toolchain, strip before the .deb
* Assert the root Linux legs did not compile llama.cpp with the apt-installed toolchain
* Pin the macOS desktop legs on the same pre-7547 release lag
The Linux rows already pin the shipped bundle's own install.sh exiting 2 at the
NEED_SUDO handshake. macos-15 and macos-26 fail the same way for the same reason:
desktop-v0.1.50-beta predates #7547, so the bundled installer still hard-exits on
the Xcode CLT gate that #7547 turned into a warning.
Accept exit 1 plus that exact gate line, and nothing else. _check_macos_deps is
the function #7547 added, so its presence in the bundle means the release caught
up and the block errors out asking for the pin to be deleted.
* Pin the WSL pipe truncation and the masked-winget git gate
The WSL leg dies at install.sh:2082 with an unterminated quoted string.
Nothing is wrong with that line: piping the script into sh is not atomic.
dash reads it from the pipe in 8192-byte blocks and runs each command as
it parses, and install.sh:2007 calls _maybe_reroute_strixhalo_to_2404,
which on WSL alone shells out to Windows interop; interop relays the
stdin it inherited and drains the pipe. dash has 11 blocks buffered at
that point, ending at byte 90112, which falls inside
"$STUDIO_LOCAL_INSTALL" on line 2082. Truncating install.sh at 90112
and parsing it reproduces the message verbatim, and running the whole
file under a stdin-draining interop stub reproduces the exit code too.
#7548 wraps the body in _unsloth_main so sh parses everything before
running anything, and the same reproduction against its head is clean.
The eight green staging runs cited when this job's continue-on-error came
off were all on trees that already carried #7548, so that evidence never
covered this branch. Pin the exact signature instead: exit 2 plus the
shell's own unterminated-quoted-string error, with the _unsloth_main
marker read back out of the distro as the flip condition.
Pin winget=masked the same way. studio/setup.ps1:1655-1669 gates on git
unconditionally and can only fetch it through winget, so masking winget
leaves no way to satisfy it. #7549 relaxes the gate, and its wording
appearing in the tree retires the pin.
* Retire the WSL pipe pin now that #7548 is in main
The pin flipped exactly as designed: it looks for _unsloth_main in the installer
it actually ran, and #7548 put it there. Delete the pin and the CLI waiver, and
assert the opposite instead.
WSL is the only platform whose install shells out to Windows interop mid-script,
and interop relays the stdin it inherited, so this job is the one that can catch
the pipe being drained again. A truncation here is now a hard failure.
* Gate the no-elevation Linux install and split off the no-transport case
* Assert no source build on the hosted Windows legs and keep winget for the desktop lane
* Retry the container root CA seeding instead of failing on one Windows Update timeout
* Run the clean-machine workflow for the prebuilt installer helpers it overlays
* Narrow the container pin to its own gates and scan uv and the venv interpreter for arch
* Tighten the clean-machine comments
* Re-assert toolchain absence after the desktop .deb pulls its dependencies
* Retire the #7549 pins and add a wget-only Linux leg
#7549 is in main, so the three known-outcome pins that were waiting on it are
stale and would now hard-error by design. Each is replaced by the assertion it
was standing in for rather than deleted:
win windows-11-arm now gates. The x64-on-ARM64 resolver is asserted as an
outcome: the venv interpreter reports win-amd64 from its own sysconfig, and
torchaudio (no win_arm64 wheel at any version) is installed. Measured on the
integration branch before #7549 merged: "only a native ARM64 Python 3.13 was
found" -> "installing x64 Python" -> torchaudio 2.10.0+cpu, install green.
win windows-latest / winget=masked now gates. The relaxed git gate is asserted
from both sides: the old unconditional message must be absent, the no-git
branch must have been reached (so the row cannot pass because git leaked back
onto PATH), and setup.ps1 must report git as absent-but-not-required.
Both Windows rows, and the visible one, gained the usability check the Linux
legs have had and Windows never did: a managed interpreter, an unsloth CLI on
disk, and that CLI actually running. nobuild and the toolchain check only read
the log, so an installer that exited 0 having produced nothing satisfied them.
The torch assert also loses its fallback to whatever `python` resolves to.
The virgin container overlay row gates, and asserts what only that lane can:
it is the one environment whose System32 does not already ship the VC++
2015-2022 runtime, so it is the only place Ensure-VCRedist's direct aka.ms
download can be proved to run rather than be short-circuited. The overlay=false
row keeps a pin, with a new reason: it installs unsloth from PyPI on purpose,
and setup.ps1 inside 2026.7.5 (uploaded the 23rd) predates #7549, so it still
stops at the old gate. That is release lag, it flips on the next release, and
the pinned signature is now the old wording rather than "#7549 has not landed".
Also adds linux ubuntu2404-nonroot-wget. install.sh's download() takes curl or
wget and _transport_missing is true only when both are gone, so a wget-only box
is supported on paper, but the gating nonroot leg provisions ca-certificates
AND curl, so curl won every probe and the wget branch had never run. Same image,
same no-sudo user, same asserts, wget instead of curl, and curl proved absent on
disk for root and for tester before AND after the install, so the claim is that
every download went through wget rather than that curl happened to be unused.
* Tighten the clean-machine CI comments
Comments only, no assertion logic, pins or leg definitions touched.
Reflowed every rationale block to denser wording and removed the
duplication that had built up across repeated steps: the desktop
workflow repeated the fork-PR skip, the desktop-v* tag resolution and
the restore-runner note once per platform, and the installer workflow
repeated its path-filter rationale in both the pull_request and push
blocks. Those now point at the first copy.
Every WHY is kept: why the masked legs avoid install.sh --local, what
UNSLOTH_CI_SOURCE_OVERLAY is for, why `absent` tests "must not work"
rather than command -v, why the .venv_t5_* sidecars are in the macho
scan scope, why the signature check is main-executables-only, why each
nobuild allowlist entry is a pure-Python sdist, why the WSL job gates
and what the pipe truncation was, and why the virgin container's
overlay=false row is still pinned.
Proved comments-only three ways: both workflow revisions parsed with
yaml.safe_load_all and every leaf walked (only `run:` scalars differ);
every changed bash body and .sh compared byte-for-byte after
`bash --pretty-print -n`; every changed pwsh body and .ps1 compared as
a token stream with Comment and NewLine tokens dropped. A negative
control injecting one non-comment line into each layer makes all of
them fail.
* Clean machine CI: strip Strawberry, make the Fedora pin gating, run the Linux CLI
desktop windows failed the strip verification because windows-latest ships a MinGW
toolchain under C:\Strawberry\c\bin, which matches none of the drop fragments; the
installer workflow already scrubs it.
Fedora sat behind job-level continue-on-error, so its outcome pin could not fail the
run. Tolerate the install step instead, as the no-transport row does.
The Linux usable-install check only tested the executable bit; Windows and WSL already
execute the CLI. The macho scan now fails when no venv interpreter was scanned, rather
than letting uv alone satisfy the outside-root guard.
* Clean machine CI: tighten the comments
Round 12 comment reduction: compress wording, keep every reason. Comments only,
verified with a YAML leaf walk (differences only inside run: scalars, only on # lines),
bash --pretty-print -n byte comparison, a PowerShell token-stream diff and a Python AST
comparison.
* Clean machine CI: dereference the venv interpreter, pin the deb deps and the Windows disposition
file did not follow the <venv>/bin/python symlink find -L printed, so it answered
'symbolic link to ...' and the Mach-O test dropped the one interpreter the Rosetta scan
exists to check. Read with file -Lb and count what was classified, not what was found.
apt treats a toolchain package the strip only renamed as already installed, so a .deb
that started declaring git or cmake would never restore it and the absent re-check would
still pass. Assert the declared Depends instead.
The Windows lane accepted any preflight disposition although the bundled installer was
already required to build a working venv; NotInstalled or ManagedStale there means the
app cannot boot what it just installed.
* Clean machine CI: assert every masked tool, and re-select the developer dir last
clean-machine-env.sh moves ten tools aside and only warns when a move fails, but absent
checked four of them, so a surviving gcc -- which install.sh probes for build-essential
-- went unnoticed.
restore.sh ran xcode-select --switch before the line that moved CommandLineTools back,
so it named a still-masked directory, failed into || true and left the selection link
unrestored. Capture the original selection and re-apply it after both directory
restores.
---------
Co-authored-by: danielhanchen <unslothai@gmail.com>
|
||
|
|
df63522369
|
Installer: stop requiring a developer toolchain on the consumer path (#7547)
* Installer: stop requiring a developer toolchain on the consumer path A brand new Mac cannot install Studio at all. install.sh gates on `xcode-select -p` and exits 1 with 'Xcode Command Line Tools are required', and Linux exits 1 on any non-apt distro over cmake/gcc/git/libcurl headers. Nothing under either gate needs a toolchain. uv is a prebuilt binary, CPython comes from uv's managed python-build-standalone, llama.cpp and whisper.cpp are prebuilt downloads, Node is a pinned nodejs.org archive, and triton is skipped on macOS. unslothai/llama.cpp b10107-mix-1911198 publishes macos-arm64, macos-x64, linux-x64 and linux-arm64 builds covering cpu, cuda12, cuda13, rocm and vulkan. PR #6617 already dropped the Homebrew/cmake stop on macOS for this reason and just left the CLT stop behind. macOS: warn and continue when the CLT are absent. Linux: only a download transport (curl or wget) is fatal; build tooling warns. Both keep a hard git requirement for --local, which installs unsloth-zoo from a git+https URL. Both gates move into functions so tests/sh can extract them. The old inline form could not be reached by the tests/sh convention, which is why this shipped broken and stayed broken. test_macos_clt_gate.sh (19 assertions) and test_linux_deps_gate.sh (25) cover the clean machine, the CLT-stub shape where /usr/bin/git exists but fails, the non-apt distro, and the --local paths. Writing the Linux test caught a latent bug: the gate trimmed its list with $(echo ... | sed ...), so on a minimal image without sed the substitution yields empty and it reports 'all system dependencies found' on a machine with none of them. Replaced with parameter expansion. Also caps av<16 in the single-env constraints. av 16+ ships no cp313 macOS arm64 wheel, and it is a C extension over FFmpeg, so uv would silently fall back to a source build needing both a compiler and FFmpeg headers. Verified on GitHub-hosted macOS runners with /var/db/xcode_select_link, /Library/Developer/CommandLineTools, /Applications/Xcode*.app and Homebrew moved aside. macos-14, macos-15 and macos-26 fail on main and install cleanly with this; the recorded tool-invocation trace for the whole install is a single `xcode-select -p`, so nothing compiled and nothing installed a toolchain. * Linux: auto-install git rather than dropping it, and skip triton kernels without it Making git optional on Linux was too broad. studio/backend/requirements/ triton-kernels.txt line 2 is a git+https URL, so step 6/14 died with 'Cannot find command git' and failed the whole setup on ubuntu2404-root, ubuntu2404-arm-root and fedora41, all of which had been passing. The claim that nothing on the consumer path needs git holds on macOS, where triton is skipped, but not here. install.sh now auto-installs git through apt with the other optional tooling, so Debian and Ubuntu are unchanged. The triton kernels step skips with a message when git is absent instead of failing: they are a training speedup, not a boot requirement, and a GGUF chat install has no use for them. Six more assertions pin both halves. * macOS Intel: skip the one package with no x86_64 wheel The Intel clean-machine leg installed with the toolchain masked, then died in studio setup: subprocess.CalledProcessError: Command '['cmake', ...]' returned non-zero ERROR: Failed building wheel for pytorch_tokenizers pytorch_tokenizers publishes wheels for macOS arm64, linux x86_64, linux aarch64 and windows, but none for macOS x86_64 at any Python version, so uv falls back to an sdist that shells out to cmake. Nothing passes --only-binary, so the compiler-free property was an assumption rather than a contract, and Intel is where it broke. Marked so it installs everywhere except Intel macOS. Apple Silicon is unaffected. * Stop the optional dep gate from aborting the install _smart_apt_install exits rather than returns, and `|| true` does not catch an exit, so a box missing cmake or git aborted at the gate added to let it continue. Verified in sh, dash and bash. Run it in a subshell and re-raise only code 2, the NEED_SUDO handshake install.rs answers with an elevation prompt. install.sh treats a present-but-broken git as missing, but the Python side tested only shutil.which, so it promised to skip the git+https triton requirement and then fetched it anyway. Same check on both sides now. * [pre-commit.ci] auto fixes from pre-commit.com hooks for more information, see https://pre-commit.ci * Never elevate for optional build tools Re-raising code 2 turned the optional set into a NEED_SUDO handshake, so a box missing cmake or gcc got the desktop's mandatory permission dialog, whose Cancel drops back to not-installed. That re-imposes through a prompt the build-tool requirement this gate removes, and none of those tools are needed to run. Suppress the handshake for optional callers; a required package still elevates. Verified in sh, dash and bash. Also advance the progress bar on the no-git triton skip, which otherwise ends at 14/15. * Tighten the comments on the dependency gate * Correct why the PyAV cap is needed 16.0.0 does ship cp313-cp313-macosx_14_0_arm64; the comment claimed no cp313 wheel exists. The actual reason is the deployment target: 15.1.0 is macosx_13_0 and 16+ is macosx_14_0, so the cap is what keeps macOS 13 off a source build. * Tighten the installer gate comments * Cap cryptography on x86_64 macOS so the consumer install needs no Rust cryptography 49.0.0 (2026-06-12) dropped the macosx_10_9_universal2 wheel and now ships macosx_11_0_arm64 only, so x86_64 macOS has no wheel and uv falls back to the sdist. That build calls maturin, which pulls Rust and then fails at 'linking with cc failed' on a clean Mac without the Xcode Command Line Tools. It surfaced in the clean-machine leg mac macos-15-intel / mask / file, several minutes into the studio dependency step, which is exactly the up-front toolchain requirement this branch removes. 48.0.1 is the newest release carrying a universal2 wheel, and its cp39-abi3 / cp311-abi3 tags cover the 3.12 and 3.13 interpreters the installer creates. The cap is marker-scoped to darwin + x86_64, so arm64 macOS and every other platform still resolve to the latest. Lift it when cryptography ships an x86_64-capable macOS wheel again. Resolution of studio/backend/requirements/studio.txt under this constraints file gives 48.0.1 on x86_64-apple-darwin and 49.0.0 on aarch64-apple-darwin and x86_64-unknown-linux-gnu, on both 3.12 and 3.13. * Correct the av note now that cryptography also compiles on macOS * Never escalate for optional apt packages outside Tauri mode The optional bypass sat inside the TAURI_MODE branch, so a plain curl | sh install on a non-root Debian or Ubuntu box still fell through to the escalation branch and showed the default-yes permission prompt for cmake, GCC and the libcurl headers. That is exactly the toolchain this change set declared unnecessary on the consumer path, so the prompt asked for a password to install packages nothing here uses, and a headless run failed the same way instead of falling through to prebuilt llama.cpp. Move the check above the mode split so optional callers return 2 in both modes. Required packages such as curl still escalate unchanged. --------- Co-authored-by: danielhanchen <unslothai@gmail.com> Co-authored-by: pre-commit-ci[bot] <66853113+pre-commit-ci[bot]@users.noreply.github.com> |
||
|
|
411cb86d62
|
amd: require bitsandbytes>=0.50.0 in the amd extra (fixes ROCm 4-bit NaNs) (#7535)
* amd: require bitsandbytes>=0.50.0 in the amd extra bnb <= 0.49.2 NaNs at decode shape on every AMD GPU. The ROCm 4-bit GEMV fix (bnb PR #1887) first ships in 0.50.0, on PyPI since 2026-07-24, so the old >=0.49.1 floor could still resolve the broken range. Mirrors the same change made on the pip release branch in #7278. * amd: cite the 0.50.0 ROCm work accurately in the bnb floor comment The comment credited bnb PR #1887 as "the ROCm 4-bit GEMV fix" for every AMD GPU. #1887 decouples blocksize from warp size and fixes a hardcoded warp size of 32 in kgemm_4bit_inference_naive, which is a CDNA problem by construction. The RDNA-side work is #1979 (fused 4-bit SIMT GEMM) and #2012 (RDNA3/4 workgroup resonance). All three first ship in 0.50.0, so the >=0.50.0 floor is unchanged; only the justification was wrong. * amd: raise the installer bitsandbytes fallback floors to 0.50.0 * [pre-commit.ci] auto fixes from pre-commit.com hooks for more information, see https://pre-commit.ci * amd: stop reporting the bitsandbytes PyPI fallback as broken * [pre-commit.ci] auto fixes from pre-commit.com hooks for more information, see https://pre-commit.ci * Tighten AMD bnb floor comments * Keep the amd extra citation and the AMD install guide reference * amd: do not promise aarch64 a ROCm 4-bit backend it never gets * [pre-commit.ci] auto fixes from pre-commit.com hooks for more information, see https://pre-commit.ci * amd: fall back to the PyPI bitsandbytes floor on Windows ROCm too * [pre-commit.ci] auto fixes from pre-commit.com hooks for more information, see https://pre-commit.ci --------- Co-authored-by: Daniel Han <danielhanchen@gmail.com> Co-authored-by: pre-commit-ci[bot] <66853113+pre-commit-ci[bot]@users.noreply.github.com> |
||
|
|
d7594ec10f
|
Fix Windows no-torch setup (#7511)
* Fix Windows no-torch setup * [pre-commit.ci] auto fixes from pre-commit.com hooks for more information, see https://pre-commit.ci * Fix no-torch env normalization on Windows * Accept on for Windows no-torch mode * [pre-commit.ci] auto fixes from pre-commit.com hooks for more information, see https://pre-commit.ci * Keep no-torch mode across studio update on Windows Guarding the direct torch/Triton install made `install.ps1 --no-torch` actually produce a torch-free venv, which then broke the next `unsloth studio update`. That path exports no UNSLOTH_NO_TORCH, so $NoTorchMode was false, the stale-venv check read the missing torch as a broken venv, and setup tried to delete the venv it was running out of: [ERROR] Could not remove stale venv: Access to the path 'python.exe' is denied. That teardown can never succeed there, because setup.ps1 runs via unsloth.exe out of that same venv. The same gap also let the shared dependency pass reinstall torch from PyPI, unpinned, into a GGUF-only environment. install_python_stack.py now records the mode in the install manifest and setup.ps1 reads it back when no env var is exported, then re-exports a canonical value for the dependency pass (setup.ps1 drops the manifest before invoking it, so the child cannot repeat the lookup). The key is additive and MANIFEST_SCHEMA is unchanged, so existing manifests stay valid and a missing key keeps today's behaviour. Also: - read_manifest() caught only OSError, but UnicodeDecodeError is a ValueError. That is now on the installer's import path, so a manifest re-saved as ANSI or truncated mid-write would abort every install. - The env predicate now trims surrounding whitespace, matching the Python side. - The Windows update smoke workflow asserts the update leaves the venv GGUF-only, which is what would have caught this. Known follow-up, pre-existing: an install killed between the manifest drop and the dependency pass leaves no recorded mode, so a later update still walks the stale-venv path. Closing that needs a marker the installer never drops. * Persist no-torch mode in a marker the dependency pass cannot drop The install manifest alone was not enough. Both setup.ps1 and install_python_stack.py remove it before every dependency pass, and it is only rewritten on success, so a no-torch install interrupted in between left nothing recording the mode. The next update then resolved no-torch as false, read the expected missing torch as a stale venv, and tried to delete the environment whose python.exe was running it, which leaves the install unrepairable from the CLI. Add .unsloth-no-torch next to the existing .unsloth-studio-owned marker, written before the pass and cleared when torch is wanted. setup.ps1 writes it as soon as the mode resolves, so the window between the manifest drop and its own torch install is covered too. Read order stays manifest key first, then marker, so migrating out of no-torch is never blocked by a marker an earlier run left behind. Neither present still reads as "install torch", so nothing changes for installs made before either existed. Also adds the AGPL-3.0 header the new test file was missing. --------- Co-authored-by: pre-commit-ci[bot] <66853113+pre-commit-ci[bot]@users.noreply.github.com> Co-authored-by: danielhanchen <unslothai@gmail.com> |
||
|
|
1781770bee
|
Studio: detect an interrupted dependency install instead of launching a backend that cannot import (#7492)
Some checks are pending
Unsloth GGUF CI / JSON, images (push) Waiting to run
Mac Studio UI CI / Chat UI Tests (push) Waiting to run
Unsloth Update CI / Unsloth Updating Tests (push) Waiting to run
Windows Unsloth API CI / Unsloth API & Auth Tests (push) Waiting to run
Windows Unsloth GGUF CI / OpenAI, Anthropic API tests (push) Waiting to run
Windows Unsloth GGUF CI / Tool calling Tests (push) Waiting to run
Windows Unsloth GGUF CI / JSON, images (push) Waiting to run
Windows Unsloth GGUF CI / Unsloth install + inference without Visual Studio (push) Waiting to run
Windows Unsloth GGUF CI / GPU prebuilt resolves without Visual Studio (push) Waiting to run
Unsloth GGUF CI / Tool calling Tests (push) Waiting to run
Mac Studio API CI / Unsloth API & Auth Tests (push) Waiting to run
Mac Studio GGUF CI / OpenAI, Anthropic API tests (push) Waiting to run
Mac Studio GGUF CI / Tool calling Tests (push) Waiting to run
Mac Studio GGUF CI / JSON, images (push) Waiting to run
Mac Studio Install Matrix CI / Install + load (macos-14) (push) Waiting to run
Mac Studio Install Matrix CI / Install + load (macos-15) (push) Waiting to run
Mac Studio Install Matrix CI / Install + load (macos-26) (push) Waiting to run
Mac Studio Install Matrix CI / Install + load (macos-15-intel) (push) Waiting to run
Mac Studio Install Matrix CI / Install + load (macos-26-intel) (push) Waiting to run
Mac Studio Update CI / Unsloth Updating Tests (push) Waiting to run
Unsloth Tauri CI / Tauri Linux debug build (no codesign) (push) Waiting to run
Unsloth UI CI / Chat UI Tests (push) Waiting to run
Windows Unsloth GGUF CI / VC++ runtime detect + install round-trip (windows-latest) (push) Waiting to run
Windows Unsloth UI CI / Chat UI Tests (push) Waiting to run
Windows Unsloth Update CI / Unsloth Updating Tests (push) Waiting to run
Wheel CI / Wheel build + content sanity + import smoke (push) Waiting to run
Windows Unsloth GGUF CI / setup.ps1 unit tests (VS 2026 / CMake guard) (push) Waiting to run
Windows Unsloth GGUF CI / real-VS detection (VS 2022) (push) Waiting to run
Windows Unsloth GGUF CI / real-VS detection (VS 2026) (push) Waiting to run
Windows Unsloth GGUF CI / VC++ runtime detect + install round-trip (windows-2025-vs2026) (push) Waiting to run
* Studio: detect an interrupted dependency install instead of launching a backend that cannot import An installer killed part-way leaves a venv with a working CLI but without studio.txt's dependencies. Nothing recorded that, so three separate places all reported it healthy: - the desktop preflight probed only `unsloth -h` (typer + rich) and a hardcoded desktop-capabilities dict, neither of which touches studio.backend, so it returned ManagedReady and spawned a backend that died on `import structlog`; - setup.sh's fast path compared the installed unsloth version against PyPI, which matches on a half-built venv because unsloth is installed early, so `unsloth studio update` printed "up to date" and repaired nothing; - start_managed_repair calls that update and then re-checks with the same blind probes, so Repair reported success without fixing anything. install_python_stack.py now clears a completion manifest before the dependency pass and writes it only after the final step. `unsloth studio verify-install` and desktop-capabilities' new studio_install_ok field read it, the preflight turns a false answer into ManagedStale so auto-repair runs, and setup.sh / setup.ps1 gain an escape hatch next to the existing anyio one. Separately, the wheel ships studio/ and studio.backend* but declared none of their dependencies, so `unsloth train`, `export`, `chat`, `inference` and `studio` all ended in a rich traceback after a plain pip install. structlog is the only hard module-level import that chain reaches once starlette's annotation-only import moves under TYPE_CHECKING, so it becomes a core dependency and the rest of the server stack becomes a [studio] extra mirroring studio.txt. The CLI import sites now report missing dependencies as a sentence with two remedies. Fixes #4701, #5260, #7147 * [pre-commit.ci] auto fixes from pre-commit.com hooks for more information, see https://pre-commit.ci * Match the trimmed comments merged on the pip branch * Put the install manifest in the preflight fingerprint for PR #7492 The capability cache keyed the venv on pyvenv.cfg, uv.lock, requirements.txt, the interpreter and site-packages/unsloth_cli/commands/studio.py, none of which a repair touches when it only reinstalls studio.txt. So an entry cached while the install was healthy stayed valid after the manifest was dropped, and the probe returned Ready on exactly the half-built venv this is meant to catch. * Address the review findings on PR #7492 Fail the install when the completion manifest cannot be written, instead of exiting 0 without the record every later check requires, which is a repair loop by construction. Compare the version of the package the manifest names, so `studio update --package X` does not read as a permanent version change. Read the manifest from the venv that owns it when the CLI runs outside the managed venv, and drop the dependency verdict in that case: the walk ran against the wrong interpreter and says nothing about that venv. Name the import that actually failed. `unsloth train` reaches torch through the same guard, and the studio extra does not carry it, so recommending that extra alone left the command failing in the same place. * Declare click, which typer stopped providing, for PR #7492 unsloth_cli/commands/start.py imports click at module scope and unsloth_cli/__init__.py imports that module, so every unsloth command needs it. typer carried click through 0.19 and dropped it in 0.27, and the declared floor is typer>=0.12.0, so a fresh resolve gets no click. On the published wheel it still arrives because huggingface_hub requires click<9,>=8.4.2, which is luck rather than a declaration. A wheel built from this branch's dependency list has neither, and every command dies at import. Verified: before, `unsloth --help` on a fresh venv raised ModuleNotFoundError for click; after, it exits 0. The drift test now covers it. * Keep a running backend from the previous app version manageable The manageability bump gated two unrelated things through one constant. For the managed CLI probe 2 is right: a CLI reporting 1 cannot answer studio_install_ok. For a RUNNING backend it is wrong, because a process already started cannot change what it reports, so bumping studio/backend/main.py in lockstep does not help one the previous app version spawned. That backend is proven ours by root id and ownership token, but lifecycle_control_block_reason returned Unmanageable, and that branch never calls adopt_verified_backend. has_owned_backend() stays false, so Repair falls into block_external_conflict, which finds the same process and refuses: the app could no longer stop a backend it owns the token for. The same regression in backend.rs turned a terminal-launched same-root server from AttachedReady into ExternalConflict. Split the constant: DESKTOP_BACKEND_MANAGEABILITY_VERSION = 1 for the two live-backend probes, DESKTOP_MANAGEABILITY_VERSION = 2 for the CLI probe. Every real gate (protocol, auth, ownership, desktop-login, MIN_DESKTOP_BACKEND_VERSION) is untouched, so an old backend still reaches OwnedStale, adopt, stop, repair. Also stop the installer when the stale manifest cannot be removed. Windows raises on a read-only or locked file, and the pass would then run behind a marker that still names this version and these digests, so a run killed part-way would verify as complete. * Answer for the managed venv, not the one the CLI happens to run in The guard matched ModuleNotFoundError.name, an import name, against missing_requirements(), which returns distribution names. So a missing PyJWT printed 'pip install jwt', and jwt, docx and fitz are each a real but unrelated PyPI project (fitz is a neuroimaging workflow tool), so following the advice installed the wrong package and left the backend just as broken. Map the import to its distribution before deciding, and never offer the import itself. install_state() verified the caller's own prefix. The wheel ships studio/, so a CLI installed outside the managed venv always finds its own copy of the helper first, and a healthy managed install reported studio_install_incomplete with a missing list copied from the wrong venv. Selecting the root is not enough: _installed_version() reads the running interpreter and req_root defaults to the caller's studio.txt, so both checks still answered for the wrong venv. Hand verify_install() that venv's own metadata, enumerated through Distribution.discover(context = ...path), which does not fall back to sys.path. The candidate order is untouched, so shadowed-tree detection is unchanged. setup.ps1 replaces pip, torch and triton before install_python_stack.py runs, so the manifest it drops is not dropped before the first mutation. A run killed in between kept a marker that still verifies while torch was half-replaced; drop it at the top of the dependency pass instead. setup.sh is unaffected, the stack is the first thing its pass runs, and a test now pins both. pip uninstall rewrites nothing that was fingerprinted, and cache_matches re-reads the cached studio_install_ok rather than re-checking, so a venv that lost a studio.txt package kept being served the healthy verdict. Fold a sorted hash of the installed dist-info names into the marker hash. * [pre-commit.ci] auto fixes from pre-commit.com hooks for more information, see https://pre-commit.ci * A missing manifest helper is a torn install, not an old one studio/install_manifest.py ships in the same wheel as _studio_deps.py, so nothing legitimately has one without the other: a CLI predating both never reaches this code, and the desktop already calls such a CLI stale on desktop_manageability_version. Returning ok=true there reported a healthy install for a tree the package update had half replaced, and the preflight then launched a backend whose own run.py could be just as absent. Report it incomplete so repair runs. * Tighten comments across the install-detection changes * Validate Studio dependency readiness --------- Co-authored-by: pre-commit-ci[bot] <66853113+pre-commit-ci[bot]@users.noreply.github.com> Co-authored-by: Lee Jackson <130007945+Imagineer99@users.noreply.github.com> Co-authored-by: Wasim Yousef Said <wasimysdev@gmail.com> |
||
|
|
f03e669442
|
AMD: enable ROCm torch on gfx906 (MI50 / Radeon VII) on Linux (#7354)
* Add community-maintained legacy support path for gfx906 (MI50 / Radeon VII) rocm6.4+/7.x torch wheels bundle ROCm libraries whose Tensile kernels dropped gfx906 (rocBLAS 'TensileLibrary.dat ... not read for gfx906', ROCm/TheRock#1844), so on MI50/Vega 20 hosts with newer ROCm the installer picked wheels that fail at the first BLAS call. The rocm6.3 index is the last one whose wheels run on gfx906 (torch 2.7.0 verified on MI50 32GB, up to 2.9 in community use). Dynamo/Inductor codegen is also broken on this arch, crashing compiled graphs that train fine in eager mode. - install.sh: when the runtime GPU is gfx906 and the picked index is newer than rocm6.3, reroute torch to the rocm6.3 index and reset the constraint trio to the default <2.11 window (a rocm7.2 pick raises the floor to 2.11, which rocm6.3 cannot satisfy), with a legacy-path warning. - install_python_stack.py: mirror the reroute in _ensure_rocm_torch using the _default pkg specs, including repairing an existing +rocm7.x torch and leaving a working rocm6.3 install alone. - device_type.py: default TORCHDYNAMO_DISABLE / TORCH_COMPILE_DISABLE / UNSLOTH_COMPILE_DISABLE on gfx906 (setdefault, user override wins). Windows allowlists are untouched: repo.amd.com publishes no gfx906 wheel family (verified in the RDNA2 enablement PR). 16-bit LoRA and full finetuning work out of the box; 4-bit QLoRA needs a source-built bitsandbytes for gfx906. Based on the verified MI50 32GB setup in namnguyen0503/mi50-gfx906-unsloth-bnb4bit-lab. * [pre-commit.ci] auto fixes from pre-commit.com hooks for more information, see https://pre-commit.ci * gfx906: second Codex pass (bnb skip under pin, override beats Strix) - Compute the gfx906 runtime-target flag independently of any torch-index pin or Strix override, so the bitsandbytes skip still applies when a user pins the ROCm index and sets UNSLOTH_ROCM_GFX_ARCH=gfx906 (the pin suppresses the torch reroute, not the bnb skip). Probe only when no pin is set (an explicit pin means don't second-guess it, matching the Strix path's asserted no-probe invariant); an explicit gfx906 override needs no probe. - Let UNSLOTH_ROCM_GFX_ARCH=gfx906 suppress the Strix reroute (both install.sh and install_python_stack.py) so a mixed Strix + MI50 host routes to rocm6.3 instead of the gfx1151 wheels probe order would pick. - Fix test_hardcoded_torch_constraint: the default <2.11 window literal now legitimately appears on two TORCH_CONSTRAINT= assignments (default + the gfx906 reroute reset after the rocm7.2 floor bump); assert it only ever appears on assignment lines, never on a pip install line (its real intent). New tests: bnb skipped under an explicit pin, gfx906 override wins over Strix, install.sh suppresses Strix on the override. rocm_support + selection + cross-platform parity: 667 passed; structural constraint 9/9. * gfx906: collapse single-line asserts to match pre-commit formatting * [pre-commit.ci] auto fixes from pre-commit.com hooks for more information, see https://pre-commit.ci * gfx906: keep bnb skip + rocm6.3 routing correct under pins and suffixed overrides Address the four Codex P2 findings on #7354: - bnb skip under a pinned index (install.sh + install_python_stack.py): a real gfx906 host that pins UNSLOTH_TORCH_INDEX_URL to rocm6.3 without also setting UNSLOTH_ROCM_GFX_ARCH no longer reinstalls the generic bitsandbytes wheel over a source-built gfx906 bnb. A pin now suppresses only the torch reroute, not the gfx906 detection used for the bnb skip (Python drops the pin gate on _runtime_is_gfx906; bash _is_gfx906_bnb_skip probes via _probe_amd_gfx_arch when the index is pinned). - clear the Radeon marketing-name flag for every gfx906 target, not only when the >=6.4 reroute fires, so a Radeon VII already on rocm6.3 does not divert to the repo.radeon.com branch (whose wheels lack gfx906 kernels). - normalize a copied HIP gcnArchName (gfx906:sramecc-:xnack- -> gfx906) before the exact comparisons in install.sh and install_python_stack.py, mirroring device_type.py. Tests: relax the three Strix-pin tests (the gfx probe may now run for the bnb flag but must not reroute the pinned index) and add coverage for the pinned bnb skip, the suffixed override, and the bash Radeon-clear / pinned-probe paths. * [pre-commit.ci] auto fixes from pre-commit.com hooks for more information, see https://pre-commit.ci * gfx906: log skipped vLLM aimv2 fix + robust source-scan test bounds Follow-up review polish: - import_fixes: log at info level when the vLLM aimv2 fix is skipped because the dist metadata is unreadable, so the skip is diagnosable instead of silent. - test_rocm_support: bound the gfx906 install.sh source-scan on the ';;' that closes its case arm via a shared _gfx906_reroute_block helper, replacing the brittle fixed-length (3200/3800) slices that shift when the block grows. * gfx906: trim whitespace on UNSLOTH_ROCM_GFX_ARCH in install.sh (py parity) The bash gfx906 comparisons lowercased and stripped the gfx906:… feature suffix but not surrounding whitespace, while the Python paths do .strip(). A stray newline (e.g. export UNSLOTH_ROCM_GFX_ARCH=$(cmd)) would make bash miss gfx906 while Python catches it. Trim with `tr -d '[:space:]'` at both comparison sites so the reroute target and bnb-skip agree across bash/Python. * gfx906: remove generic bitsandbytes pulled in transitively after the skip --------- Co-authored-by: pre-commit-ci[bot] <66853113+pre-commit-ci[bot]@users.noreply.github.com> Co-authored-by: danielhanchen <unslothai@gmail.com> Co-authored-by: Daniel Han <danielhanchen@gmail.com> |
||
|
|
1daaa5cbb4
|
Let a decode failure degrade instead of escaping a fail-closed helper (#7487)
* Let a decode failure degrade instead of escaping a fail-closed helper Pinning utf-8 makes a read that used to return mojibake on Windows raise instead. 33 of those reads sit under a handler catching OSError or json.JSONDecodeError but not UnicodeDecodeError, which subclasses ValueError, so a corrupt file would now escape a helper written to return a default. Adds UnicodeDecodeError to those tuples only. * Treat an undecodable install lock as stale instead of retrying forever |
||
|
|
3fd948eb95
|
Pin utf-8 on shipping-code text I/O instead of the operator locale (#7486)
* Pin utf-8 on shipping-code text I/O instead of the operator locale 113 read_text/write_text/open call sites across unsloth, studio and unsloth_cli let locale.getencoding() decide the encoding. That is utf-8 on the Linux and macOS runners and cp1252 on a stock Windows install, so the same file decodes differently for a Windows user and silently produces mojibake or raises UnicodeDecodeError. Adds tests/test_runtime_text_encoding.py to keep it that way. It resolves openers through each file's own imports rather than a fixed list of module names, so an aliased tarfile.open or a local from PIL.Image import open is not asked for an encoding it does not take. * [pre-commit.ci] auto fixes from pre-commit.com hooks for more information, see https://pre-commit.ci * Scan tracked files only and resolve the unbound Path calling forms * Honour PEP 263 when scanning sources and migrate a legacy JSONL before appending * Scope guard imports lexically and only migrate a legacy file when it round-trips * Leave a legacy JSONL untouched and resolve path aliases in the foreign-opener check * Tighten comments --------- Co-authored-by: pre-commit-ci[bot] <66853113+pre-commit-ci[bot]@users.noreply.github.com> |
||
|
|
3ea6d14c39
|
AMD: CI coverage for recent fixes, plus three wrong gfx ids (#7431)
* ROCm/AMD CI coverage: arch-table parity, native-Linux lib prepend, RDNA4 grouped_mm, discovery-based shell suite
Three merged ROCm fixes shipped without tests, and the CI wiring that
would have run them was gated on files the fixes do not touch.
Tests added (113):
tests/studio/install/test_rocm_arch_table_parity.py (27)
diffs the four duplicated gfx -> AMD pip-index tables across
install.sh, install.ps1, studio/setup.ps1 and install_python_stack.py,
plus the GPU-name -> arch tables and the torch 2.11 pin allowlist.
tests/studio/install/test_rocm_native_linux_lib_dirs.py (26)
covers #7233: system-ROCm lib dirs prepended ahead of bundled
libggml-hip, the /dev/kfd + not-WSL + libhsa gate, the opt-out env
var, root resolution order, and source parity between the two copies.
studio/backend/tests/test_grouped_mm_rdna4_fallback.py (46)
covers #7292: registration on the CUDA dispatch key, grouped and
ungrouped numerics, bias/dtype promotion, and the Linux HIP<7.13 +
RDNA4 name gate, executed from the shipped source rather than a copy.
tests/studio/test_ci_shell_suite_coverage.py (14)
fails if either shell runner goes back to a hardcoded list or skips
a file without a recorded reason.
CI wiring:
studio-backend-ci.yml: add install.sh / install.ps1 to the path filter
(the suites it runs assert against those two files, so install-only
changes -- the shape most AMD/ROCm routing fixes take -- skipped it),
and replace the 13-file hardcoded shell list with directory
discovery. That list had fallen seven files behind, including
test_strixhalo_wsl_reroute.sh, the only shell coverage of the ROCm
WSL reroute, which had never run on a PR.
tests/run_all.sh: same discovery loop so local and CI agree.
* Test review fixes: assert on outcomes, not on the code under test
Self-review of the previous commit found four tests that passed for the
wrong reason.
1. The arch-table parity test pinned expected gfx ids copied out of the
shipped tables, which enshrined three upstream inaccuracies as
correct: RX 9070 (non-XT) is gfx1201 not gfx1200, RX 7800 XT is
gfx1101 not gfx1100, and PRO V710 is gfx1101 not gfx1102 per AMD's
ROCm compatibility matrix. The expectation is now the AMD pip index
leaf -- the thing the tables exist to produce, and what a wrong
answer costs the user. The three known drifts are listed explicitly
with a test asserting they stay cosmetic, i.e. that the wrong and
right ids still map to the same wheel index. That test turns red the
day one of them starts routing users to the wrong wheel.
2. The RDNA4 device-name test extracted the regex from worker.py and
then matched with it, so it could not fail. Widening the pattern --
the dangerous edit, since it forces the slow Python mm fallback onto
RDNA3 users -- would have been silently accepted. It now reads the
live pattern and checks it against fixed cases, plus asserts the
name match stays guarded by `not _lin_arch` and that the name is
lowercased before matching.
3. The CI-coverage test matched a verbatim line of studio-backend-ci.yml,
so reindenting the step would fail the build while a real regression
to a hardcoded list could slip past a reformat. It now parses the
YAML, finds the step by name, and asserts on the glob plus the
absence of individual filenames. The path-filter test likewise reads
the parsed trigger instead of scanning raw text.
4. A set comprehension in the parity helper had a ternary whose branches
were identical.
Mutation-tested: widening the RDNA4 regex, desyncing one copy of the
name table, dropping install.sh from the path filter, and re-skipping
the ROCm WSL shell suite each fail at least two tests. Verified on
Linux (WSL Ubuntu 24.04) with CI's torch pin: 86 + 48 pass.
* Fix three wrong gfx ids in the GPU-name arch tables
The name -> gfx tables disagreed with AMD's ROCm compatibility matrix on
three entries. Corrected against the "Radeon GPU" list at
rocm.docs.amd.com/en/latest/compatibility/compatibility-matrix.html:
RX 9070, RX 9070 GRE gfx1200 -> gfx1201 (Navi 48, same die as the XT)
RX 7800 XT, RX 7700 XT gfx1100 -> gfx1101 (Navi 32, not Navi 31)
PRO W7700 gfx1100 -> gfx1101
PRO V710 gfx1102 -> gfx1101 (Navi 32, not Navi 33)
No wheel changes for anyone: gfx1200/gfx1201 both resolve to gfx120X-all
and gfx1100/gfx1101/gfx1102 all resolve to gfx110X-all, in all four copies
of the index-family map. That collapse is why the errors survived being
copied into six places -- the leaf-level tests could not see them.
It was not purely cosmetic, though. install.sh's second copy feeds
"Tip: set UNSLOTH_ROCM_GFX_ARCH=<arch>", so a 7800 XT user following the
printed advice exported gfx1100 and made a wrong id authoritative for
every later run. It would also have become a real misroute the moment AMD
split a family across index leaves, as they already do for gfx1151/gfx1150.
Fixed in all six places, which is two more than the table's own "kept in
sync with" comments claim exist:
install.sh _infer_amd_gfx_arch_from_gpu_name
install.sh case "$_gpu_disp_mkt" (banner + env tip; undocumented)
studio/setup.sh
install.ps1
studio/setup.ps1
studio/install_python_stack.py
Ordering is preserved: the gfx1102 arm still precedes gfx1101 in the shell
copies so "RX 7700S" cannot fall onto the "RX 7700" glob, and the
PowerShell copies keep the (?!S) lookahead.
Test changes:
- test_rocm_arch_table_parity.py gains _AMD_DOCUMENTED_ARCH, exact gfx
ids transcribed from AMD rather than from the tables. Agreement between
six copies proves nothing when all six were transcribed from the same
mistake, so the ground truth has to come from outside. Verified it
catches the bug: against the pre-fix tables it fails 6 tests.
- The parity check now covers all six copies. It had four; the two
install.sh copies were being treated as one, and
_WIN_GPU_NAME_ARCH_TABLE was not checked at all.
- test_rocm_support.py's TestGfxArchNameFallback pinned two of the wrong
ids as expected values; updated, and extended with a 9060 XT and a
7900 XTX case so each RDNA3/4 die is represented.
* [pre-commit.ci] auto fixes from pre-commit.com hooks
for more information, see https://pre-commit.ci
* Guard against unregistered copies of the GPU-name arch table
Counting the copies by hand is what let them drift: the in-code "kept in
sync with" comments claimed four, the arch-id fix found six, and scanning
the tree turns up a seventh.
TestNoUnregisteredArchTable rediscovers the copies from the source tree
instead of trusting a hand-maintained list. A table line is one that names
a card and gives its arch; real tables score 9-17 such lines and the only
other hits in the repo are two single-line prose comments, so the
three-line threshold is not load-bearing. A companion test asserts the
scan still finds the known copies, so the heuristic cannot go blind and
pass by finding nothing.
The seventh copy is tests/_zoo_rocm_spoof.py, the fixture other ROCm tests
build their fake AMD host from. It states the mapping backwards (gfx ->
the name torch should report), which makes it an independent witness: it
had gfx1101 -> RX 7800 XT and gfx1201 -> RX 9070 XT right while all six
installer copies were wrong, and nothing compared the two. Now they are
round-tripped against each other.
RX 6700 XT is pinned as a known divergence rather than normalised. AMD's
compatibility matrix documents no consumer RX 6000 card and no gfx1031 at
all, the installer arm is commented "gfx103X family", and gfx1031 appears
only as an index-family key, never as a value a name table emits. With no
external source to correct against, changing shipped behaviour would be
guesswork. A test fails if the divergence ever disappears, so the
exemption cannot go stale.
Also adds the reverse of the AMD-matrix check: a documented card that
matches no arm anywhere is a silent CPU fallback rather than a wrong id.
This cannot detect hardware nobody transcribed, which would need a live
fetch of AMD's matrix and a non-hermetic suite; the docstring says so
rather than implying coverage that is not there.
Verified on Linux: 478 passed, plus all five new guards mutation-tested
to confirm each fails when its invariant is broken.
* [pre-commit.ci] auto fixes from pre-commit.com hooks
for more information, see https://pre-commit.ci
* Docstring said six copies; the list under it now has seven
* tests: run discovered shell tests with bash, not sh
tests/run_all.sh discovered tests/sh/ instead of listing files, but still
invoked each one with sh. Every file there declares a bash shebang, and on
Debian/Ubuntu /bin/sh is dash: test_apt_distro_prompt.sh,
test_studio_home_node_dir.sh and test_with_llama_cpp_dir_link_behavior.sh
fail on bashisms under dash and pass under bash. The old hand-written list
happened to name only dash-clean files, so switching to discovery is what
surfaced it. Backend CI already used bash, so this was a local-only break.
Guarded by a new test asserting both runners invoke tests/sh/ with bash.
* [pre-commit.ci] auto fixes from pre-commit.com hooks
for more information, see https://pre-commit.ci
* Fix Krackan Point (Radeon 860M/840M) routed to the gfx1150 wheel index
The GPU-name tables map 860M/840M and the Ryzen AI 7 350 / AI 5 340 CPU
strings to gfx1150, but Krackan Point is gfx1152. AMD's own lemonade table
(src/cpp/server/system_info.cpp) maps both Krackan iGPUs to gfx1152.
Unlike the three ids already fixed here, this one is not wheel-neutral:
repo.amd.com publishes gfx1150 and gfx1152 as separate index leaves with
separately built torch wheels, so these laptops were installing wheels
built for a different LLVM target. gfx1152 was absent from the codebase
entirely, so it needed the index-family maps, the torch 2.11 floor lists
(same _grouped_mm bug as gfx1150/1151), the Strix reroute set and the
Windows arch allowlist as well as the seven name tables.
The parity test added in this PR did not catch it because its AMD-matrix
expectations stopped at 890M/880M. Added the APU rows, so the case that
actually changes a wheel is now covered: reverting the tables fails 9
tests naming 860M, 840M and Krackan.
gfx1153 (Ryzen AI 5 430 era) is left alone; AMD publishes no gfx1153
wheel family, so there is nothing to route it to.
Verified: bash -n on both shell installers, PowerShell AST parse on both
.ps1 files, python ast.parse on all touched modules, install suite 1334
passed with no new failures against main, shell suite 20 files.
* [pre-commit.ci] auto fixes from pre-commit.com hooks
for more information, see https://pre-commit.ci
* Add gfx1152 to unified-memory classifiers, make parity allowlist set-based
Krackan Point (gfx1152, Radeon 860M/840M) is the third RDNA 3.5 APU and
shares one GPU/system-RAM pool exactly like Strix Point (gfx1150) and
Strix Halo (gfx1151), but only the installers knew about it. The two
runtime classifiers still had two-element arch sets, so a Krackan laptop
got the 0.90 discrete headroom factor on a shared pool and ran llama.cpp
without GGML_CUDA_ENABLE_UNIFIED_MEMORY.
- worker.py _rocm_classify_unified_memory: add gfx1152 to the arch set,
and 860m/840m to the device-name fallback. The NVIDIA GeForce 840M
cannot collide there: the function is only reached under _hw.IS_ROCM.
- llama_cpp.py _amd_apu_wants_unified_memory: add gfx1152 to the arch set.
- Tests for both, including the :sramecc-:xnack- suffix form.
TestGfx211AllowlistParity compared four hardcoded allowlist strings, so
adding gfx1152 to all four installers correctly turned three assertions
red without any installer actually disagreeing with another. Each test
now extracts the set its installer holds and compares it to one EXPECTED
constant. Order and spacing are free, membership is not, and the next
leaf is a one-line edit instead of four.
* [pre-commit.ci] auto fixes from pre-commit.com hooks
for more information, see https://pre-commit.ci
---------
Co-authored-by: pre-commit-ci[bot] <66853113+pre-commit-ci[bot]@users.noreply.github.com>
Co-authored-by: Daniel Han <danielhanchen@gmail.com>
|
||
|
|
978ae4745b
|
fix(install): infer Strix gfx when ROCm runtime is absent (#7305)
* fix(install): infer Strix gfx when ROCm runtime is absent When /dev/kfd and rocminfo are missing on Linux (e.g. Arch/CachyOS Strix Halo), route to AMD per-arch wheels via cpuinfo/lspci inference instead of CPU-only PyTorch. Mirrors install.ps1 Windows behavior and fixes studio update via install_python_stack.py (unslothai#7301). * Map Radeon 8065S to gfx1151 in the Linux gfx inference (Codex P2) install.sh _infer_amd_gfx_arch_from_gpu_name missed 8065S, so a Strix Halo host that only exposes 'AMD Radeon 8065S' via lspci (no Ryzen AI Max branding in /proc/cpuinfo) was left on CPU torch. setup.sh and setup.ps1 already list 8065S -> gfx1151. Added it, and widened the cpuinfo regexes (install.sh and install_python_stack.py) from Radeon 80[0-9]0S to 80[0-9][05]S to match the 80X5S naming, consistent with the display-side check already in install.sh. Tests cover the 8065S name and the cpuinfo-only case. * [pre-commit.ci] auto fixes from pre-commit.com hooks for more information, see https://pre-commit.ci * Gate the Linux gfx inference out of WSL without the ROCDXG runtime for PR #7305 On WSL /proc/cpuinfo and lspci still see the host APU, so a standalone 'unsloth studio update' could infer gfx1151 and install per-arch ROCm wheels into a WSL env whose ROCDXG bridge (librocdxg) was never bootstrapped, i.e. one that cannot expose the GPU. Skip the cpuinfo/lspci inference on WSL unless librocdxg is present; an explicit UNSLOTH_ROCM_GFX_ARCH override still wins. * [pre-commit.ci] auto fixes from pre-commit.com hooks for more information, see https://pre-commit.ci * Address Codex review on PR #7305 (WSL runtime gate, Linux mirror, arch guard) - install.sh _infer_linux_amd_gfx_arch: skip the cpuinfo/lspci inference on WSL unless librocdxg is present (the ROCDXG bridge), mirroring the Python fix, so a WSL box whose ROCm bootstrap was skipped keeps the CPU fallback instead of installing AMD wheels that cannot reach the GPU. The explicit UNSLOTH_ROCM_GFX_ARCH override still returns first, so it stays authoritative. - install.sh: guard the inferred-gfx reroute on x86_64|amd64. ROCm torch wheels are not published for arm64, so an inferred/overridden gfx no longer pushes an arm64 host to the AMD arch index (get_torch_index_url returns CPU there). - install_python_stack.py _amd_arch_index_url: honour UNSLOTH_AMD_ROCM_MIRROR on Linux (the same var install.sh uses) instead of the Windows mirror var, so a mirrored/air-gapped Linux 'unsloth studio update' reaches the index install.sh chose. Windows still delegates unchanged; both default to repo.amd.com. * [pre-commit.ci] auto fixes from pre-commit.com hooks for more information, see https://pre-commit.ci * Scan all AMD display controllers in the lspci fallback for PR #7305 (Codex P2) * [pre-commit.ci] auto fixes from pre-commit.com hooks for more information, see https://pre-commit.ci * fix(studio): keep inferred AMD wheels from being overwritten After a successful inferred-gfx install, skip the generic pytorch.org ROCm reinstall so readable ROCm userland without /dev/kfd cannot undo the per-arch repair (Codex P1 on #7305). Also merge latest main. * Only take the inferred-gfx install when the runtime sees no GPU for PR #7305 (Codex P1) * [pre-commit.ci] auto fixes from pre-commit.com hooks for more information, see https://pre-commit.ci * Isolate three updater tests from the host cpuinfo for PR #7305 (Strix dev box leak) * Gate the reroute on invisible ROCm and forward the inferred gfx to setup.sh for PR #7305 (Codex P2s) * [pre-commit.ci] auto fixes from pre-commit.com hooks for more information, see https://pre-commit.ci * Require AMD PCI display evidence for cpuinfo inference; honor gfx override with visible ROCm for PR #7305 (Codex P2s) --------- Co-authored-by: Daniel Han <danielhanchen@gmail.com> Co-authored-by: pre-commit-ci[bot] <66853113+pre-commit-ci[bot]@users.noreply.github.com> Co-authored-by: LeoBorcherding <borchborchmail@gmail.com> |
||
|
|
84b762228c
|
fix(install): route Strix to AMD gfx index on ROCm 7.14 (#7300)
* fix(install): route Strix to AMD gfx index on ROCm 7.14 When ROCm 7.3+ caps to the generic pytorch.org rocm7.2 index (or the Radeon repo is unavailable), gfx1150/gfx1151 hosts were left on torch 2.11+rocm7.2 instead of AMD's arch-specific wheels. Broaden the Strix reroute in install.sh and studio/install_python_stack.py so `studio update` repairs the same path as fresh installs (unslothai#7280). * [pre-commit.ci] auto fixes from pre-commit.com hooks for more information, see https://pre-commit.ci --------- Co-authored-by: pre-commit-ci[bot] <66853113+pre-commit-ci[bot]@users.noreply.github.com> Co-authored-by: Daniel Han <danielhanchen@gmail.com> |
||
|
|
2c492c8d9b
|
Recognize Radeon 8065S (Gorgon Halo / Ryzen AI Max 400) as gfx1151 (#7290)
* Recognize Radeon 8065S (Gorgon Halo / Ryzen AI Max 400) as gfx1151 * Classify Radeon 8065S (Gorgon Halo) as unified memory in ROCm OOM guard * [pre-commit.ci] auto fixes from pre-commit.com hooks for more information, see https://pre-commit.ci --------- Co-authored-by: pre-commit-ci[bot] <66853113+pre-commit-ci[bot]@users.noreply.github.com> |
||
|
|
35f887d795
|
Installer: enable ROCm torch on RDNA2 (gfx1030-1036) on Windows (#7277)
Some checks failed
Mac Studio GGUF CI / Tool calling Tests (push) Waiting to run
Mac Studio GGUF CI / JSON, images (push) Waiting to run
Mac Studio Install Matrix CI / Install + load (macos-14) (push) Waiting to run
Mac Studio Install Matrix CI / Install + load (macos-15) (push) Waiting to run
Mac Studio Install Matrix CI / Install + load (macos-26) (push) Waiting to run
Mac Studio Install Matrix CI / Install + load (macos-15-intel) (push) Waiting to run
Mac Studio Install Matrix CI / Install + load (macos-26-intel) (push) Waiting to run
Mac Studio UI CI / Chat UI Tests (push) Waiting to run
Mac Studio Update CI / Unsloth Updating Tests (push) Waiting to run
Unsloth Tauri CI / Tauri Linux debug build (no codesign) (push) Waiting to run
Unsloth UI CI / Chat UI Tests (push) Waiting to run
Unsloth Update CI / Unsloth Updating Tests (push) Waiting to run
Windows Unsloth API CI / Unsloth API & Auth Tests (push) Waiting to run
Windows Unsloth GGUF CI / OpenAI, Anthropic API tests (push) Waiting to run
Windows Unsloth GGUF CI / Tool calling Tests (push) Waiting to run
Windows Unsloth GGUF CI / JSON, images (push) Waiting to run
Windows Unsloth GGUF CI / Unsloth install + inference without Visual Studio (push) Waiting to run
Windows Unsloth GGUF CI / GPU prebuilt resolves without Visual Studio (push) Waiting to run
Windows Unsloth GGUF CI / setup.ps1 unit tests (VS 2026 / CMake guard) (push) Waiting to run
Windows Unsloth GGUF CI / real-VS detection (VS 2022) (push) Waiting to run
Windows Unsloth GGUF CI / real-VS detection (VS 2026) (push) Waiting to run
Windows Unsloth GGUF CI / VC++ runtime detect + install round-trip (windows-2025-vs2026) (push) Waiting to run
Windows Unsloth GGUF CI / VC++ runtime detect + install round-trip (windows-latest) (push) Waiting to run
Windows Unsloth UI CI / Chat UI Tests (push) Waiting to run
Windows Unsloth Update CI / Unsloth Updating Tests (push) Waiting to run
Wheel CI / Wheel build + content sanity + import smoke (push) Waiting to run
Unsloth export capability / capability (ubuntu-latest) (push) Has been cancelled
Lockfile supply-chain audit / lockfile supply-chain audit (push) Has been cancelled
Unsloth export capability / capability (windows-latest) (push) Has been cancelled
Unsloth export capability / capability (macos-latest) (push) Has been cancelled
* Installer: enable ROCm torch on RDNA2 (gfx1030-1036) on Windows repo.amd.com publishes a gfx103X-all wheel family with win_amd64 torch 2.9.1/2.10.0/2.11.0+rocm7.13.0 (cp310-313), but both Windows allowlists omitted RDNA2, so RX 6000 cards (gfx1030/1032, etc.) fell back to CPU-only torch. Map gfx1030-1036 to gfx103X-all in install.ps1 ($archFamilyMap) and install_python_stack.py (_GFX_TO_AMD_INDEX_ARCH). No torch floor (mirrors gfx110X-all: newest wheel, no _grouped_mm bug on RDNA2). NVIDIA/Mac/CPU and Linux paths untouched; gfx906 stays CPU (no wheels published). * Sync studio/setup.ps1 RDNA2 (gfx1030-1036) allowlists for PR #7277 |
||
|
|
3ab8dce97a
|
install: let UNSLOTH_TORCH_INDEX_FAMILY / _URL override CUDA wheel detection (#6692)
* install: let UNSLOTH_TORCH_INDEX_FAMILY / _URL override CUDA wheel detection
get_torch_index_url (and the studio-update mirror _detect_cuda_torch_index_url)
chose the torch wheel family solely by probing the host GPU, with no override.
In a headless / container / CI build the host driver is visible via the
/proc/driver/nvidia/gpus fallback but nvidia-smi cannot report a CUDA version,
so the function fell back to its cu126 default and installed the wrong wheels
(e.g. a cu128 image got cu126 torch).
Add an explicit override checked before any probing, in both the shell installer
and the Python studio-update path:
- UNSLOTH_TORCH_INDEX_URL full index URL, used verbatim (wins)
- UNSLOTH_TORCH_INDEX_FAMILY family (cpu, cu128, rocm6.4, ...) appended to the
mirror base (UNSLOTH_PYTORCH_MIRROR still honoured)
This matches how the published GPU images select CUDA -- vLLM and SGLang take the
CUDA version from an explicit build ARG rather than detecting it, and the Unsloth
Docker base image already pins the cu128 index directly. Desktop installs are
unchanged: with no override set, detection runs exactly as before.
Adds test_get_torch_index_url.sh cases for the override (family, full URL,
precedence, mirror base, trailing-slash strip, empty-ignored).
* install: make the torch-index override authoritative across ROCm paths
Address review feedback on the override added in this PR so a pinned index is
honoured everywhere, not just in get_torch_index_url:
- Skip the WSL ROCm bootstrap (root privilege + large downloads, probes
/dev/dxg) when UNSLOTH_TORCH_INDEX_URL / _FAMILY is set; it previously ran
before the override was consulted.
- Skip the Radeon/Strix rerouting (which re-probes the GPU and overwrites the
resolved URL with repo.radeon.com / repo.amd.com) when the index is pinned, so
an explicit ROCm override (e.g. UNSLOTH_TORCH_INDEX_FAMILY=rocm6.4) is kept.
- install_python_stack.py: derive _TORCH_BACKEND from the override when
UNSLOTH_TORCH_BACKEND is unset (standalone studio update), so _ensure_rocm_torch
/ _ensure_cuda_torch repair to the requested family instead of re-detecting.
- Strip ALL leading/trailing slashes in the shell override to match the Python
side (avoids 404s on strict pip proxies).
Adds test cases for double-slash and leading/trailing-slash overrides.
* install: honor pinned torch index in CUDA/ROCm repair paths
Follow-up to the override work in this PR: the get_torch_index_url / install.sh
reroute already respect a pinned UNSLOTH_TORCH_INDEX_URL / _FAMILY, but the
Python repair helpers in install_python_stack.py still re-probed the GPU and
could overwrite the pinned family. Make the pin authoritative there too:
- _ensure_cuda_torch: an explicit cu* pin commits to CUDA wheels, so repair a
ROCm-poisoned venv even when no NVIDIA GPU is visible here (headless /
container / CI cross-install), instead of bailing on the GPU-presence gate.
- _ensure_rocm_torch: skip the AMD per-gfx (Strix) reroute when a ROCm index is
pinned, and in the generic reinstall path install from the pinned URL verbatim
rather than re-detecting the host ROCm version. gfx*/rocm7.2 indexes serve
torch 2.11+, so select the 2.11 package specs for a gfx leaf.
- install.sh: raise the torch constraint to 2.11 for */gfx* indexes too, matching
rocm7.2, so a pinned full-URL/family override that returns early keeps a valid
constraint.
Add _explicit_torch_index_url / _explicit_rocm_torch_index_url helpers and tests
covering the no-GPU CUDA pin repair and the explicit gfx index honored verbatim.
* [pre-commit.ci] auto fixes from pre-commit.com hooks
for more information, see https://pre-commit.ci
* install: honor torch-index override on the Windows installers too
The pinned-index work landed for install.sh and install_python_stack.py, but the
Windows installers still picked the wheel index from GPU probing. Extend the same
UNSLOTH_TORCH_INDEX_URL / _FAMILY contract so a pinned index wins on every platform:
- install.ps1: Get-TorchIndexUrl returns the pinned URL/family before nvidia-smi
probing; the AMD ROCm reroute is skipped when the index is pinned, so an explicit
cpu/cu* pin on an AMD host is not overwritten.
- studio/setup.ps1: add shared Get-PinnedTorchIndexUrl / Get-TorchIndexLeaf helpers;
the stale-venv check, the install selection and the AMD reroute all honor the pin,
and the CPU/CUDA install pulls from the resolved index URL.
- tests: parity test that all four installers read both override vars and the two
Windows installers gate the AMD reroute on the pinned flag.
* [pre-commit.ci] auto fixes from pre-commit.com hooks
for more information, see https://pre-commit.ci
* install: complete pinned-index handling for ROCm/Windows edge cases
Follow-ups to the override work flagged in review:
- install.ps1: a pinned gfx*/rocm>=7.2 index previously skipped the AMD reroute
that sets the torch>=2.11 floor, so the generic install used torch>=2.4,<2.11
and could resolve the known-bad _grouped_mm wheel. Route a pinned ROCm index
through the ROCm install path with the 2.11 floor + companions, and guard the
companion-spec lookup so a skipped reroute block cannot null-deref.
- studio/setup.ps1: the stale-venv check compared the installed flavor (cuXXX/cpu,
with +rocm misread as cpu) against the raw pinned leaf (gfx1151 / rocm6.4), so a
correct pinned ROCm venv was always marked stale. Classify +rocm wheels as the
generic 'rocm' flavor and normalize a pinned rocm*/gfx* leaf to 'rocm' before
comparing (cu* stays specific so cu126-vs-cu128 still rebuilds).
- install_python_stack.py: _ensure_cuda_torch now also reinstalls from a pinned
CUDA index when the venv carries a CPU wheel (headless CPU-venv-to-CUDA
cross-install via 'studio update'), not only when it finds a ROCm build.
- tests: parity assertions already cover all four installers honoring the override.
* install: finish pinned ROCm/CUDA edge cases on Windows + repair path
Follow-ups to the previous round:
- studio/setup.ps1: a pinned gfx*/rocm>=7.2 index now routes through the ROCm
install path with the 2.11 floor + companions (it previously fell through to the
CUDA branch with bare torch/torchvision/torchaudio against the ROCm index). The
CPU/CUDA fallback index is forced to the CPU wheel index when a ROCm index is
active, so a failed pinned-ROCm install does not retry the ROCm mirror.
- studio/setup.ps1: the stale-venv check no longer treats an unrecognized pinned
URL leaf (e.g. a PEP 503 mirror ending in /simple) as a torch flavor tag, which
was marking a correct venv stale; cu*/cpu/rocm/gfx leaves are still compared.
- install.ps1: the post-failure CPU fallback uses an explicit CPU index instead of
, which for a pinned ROCm index was the ROCm mirror itself (so the
'fallback' just retried the failing index and aborted the installer).
- install_python_stack.py: _ensure_cuda_torch now also reinstalls when the venv's
CUDA family differs from a pinned one (installed cu126 vs pinned cu128), not only
CPU->CUDA; the probe reports the installed cuXXX tag for the comparison.
* install: keep the ROCm to CPU fallback install inside the retry-helper window
The pinned-ROCm CPU fallback computes an explicit CPU index, but the comment
explaining why it cannot reuse $TorchIndexUrl pushed the actual
Invoke-InstallCommandRetry / --force-reinstall call more than 600 chars past the
"ROCm PyTorch install failed" message, so test_pr5940_followups's window check
no longer saw the retry helper. Move the CPU-index computation and its comment
above the failure substep so the retrying force-reinstall stays adjacent to the
message. No behavior change: same explicit CPU index, same retry, same
--force-reinstall.
* install: address #6692 review round 5 (ROCm/CPU pin edge cases)
setup.ps1:
- Stale-venv check: treat an AMD/ROCm host (HasROCm or a resolved gfx arch) with
no explicit pin as expecting "rocm", not "cpu", so a healthy +rocm venv is not
flagged stale (which made installer-managed setup exit and direct update rebuild).
- Pinned-ROCm install failure now routes into the force-reinstall CPU branch:
CuTag stays the rocm/gfx leaf on failure, so the condition also checks
ROCmCpuFallback; otherwise the CUDA branch installed from the CPU index without
--force-reinstall and kept the partial ROCm torch.
- Explicit ROCm pin compare no longer collapses gfx*/rocm* to a generic "rocm":
it compares the +rocmX.Y version (and the torch 2.11 line for gfx pins) so
changing the pinned family (e.g. rocm6.4 -> gfx1151) rebuilds and applies it.
install_python_stack.py:
- _ensure_rocm_torch: an explicit ROCm wheel-index pin now bypasses the
NVIDIA-present / no-AMD-GPU / unreadable-ROCm gates (headless/container/CI
cross-install), mirroring the explicit-CUDA-pin bypass in _ensure_cuda_torch.
- Add _ensure_cpu_torch: an explicit CPU pin (FAMILY=cpu or /cpu URL) now has a
repair path that reinstalls CPU torch over an existing CUDA/ROCm build on a
standalone update (which skips install.sh's flavor enforcement).
install.sh:
- Pin torchvision/torchaudio companions alongside torch for the rocm7.2 / per-gfx
index and the Strix reroute (those AMD indexes publish companions independently
and a bare name can resolve a torch-2.12-built wheel, an ABI mismatch).
* [pre-commit.ci] auto fixes from pre-commit.com hooks
for more information, see https://pre-commit.ci
* torch-index override: classify CUDA pin by leaf; trim blank shell overrides
_ensure_cuda_torch only overrode the NVIDIA-presence gate for *any* pinned index,
so a non-CUDA mirror URL (or a ROCm/CPU pin) on a non-NVIDIA host with ROCm torch
could force a CUDA reinstall over a working ROCm venv. Add
_explicit_cuda_torch_index_url() (leaf cu*), matching the ROCm/CPU helpers, and
gate on it instead.
install.sh::get_torch_index_url treated a whitespace-only UNSLOTH_TORCH_INDEX_URL
/ _FAMILY as authoritative (yielding an invalid index), unlike the Python .strip()
and PowerShell IsNullOrWhiteSpace paths; trim leading/trailing whitespace first.
* install: honor pinned torch index over CVD/GPU gates and fix leaf-based ROCm classification
- install_python_stack.py: an explicit cu* pin now clears the CUDA_VISIBLE_DEVICES
empty/-1 hide gate as well as the NVIDIA-presence gate, so
CVD=-1 UNSLOTH_TORCH_INDEX_FAMILY=cu128 studio update repairs to CUDA wheels
(parity with install.sh's get_torch_index_url override, which skips all GPU
probing). Unpinned CVD=-1 still skips.
- install_python_stack.py: _ensure_cpu_torch installs the bounded _CPU_TORCH_PKG_SPEC
instead of a bare torch/torchvision/torchaudio trio; the /cpu index now also
serves torch 2.11+, which is outside the supported <2.11 range.
- install.sh: the torch>=2.11 constraint case matches the index leaf (rocm7.2|gfx*)
instead of the whole URL, so a mirror base path containing a gfx/rocm7.2 segment
with a cu*/cpu family is not false-matched onto the 2.11 line.
- setup.ps1: the stale-venv check expects rocm torch only for arches the install
path maps to a repo.amd.com wheel index; an unmapped/unreadable arch installs
CPU, so a correct CPU venv is no longer marked stale.
- Tests for each of the above.
* [pre-commit.ci] auto fixes from pre-commit.com hooks
for more information, see https://pre-commit.ci
* install: tighten pinned torch-index override edge cases
- install.sh: trim whitespace-only UNSLOTH_TORCH_INDEX_URL/_FAMILY before the
_torch_index_pinned guard, matching get_torch_index_url, so a blank override no
longer skips the WSL bootstrap and Radeon/Strix reroutes while detection still
picks the normal index.
- install.sh / install.ps1 / setup.ps1 / install_python_stack.py: force the torch
2.11 floor only for the gfx families with the <2.11 _grouped_mm bug (gfx120X-all,
gfx1151, gfx1150). A pinned override to gfx110X-all/gfx90a/gfx908 stays on the
default range, matching the automatic AMD path.
- install_python_stack.py _ensure_cuda_torch: treat an untagged CUDA build under a
CUDA pin as a family mismatch (reinstall), and match cuXXX pins narrowly (cu +
digits) so a custom/current mirror leaf no longer forces CUDA over a CPU/ROCm venv.
- install_python_stack.py _ensure_rocm_torch: reinstall when an explicit ROCm pin
names a different ROCm family than the already-installed ROCm torch (the ROCm
analogue of the CUDA cuXXX mismatch repair).
Adds tests for each case.
* [pre-commit.ci] auto fixes from pre-commit.com hooks
for more information, see https://pre-commit.ci
* install: fix second-order edge cases in pinned torch-index ROCm/CUDA handling
Parse the ROCm torch probe positionally so an empty HIP marker is kept:
CPU/CUDA torch no longer reads as HIP, so the ROCm reinstall is not skipped.
Emit one "<marker>|<version>" line (like the CUDA probe) for a robust parse.
Limit the gfx torch 2.11 expectation to the install allowlist
(gfx120X-all/gfx1151/gfx1150). A pinned gfx110X-all/gfx90a/gfx908 index stays
on the default <2.11 specs, so a correct 2.10+rocm wheel is no longer judged a
mismatch and force-reinstalled every update.
Distinguish an AMD per-arch wheel (three-part +rocmA.B.C) from a generic
pytorch.org wheel (two-part +rocmA.B): a gfx per-arch pin over a generic 2.11
wheel now reinstalls the per-arch wheel, while an already-installed per-arch
wheel is not re-flagged (no reinstall loop).
Mirror all of the above in setup.ps1 via new Test-RocmGfx211Leaf /
Test-CudaFamilyLeaf / Get-RocmPinStaleTags helpers, reused by both the
install-spec path and the stale-venv check so they cannot diverge again.
Require a digit after "cu" (^cu[0-9]) in setup.ps1, install.ps1 and install.sh
so a mirror leaf like /custom or /current is not branded CUDA and does not
rebuild the venv every run.
Add tests: CPU/CUDA probe -> has_hip_torch False; gfx110X-all pin + 2.10 wheel
not stale; gfx1151 pin + generic 2.11 wheel stale; gfx1151 pin + per-arch wheel
not stale; /custom and /current not CUDA; plus cross-language allowlist and
cu-digit parity guards, and a PowerShell unit test for the new setup.ps1 helpers.
* [pre-commit.ci] auto fixes from pre-commit.com hooks
for more information, see https://pre-commit.ci
* Fix ROCm/gfx pin case normalization, ROCm-tag requirement, and CUDA-leaf classification
Normalize torch-index leaves to lowercase before the gfx*/rocm*/cu* allowlist
matches so the canonical gfx120X-all (capital X) gets the torch 2.11 floor in
install.sh (leaf, flavor and repairable helpers). Require an installed +rocm
local tag before a rocmX.Y or non-2.11 gfx pin is judged satisfied in
setup.ps1 Get-RocmPinStaleTags and the Python _rocm_pin_family_mismatch, so an
untagged CPU/CUDA wheel never leaves the pin unapplied. Classify a leaf as CUDA
only via ^cu[0-9]: the Python _TORCH_BACKEND derivation now uses
_is_cuda_family_leaf, and install.sh brands cuda only on cu[0-9]* (unset on an
unknown /current /custom mirror leaf) so the stack probes the GPU instead of
skipping ROCm repair. Add bash, Python and PowerShell tests for capital
gfx120X-all floor, current/custom not-cuda, and untagged-wheel ROCm pins.
* [pre-commit.ci] auto fixes from pre-commit.com hooks
for more information, see https://pre-commit.ci
* install: converge torch-index pin detection via a per-venv marker
Introduce a torch-index MARKER that records the exact wheel --index-url used
after each successful torch install, so `unsloth studio update` / repair makes
the "did the pinned index change?" decision by an EXACT string compare rather
than inferring it from the wheel +rocm/+cu version tag. The tag cannot encode
the AMD per-arch gfx family (two 2.11 gfx indexes both install +rocm7.13.0), so
the tag heuristic missed a gfx1151 -> gfx120X-all switch and a custom-URL swap.
Marker path is per-venv (.unsloth-torch-index), one line = the resolved index
URL, written atomically (temp + rename). Path, format and normalization are
shared across all four installers (install.sh, install_python_stack.py,
setup.ps1, install.ps1).
- Reapply gfx pins on a per-arch target change: the marker's exact compare
reinstalls when the pinned index differs, even when both wheels share a tag.
- Honor custom ROCm URL pins during repair: an explicit index whose leaf is not
rocm/gfx/cu/cpu (e.g. simple, current) now reinstalls torch VERBATIM from the
pin when it differs from the marker ("URL wins verbatim").
- Align the KNOWN-2.11 rocm/gfx set to exactly rocm7.2 plus the gfx allowlist
gfx120x-all/gfx1151/gfx1150 in every language; stop treating an unknown newer
rocm (rocm7.3, which does not exist) as the 2.11 line speculatively.
Backward compatible: with no marker (old venvs, torch installed out-of-band) the
existing +rocm/version-tag heuristics still decide, and a matching marker never
reinstall-loops. A cu128 CUDA pin stays a CUDA pin; custom and current leaves are
not CUDA. Adds marker tests (py/sh/ps) plus cross-installer parity checks.
* [pre-commit.ci] auto fixes from pre-commit.com hooks
for more information, see https://pre-commit.ci
* install: keep the torch-index marker additive to flavor validation
Three narrow fixes in the marker-based stale-venv detection:
- setup.ps1: a matching marker no longer overwrites the detected installed
flavor. The marker compare is now an additional rebuild trigger, so a stale
wheel (torch swapped to a +cpu build while the marker still records a cuXXX
pin) is still caught by the flavor check instead of being masked as up to date.
- setup.ps1: a supported AMD arch carrying CPU torch is no longer marked stale
and wiped. The downstream AMD Windows ROCm override upgrades CPU torch to ROCm
in place, so wiping first would delete the venv and abort with "Virtual
environment not found". Only a genuinely wrong CUDA wheel still rebuilds.
- install.sh: the Radeon --find-links path records its repo.radeon.com base in
the marker instead of the generic pytorch.org ROCm fallback index, so a later
pin to that generic family correctly reinstalls rather than comparing equal.
Mirrors install.ps1/setup.ps1, which already record the real AMD index.
* [pre-commit.ci] auto fixes from pre-commit.com hooks
for more information, see https://pre-commit.ci
* install: honor custom pins and repair pinned venvs in place
Four follow-ups to the torch-index marker work:
- install_python_stack.py: _ensure_cuda_torch/_ensure_rocm_torch now bail when an
explicit custom-index pin names no known torch family, so a verbatim URL override
(a private/simple mirror) is not clobbered by auto-detected CUDA/ROCm wheels
before _ensure_verbatim_torch_index applies it.
- install_python_stack.py: the ROCm marker is additive, not a substitute -- a
matching marker still runs the family/version check so a wheel swapped after the
marker was written is caught. Mirrors setup.ps1.
- setup.ps1: a stale venv under an explicit pin, whose torch still imports, is
repaired in place (force-reinstall torch from the pin in the dependency pass)
instead of wiped. The wipe path only delegates to install.ps1, so on a direct
update it stranded the user at "Virtual environment not found" instead of
applying the new pin. A broken venv or unpinned drift still wipes/delegates.
- install.ps1: when a pinned ROCm install fails over to a CPU base, the marker now
records the CPU index actually used instead of the ROCm pin, so the next managed
setup does not see CPU torch under a ROCm pin and abort as stale.
* setup.ps1: keep the ROCm CPU-fallback force line the pr5940 test guards
5c93ffd4 folded the pin-change force-reinstall into the ROCm CPU-fallback
condition on one line, so the exact literal that test_pr5940_followups.py checks
(if ($ROCmCpuFallback) { $cpuForce = @("--force-reinstall") }) no longer appeared
and the test failed. Split the two conditions into separate if lines: the ROCm
fallback line is restored verbatim and the pin-change force is its own line. Both
still set $cpuForce to the array, so @splat passes one arg.
* install: honor exact CUDA/custom index URL pins in the torch-index marker
Address three Codex review findings on the torch-index marker mechanism:
- install.sh: after the ROCm CPU repair reinstalls torch from the generic
$TORCH_INDEX_URL, record that as the marker source. A Radeon --find-links
install set _TORCH_MARKER_INDEX_URL to its repo.radeon.com base earlier, so
leaving it made the marker misreport Radeon wheels and a later Radeon pin would
compare equal and skip a needed reinstall.
- install_python_stack.py: _ensure_cuda_torch now consults the exact-URL marker
(_marker_pin_mismatch) when the installed +cuXXX tag matches the pinned leaf,
so a same-leaf CUDA mirror change (official cu128 to an internal cu128 mirror)
is reinstalled and re-recorded instead of skipped.
- _normalize_index_url / _normalize_family_leaf (install.sh, setup.ps1,
install_python_stack.py): lowercase only KNOWN wheel-family leaves (rocm/gfx/
cpu/cuXXX) so gfx120X-all still matches gfx120x-all, while a custom
(unknown-family) leaf keeps its case so a verbatim URL pin like /Current does
not compare equal to /current. Tests updated to assert the refined behavior.
* install: fix 3 torch-index marker edge cases (CPU mirror pin, Radeon leaf, migrated venv)
Addresses three review findings on the torch-index override path:
1. CPU index URL change on an already-CPU venv. _ensure_cpu_torch returned
early whenever torch was already a CPU build, so a standalone update that
moved the pin (official /cpu -> a private UNSLOTH_PYTORCH_MIRROR /cpu, same
+cpu tag) never reinstalled. It now consults the exact-URL marker and
reinstalls only when _marker_pin_mismatch reports a different index,
mirroring the CUDA/ROCm same-family handling. A matching marker (or none)
still leaves CPU torch untouched, so there is no reinstall loop.
2. Radeon find-links directory misclassified as a pip ROCm family. A
repo.radeon.com/.../rocm-rel-7.2.1 leaf starts with "rocm" but is a
find-links listing, not a pip --index-url. The old startswith(("rocm",
"gfx")) test routed it into a --index-url reinstall that fails against
find-links. New _is_pip_rocm_family_leaf gates on ^rocm\d / gfx (matching
install.sh's rocm[0-9]* and setup.ps1's ^(rocm[0-9]|gfx)), so a Radeon URL
routes to the verbatim/marker path instead.
3. Migrated venv rewriting its marker to a pin it did not install. install.sh
and install.ps1 write the marker unconditionally, so a migration that
preserves existing torch recorded the newly requested pin and a later
update then found a matching marker and skipped the reinstall the pin
needs (e.g. a per-arch gfx1151 -> gfx120X-all switch, identical +rocm tag).
Both now track _TORCH_INSTALLED_THIS_RUN and write the marker only when
torch was actually installed or repaired this run.
Also add Get-NormalizedFamilyLeaf to the setup.ps1 helper-extraction list in
test_torch_index_marker.ps1 (it was added to setup.ps1 and the shell test in an
earlier round but missed here) and add two unit tests covering findings 1 and 2.
* [pre-commit.ci] auto fixes from pre-commit.com hooks
for more information, see https://pre-commit.ci
* install: keep pinned torch repairs on the pinned index
Two fixes for explicit index pins (UNSLOTH_TORCH_INDEX_FAMILY / _URL):
1. install_python_stack.py's repair paths ran uv without clearing the
inherited uv index env vars. uv resolves the default index (--index-url
or --default-index) at the LOWEST priority, so a UV_INDEX or
UV_EXTRA_INDEX_URL mirror in the environment won for any package it
served: a cu128-pinned repair could install torch from the mirror and
then record the cu128 marker it never used. Verified empirically: with
UV_EXTRA_INDEX_URL=.../cu126 exported, uv pip install torch
--index-url .../cu128 resolves torch 2.13.0+cu126. Strip the four uv
index env vars for pinned-index commands only, mirroring the gate
install.sh, install.ps1 and setup.ps1 already have; non-pinned installs
keep the user's mirror.
2. install.ps1 routed any pinned leaf matching rocm* through the ROCm
--default-index path, so a custom find-links leaf like rocm-rel-7.2.1
was treated as a PEP 503 ROCm index and could silently fall back to CPU
torch on resolution failure. Require a digit after rocm, matching
install.sh's rocm[0-9]* and install_python_stack.py's ^rocm\d.
Adds parity + unit tests for both (11 new tests).
* [pre-commit.ci] auto fixes from pre-commit.com hooks
for more information, see https://pre-commit.ci
* install: keep pinned repairs off UV_TORCH_BACKEND and narrow setup.ps1's rocm pin match
Round 2 of the pinned-index hardening:
1. _build_uv_cmd converted UV_TORCH_BACKEND into --torch-backend before the
new env isolation could act, and uv's torch backend redirects torch
resolution to its own per-backend index even when --index-url is given
(verified: a cu128-pinned dry run with UV_TORCH_BACKEND=cpu resolves
torch 2.13.0+cpu). Pinned-index commands now never receive the flag and
UV_TORCH_BACKEND joins the stripped env vars, so uv cannot re-read it.
2. setup.ps1's pinned reroute had the same bare rocm* glob install.ps1 had:
a custom find-links leaf like rocm-rel-7.2.1 was routed through the ROCm
--index-url path instead of the verbatim unknown-pin path. Now requires
a digit after rocm, matching install.ps1, install.sh and
_is_pip_rocm_family_leaf.
3. The marker test's case-normalization checks used -eq, which is
case-insensitive in PowerShell, making them vacuous, and the unknown-leaf
expectation was written lowercased while the implementation deliberately
preserves custom-leaf case. Tightened to -ceq with the case-preserving
expected value.
Adds unit + parity tests for 1 and 2 (5 new tests).
* [pre-commit.ci] auto fixes from pre-commit.com hooks
for more information, see https://pre-commit.ci
* install: extend the pinned-index guards to every remaining surface
Round 3 of the pinned-index hardening, closing the same holes on the
surfaces the earlier rounds missed:
1. install.sh's pinned-install env scrub now clears UV_TORCH_BACKEND (uv's
torch backend redirects torch resolution to its own per-backend index
even against --default-index), and both PowerShell wrappers clear it in
their pinned-install scrubs, matching install_python_stack.py.
2. setup.ps1's marker stale check still classified any rocm* leaf as a
PyTorch ROCm family while the install selection is digit-gated, so a
custom rocm-current / rocm-rel-7.2.1 pin stale-compared as
not-rocm vs rocm and force-reinstalled on every studio update. The
stale check now uses the same ^rocm\d gate.
3. install_python_stack.py's pinned-command scrub also strips
PIP_EXTRA_INDEX_URL for the pip fallback: pip adds the env extra index
in addition to --index-url, so an inherited mirror could satisfy torch
off the pin while the marker recorded the pinned URL. PIP_INDEX_URL
needs no strip since the explicit --index-url flag overrides it.
Parity + unit tests extended (4 new tests).
* [pre-commit.ci] auto fixes from pre-commit.com hooks
for more information, see https://pre-commit.ci
* install: scrub find-links and carry the pinned scrub through pip fallbacks
Round 4 of the pinned-index hardening:
1. UV_FIND_LINKS joins every pinned-install scrub (install.sh, install.ps1,
setup.ps1, install_python_stack.py): uv's --find-links locations can
satisfy torch off the pinned index the same way an extra index does.
2. setup.ps1's Fast-Install restored the scrubbed vars in its finally
BEFORE the pip fallback ran, and never touched the pip env vars at all,
so a failed uv attempt fell back to python -m pip with an inherited
PIP_EXTRA_INDEX_URL / PIP_FIND_LINKS able to win over the pinned
--index-url. The scrub now wraps the whole function (uv attempt + pip
fallback) and includes the pip vars; restore happens after both.
3. install_python_stack.py's scrub also strips PIP_FIND_LINKS for its own
pip fallback, completing the PIP_EXTRA_INDEX_URL fix from round 3.
Parity tests extended (2 new tests).
* [pre-commit.ci] auto fixes from pre-commit.com hooks
for more information, see https://pre-commit.ci
* install: digit-gate rocm leaves in marker normalization and ROCm side effects
Round 5 of the pinned-index hardening (three custom-rocm-leaf edge cases):
1. _normalize_family_leaf lowercased every leaf starting with rocm, so a
custom mirror leaf like rocm-Current compared equal to its lowercase form
and a case-only pin change was skipped. URL paths can be case-sensitive.
The rocm prefix is now digit-gated (rocm[0-9]*, matching
_is_pip_rocm_family_leaf) in install.sh, setup.ps1 and
install_python_stack.py, so only true family leaves (rocm7.2) are
lowercased; a custom rocm-* leaf keeps its case.
2. setup.ps1 Test-MarkerPinMismatch compared normalized URLs with -ne, which
is case-insensitive in PowerShell, so a case-only marker change (Simple
vs simple) was treated as matching and the reinstall skipped. Now -cne.
3. install.sh gated the AMD bitsandbytes install and the "repair ROCm torch"
--default-index reinstall on a bare whole-URL rocm glob, so a custom
CPU/CUDA/private index whose leaf merely starts with rocm (rocm-current)
was force-repaired from the wrong ROCm-only path whenever torch.version.hip
was empty. Both now gate on _torch_index_is_rocm_family, computed once from
the digit-gated leaf (rocm[0-9]*/gfx*).
Tests: 4 new parity assertions plus 2 case-sensitivity marker checks.
* [pre-commit.ci] auto fixes from pre-commit.com hooks
for more information, see https://pre-commit.ci
* install: apply an explicit custom torch-index pin on the first update
Round 6: an explicitly-set custom (unknown-family) UNSLOTH_TORCH_INDEX_URL
was silently ignored on the first `studio update` of a venv that predates
the marker feature, on both platforms, because the no-marker case was
treated as "do nothing" and the version-tag heuristics cannot judge an
unknown leaf.
1. install_python_stack.py _ensure_verbatim_torch_index now reinstalls
verbatim when the marker is ABSENT (None), not only when it differs, and
short-circuits only when the marker already records this exact pin. It
then writes the marker, so every later update is a no-op. A user who did
not set the override gets pin=None and is untouched, so an out-of-band
torch install is never clobbered.
2. setup.ps1: for an unknown-family pin on a marker-less venv the stale-venv
check now sets PinChangedForceReinstall so the torch block reinstalls in
place from the pin. It deliberately does NOT set shouldRebuild, which
would wipe the venv and strand a direct `studio update`.
3. setup.sh (the Linux `studio update` entry point) skipped
install_python_stack.py entirely when unsloth was already current, so the
marker-driven reinstall (both the verbatim custom pin and the cu/rocm
flavor and family-change repair, e.g. gfx1151 to gfx120X-all) never ran.
It now forces the dependency pass when a torch-index pin env var is set;
the pass is idempotent and no-ops when the marker already matches. This
mirrors setup.ps1's stale-venv pre-check.
Tests: 3 new parity assertions.
* [pre-commit.ci] auto fixes from pre-commit.com hooks
for more information, see https://pre-commit.ci
* test: expect first-update reinstall for a no-marker custom index pin
Follow-up to d671d8fb2: _ensure_verbatim_torch_index now applies an
explicit unknown-family URL pin verbatim on the first update when the
marker is absent (instead of no-op), so the old
test_verbatim_custom_url_no_marker_is_noop assertion was stale. Rewritten
as test_verbatim_custom_url_no_marker_reinstalls_once: asserts the one
verbatim reinstall from the pinned URL, that the marker is written, and
that a second call with the pin still set is idempotent (no reinstall
loop).
* install: gate the pinned update pass on the marker and record a pin baseline
Round 8, two follow-ups to the round-6 first-update pin fix:
1. setup.sh forced the full dependency pass on EVERY `studio update` while a
torch-index pin stayed exported, even after the marker already recorded the
same pin, turning quick updates into the expensive pass every time. It now
probes install_python_stack.py --torch-pin-needs-apply (which reuses the
exact marker normalization) and forces the pass only when the pin is not yet
applied (marker absent or different); an already-applied persistent pin keeps
the fast path. A probe error fails safe toward running the pass. setup.ps1
gets the same probe in its fast path for parity.
2. A known-family full-URL pin on a venv predating the marker (e.g. an installed
cu128 build and UNSLOTH_TORCH_INDEX_URL pointing at a same-family mirror) left
the marker absent forever: the _ensure_* helpers deliberately do not force a
multi-GB reinstall of identical-family wheels on an old venv, so nothing
recorded the pin and every update re-entered the pass. _record_torch_index_pin_baseline
now records the resolved pin as a baseline after the ensure sequence when the
family already matches and no marker exists, so the pin is tracked (a later
genuine change is detected and applied) and the update loop is broken, without
the redundant reinstall.
Tests: 3 new baseline unit tests, 4 new parity assertions, and the CLI probe.
* [pre-commit.ci] auto fixes from pre-commit.com hooks
for more information, see https://pre-commit.ci
* setup.sh: keep the pin probe's exit 1 from killing the update under set -e
The --torch-pin-needs-apply probe deliberately exits 1 for the common
steady-state answer (pin already recorded, keep the fast path), but it ran
as a bare command under set -euo pipefail, so the whole studio update
aborted before the exit code was even captured. Absorb the status with
|| _PIN_NEEDS_APPLY=$? and pre-seed 0 so all three outcomes route as
documented: 0 runs the pass, 1 keeps the fast path, anything else fails
safe into the pass. Parity test asserts the guard.
* install: strip pin credentials, disable uv config discovery, bound verbatim installs
Four verified fix groups from a 12-reviewer audit of the torch-index
override feature, each reproduced before fixing:
1. Credential persistence: all four marker writers stored the raw pin URL,
so an authenticated pin (https://user:token@mirror/simple) persisted its
credentials in .unsloth-torch-index (mode 0644 under a default POSIX
umask) and install_python_stack.py printed pin URLs verbatim in repair
messages. Userinfo is now stripped before persisting and in every
log/substep that interpolates a pin, via lockstep helpers
(_strip_index_url_credentials in install.sh / install_python_stack.py,
Remove-IndexUrlCredentials in install.ps1 / setup.ps1). The three
normalizers strip too, so an OLD marker that already carries credentials
still compares equal to the same pin: no reinstall loop on upgrade.
Query strings deliberately stay in the marker; two indexes distinguished
only by query must not compare equal.
2. uv configuration discovery beat the explicit pin: with a discovered
uv.toml declaring torch-backend = "cpu" or a [[index]] entry, uv 0.10.12
resolves torch 2.13.0+cpu against an explicit --index-url/.../cu126 pin;
UV_NO_CONFIG=1 restores +cu126 (reproduced both ways). The pinned-install
scrub in all four installers now sets UV_NO_CONFIG=1 and drops
UV_CONFIG_FILE.
3. The verbatim custom-index update path installed a bare, unconstrained
torch trio while fresh installs from the same unknown-leaf pin apply the
supported range; _ensure_verbatim_torch_index now installs the bounded
trio spec, closing the fresh-vs-update asymmetry.
4. Query-bearing pins (.../cu128?token=x) classified by raw leaf split and
force-reinstalled on every update (the installed cu128 never equals
cu128?token=x). Query/fragment are now stripped before leaf
classification in all four implementations; the marker comparison keeps
the query per (1).
Rejected after verification (no change): the pin-baseline record cannot
produce a wrong later decision (every pin change still mismatches and
reinstalls from the new pin); the venv temp-file symlink scenarios require
an attacker who already owns the environment; pathological inputs like
" / cu128 / " have no realistic caller and fail loudly.
Parity, stack, rocm-support, marker (sh + ps1), pin-stale, index-url and
flavor suites all pass (455 python + full shell/ps1 batteries).
* [pre-commit.ci] auto fixes from pre-commit.com hooks
for more information, see https://pre-commit.ci
* install: harden custom-pin repair against clobber, broken torch, and pip config
Four follow-ups to the pinned-index audit fixes:
1. setup.ps1 routed an unknown-leaf custom pin through the CUDA branch with
a bare torch trio while install.ps1 (fresh) and the Python verbatim path
bound the supported range; the pinned unknown-leaf route now applies the
same torch>=2.4,<2.11.0 bound. Known cu* leaves and unpinned runs are
unchanged.
2. The final torch safety pass could not repair a clobbered unknown-family
pin: intermediate dependency steps can pull torch from PyPI (the pass
exists for exactly that reason), but the verbatim helper short-circuited
on marker==pin and no flavor tag exists to probe. The helper now keeps a
per-run snapshot of the installed trio (taken after a verbatim reinstall
or on the first matching-marker pass) and reinstalls from the pin when
the final pass sees the trio drifted. Probe failure skips the
comparison; a reinstall refreshes the snapshot, so no loop.
3. _record_torch_index_pin_baseline could freeze a known-family pin as
applied on a venv whose torch is missing or broken (every family helper
returns without reinstalling when its probe fails), making
--torch-pin-needs-apply report done forever. The baseline now probes the
installed flavor and records only on a match: a cuXXX pin requires the
matching +cuXXX tag, cpu requires a cpu build, rocm/gfx requires hip;
probe failure records nothing.
4. The pinned pip fallback stripped PIP_* env vars but user/site pip config
files still applied (a configured global.extra-index-url can satisfy
torch off the pin). PIP_CONFIG_FILE is now pointed at the null device
for pinned commands (pip loads no config files then), in
_install_env_for_cmd and setup.ps1's Fast-Install pinned scrub.
install.sh / install.ps1 have no pip fallback (uv-only), verified.
Tests: 7 new rocm_support tests (snapshot reset fixture), 1 stack test,
2 parity tests. Full battery green (464 python, sh and ps1 suites).
* [pre-commit.ci] auto fixes from pre-commit.com hooks
for more information, see https://pre-commit.ci
* install: complete the pin-repair coverage across the fast path and platforms
Three cross-platform follow-ups to the round-2 pin-repair fixes:
1. The --torch-pin-needs-apply probe only compared marker==pin, so a torch
trio clobbered to the wrong family (a cpu wheel replacing cu128 via a
later pip install) with a still-matching marker reported "already
applied" and the _ensure_{cuda,rocm,cpu} repair never ran on the Linux
fast path. The probe is now a testable _torch_pin_needs_apply() that also
checks the installed flavor against a known-family pin (via a shared
_torch_flavor_matches_pin() helper, so the baseline and the probe cannot
drift). An unknown-family pin has no flavor to validate and a failed
probe cannot prove drift, so both keep the fast path.
2. macOS ARM (real CPU/MPS torch, not NO_TORCH) never applied an unknown-
family custom pin on update: both the verbatim path and the baseline
returned on IS_MACOS while fresh install.sh honors the pin, so the marker
was never written and setup.sh forced the dependency pass on every update
forever. The guards are now IS_MAC_INTEL (Intel mac is already NO_TORCH),
and the final pass applies the pin on macOS ARM.
3. The round-2 final verbatim repair sat in the step-13 sequence guarded
not IS_WINDOWS, so on Windows a dependency step that clobbered torch after
the pin was applied was masked by the matching marker (setup.ps1 does not
re-validate the main venv's torch after calling this script -- verified).
Step 13 now runs the verbatim snapshot-drift repair on Windows and macOS
ARM too; the Linux-oriented cuda/rocm/cpu family helpers stay Linux-only.
Tests: 13 new rocm_support cases (flavor drift, macOS ARM, Windows repair),
parity updates. Full battery green (475 python, sh and ps1 suites).
* [pre-commit.ci] auto fixes from pre-commit.com hooks
for more information, see https://pre-commit.ci
* install: strip query tokens from the marker and tighten the pin-drift probe
Four follow-ups to the round-3 pin-repair fixes:
1. The credential stripper feeding the torch-index marker and the logged repair
messages dropped only user:pass@ userinfo, so a private feed that carries its
auth token in the query string (.../simple?token=SECRET) persisted the token
in the world-readable marker (mode 0644 under a default umask) and printed it
in substep output. All four strippers (install.sh, install.ps1,
studio/setup.ps1, install_python_stack.py) now drop the query and fragment
before building the sanitized URL. A query is not part of a PEP 503 index's
identity, so this also stops a rotated token from spuriously mismatching the
marker and forcing a needless reinstall.
2. The --torch-pin-needs-apply fast-path probe accepted an untagged CUDA build
(no +cuXXX local tag) under a specific cuXXX pin, but _ensure_cuda_torch
reinstalls exactly that build to enforce the pin. The probe was more lenient
than the repair, so the repair pass was skipped on the fast path.
_torch_flavor_matches_pin now reports a mismatch for an untagged build under a
cuXXX pin, forcing the pass.
3. The probe's ROCm branch accepted any HIP build for a rocm/gfx pin, while
_ensure_rocm_torch decides a reinstall with the per-arch
_rocm_pin_family_mismatch predicate (a generic +rocm7.2 wheel under a per-arch
gfx pin, or a wrong ROCm version, is a mismatch). The probe now reuses that
predicate, so it is as strict as the repair. This needs the installed torch
version, so _probe_torch_flavor now returns (marker, cutag, version) and
_torch_flavor_matches_pin takes the pin URL (extracting the leaf internally).
4. On Windows a known-family cu*/cpu pin is applied to the main venv by setup.ps1
before install_python_stack.py runs; a later dependency step can clobber it,
and the GPU-aware _ensure_{cuda,cpu}_torch self-skip on Windows while the
verbatim helper handles only unknown-family pins, so nothing repaired the
clobber (setup.ps1 does not re-validate the main venv's torch afterward,
verified). New _ensure_pinned_known_family_torch reinstalls a drifted cu*/cpu
pin in the step-13 Windows/macOS-ARM branch; rocm/gfx per-arch specs stay owned
by setup.ps1, unknown-family by the verbatim helper.
A speculative ROCm 2.11 floor was also raised but is unreachable: the rocm7.2
index publishes no 2.x wheel below 2.11.0, and an unknown newer rocm is not
floored speculatively.
Tests: query/fragment strip cases in the sh + ps1 marker suites and the Python
strip/marker tests; the tri-state helper and the probe/baseline harnesses moved
to the (marker, cutag, version) flavor with matching versions; new probe cases
(untagged CUDA, generic-rocm-under-gfx) and 8 _ensure_pinned_known_family_torch
tests; a four-way query-strip parity assertion. Full battery green (1150 python,
sh 26/26 marker, ps1 marker/flavor/pin-stale).
* [pre-commit.ci] auto fixes from pre-commit.com hooks
for more information, see https://pre-commit.ci
* install: reinstall markerless gfx pins and cap custom-index updates at torch 2.11
Two follow-ups from the pin-marker audit:
1. A markerless venv with a gfx per-arch 2.11 pin trusted the wheel version
tag, which is byte-identical (+rocm7.13.0) across gfx120X-all / gfx1151 /
gfx1150. A pre-marker install holding one gfx arch's wheel that is now
pinned to a DIFFERENT gfx index was therefore never switched:
_rocm_pin_family_mismatch returns no-mismatch for any three-part +rocm
2.11 wheel, and _ensure_rocm_torch's absent-marker branch fell through to
that heuristic. _ensure_rocm_torch now forces a one-time reinstall when the
marker is absent AND the pin leaf is a 2.11 gfx per-arch index; the reinstall
writes the marker, so the next update compares exactly and does not loop
(the correctly-pinned no-reinstall guarantee then comes from the exact marker
compare, not the ambiguous tag). Non-gfx-2.11 pins (rocmX.Y, non-2.11 gfx)
stay on the tag heuristic -- their tags are distinguishable.
2. The verbatim custom-index update path used _CUDA_TORCH_PKG_SPEC (torch
<2.12.0) while a FRESH install of the same unknown leaf caps torch at
<2.11.0 (install.sh's default TORCH_CONSTRAINT, and setup.ps1's custom-pin
branch), so a private /simple mirror publishing torch 2.11 could upgrade a
`studio update` to a state the fresh installer never produces. Added
_CUSTOM_INDEX_TORCH_PKG_SPEC (torch>=2.4,<2.11.0), used only by the verbatim
path; companions stay pinned for the same exclusive --index-url ABI reason
as _CUDA_TORCH_PKG_SPEC (a bare name could pull a torch-2.12-built
torchvision). _CUDA_TORCH_PKG_SPEC is unchanged (known-family cu/cpu repair
correctly tracks install.sh's widened cu ceiling).
Tests: 2 new markerless-gfx cases (one-time reinstall + marker write + no-loop
second run, and the rocmX.Y absent-marker no-op), the pre-existing markerless
gfx no-reinstall test flipped to assert the one-time reinstall (it had encoded
the old tag-trusting behavior), and the custom-index bound assertions. 488
passed.
* [pre-commit.ci] auto fixes from pre-commit.com hooks
for more information, see https://pre-commit.ci
* install: a matching marker must not mask a broken, clobbered, or misclassified torch
Four round-6 follow-ups, all closing cases where a matching torch-index
marker wrongly vouched for a torch that is not actually the pinned one:
1. _is_cuda_family_leaf matched cu+digits by PREFIX (^cu[0-9]), so a custom
mirror leaf like cu128-private classified as CUDA family; the flavor check
then compared the installed cu128 tag to the whole leaf cu128-private and
forced a reinstall on EVERY update (never converging). The cu family is
now matched EXACTLY (re.fullmatch cu[0-9]+), so a cu-suffixed custom leaf
routes through the verbatim/unknown path with a stable marker. Mirrored in
install.sh (_normalize_family_leaf: strip cu, require an all-digit
remainder) and setup.ps1 / install.ps1 (^cu[0-9]+$).
2. _torch_pin_needs_apply returned False on a failed torch probe (missing or
unimportable) under a matching marker, so setup.sh kept the fast path and
a broken torch was never repaired. A failed probe now forces the pass: the
marker cannot vouch for a torch that does not import, forcing is idempotent,
and once torch imports again the probe succeeds and the forcing stops
(self-resolving). Reverses the round-4 conservative choice for this case.
3. _ensure_verbatim_torch_index snapshotted the installed trio on the first
pass with a matching marker and treated an unimportable torch (snapshot
None) as "no drift, skip", so a torch clobbered to a broken state before
the run was masked. A None snapshot now reapplies the pin. A torch
clobbered to a WORKING-but-wrong build under an unknown-family pin remains
undetectable from metadata (no flavor tag; reinstalling every update would
be the loop this avoids) and is documented as a known limitation.
4. The step-13 Windows final repair reran only the verbatim (unknown-family)
and known-family cu*/cpu paths, so a clobbered explicit rocm/gfx pin (the
wheel setup.ps1 installed from AMD's per-arch index) was left in place. The
branch now also runs _ensure_rocm_torch on Windows for an explicit rocm/gfx
pin; it has a Windows path and no-ops when torch already links HIP, so it
only reinstalls a genuinely clobbered ROCm venv (loop-safe).
Tests: the round-4 failed-probe-trusts-marker test flipped to force the pass;
new cases for the cu-suffix no-loop, the broken-torch verbatim reinstall, and
the Windows rocm final-repair structure; item-2 exact-cu parity assertions.
490 passed. sh/ps1 marker + flavor + pin-stale suites all green.
* [pre-commit.ci] auto fixes from pre-commit.com hooks
for more information, see https://pre-commit.ci
* install: repair Windows ROCm pins from the pinned URL and honor NO_TORCH
Four round-7 review items, two of them regressions in the round-6 work:
1. _torch_pin_needs_apply ignored UNSLOTH_NO_TORCH. With a torch-index env
var set and no marker, the failed-probe branch forced the dependency pass
on every `studio update`, and the pass (which also honors NO_TORCH) never
installs torch or writes a marker, so nothing could ever stop the forcing.
It now returns False immediately under NO_TORCH: the pin only matters once
torch is actually installed.
2. The step-13 Windows final repair (round-6) restored a clobbered explicit
rocm/gfx pin by calling _ensure_rocm_torch, whose Windows path reinstalls
from the arch AUTO-DETECTED via hipinfo, not from the pin. A user pinning a
different gfx family or a private mirror was restored from the wrong source
(and the wrong marker written), and a headless box was skipped entirely
(the arch probe returns nothing). The repair now goes through
_ensure_pinned_known_family_torch, which reinstalls from the PINNED url with
the same per-arch floor setup.ps1 uses (2.11-line gfx leaves) or a bare trio
(older arches, rocmN mirrors). It is gated on IS_WINDOWS since macOS ARM has
no ROCm, and the existing flavor check keeps it loop-safe (a matching HIP
wheel is left alone).
3. _ensure_verbatim_torch_index's broken-torch check (round-6) used
"_installed_trio_snapshot() is None", but that helper reports a REMOVED torch
as "torch==absent" (a non-None tuple) and a broken import as the stale
on-disk version, so a missing or unimportable torch under a matching marker
was read as "no drift" and skipped. The matching-marker path now confirms
torch health with an import probe (_probe_torch_flavor): a torch that does
not import reapplies the pin, while a healthy torch keeps the snapshot-based
intra-run drift detection.
4. A unit test for _ensure_cpu_torch did not pin NO_TORCH False like its
siblings, so a suite run with UNSLOTH_NO_TORCH=1 in the environment made the
guard return early and the reinstall assertions fail spuriously.
Tests: the round-6 broken-torch verbatim test re-encodes the non-None
"torch==absent" snapshot case (the exact state the old "is None" check missed);
new Windows-ROCm pinned-repair cases (reinstall from the pin, per-arch floor vs
bare spec, matching-wheel no-op, off-Windows no-op); a NO_TORCH fast-path probe
case; the parity test now asserts the Windows final branch does not auto-detect
the ROCm index and that the helper reinstalls from the explicit pin. 494 passed.
* [pre-commit.ci] auto fixes from pre-commit.com hooks
for more information, see https://pre-commit.ci
* install: floor the rocm7.2 index in the Windows pin repair; isolate marker tests
Three round-8 review items, two of them downstream of the round-7 changes:
1. _ensure_pinned_known_family_torch gave a rocm<d> index leaf a bare
torch/torchvision/torchaudio trio while flooring only gfx* leaves, so a
Windows venv clobbered under an explicit rocm7.2 pin could reinstall an
unbounded or ABI-mismatched trio from that exclusive --index-url. It now
mirrors the spec the initial ROCm paths pin: the rocm7.2 floor for 2.11-line
gfx leaves and rocm<d> leaves that serve torch 2.11, the <2.11 default for
older rocm versions, and a bare trio only for older gfx per-arch leaves
(which publish no floor), matching _ROCM_TORCH_PKG_SPECS / _ensure_rocm_torch.
2. test_verbatim_custom_url_no_marker_reinstalls_once called
_ensure_verbatim_torch_index twice; the second call now hits the
matching-marker health probe, and with pip_install mocked torch never becomes
importable, so in a no-torch environment _probe_torch_flavor returned None and
forced another reinstall, failing the idempotence assertion. The test now pins
a healthy flavor so the idempotence check is about the marker, not ambient
torch.
3. The TestEnsureRocmTorchMarker fixture patched os.environ per test but not
_TORCH_BACKEND, which install_python_stack.py computes once at import from
UNSLOTH_TORCH_BACKEND. A runner starting with a cuda/cpu backend made
_ensure_rocm_torch early-return and skip the mocked repair these tests
exercise. The fixture now neutralizes _TORCH_BACKEND so the marker tests are
independent of the caller's installer-pin environment.
Tests: the Windows floor-spec test now asserts a rocm7.2 mirror pin uses the
rocm7.2 floor (not bare), plus a new rocm7.1 case that must fall back to the
<2.11 default; the marker suite passes under a hostile
UNSLOTH_TORCH_BACKEND=cuda / UNSLOTH_TORCH_INDEX_URL env. 495 passed.
* [pre-commit.ci] auto fixes from pre-commit.com hooks
for more information, see https://pre-commit.ci
* install: apply same-flavor pin repoints, keep ROCm fallback nonfatal, bound custom companions
Four round-9 review items, two of them regressions in the round-7 pin helper:
1. _ensure_pinned_known_family_torch returned as satisfied whenever the installed
flavor matched the pin, so a same-flavor SOURCE change (one /cpu or /cu128
mirror to another, or a gfx1151 -> gfx120x-all per-arch switch, both carrying
the same wheel tag) was never applied, while _torch_pin_needs_apply kept forcing
the pass on the marker mismatch forever. It now also reinstalls when the marker
records a DIFFERENT index of the same flavor, rewriting the marker so the next
update matches (no loop), exactly as the Linux _ensure_{cuda,cpu}_torch helpers
do. An absent marker on an already-matching venv is still left to the baseline
recorder (no forced reinstall of a correct pre-marker venv).
2. That helper reinstalled a Windows ROCm pin with the FATAL pip_install, so when
setup.ps1 had taken its CPU fallback (the pinned AMD index unavailable), the
final repair re-hit the same missing index and aborted the whole install. The
ROCm reinstall is now nonfatal (pip_install_try): on failure it leaves the CPU
base in place and writes no ROCm marker, so the install completes -- matching
_ensure_rocm_torch's Windows path. cu*/cpu pins stay fatal (authoritative source).
3. install.sh left torchvision/torchaudio bare for a pinned custom/unknown-leaf
index (a private /simple mirror), unlike the Python update path's
_CUSTOM_INDEX_TORCH_PKG_SPEC, so a mirror also exposing newer companion wheels
could resolve a torch-2.12-built torchvision against the capped <2.11 torch. It
now bounds the companions (torchvision>=0.19,<0.26.0 / torchaudio>=2.4,<2.11.0)
for a custom leaf, gated on an empty _expected_torch_flavor_tag so known families
keep their curated bare/floored companions.
4. install.sh's _expected_torch_flavor_tag matched cu[0-9]* by prefix, so a custom
leaf like cu128-private classified as the cu128 family and force-reinstalled a
correct +cu128 wheel on every run. It now requires exact cu+digits (routing the
suffixed leaf to the custom path), matching the Python re.fullmatch(cu[0-9]+) and
PowerShell, and feeding item 3's custom-leaf detection.
Tests: new cases for the same-flavor marker-change reinstall, the nonfatal ROCm
fallback (no marker on failure), the rocm7.2/older-rocm floor selection now split
across the nonfatal path, cu-suffixed custom leaves in test_torch_flavor.sh, and the
custom-leaf companion bounds in test_torch_constraint.sh. 497 python + 143 shell
assertions pass; the marker suite still passes under a hostile
UNSLOTH_TORCH_BACKEND=cuda env.
* [pre-commit.ci] auto fixes from pre-commit.com hooks
for more information, see https://pre-commit.ci
* install: bound custom-pin companions on the Windows setup path; isolate pin-probe tests
Two round-10 review items:
1. setup.ps1's custom/unknown-leaf pin branch capped only torch ($cudaTorchSpec)
and still asked the exclusive index for bare torchvision/torchaudio, so a
private mirror that also serves newer companion wheels could install a
torch<2.11 wheel alongside a torchvision>=0.26 / torchaudio>=2.11 built for a
newer torch ABI, after which the marker records the pin as applied. It now
bounds the whole trio (torch>=2.4,<2.11.0 / torchvision>=0.19,<0.26.0 /
torchaudio>=2.4,<2.11.0) for a pinned non-cu-family leaf, matching install.sh,
install.ps1's fresh pinned install, and install_python_stack.py's
_CUSTOM_INDEX_TORCH_PKG_SPEC. This completes the companion-bounds fix across all
three installers; known cu* leaves keep bare specs (the family index bounds them).
2. The _torch_pin_needs_apply probe tests did not pin NO_TORCH False, so a test
process launched with UNSLOTH_NO_TORCH=1 short-circuited the probe (the round-7
guard) and returned False for cases that expect the pass to run. The _needs_apply
helper now patches NO_TORCH (default False) around the call, and the dedicated
no-torch case passes no_torch=True explicitly.
Tests: the cross-platform parity test now asserts setup.ps1 bounds the full trio
(not just torch) for a custom leaf; the pin-probe suite passes under a hostile
UNSLOTH_NO_TORCH=1 environment. setup.ps1 parses clean; 497 python + shell suites
green.
* [pre-commit.ci] auto fixes from pre-commit.com hooks
for more information, see https://pre-commit.ci
* install: bound custom rocm-* pins, redact diag tokens, snapshot custom pins before base update
Three round-11 review items, all reproduced before fixing:
1. install.sh's custom-index companion bounds gated on _expected_torch_flavor_tag
returning empty, but that helper returned "rocm" for ANY rocm* leaf, so a custom
mirror whose leaf starts with rocm but is not a pip family (a private rocm-current
mirror, a Radeon find-links rocm-rel-7.2.1) escaped the bounds and installed bare
torchvision/torchaudio. It now digit-gates rocm to rocm[0-9]* (matching the Python
_is_pip_rocm_family_leaf ^rocm\d), so those custom leaves return "" and the <2.11
companion caps apply; real rocm7.2 / gfx per-arch indexes still classify as rocm.
2. _tauri_torch_index_family classified by the raw last path segment, so a pinned URL
carrying auth in the query (.../rocm7.2?token=SECRET) had the token echoed verbatim
into the emitted [TAURI:DIAG] line. It now strips query/fragment before classifying
(mirroring the marker/log credential stripping), so no token reaches the diagnostic
output; as a side effect .../cu128?token=x now classifies as cu128 instead of auto.
3. On studio update, the core package step (a newer unsloth can require a torch the
custom pin does not satisfy, pulling a default PyPI trio) runs BEFORE the step-2b
verbatim check, which then recorded the already-clobbered trio as the baseline for a
matching marker and left the pin unapplied. A new _capture_verbatim_baseline() records
the pre-clobber trio before the core step, so the verbatim pass detects the drift and
reapplies the pin. Captures only for a matching custom pin with importable torch; a
mismatched/absent marker or broken torch is left to _ensure_verbatim_torch_index.
Tests: _expected_torch_flavor_tag rocm-current / rocm-rel cases; _tauri_torch_index_family
token/fragment redaction with a no-leak regression guard; _capture_verbatim_baseline
record/skip cases plus an end-to-end clobber-detection scenario; a structural guard that
the capture runs before the core step. 501 python + shell suites pass; install.sh bash -n
clean, shellcheck unchanged from base.
* [pre-commit.ci] auto fixes from pre-commit.com hooks
for more information, see https://pre-commit.ci
* install: match rocm family leaves exactly, enforce the rocm7.2 torch line, repair a broken pinned torch
A pinned index is a pip ROCm --index-url family only when its leaf is an exact
rocm<digits> / rocm<digits>.<digits> (rocm7.2) or a gfx* per-arch leaf. The prior
^rocm[0-9] prefix match also caught suffixed private-mirror leaves (rocm7.2-private,
rocm7-current), routing them through the ROCm/companion-family path instead of the
verbatim pin: the companion bounds were skipped and, on a pre-marker venv with a
compatible +rocm wheel, the pin was never applied. Match the family exactly through one
shared helper at every site:
- install_python_stack.py: _is_pip_rocm_family_leaf (re.fullmatch), plus the two other
loose gates it feeds (_normalize_family_leaf, _torch_flavor_matches_pin).
- install.sh: a new _is_pip_rocm_family_leaf routes _expected_torch_flavor_tag,
_torch_index_repairable, _normalize_family_leaf and the ROCm side-effect gate.
- setup.ps1: a new Test-PipRocmFamilyLeaf routes Get-NormalizedFamilyLeaf and both
pinned reroutes; install.ps1 anchors its reroute regex.
_rocm_pin_family_mismatch (and its setup.ps1 mirror Get-RocmPinStaleTags) compared only
the ROCm version, so a +rocm7.2 wheel whose torch release drifted off the 2.11 line
(2.12/2.13 from an out-of-band upgrade or a custom rocm7.2 mirror) satisfied the family
check while violating _ROCM_TORCH_PKG_SPECS['rocm7.2'] (torch>=2.11,<2.12). Flag it stale
so the repair reinstalls to floor; >=2.11 alone is not enough, so the release is compared
exactly against the 2.11 line for a KNOWN-2.11 rocm pin.
_ensure_pinned_known_family_torch returned on a failed import probe, but
_torch_pin_needs_apply forces the dependency pass on that same failed probe: a broken
torch under a known-family pin was left in place and the pass was forced on every update.
Treat an unimportable torch as drift and reinstall the pinned trio (the spec and marker
derive from the pinned leaf, not the absent flavor); once it lands the probe succeeds and
the fast path returns.
Tests: exact-match cases across test_torch_flavor.sh, test_rocm_support.py,
test_cross_platform_parity.py and the two .ps1 helper suites; the rocm7.2 release-line
and broken-probe-reinstall cases; extraction lists updated for the new helpers.
* [pre-commit.ci] auto fixes from pre-commit.com hooks
for more information, see https://pre-commit.ci
* install: anchor the PS pinned-ROCm floor gate and bound install.ps1 custom-pin companions
Round 12 made every family CLASSIFIER exact, but the Windows install-flow floor gate reads
$_pinRocm211 directly from the raw pinned leaf with an unanchored -match '^rocm(\d+)\.(\d+)'
BEFORE any exact classification runs. A suffixed custom leaf (rocm7.2-private) matches that
rocm7.2 prefix, so it takes the 2.11-floor branch and is force-routed through the ROCm
install path before the exact-match elseif can send it to the verbatim install. Anchor the
match ($) in both install.ps1 and setup.ps1 so only an exact rocmX.Y leaf is floored; a
suffixed or newer-suffix leaf falls through to the verbatim path. The Python floor
selection is already exact (dict lookups gated on _is_pip_rocm_family_leaf), so only the two
PS scripts needed this.
install.ps1's custom (non-cu-family) pinned-torch install bounded torch>=2.4,<2.11.0 but
left torchvision/torchaudio bare, so a private mirror serving newer companions could pull a
wheel built for a newer torch ABI while the marker records the pin as applied. Bound both
companions (torchvision>=0.19,<0.26.0 / torchaudio>=2.4,<2.11.0) when the leaf is not a
cu<digits> family index (a cu index bounds its own resolution), matching setup.ps1's
Test-CudaFamilyLeaf gate and _CUSTOM_INDEX_TORCH_PKG_SPEC.
Tests: parity guards for the anchored floor gate in both PS scripts and for install.ps1's
bounded custom-pin companions.
* [pre-commit.ci] auto fixes from pre-commit.com hooks
for more information, see https://pre-commit.ci
* install: tighten comments in the torch-index-override paths
Collapse the verbose comment and docstring blocks added across the installer
scripts and their tests to fewer, clearer lines without changing behaviour.
Remove a duplicated CUDA-spec comment block. Comments/docstrings only; no code
changes (AST-verified).
* install: repair a broken pinned torch on Linux, strip trailing slash in tauri family, count the final step
_ensure_cuda_torch / _ensure_cpu_torch returned on a failed import probe (torch present but
unimportable). With an explicit CUDA/CPU pin, _torch_pin_needs_apply forces the dependency
pass on that same failed probe, and the base package update does not force-reinstall an
already-installed torch distribution, so the broken torch was left in place and the pass
reran every update without repairing it. Treat a failed probe under a pin as drift and
reinstall from the pinned index (the reinstall rewrites the marker and the next probe
imports, so no loop). This is the Linux counterpart of the known-family repair fix.
_tauri_torch_index_family stripped the query/fragment before classifying but not a trailing
slash, so a token-authenticated pin like .../cu128/?token=x collapsed to .../cu128/ and fell
through the exact-suffix */cu128 and */cpu arms to "auto". Strip a trailing slash too,
mirroring _torch_index_url_leaf.
The Windows / macOS-ARM final torch-repair step (_ensure_pinned_known_family_torch) runs a
progress step that base_total never counted (the final-step increment was gated to Linux),
so _STEP ran one past _TOTAL on those platforms. Add the missing increment.
Tests: broken-probe reinstall for the CUDA (family and URL pins) and CPU paths; trailing
slash / slash+token cases for _tauri_torch_index_family; a full-flow progress-count guard
asserting _STEP == _TOTAL on Windows and Linux.
* [pre-commit.ci] auto fixes from pre-commit.com hooks
for more information, see https://pre-commit.ci
* install: tighten comments in the torch-index-override paths
* install: harden the torch-index pin across all four installers
Redact index-URL credentials from captured install logs before they print on
failure. uv/pip failure text embeds the failing --index-url verbatim, so a
user:token@ or ?token= secret could leak into the console. Add a shared
redaction pass (_redact_install_output / Redact-InstallOutput) wired into the
error-output dump in install.sh, install.ps1, setup.ps1 and
install_python_stack.py. Verbose mode still streams live uncaptured output, so
it is intentionally left unredacted (developer opt-in).
Trim trailing slashes on the PATH only for a verbatim UNSLOTH_TORCH_INDEX_URL
override, preserving a ?query/#fragment token. A whole-URL rstrip corrupted a
base64 token ending in "/", and a single-slash strip left .../cu128//
classifying as an empty leaf. Add _trim_index_path_slashes /
Trim-IndexPathSlashes and route the override through it; strip ALL trailing
slashes in the backend-branding leaf classifier so a double slash still yields
the real leaf.
Reject a trailing-dot ROCm leaf (rocm7.) in the bash family validator so it
matches Python re.fullmatch(rocm\d+(?:\.\d+)?) and the PowerShell regex: both the
major and the minor must be non-empty digits, so rocm7. is a custom verbatim pin,
not a pip ROCm family.
Scrub PIP_NO_INDEX and PIP_INDEX_URL for a pinned install in the two installers
that have a plain-pip fallback (install_python_stack.py, setup.ps1):
PIP_NO_INDEX=1 makes the fallback ignore every index including the pinned
--index-url, and PIP_INDEX_URL replaces it. install.sh and install.ps1 install
via uv --default-index (which ignores pip config/env), so they are unaffected.
Add unit tests (bash, Python, PowerShell) and cross-platform parity tests
covering credential redaction, path-only slash trimming, the rocm7. validator,
the double-slash leaf, and the PIP_NO_INDEX/PIP_INDEX_URL scrub.
* [pre-commit.ci] auto fixes from pre-commit.com hooks
for more information, see https://pre-commit.ci
* install: redact captured torch-install output and warn on a failed pinned ROCm repair
Close a redaction gap the earlier pass missed: setup.ps1's direct
`Fast-Install ... | Out-String` branches (ROCm from $ROCmIndexUrl, CPU/CUDA from
$TorchInstallIndexUrl, plus the Triton and T5 sub-venv installs) printed the
captured $output verbatim on failure, bypassing Redact-InstallOutput. A private
index carrying userinfo or a ?token= in the pin could leak into Windows Studio
setup logs. Route every `Write-Host $output` through Redact-InstallOutput.
Warn on a failed pinned Windows ROCm reinstall in
_ensure_pinned_known_family_torch: the branch printed "reinstalling from it" then
called pip_install_try, but had no else, so a failure continued silently and left
the user believing the pin was applied while the old CPU/wrong torch survived.
Mirror the auto-ROCm Windows path and warn, telling the user to retry.
* install: redact captured output on the pip fallback and optional-install failure paths
The uv install path already redacted its captured output, but pip_install's pip
fallback runs through run(), which printed result.stdout verbatim on failure, and
_print_optional_install_failure did the same. A pinned --index-url carrying
userinfo or a ?token= could still leak there when uv is unavailable or the pip
fallback also fails. Route both through _redact_install_output. The verbose
pip_install_try path stays raw (developer opt-in), matching the other installers.
* install: split the survive-updates marker subsystem into a follow-up
The torch-index override PR grew a persisted per-venv marker plus repair
machinery (stale-pin detection, verbatim re-apply, update-time reinstall
triggers) that roughly doubled it. That subsystem is orthogonal to the core
feature and is being reworked in a follow-up (versioned/hashed marker,
full-URL pin baseline), so it moves there wholesale instead of shipping
twice.
What this PR still does: UNSLOTH_TORCH_INDEX_URL / UNSLOTH_TORCH_INDEX_FAMILY
pick the torch wheel index at install time in all four installers, with the
exact rocm/gfx/cpu/cu leaf classification, the torch 2.11 floor for the
per-arch AMD indexes, bounded companions for custom leaves, credential
redaction of captured installer output, path-only slash trimming, and the
uv/pip index env scrubs. Flavor-based repair keeps honoring the pin: a wrong
family under an explicit pin still reinstalls from the pinned URL, and
setup.ps1 repairs a pinned stale venv in place instead of wiping it.
What moves to the follow-up: the .unsloth-torch-index marker file and its
writers/readers/normalizers, exact-URL pin-change detection on update
(same-tag gfx switches, custom-mirror repoints), the verbatim trio snapshot
and clobber re-apply, the pin-baseline recorder, and the
--torch-pin-needs-apply fast-path probe in setup.sh / setup.ps1. Their tests
(the marker sh/ps1 suites, the stale-pin suite, and the marker classes in the
rocm/cuda/parity suites) move with them; the removed code is preserved on a
local archive branch to seed that PR.
* [pre-commit.ci] auto fixes from pre-commit.com hooks
for more information, see https://pre-commit.ci
* install: re-apply a ROCm pin over an existing HIP wheel via the version tag
The subsystem split left an explicit ROCm/gfx pin unenforced on `studio
update` whenever the venv already imported ANY ROCm torch: the pinned
reinstall lived inside the `elif not has_hip_torch` branch, so a rocm6.4 to
rocm7.2 switch, a gfx1151 pin over a generic +rocm7.2 wheel, or a broken
2.12+rocm7.2 drift never re-applied the pin.
Restore the markerless half of that detection: _rocm_pin_family_mismatch
compares the pinned leaf against the installed wheel tag (exact rocmX.Y
compare, the 2.11 gfx per-arch allowlist, the untagged-wheel rule), the HIP
probe emits "<hip_marker>|<version>" again so the installed tag is available,
and _ensure_rocm_torch reinstalls from the pinned URL when the tag mismatches
even though HIP torch is present. setup.ps1 mirrors it: the stale-venv check
routes a pinned rocm/gfx leaf through Get-RocmPinStaleTags instead of
collapsing it to a generic "rocm" flavor, and the existing pinned in-place
repair (no wipe) applies the change.
What still waits for the follow-up marker PR, by design: pin changes the
wheel tag cannot see -- a per-arch switch between two 2.11 gfx indexes
(identical +rocm7.13.0 tag), a custom-mirror URL repoint under the same
family leaf, and unknown-family verbatim pins. Those need the persisted
index record.
Tests restored with the code: the _rocm_pin_family_mismatch table, the five
update-path cases (older-rocm reinstall, gfx-over-pre-2.11 reinstall,
matching-pin no-reinstall, non-2.11 gfx no-reinstall, gfx-over-generic-2.11
reinstall), the "|" probe-format guards, and the AST-extracted
Get-RocmPinStaleTags suite for setup.ps1.
* install: compare major-only rocm pins, redact URL fragments, bound pinned CPU trio
Three review fixes on the restored pin-repair path.
The family classifier accepts a major-only rocm<d> leaf (rocm7), but the
mismatch comparators only parsed rocmX.Y, so a rocm7 pin fell through to the
2.11-line fallback and INVERTED both verdicts: an installed +rocm6.4 wheel
compared as satisfied (pin never re-applied) while a matching +rocm7.2 wheel
compared as stale (reinstall loop). Major-only pins now compare on the major
alone in _rocm_pin_family_mismatch and Get-RocmPinStaleTags: rocm6.x under a
rocm7 pin is a mismatch, any rocm7.x satisfies it, an untagged wheel never
does, and a bare +rocm tag with an unreadable version is accepted (matching
the existing lenient unreadable fallback).
The output redactors scrubbed userinfo and ?query= values but not #fragments,
so a pin like https://mirror/whl/cu128#token=secret leaked the secret in
captured uv/pip failure text -- inconsistent with the URL handling itself,
which already treats fragments as sensitive. All four redactors gain a
URL-anchored fragment rule (anchored so a bare "# comment" line in tool
output is never touched).
setup.ps1's CPU branch installed a bare torch/torchvision/torchaudio trio;
fine for the unpinned host default, but a PINNED cpu index routes through the
same branch and the /cpu index serves newer torch, so a fresh pinned CPU
install could land an unsupported trio that _ensure_cpu_torch then keeps
(it accepts any CPU build). Under a pin the branch now installs the bounded
trio mirroring _CPU_TORCH_PKG_SPEC (torch>=2.4,<2.12.0 and matching
companions); the unpinned path is unchanged.
Tests: major-only rows in the Python mismatch table and the AST-extracted
setup.ps1 suite; fragment + query-plus-fragment + bare-hash-comment cases in
all four redactor suites; a parity check that the pinned CPU trio bounds
exist, are gated on the pin, and mirror the Python repair spec.
* [pre-commit.ci] auto fixes from pre-commit.com hooks
for more information, see https://pre-commit.ci
* install: tighten comments in the torch index override paths
* tests: track the moved pass-through inheritance in the gguf order check
Main moved the llama_extra_args pass-through inheritance out of the
GGUF branch into _resolve_inherited_extra_args, which runs before it,
so the source-order assertion's "if request.llama_extra_args is None"
anchor no longer exists inside the branch and the check failed after
the main merge. The test now asserts the same property in the current
shape: inheritance before the GGUF branch (a carried --no-mmproj still
shapes the hub guard's companion requirement), and marker, hub guard,
unload in order within the branch. Full file passes (32 tests).
* tests: anchor the inheritance order check on the call, not the definition
source.index("_resolve_inherited_extra_args(") matched the function
definition, which always precedes the endpoint, so the ordering
assertion was vacuously true. Anchoring on "= _resolve_inherited_
extra_args(" pins the first call site inside the load endpoint (line
4505), which is the statement whose position relative to the GGUF
branch the test is meant to guard. 32 tests pass.
* tests: align the gguf order test with main
Main fixed the stale ordering assertion in PR 7252; adopting its
version verbatim removes this file from the branch diff entirely and
avoids a conflict on the next main merge. 32 tests pass.
* install: bound the companion constraints to torch's window everywhere
A full platform x vendor validation matrix over this branch surfaced a
real trio mismatch on the cpu/mac paths: torch is capped <2.11 (installs
2.10.0+cpu) but the bare torchaudio companion resolves 2.11.0+cpu,
because torchaudio 2.11 dropped its exact torch pin. Reproduced in a
sandboxed end to end cpu install. torchvision still exact-pins torch and
self-corrected.
The default companion constraints are now bounded to torch's window
(<0.26 / <2.11) and widen together with the cu* torch window (<0.27 /
<2.12), so every leaf resolves a paired trio. Verified with uv dry-runs
on the cpu, cu130, and rocm6.4 leaves (2.10.0/0.25.0/2.10.0,
2.11.0/0.26.0/2.11.0, 2.9.1/0.24.1/2.9.1) and a rerun of the sandboxed
cpu install, which now lands torch 2.10.0+cpu with torchaudio
2.10.0+cpu.
The Strix WSL reroute now also forwards UNSLOTH_TORCH_INDEX_URL and
UNSLOTH_TORCH_INDEX_FAMILY into the rerouted 24.04 distro; dropping
them silently reverted the child install to auto-detection, defeating
the pin this branch introduces.
test_torch_constraint.sh updated: the bounded companions must appear at
the defaults and the custom-leaf block, no bare companion may remain,
and the cu* widen must carry the companions with it.
* install: harden the override path against reroute drift and credential leaks
Review sweep focused on default-path idempotency found no defects on the
unset path; these fixes cover the override path and failure reporting.
install.sh:
- The early WSL Strix Halo distro reroute now honors an explicit index
pin (UNSLOTH_TORCH_INDEX_URL / _FAMILY): the pin is used in the current
distro instead of probing the GPU and re-entering another distribution,
matching the contract of the later Radeon and Strix guards. Whitespace
only values do not gate, in parity with get_torch_index_url.
- Verbose mode now streams installer output through the credential
redactor; it previously bypassed the redaction the quiet path applies.
The exit code survives the pipe via an rc file since the script runs
under plain sh with no pipefail.
- The kept-release fallback warning now strips credentials from the
index URL before printing it.
install.ps1:
- Bounded torchvision and torchaudio next to every capped torch install
(custom pin, ROCm CPU fallback, CUDA flavor repair). torchaudio 2.11
dropped its exact torch pin from the wheel metadata, so a bare
companion beside torch<2.11 can resolve a mismatched 2.11.0 build,
cu family indexes included. Mirrors the install.sh companion bounds.
studio/install_python_stack.py:
- The verbose failure path now redacts index URLs in pip and uv output
before printing, matching every other output site in the file.
All sh, ps1 and python installer test suites pass (the host-defaults
suite has a known pre-existing failure unrelated to this change).
* install: redact verbose Windows installer output and repair the parity tests
Follow-ups to the override-hardening commit, from review:
- install.ps1 Invoke-InstallCommand and setup.ps1 Invoke-SetupCommand now
pipe verbose output through Redact-InstallOutput per record, and the
three verbose Fast-Install torch call sites (ROCm, CPU, CUDA) do the
same: uv and pip echo the pinned index URL, credentials included, in
their errors, and verbose mode previously bypassed the redaction the
quiet paths apply. ForEach-Object and Out-Host leave $LASTEXITCODE
untouched, verified with a native command exiting 7 behind the pipe.
- test_cross_platform_parity.py: the install.ps1 companion-bounds
assertion now matches the implemented behavior (bounds on every index,
no cu-family exemption, since torchaudio 2.11 dropped its exact torch
pin) instead of requiring the removed $_pinCuLeaf gate.
- test_rocm_support.py: the WSL reroute guard test slices the whole
function body to its closing brace instead of a fixed 1200-character
window, which the new pin-gate preamble had outgrown.
428 tests pass across the parity, install stack and rocm support suites;
the sh and ps1 installer suites pass unchanged.
* install: tighten comments in the torch-index and ROCm/CUDA repair paths
* install: digit-gate the gfx family leaf and honor ROCm pins in the Windows repair
Two review follow-ups on the override path:
- The pip ROCm family predicate accepted ANY gfx-prefixed leaf, so a
custom verbatim pin like /gfx-private classified as a ROCm family and
enabled the ROCm-only side effects (AMD bitsandbytes, ROCm torch
repair) on a mirror that may serve CPU/CUDA wheels. gfx now requires a
following digit (gfx90a, gfx1151, gfx120X-all), consistently in
install.sh, install_python_stack.py, install.ps1 (family gate and
expected-flavor classifier) and setup.ps1, matching the strictness the
rocm side already had (rocm7.2-private stays verbatim). The broader
backend BRANDING globs are unchanged on purpose: radeon repo leaves
(rocm-rel-X.Y) must still brand the rocm backend without being
force-repaired as a family.
- The Windows branch of the ROCm torch repair always installed from the
public per-arch index, ignoring an explicit ROCm-family pin: after a
pinned setup.ps1 install failed to a CPU base, the repair retried
repo.amd.com instead of the pinned index. The branch now resolves
_explicit_rocm_torch_index_url() first, uses it as the install index
when set, and mirrors the Linux pin contract by skipping the NVIDIA
and gfx-detection gates a pin is documented to override.
Source-assertion tests updated to the tightened predicate and the new
repair label. 1165 tests pass across the parity, install stack and
studio install suites; the sh and ps1 suites pass; both PowerShell
installers parse clean.
* Remove scratch archives accidentally committed with the comment pass
The temp/ archive copies of installer and test files were working
scratch, not PR content, and inflated the diff by about nine thousand
lines.
---------
Co-authored-by: pre-commit-ci[bot] <66853113+pre-commit-ci[bot]@users.noreply.github.com>
|
||
|
|
6d8c18cd1a
|
Replace standalone Studio wording with Unsloth (#7221)
* Replace standalone Studio wording with Unsloth Replace the single word Studio with Unsloth wherever it is used as shorthand for Unsloth Studio in docs, CLI output, UI strings, i18n locales, workflow display names, comments and docstrings. Kept unchanged: the full name Unsloth Studio, third party product names (LM Studio, Visual Studio, Mac Studio), feature names (Recipe Studio, Fine-tuning Studio and its translations), and all identifiers such as env vars, commands, paths and filenames. * Address review feedback on the Studio wording rename Use "an" before Unsloth where the rename left the article as "a". Restore the split brand where Unsloth and Studio render as two halves of the full product name: the onboarding sidebar subtitle and the IPv6 localhost warning. Scope two messages to the full name Unsloth Studio where plain Unsloth was misleading: the AMD README bullet and the CLI studio setup error. |
||
|
|
03cbe211a3
|
Studio: fix flash-attn and torchao install on Blackwell (sm_100+) GPUs (Closes #6961) (#6970)
* fix: Remove moot has_blackwell_gpu() function Fixes unslothai/unsloth#6961. This function skipped flash-attn on Blackwell GPUs because no prebuilt wheel existed; Dao-AILab now ships one and url_exists() already gates resolution. Co-Authored-By: Claude Opus 4.8 <noreply@anthropic.com> * fix: use torchao 0.17.0 for Blackwell Fixes #6961. Torchao 0.16.0's cpp extensions are built against CUDA 12, so on a CUDA-13 torch (cu130 / Blackwell) they fail to load with "libcudart.so.12: cannot open shared object file". Select 0.17.0 there instead: its cpp targets torch 2.11, so it is skipped cleanly rather than crashing. CUDA-12 / ROCm / CPU torch 2.10 keeps 0.16.0 and its working kernels. Co-Authored-By: Claude Opus 4.8 <noreply@anthropic.com> * Condense torchao version-selection comments (no behavior change) * Support torch 2.11 in the Studio installer via the torch2.10 prebuilt wheels Map torch 2.11 to the torch2.10 prebuilt wheels for flash-attn, causal-conv1d, and mamba through wheel_utils.prebuilt_wheel_torch_mm, applied in direct_wheel_url (filename) and flash_attn_wheel_url (version). Those torch2.10 CUDA wheels load and pass each project's own test suite on torch 2.11 (verified on B200), so a torch 2.11 environment gets the prebuilt accelerators instead of skipping or building from source. Raise _CUDA_TORCH_PKG_SPEC to <2.12.0 (torchvision <0.27.0, torchaudio <2.12.0) so the CUDA torch repair path can install torch 2.11, where torchao 0.17's cpp kernels load cleanly. Add tests for the mapping. * Keep has_blackwell_gpu as a False stub for future arch gating * Restore has_blackwell_gpu as a return-False probe kept for future arch gating Keep the nvidia-smi compute_cap detection and its two call sites, but short-circuit with return False at the top so flash-attn is no longer skipped on Blackwell (sm_100+ now has prebuilt wheels and url_exists gates resolution). Drop the early return to re-enable arch-based detection later. --------- Co-authored-by: Claude Opus 4.8 <noreply@anthropic.com> Co-authored-by: Daniel Han <danielhanchen@gmail.com> |
||
|
|
c2a7b78f6b
|
Studio: exclude mlx-lm 0.31.3 (broke gemma4/qwen3_5 QK-norm load on Apple Silicon) (#6803)
* Studio: exclude mlx-lm 0.31.3 (broke gemma4/qwen3_5 QK-norm load) mlx-lm 0.31.3 regressed the QK-norm archs: its strict load_weights rejects the q_norm/k_norm tensors with "Received N parameters not in model", so gemma4 and qwen3_5 checkpoints fail to load. Studio installs the MLX stack unpinned at latest, which pulls 0.31.3. Verified on a real macos-14 runner: gemma4 fails to load on 0.31.3 but loads and generates coherently on 0.31.2 and on git-main (future 0.31.4). See mlx-lm #1242. Exclude just that release (!=0.31.3) in the installer and the self-heal floor so --upgrade still resolves to the newest good build, and treat an already-installed 0.31.3 as unsatisfied so the self-heal replaces it. * Studio MLX: cover fresh-install path + robust bad-version compare Address PR review: - Fresh install.sh (Apple Silicon) runs the base 'uv pip install unsloth' with SKIP_STUDIO_BASE=1, skipping the guarded MLX-stack step, so transitive resolution could still pull mlx-lm 0.31.3. install.sh already exports UV_OVERRIDE -> overrides-darwin-arm64.txt before that install, so exclude mlx-lm 0.31.3 there too; this also strengthens the self-heal (same override). - Match the known-bad version with parsed packaging.Version so 0.31.3 == 0.31.3.0 (trailing-zero normalization) instead of raw string equality. * Studio: exclude mlx-lm 0.31.3 on the fresh Apple Silicon install too The overrides file only applies via UV_OVERRIDE when it exists relative to the script, which is not true for a curl-piped install, and the guarded MLX step in install_python_stack.py is skipped there (SKIP_STUDIO_BASE=1). So the base install could still resolve the transitive mlx-lm to the broken 0.31.3. Append mlx-lm!=0.31.3 to the base install on Apple Silicon (empty elsewhere), so the fresh path pins away from 0.31.3 without waiting for the runtime self-heal. * Studio: exclude mlx-lm 0.31.3 on the migrated install; keep the >=0.22.0 floor The with-deps migrated install did not append ${_MLX_LM_EXCLUDE_ARG:-}, so a curl-piped Apple Silicon migration (no repo overrides file, UV_OVERRIDE unset) could resolve mlx-lm 0.31.3 transitively. Append the exclusion there, matching the fresh install path. The no-torch migration is left alone since --no-deps never resolves mlx-lm (same as the fresh no-torch path). Also restore the >=0.22.0 floor in overrides-darwin-arm64.txt: a uv override replaces the transitive constraint, so a bare !=0.31.3 could let the resolver drop below the supported minimum that mlx_repair.py enforces at runtime. * Triage huggingface_hub 1.22.0 / fastapi / multiprocess scanner false positives The scan-packages gate red-failed on all three shards after transitive deps bumped. Every new CRITICAL is a benign false positive, verified against upstream: - huggingface_hub 1.22.0 added _sandbox.py for the remote HF sandbox feature. Its job-startup bootstrap string (fetch sbx-server into the container /tmp and exec it) and the SandboxPool host-reservation loop trip the staged-dropper and C2-loop heuristics; that script runs inside a remote HF container, not on the user machine. The bump also re-hashed the already-reviewed benign polling loops in hf_api.py and utils/_http.py. The PyPI artifact is byte-identical to the official v1.22.0 tag. - fastapi 0.139.0 routing.py re-hashed the websocket keepalive while-True loop; byte-identical to upstream 0.139.0. - multiprocess 0.70.19 forkserver.py and tests/__init__.py re-hashed the AF_UNIX fork-server IPC and fd-inheritance tests; genuine uqfoundation release, local IPC not network. Added 7 reviewed allowlist entries (no blind regenerate). All three shards (hf-stack, studio, extras) exit 0 locally. * Tighten mlx-lm 0.31.3 exclusion comments * Trim mlx-lm 0.31.3 exclusion comments |
||
|
|
c356427f30
|
Guard Windows ROCm torchao override skip (#6837)
Some checks failed
Studio GGUF CI / JSON, images (push) Has been cancelled
Studio load-orchestrator CI / test (push) Has been cancelled
Mac Studio API CI / Studio API & Auth Tests (push) Has been cancelled
Mac Studio GGUF CI / OpenAI, Anthropic API tests (push) Has been cancelled
Mac Studio GGUF CI / Tool calling Tests (push) Has been cancelled
Mac Studio GGUF CI / JSON, images (push) Has been cancelled
Mac Studio Install Matrix CI / Install + load (macos-14) (push) Has been cancelled
Mac Studio Install Matrix CI / Install + load (macos-15) (push) Has been cancelled
Mac Studio Install Matrix CI / Install + load (macos-26) (push) Has been cancelled
Mac Studio Install Matrix CI / Install + load (macos-15-intel) (push) Has been cancelled
Mac Studio Install Matrix CI / Install + load (macos-26-intel) (push) Has been cancelled
Mac Studio UI CI / Chat UI Tests (push) Has been cancelled
Mac Studio Update CI / Studio Updating Tests (push) Has been cancelled
Studio Tauri CI / Tauri Linux debug build (no codesign) (push) Has been cancelled
Studio UI CI / Chat UI Tests (push) Has been cancelled
Studio Update CI / Studio Updating Tests (push) Has been cancelled
Windows Studio API CI / Studio API & Auth Tests (push) Has been cancelled
Windows Studio GGUF CI / OpenAI, Anthropic API tests (push) Has been cancelled
Windows Studio GGUF CI / Tool calling Tests (push) Has been cancelled
Windows Studio GGUF CI / JSON, images (push) Has been cancelled
Windows Studio GGUF CI / Studio install + inference without Visual Studio (push) Has been cancelled
Windows Studio GGUF CI / GPU prebuilt resolves without Visual Studio (push) Has been cancelled
Windows Studio GGUF CI / setup.ps1 unit tests (VS 2026 / CMake guard) (push) Has been cancelled
Windows Studio GGUF CI / real-VS detection (VS 2022) (push) Has been cancelled
Windows Studio GGUF CI / real-VS detection (VS 2026) (push) Has been cancelled
Windows Studio GGUF CI / VC++ runtime detect + install round-trip (windows-2025-vs2026) (push) Has been cancelled
Windows Studio GGUF CI / VC++ runtime detect + install round-trip (windows-latest) (push) Has been cancelled
Windows Studio UI CI / Chat UI Tests (push) Has been cancelled
Windows Studio Update CI / Studio Updating Tests (push) Has been cancelled
Wheel CI / Wheel build + content sanity + import smoke (push) Has been cancelled
* Fix: skip fp16/bf16 validation for full finetuning in RL trainers When doing full finetuning (FFT) of a bfloat16 model, the fp16/bf16 mismatch validation fires before the corrective logic runs, causing a misleading error even though the code would properly handle it downstream. Skip the validation when full_finetuning is active. Fixes #6731 * Fix: auto-correct fp16/bf16 mismatches for full finetuning before validation Instead of entirely skipping validation (which could let mismatches through when mixed_precision_dtype is float32), auto-correct explicit fp16/bf16 settings that conflict with the model's dtype for FFT. This way the existing validation still catches real mismatches for non-FFT cases, and the corrective logic below handles the normalized settings. Fixes the issue raised in Codex review of PR #6813. * Guard Windows ROCm torchao override skip Detect installed ROCm torch directly before applying the torchao override so Windows ROCm environments never install the crashing torchao package even if the earlier ROCm-installed flag is missing. * Update unsloth/models/rl.py Co-authored-by: gemini-code-assist[bot] <176961590+gemini-code-assist[bot]@users.noreply.github.com> * Update studio/install_python_stack.py Co-authored-by: gemini-code-assist[bot] <176961590+gemini-code-assist[bot]@users.noreply.github.com> * Harden ROCm probe and sync RL precision flags Tolerate stray stdout noise when probing Windows ROCm torch installs by checking the last non-empty output line, matching the existing torch version probe behavior. Also keep args.fp16 and args.bf16 synchronized with the full-finetuning precision auto-corrections in the RL trainer patch so downstream eval settings see a consistent TrainingArguments state. * [pre-commit.ci] auto fixes from pre-commit.com hooks for more information, see https://pre-commit.ci * Add MLX trainer compatibility shims Patch imported MLXTrainer and MLXTrainingConfig objects to preserve the expected dataclass field ordering and to provide a _train_dataset_for_batches fallback when older trainers or test doubles only expose train_dataset. Also add focused worker tests covering both compatibility paths. * [pre-commit.ci] auto fixes from pre-commit.com hooks for more information, see https://pre-commit.ci * Scope PR to Windows ROCm torchao guard * Restore PR scope to Windows ROCm guard * [pre-commit.ci] auto fixes from pre-commit.com hooks for more information, see https://pre-commit.ci * test: cover Windows ROCm torchao skip behavior * [pre-commit.ci] auto fixes from pre-commit.com hooks for more information, see https://pre-commit.ci --------- Co-authored-by: Ayushman Paul <ayushman@HP> Co-authored-by: gemini-code-assist[bot] <176961590+gemini-code-assist[bot]@users.noreply.github.com> Co-authored-by: pre-commit-ci[bot] <66853113+pre-commit-ci[bot]@users.noreply.github.com> Co-authored-by: Lee Jackson <130007945+Imagineer99@users.noreply.github.com> Co-authored-by: imagineer99 <samleejackson0@gmail.com> |
||
|
|
91f4ec7ba7
|
Studio: self-heal a pre-#6483-fix anyio>=4.14 stuck in existing installs (#6805)
Some checks are pending
Studio GGUF CI / Tool calling Tests (push) Waiting to run
Studio GGUF CI / JSON, images (push) Waiting to run
Mac Studio API CI / Studio API & Auth Tests (push) Waiting to run
Mac Studio GGUF CI / OpenAI, Anthropic API tests (push) Waiting to run
Mac Studio GGUF CI / Tool calling Tests (push) Waiting to run
Mac Studio GGUF CI / JSON, images (push) Waiting to run
Mac Studio Install Matrix CI / Install + load (macos-14) (push) Waiting to run
Mac Studio Install Matrix CI / Install + load (macos-15) (push) Waiting to run
Mac Studio Install Matrix CI / Install + load (macos-26) (push) Waiting to run
Mac Studio Install Matrix CI / Install + load (macos-15-intel) (push) Waiting to run
Mac Studio Install Matrix CI / Install + load (macos-26-intel) (push) Waiting to run
Mac Studio UI CI / Chat UI Tests (push) Waiting to run
Mac Studio Update CI / Studio Updating Tests (push) Waiting to run
Studio Tauri CI / Tauri Linux debug build (no codesign) (push) Waiting to run
Studio UI CI / Chat UI Tests (push) Waiting to run
Studio Update CI / Studio Updating Tests (push) Waiting to run
Windows Studio API CI / Studio API & Auth Tests (push) Waiting to run
Windows Studio GGUF CI / OpenAI, Anthropic API tests (push) Waiting to run
Windows Studio GGUF CI / Tool calling Tests (push) Waiting to run
Windows Studio GGUF CI / JSON, images (push) Waiting to run
Windows Studio GGUF CI / Studio install + inference without Visual Studio (push) Waiting to run
Windows Studio GGUF CI / GPU prebuilt resolves without Visual Studio (push) Waiting to run
Windows Studio GGUF CI / setup.ps1 unit tests (VS 2026 / CMake guard) (push) Waiting to run
Windows Studio GGUF CI / real-VS detection (VS 2022) (push) Waiting to run
Windows Studio GGUF CI / real-VS detection (VS 2026) (push) Waiting to run
Windows Studio GGUF CI / VC++ runtime detect + install round-trip (windows-2025-vs2026) (push) Waiting to run
Windows Studio GGUF CI / VC++ runtime detect + install round-trip (windows-latest) (push) Waiting to run
Windows Studio UI CI / Chat UI Tests (push) Waiting to run
Windows Studio Update CI / Studio Updating Tests (push) Waiting to run
Wheel CI / Wheel build + content sanity + import smoke (push) Waiting to run
* Studio: self-heal a pre-#6483-fix anyio>=4.14 stuck in existing installs The <4.14 cap in constraints.txt/no-torch-runtime.txt only constrains new anyio resolutions. An install made before that cap existed can already be sitting on anyio 4.14+, and since it already satisfies mcp/fastmcp's anyio>=4.5 floor, every later constrained install skips it as already-satisfied -- so affected installs never recover and keep hitting the cancel-scope RuntimeError on every request (#6797, a recurrence of #6483). Force-reinstall anyio<4.14 whenever a stuck 4.14+ is detected. * [pre-commit.ci] auto fixes from pre-commit.com hooks for more information, see https://pre-commit.ci * Studio: also repair anyio on the update fast path setup.sh's _SKIP_PYTHON_DEPS and setup.ps1's $SkipPythonDeps skip install_python_stack.py entirely once the installed package version already matches PyPI latest, so an install stuck on anyio>=4.14 with an otherwise up-to-date package never reaches the repair added in install_python_stack.py. Probe anyio on that fast path too and fall through to the full dependency pass when it's still >=4.14, mirroring the existing ROCm/CPU-torch override right below it. --------- Co-authored-by: pre-commit-ci[bot] <66853113+pre-commit-ci[bot]@users.noreply.github.com> |
||
|
|
9d53656614
|
Make _uv_safe_path space-safe on macOS/Linux (#6503) (#6534)
* Copy uv `-c`/`-r` paths to a space-free temp dir on macOS/Linux
uv 0.11.x truncates a constraints/requirements path passed via `-c`/`-r`
at the first space, so `unsloth studio` setup from a repo cloned under a
path containing a space (e.g. `/Users/me/Open Source/unsloth`) fails with:
error: File not found: `/Users/me/Open`
_uv_safe_path() already worked around this on Windows via the 8.3 short
path but returned the space-containing path unchanged on macOS/Linux,
which have no 8.3 equivalent. Extend it to copy the (small, flat)
constraints/requirements file into a space-free temp dir and hand uv the
copy; the temp dirs are removed at process exit. Falls back to the
original path on any error, so it is never worse than before.
Refs unslothai/unsloth#6503
* Route UV_OVERRIDE through _uv_safe_path and fix temp-dir leak (#6503)
The -c/-r fix did not cover UV_OVERRIDE, which uv also truncates at the first
space. On Apple Silicon the overrides file is handed to uv via UV_OVERRIDE at
install time (install_python_stack.py) and during the MLX self-heal
(utils.mlx_repair), so a repo under a path containing a space still broke every
uv call there. Move _uv_safe_path into backend.utils.uv_path_safety so both
sites share it, and route UV_OVERRIDE through it.
Also stop leaking the temp dir when shutil.copyfile fails after mkdtemp, and add
tests for the UV_OVERRIDE channel, the TMPDIR-with-space fallback, the atexit
cleanup, and the no-leak path.
---------
Co-authored-by: danielhanchen <danielhanchen@gmail.com>
|
||
|
|
1cc785e5a0
|
Studio: remove OpenEnv and other unused packages (#6585)
* Studio: drop OpenEnv and unused ExecuTorch/open_spiel install deps * Studio: drop 8 more unused install deps from extras * Studio: restore tomli<3.11 for kernels; tidy dep-cleanup comments and tests * [pre-commit.ci] auto fixes from pre-commit.com hooks for more information, see https://pre-commit.ci * Studio: refresh scan-packages baseline for scipy _external + unsloth-zoo tests scipy moved its vendored array_api_compat from scipy/_lib to scipy/_external, so the four allowlisted array_api_compat __init__.py entries stopped matching and resurfaced as unsuppressed CRITICAL "Downloads and executes remote code" findings on all three pip scan-packages shards (extras, hf-stack, studio). Add the _external paths next to the existing _lib ones so both scipy layouts stay covered. Allowlist two unsloth-zoo test-file false positives now present in the hf-stack shard: tests/test_mlx_save_export_regressions.py (writes to /tmp dropper) and tests/test_mlx_trainer_internals.py (obfuscation plus exec/eval). Drop nine stale entries for packages removed from the Studio requirements and no longer in any shard closure (evaluate, pytest, hypothesis, kgb, langid), confirmed absent via with-deps resolution of all three shards. --------- Co-authored-by: pre-commit-ci[bot] <66853113+pre-commit-ci[bot]@users.noreply.github.com> Co-authored-by: Daniel Han <danielhanchen@gmail.com> |
||
|
|
935f6c50ef
|
studio: tighten torchao Windows-ROCm comments and test docstrings (#6610) | ||
|
|
55c392ff7c
|
studio: fix sentence-transformers RAG embedder on Windows ROCm (torchao) (#6608)
torchao has no working Windows ROCm build. transformers.quantizers imports it, and it loads torch's c10d distributed backend at module level, which the AMD Windows wheels omit (no RCCL). The import aborts, transformers can no longer expose PreTrainedModel, and the sentence-transformers embedder silently falls back to the llama-server GGUF embedder. Linux ROCm and NVIDIA are unaffected (the c10d ops are present / torchao is real there). The training and export workers already install the shared torchao stub before importing transformers, but the RAG embedder runs in the main backend process, which never did. Two fixes, both no-ops off Windows ROCm: - embeddings.py: install_torchao_windows_rocm_stub() before the first sentence-transformers import, so an already-installed torchao is neutralized (fixes existing venvs). - install_python_stack.py: stop installing torchao on Windows ROCm; it can only crash on import there, so new venvs never ship it. Add tests covering the embedder stub call and the install skip. |
||
|
|
e83d4ae072
|
Windows installer: fix DiskPart UAC mid-install, drive-root cache, and spurious unsloth.exe rename warning (#6296)
* Windows installer: fix DiskPart UAC, drive-root cache, spurious rename warning, CPU-base messaging
amd-smi gate (DiskPart UAC mid-install): the AMD torch wheel ships hipInfo.exe
inside the venv, and the bitsandbytes fix prepends that venv Scripts dir to PATH.
shutil.which("hipinfo") then found it and flipped _amd_smi_allowed() to True, so
the post-install AMD probe fell through to `amd-smi list` (the venv hipInfo failed
to report gcnArchName, which is why the arch came from the GPU-name table) and
amd-smi elevated, popping the DiskPart UAC. Fix: a hipinfo resolved inside the
active venv (sys.prefix) is the torch-wheel binary, not a HIP SDK, and must not
open the gate. Mirrored in install_python_stack.py, install_llama_prebuilt.py, and
backend utils/hardware/amd.py (the runtime VRAM poller had the same latent prompt).
TORCHINDUCTOR_CACHE_DIR: move from C:\tc to <StudioHome>\TORCHINDUCTOR_CACHE_DIR so
the inductor/Triton cache lives under the user's Studio home, not the system drive
root. Long paths are already enabled above so deep inductor paths still fit.
unsloth.exe rename: skip the rename (and its "pip may fail with WinError 32"
warning) when SKIP_STUDIO_BASE=1. In the install.ps1 flow base packages are not
reinstalled, so unsloth.exe is never rewritten; the self-rename only failed because
setup runs via unsloth.exe (the running launcher holds its own file). The
'studio update' flow still attempts it.
CPU PyTorch messaging: clarify that the CPU base is temporary and setup replaces it
with GPU ROCm wheels, and print an explicit "GPU ROCm PyTorch installed" line after
the AMD wheels land, so the log makes clear the final install is GPU-accelerated.
Adds two regression tests covering the venv-internal vs external hipInfo gate.
Verified end-to-end on a Strix Halo box (Radeon 8060S / gfx1151): install.ps1
--local from this branch completed exit 0 with no DiskPart prompt, no rename
warning, the cache under the Studio home, and "GPU ROCm PyTorch installed
(gfx1151)"; Studio then booted and detected "ROCm (HIP 7.13.99004) -- AMD Radeon
8060S Graphics".
* Windows installer: drop the unreliable unsloth.exe rename and its WinError 32 warning
setup.ps1 used to rename the running unsloth.exe out of the way before the
base-package upgrade so pip could replace it. That rename never actually
worked: setup runs *via* unsloth.exe, so renaming our own running
uv-trampoline launcher failed with a sharing violation (WinError 32) and only
printed a scary 'could not rename unsloth.exe; pip may fail with WinError 32'
warning on every Windows install and update.
It also was not needed. pip tolerates a running/locked console-script .exe: it
moves the old one aside and writes the new one. The base upgrade routes through
pip on Windows, so the upgrade succeeds (or, in the install.ps1 flow with
SKIP_STUDIO_BASE=1, the base is not touched at all) and unsloth.exe is left
intact either way.
Removing the rename block and its failed-install restore block removes the
false warning for all Windows devices in both the install and update flows.
* Windows installer: gate venv-internal hipInfo.exe in PowerShell amd-smi probe; harden venv path checks
Follow-up to PR #6296.
- install.ps1 and setup.ps1: ignore the AMD torch wheel hipInfo.exe that lives
inside the Studio venv when probing for a HIP SDK, so amd-smi no longer reopens
the DiskPart UAC during install/update. Mirrors _path_inside_venv in the Python
installers, which already do this.
- amd.py, install_llama_prebuilt.py, install_python_stack.py: normcase the venv
containment check (Windows paths are case-insensitive) and run the
HIP_PATH/ROCM_PATH candidate through it too.
- setup.ps1: fall back to a short TORCHINDUCTOR cache dir when long paths are
unavailable, and create the dir wildcard-safely.
- tests: isolate sys.prefix in the gate helper, add HIP_PATH/ROCM_PATH cases, and
assert the PowerShell venv exclusion.
* [pre-commit.ci] auto fixes from pre-commit.com hooks
for more information, see https://pre-commit.ci
* Windows installer: install ROCm PyTorch directly for a known AMD arch
When the GPU arch is known (name-inferred from the GPU-name table) but ROCm
could not be probe-verified (no HIP SDK, no amd-smi), the bootstrap installed
a CPU PyTorch base that setup.ps1 then force-reinstalled as ROCm. The
repo.amd.com wheels bundle their own runtime (no HIP SDK required), which
setup.ps1 already relies on, so the CPU base was a pure wasted download/install.
- Gate the ROCm index on a known arch, not only on probe-verified ROCm, so a
mapped arch installs ROCm torch directly. Unmapped arches and no-GPU hosts
still get CPU (unchanged).
- Fall back to a CPU base if the ROCm-index install fails, so a transient
repo.amd.com outage does not abort the install (setup.ps1 retries ROCm).
- Correct the stale comment that claimed ROCm wheels need a confirmed HIP SDK.
- Add a regression test for the arch-based gate.
* [pre-commit.ci] auto fixes from pre-commit.com hooks
for more information, see https://pre-commit.ci
* Windows installer: correct the unsloth.exe rename-removal comment
The comment claimed the base upgrade 'routes through pip on Windows' and that
pip 'moves the old unsloth.exe aside, then writes the new one'. That is not what
the code does. install_python_stack tries uv first; on a locked launcher uv
aborts and falls back to pip, but the pip fallback strips --upgrade-package and
base.txt lists only bare unsloth/unsloth-zoo, so pip finds them already
satisfied and no-ops. The running unsloth.exe is left intact at its current
version either way. Reword the comment to describe the real uv-first /
pip-fallback-no-op behavior. No functional change.
* Windows installer: close two gaps in the venv-internal hipinfo exclusion
Review follow-up. The amd-smi/DiskPart gate could still reopen in two cases:
- setup.ps1 ran the HIP probe long before $VenvDir is assigned, so without
VIRTUAL_ENV (the `unsloth studio update` path) $venvRoots was empty and the
venv-internal hipInfo.exe was not recognized. Seed the venv root from
UNSLOTH_SETUP_PYTHON and the default Studio home too (both installers).
- The HIP_PATH/ROCM_PATH candidate was accepted without the venv filter, so an
env var pointing into the venv (AMD wheel) still set $HipSdkInstalled. Run
Test-HipinfoIsVenvInternal on the candidate as well (both installers).
Extend the PS gate test to assert both. Both .ps1 parse clean; install tests
pass (the venv-internal / HIP probe coverage at 359 passed).
* Windows installer: correct the CPU-base message for arches with no ROCm wheels
After gating the ROCm index on a known arch, a mapped arch sets $ROCmIndexUrl
and installs ROCm directly, so it no longer reaches the "temporary CPU base"
branch. That branch is now reached only by a name-inferred arch with no ROCm
wheels (e.g. RDNA2 gfx103X), where setup.ps1 does NOT install ROCm. The old
text ("setup replaces it with GPU ROCm wheels ... the final install IS
GPU-accelerated") was therefore always wrong there. Say plainly that PyTorch
stays on CPU for this GPU.
* Windows installer: seed the venv-internal hipInfo check from a custom Studio home
Test-HipinfoIsVenvInternal seeded the venv root from VIRTUAL_ENV, VenvDir, the
setup python, and the default %USERPROFILE% path only. A standalone
`unsloth studio update` with a custom UNSLOTH_STUDIO_HOME (or STUDIO_HOME alias)
and none of those set would not recognize the venv hipInfo on PATH, reopening the
amd-smi/DiskPart gate. Seed the custom home too, in both installers, and assert
it in the gate test.
* Studio installer: resolve venv aliases and expand ~ in the hipInfo venv filter
Two review points on the amd-smi/DiskPart UAC gate:
1. _path_inside_venv compared os.path.abspath of sys.prefix and the hipInfo
path, which does not resolve symlinks, junctions, or 8.3 short names. A venv
reached through an aliased path then fails the check, so its bundled
hipInfo.exe is mistaken for an external HIP SDK and amd-smi runs (the
DiskPart prompt this fix exists to suppress). Switch to os.path.realpath in
all three copies (amd.py, install_llama_prebuilt.py, install_python_stack.py).
2. setup.ps1's early venv-internal hipInfo probe seeded the venv root from a
custom Studio home (UNSLOTH_STUDIO_HOME / STUDIO_HOME) without expanding a
leading ~, while the canonical resolver does. With a tilde form,
[IO.Path]::GetFullPath kept the literal ~ relative to cwd, so the custom-home
hipInfo escaped the filter and reopened the gate. Expand ~ in the probe the
same way as the resolver.
tests/studio/install/test_pr5940_followups.py: 30 passed (adds a symlink
realpath case and a setup.ps1 tilde-expansion guard).
* Studio installer: mirror the hipInfo venv filter and ROCm wheel pins into install.ps1
Follow-up review on the same install.ps1 paths:
1. install.ps1's venv-internal hipInfo probe (Test-HipinfoIsVenvInternal)
seeded the venv root from a custom Studio home without expanding a leading
~, unlike the canonical resolver and setup.ps1. A tilde form left
[IO.Path]::GetFullPath with the literal ~ (relative to cwd), so the
custom-home hipInfo escaped the filter and reopened the amd-smi/DiskPart
gate. Expand ~ in the probe, matching the setup.ps1 fix.
2. The AMD ROCm path installed torchvision/torchaudio bare while pinning torch
to below 2.12. AMD's per-arch index publishes the companions independently
and may ship torchvision 0.27 (for torch 2.12) before removing 0.26, so a
bare resolve can pick an ABI-incompatible set and fall back to CPU. Add
torchvision/torchaudio floor maps and pass the pinned specs, mirroring
setup.ps1 and install_python_stack.py.
3. The ROCm-to-CPU fallback torch install used Invoke-InstallCommand (no
retry), the only torch step in the file without it. Switch to
Invoke-InstallCommandRetry so the recovery path survives a transient index
failure.
tests/studio/install/test_pr5940_followups.py: 33 passed (parametrized tilde
check over both installers, a torch/companion floor-map parity test, and a
CPU-fallback retry guard).
* Studio installer: scan all PATH hipinfo so the venv copy can't shadow a real HIP SDK
The amd-smi HIP-SDK probe used shutil.which("hipinfo") / Get-Command hipinfo,
which return only the first hit on PATH. The AMD torch wheel ships hipInfo.exe
inside the venv and the bnb fix (plus the Studio backend) prepend the venv
Scripts dir to PATH, so that venv-internal copy lands first. When a real HIP SDK
hipinfo sits later on PATH with HIP_PATH/ROCM_PATH unset, the first-hit probe
stopped at the venv copy, treated it as "not a HIP SDK", and closed the amd-smi
gate -- AMD users in that PATH-only SDK setup lost amd-smi telemetry and could
fall back to CPU. Scan every PATH entry and keep the first hipinfo that is not
venv-internal; only the venv copy is ignored, so the UAC/DiskPart suppression is
unchanged.
Applied to all three Python copies (install_llama_prebuilt.py,
install_python_stack.py, backend/utils/hardware/amd.py) via a new
_external_hipinfo_on_path helper, and both PowerShell callers (install.ps1,
setup.ps1) now use Get-Command hipinfo -All filtered by Test-HipinfoIsVenvInternal.
tests/studio/install/test_pr5940_followups.py: 36 passed (real-PATH scan tests, a
shadow-regression test for the exact venv-first ordering, and a parity check that
every Python copy uses the scanning helper).
* [pre-commit.ci] auto fixes from pre-commit.com hooks
for more information, see https://pre-commit.ci
* Studio uninstallers: fix leftovers (false "removed", shared icon, llama lock)
Auditing a dual native+WSL uninstall on a real device surfaced three leftovers:
1. uninstall.ps1 removed the data dir (which holds unsloth.ico) before the
shortcuts that reference that icon, so Explorer's icon cache briefly held it
open. Remove-Item -Recurse reported success yet left the locked file, and the
dir was never re-attempted, so it orphaned with a false "removed" log.
_RemovePath now verifies the path is actually gone (retrying transient locks)
and reports honestly, and the data dir is re-swept after the shortcuts go.
2. install.sh writes a shared unsloth.ico to %LOCALAPPDATA%\Unsloth Studio for
the WSL shortcut, but uninstall.sh never removed it, orphaning the icon (and
dir) after a WSL uninstall. uninstall.sh now drops that icon and the dir when
empty, in both the powershell.exe and drvfs-fallback paths.
3. ~/.unsloth/.llama.cpp.install.lock was never removed, so the rmdir of
~/.unsloth failed and the dir lingered. Both uninstallers now remove the lock.
Verified by running both uninstallers on a real dual install: device fully clean
(no install dirs, shortcuts, PATH/registry entries, shared icon, or lock left).
* install.sh: auto-route Strix Halo WSL to an existing Ubuntu 24.04
ROCm-on-WSL is the GPU runtime for Strix Halo and only targets Ubuntu
24.04. When the installer runs in a newer default distro (e.g. 26.04) it
cannot enable the GPU and silently falls back to CPU. If a 24.04 distro
already exists, re-run the install there and stop in the current one so the
GPU path is taken without the user having to know about the distro
requirement.
Runs before venv creation so the wrong distro is left untouched, guards
against re-route loops via UNSLOTH_WSL_REROUTED, leaves a working ROCm
distro alone (librocdxg present), and skips the GGUF-only / opt-out /
non-Strix cases. When no 24.04 distro exists we keep today's behaviour:
continue to CPU and print the `wsl --install Ubuntu-24.04` guidance, never
auto-downloading a distro.
Adds tests/sh/test_strixhalo_wsl_reroute.sh (hermetic: extracts the
function, rewrites its paths to fixtures, mocks wsl.exe) covering the full
decision matrix, wired into tests/run_all.sh.
* uninstall.ps1: keep shared unsloth.ico for a surviving WSL shortcut
A dual native+WSL install shares %LOCALAPPDATA%\Unsloth Studio\unsloth.ico:
install.sh points the WSL shortcut's icon there while the native install owns the
dir. The native uninstaller removed the whole dir unconditionally, so uninstalling
native while keeping WSL left the WSL shortcut with a blank icon. The old code only
avoided this when Explorer happened to hold the icon open, which is unreliable; on a
real dual install the dir was deleted and the WSL shortcut went blank.
_RemoveDataDirKeepingWslIcon now scans the Start Menu + Desktop for a surviving
"Unsloth Studio (WSL ...).lnk" and, if found, removes everything in the data dir
except unsloth.ico (keeping the dir) instead of deleting it; with no WSL shortcut it
removes the dir as before. uninstall.sh still drops the icon and the empty dir when
WSL itself is uninstalled, so every uninstall order ends clean.
Adds tests/studio/test_uninstall_dual_install_icon.ps1 (AST-extracts the helper and
runs it against a temp dir with controlled shortcut dirs) covering the dual,
native-only, empty, and missing-dir cases, wired into the windows-inference smoke
workflow. Verified on a real dual install: native uninstall now keeps unsloth.ico
and the WSL shortcut's icon stays intact.
* installer: condense AMD/ROCm code comments (no behavior change)
Tighten the comments added for the Strix Halo native+WSL installer work so
they are shorter and clearer without losing intent: the venv-internal hipInfo
amd-smi gate, the ROCm torch/companion floor maps, the WSL 24.04 reroute, and
the dual-install uninstall icon handling. Comment-only; code paths unchanged.
107 insertions, 166 deletions across 11 files.
* install.sh: run the Strix Halo WSL reroute before any STUDIO_HOME write
The reroute fired after mkdir -p "$STUDIO_HOME" and the legacy-venv migration,
so rerouting 26.04 -> 24.04 left an empty ~/.unsloth/studio stub in the origin
distro (and ran venv migration in the distro about to be abandoned). Move the
reroute ahead of the venv section so the origin distro is left untouched, matching
the function's own comment. Behavior is identical on every non-reroute path.
* installer: fix ROCm CPU-fallback, hipinfo gate edge cases, uninstall icon, WSL 22.04
- install.ps1: clear $ROCmIndexUrl/$ROCmTorchFloor after the CPU fallback so the
flavor-repair block does not retry the failed ROCm index and abort the install;
pin the ROCm companion specs ($visionSpec/$audioSpec) in the repair path too.
- install.ps1 + setup.ps1: skip a bare drive root in Test-HipinfoIsVenvInternal so a
non-venv UNSLOTH_SETUP_PYTHON does not match the whole drive; iterate
HIP_PATH/HIP_PATH_57/ROCM_PATH and take the first non-venv hipinfo.
- amd.py, install_llama_prebuilt.py, install_python_stack.py: strip surrounding
quotes from PATH entries before probing for hipinfo.
- install.sh: pipefail the WSL reroute curl|sh; do not reroute supported Ubuntu 22.04.
- uninstall.sh: keep the shared unsloth.ico while any Unsloth shortcut (native or
another WSL distro) still references it, in both the powershell and drvfs paths.
- tests: regression coverage for all of the above.
* installer: forward reroute options, guard ROCm bootstrap, harden hipinfo gate
- install.sh: forward the caller's --package/--python/--verbose/--tauri and a custom
UNSLOTH_STUDIO_HOME into the WSL reroute (was a bare default install); bail on
--local; run the reroute BEFORE dependency/uv install so the origin distro is left
untouched; set UNSLOTH_SKIP_ROCM_WSL_SETUP after a failed reroute so the later
ROCm-on-WSL bootstrap does not install into the unsupported origin distro.
- install.ps1 + setup.ps1: Get-Command hipinfo -CommandType Application so only real
executables match (not an alias/function named hipinfo).
- uninstall.ps1: guard $env:APPDATA when building the default shortcut search dirs.
- tests: cover option forwarding, --local bail, the bootstrap guard, and the gate change.
* [pre-commit.ci] auto fixes from pre-commit.com hooks
for more information, see https://pre-commit.ci
* installer: guard origin ROCm bootstrap on every CPU-only fallback; harden ~ expansion
WSL reroute: the no-wsl.exe, no-24.04-target and --local fallbacks all tell the
user the install continues CPU-only, but only the failed-reroute branch set
UNSLOTH_SKIP_ROCM_WSL_SETUP=1. The later _maybe_bootstrap_rocm_wsl gate keys off
that flag, so the other three branches could still install ROCm into the
unsupported origin distro (e.g. 26.04). Set the skip guard on all of them.
Forward UNSLOTH_ROCM_WSL_AUTO into the reroute so a Tauri/consented GPU bootstrap
carries through to the rerouted 24.04 child instead of dropping to the prompt path.
install.ps1/setup.ps1: guard the venv-probe ~ expansion on a non-empty
$env:USERPROFILE so Join-Path does not throw on a profile-less service account.
Tests: add no-wsl.exe and UNSLOTH_ROCM_WSL_AUTO reroute cases, the USERPROFILE
guard assertion, and route shell-test fixtures through a single trap-cleaned root.
* installer: pin + soften Windows ROCm Python repair, reroute to 22.04, harden gates
install_python_stack.py: the Windows AMD ROCm repair in _ensure_rocm_torch()
installed bare torch/torchvision/torchaudio via the fatal pip_install -- the same
asymmetry already fixed on the PowerShell side. A transient repo.amd.com failure
could abort the whole install even after install.ps1/setup.ps1 fell back to CPU.
Pin companions per-arch (gfx120X/Strix -> the rocm7.2 trio, mirroring the PS floor
maps) and make the retry nonfatal: keep the existing build and let the user re-run
update to retry ROCm, so the chain install.ps1 -> setup.ps1 -> stack stays CPU-safe.
install.sh: reroute now targets an installed Ubuntu 24.04 OR 22.04 (24.04 preferred);
both are AMD-supported for ROCm-on-WSL, matching the leave-alone set, so a box with
only 22.04 reaches the GPU instead of staying CPU-only.
install.ps1/setup.ps1: a bare ~ for UNSLOTH_STUDIO_HOME left an empty Join-Path child
(PS 5.1 throws); fall back to USERPROFILE directly and only join a real remainder.
_path_inside_venv (amd.py + both installers): guard a root-dir sys.prefix so commonpath
can't classify every path on the drive as venv-internal (defensive; venv never at root).
uninstall.sh: guard an empty LOCALAPPDATA in the PS-interop icon cleanup (mirror APPDATA).
Tests: add 22.04-target reroute cases, Windows ROCm pin+nonfatal coverage (text +
behavioral), root-dir guard coverage, and bare-~/LOCALAPPDATA guard assertions.
* [pre-commit.ci] auto fixes from pre-commit.com hooks
for more information, see https://pre-commit.ci
* install.sh: match WSL reroute target by exact distro name, not substring
The 24.04/22.04 reroute target was chosen with grep -F (substring), so a custom
distro such as 'Ubuntu-24.04-test' (with no exact Ubuntu-24.04) was picked as the
target; the later 'wsl -d Ubuntu-24.04' then fails and the Strix Halo install stays
CPU-only. Match whole lines (grep -ixF) and reuse the matched name so only a real
Ubuntu-24.04/22.04 is targeted. Adds substring-rejection + exact-vs-custom tests.
* install.sh: keep the WSL reroute target to Ubuntu 24.04 (helper-supported only)
The ROCm-on-WSL bootstrap (scripts/install_rocm_wsl_strixhalo.sh) dies on any
VERSION_ID other than 24.04 and pins the noble repo, so treating 22.04 as
GPU-supported let the parent report a successful reroute while the child fell
back to CPU. Drop 22.04 from the supported set and the reroute target list;
24.04 stays the sole target (keeping the exact whole-line distro match). An
already-working ROCm on any other version is still left alone by the librocdxg
check above.
tests: reroute 22.04 cases updated to the 24.04-only behavior; make the
"no wsl.exe" case hermetic so a real host wsl.exe can't leak in on dev boxes;
stop the tauri exit-order check from mis-flagging the reroute helper's
[ "$TAURI_MODE" = true ] && ... --tauri one-liner.
* installer: tighten comment wording across the Strix Halo install/uninstall paths
Condense the verbose multi-line comment blocks (amd-smi hipinfo gate, ROCm
torch install + CPU fallback, WSL reroute, uninstall icon-keep) into fewer,
clearer lines. Comments and a few docstrings only; no code, logic, or
behavior change. Verified with bash -n, the PowerShell parser, and ast.parse,
and the installer test suite still passes.
* add AGPL-3.0 SPDX headers to the .sh/.ps1 scripts missing them
Every shell and PowerShell script under the Studio/installer surface now
carries the standard SPDX-License-Identifier: AGPL-3.0-only + copyright
header (after the shebang where present): the installer (install.sh,
install.ps1), build.sh, the .github and src-tauri scripts, the installer
test suite, and the moe kernel test. Header-only, line endings preserved;
bash -n, the PowerShell parser, and the installer tests all pass.
* installer: drop the duplicate AGPL header from install.sh and install.ps1
Both already carry an SPDX-License-Identifier: AGPL-3.0-only header below
their usage comment block; the prior header pass added a second one at the
top because it only scanned the first few lines. Remove the duplicate so each
file keeps a single original header.
* installer: force-reinstall CPU fallback torch; propagate Tauri NEED_SUDO from reroute
install.ps1/setup.ps1: when the AMD ROCm wheel install fails and we fall back to a
CPU base, force-reinstall the torch/vision/audio triplet. A failed ROCm install can
leave an unpinned ROCm torch (e.g. 2.10.0+rocm on gfx110X/gfx90a) that still
satisfies the CPU torch>=2.4,<2.11.0 range, so without --force-reinstall uv keeps the
ROCm build and only swaps the companions -- a mismatched venv the flavor-repair block
won't fix. setup.ps1 scopes the forced reinstall to the ROCm-fallback path
() so the genuine CPU-only install stays fast.
install.sh: the Strix Halo WSL reroute treated every nonzero child exit as a reroute
failure and fell back to CPU. In --tauri mode the child uses exit 2 ([TAURI:NEED_SUDO])
to ask the desktop app to elevate for the target distro; capture the child's exit code
and propagate exit 2 in Tauri mode (the child already printed the NEED_SUDO line)
instead of masking it. CLI mode still falls back to CPU on a generic failure.
Tests: reroute Tauri exit-2 propagation (and non-Tauri CPU-fallback) cases;
run_func now preserves the child exit code; force-reinstall assertions for both
PowerShell installers.
Note: codex's _rr_q apostrophe finding is a false positive -- the helper already
emits POSIX-correct 'O'\''Brien' and round-trips under both sh and bash.
* [pre-commit.ci] auto fixes from pre-commit.com hooks
for more information, see https://pre-commit.ci
* setup.ps1: fix $cpuForce array collapse in the ROCm->CPU torch fallback
An if-expression assignment ($cpuForce = if ($ROCmCpuFallback) { @("--force-reinstall") })
collapses the single-element array to a scalar string, so @cpuForce splatting enumerated
it character-by-character into broken single-letter args (- - f o r c e ...), which made
uv/pip reject the install and aborted the whole Studio setup on the AMD ROCm->CPU fallback
path. Build $cpuForce as a real array assigned outside the if-expression so the splat passes
a single --force-reinstall arg. Genuine CPU-only installs stay fast (empty array, no flag).
Test now asserts the array-build form and rejects the if-expression form.
* [pre-commit.ci] auto fixes from pre-commit.com hooks
for more information, see https://pre-commit.ci
* uninstall: remove the isolated Node.js runtime (~/.unsloth/node)
The isolated Node.js runtime (install_node_prebuilt.py, added with the managed-Node
change) installs to ~/.unsloth/node in default mode -- a sibling of studio, so deleting
<studio> leaves it behind (~200MB orphaned after uninstall). Both uninstallers already
remove the other default-mode siblings (llama.cpp/.cache/.staging); add node alongside
them. uninstall.ps1 also adds it to the handle-lock sweep so a held node.exe can't block
the delete. Env/custom mode nests node under the custom root, removed with that root.
* [pre-commit.ci] auto fixes from pre-commit.com hooks
for more information, see https://pre-commit.ci
---------
Co-authored-by: pre-commit-ci[bot] <66853113+pre-commit-ci[bot]@users.noreply.github.com>
|
||
|
|
1eb15162d9
|
fix: clean up Studio warning log formatting (#6265)
* feat: queue chat prompts during generation * fix: address prompt queue review edge cases * fix: harden queued prompt dispatch * fix: track queued prompt run state by thread * fix: preserve prompt queue ordering * fix: isolate prompt queue on new chat * fix: clean up Studio warning log formatting * Fix export log markup --------- Co-authored-by: wasimysaid <wasimysdev@gmail.com> |
||
|
|
f5f9e217c1
|
studio: select torchao version from the installed torch (#6400)
* studio: select torchao version from the installed torch
The Studio installer pins CUDA torch to torch>=2.4,<2.11 and its driver
ladder selects the cu130 wheel index on recent NVIDIA drivers, so pip
resolves torch 2.10.0. overrides.txt hard-pinned torchao==0.14.0, whose
C++ extensions are built against torch 2.9.0, so torchao skipped its cpp
kernels ("Skipping import of cpp extensions due to incompatible torch
version 2.10.0+cu130 for torchao version 0.14.0") and fell back to the
slow Python path. Every CUDA index now tops out at torch 2.10.0, so this
hit most modern installs, not just cu130.
Pick the torchao version matching the torch actually installed in the
venv (table: pytorch/ao#2919): torch 2.10.x -> torchao 0.16.0, 2.11.x ->
torchao 0.17.0, otherwise the previous 0.14.0 (so torch <=2.9 is
unchanged). The installer reads torch.__version__ from the venv via a
cross-platform sys.executable probe (probe_torch_wheel_env is Linux-only)
and passes the computed spec positionally to the existing force-reinstall
override step; overrides.txt becomes a pointer to that logic. torchao's
Python API (Float8Tensor, used by unsloth/kernels/utils.py) imports
cleanly on 0.16.0/0.17.0, verified against torch 2.9.1.
* [pre-commit.ci] auto fixes from pre-commit.com hooks
for more information, see https://pre-commit.ci
* studio: address review on torchao selection
- Clean the torch minor of pre-release/dev suffixes before parsing
(e.g. '2.10rc1' -> minor 10), matching wheel_utils.probe_torch_wheel_env.
- Pass _windows_hidden_subprocess_kwargs() to the torch-version probe so
it does not flash a console window on Windows (no-op elsewhere).
- Use _safe_print for the selection log line, consistent with the file's
other status output (safe on non-UTF-8 consoles).
---------
Co-authored-by: pre-commit-ci[bot] <66853113+pre-commit-ci[bot]@users.noreply.github.com>
|
||
|
|
08c3878919
|
fix: use partial hipinfo output on crash to avoid CPU fallback (RDNA 4 / gfx1200) (#6292)
* fix: use partial hipinfo output on crash to avoid CPU fallback (#6043) `hipinfo.exe` on some RDNA 4 hosts (e.g. RX 9060 XT / gfx1200) exits with STATUS_ACCESS_VIOLATION (0xC0000005) after printing the gcnArchName line. The previous guard `$LASTEXITCODE -eq 0` in studio/setup.ps1 and `if result.returncode == 0` in install_python_stack.py discarded this partial-but-valid output, causing the installer to fall through to WMI name inference which sets HasROCm=false and installs CPU PyTorch instead of the ROCm wheel. Fix: check for gcnArchName in stdout first; accept the arch regardless of exit code. Only fall through to the amd-smi / WMI path when no gcnArchName is present at all (crash before any output, or a genuine "no device" error). A cyan INFO substep is emitted when the arch is recovered from a crashed hipinfo run so users can see what happened. Adds a regression test covering the crash-with-valid-output path. Fixes #6043 * Fix/adjust hipinfo crash fallback for PR #6292 --------- Co-authored-by: Matt Van Horn <455140+mvanhorn@users.noreply.github.com> Co-authored-by: wasimysaid <wasimysdev@gmail.com> Co-authored-by: Lee Jackson <130007945+Imagineer99@users.noreply.github.com> |
||
|
|
5300c047b6
|
Installer: drop the lemonade ROCm fallback now the fork ships identical per-gfx prebuilts (#6225)
--------- Co-authored-by: Daniel Han <danielhanchen@gmail.com> |
||
|
|
2db9fad4b5
|
Installer: GPU detection follow-ups after #6174 (poisoned venv repair, llama.cpp routing, probe bounds) (#6183)
* Installer: harden GPU detection follow-ups after #6174 Ports the NVIDIA-priority and /proc/driver/nvidia/gpus hardening from #6174 to the remaining pathways and adds recovery for already-poisoned venvs: - install_python_stack.py: add _ensure_cuda_torch so 'unsloth studio update' force-reinstalls CUDA torch when the venv carries a ROCm build on an NVIDIA Linux host (the pre-#6174 poisoning signature). Honors UNSLOTH_TORCH_BACKEND, UNSLOTH_ROCM_TORCH_INSTALLED, and CUDA_VISIBLE_DEVICES=-1/'' opt-outs; never touches healthy CUDA, deliberate CPU wheels, macOS, or Windows. - install_llama_prebuilt.py: detect_host gains the /proc NVIDIA fallback and skips ROCm probes when NVIDIA is usable; forwarded --rocm-gfx/--has-rocm overrides still win. - setup.sh: GPU summary classifies NVIDIA first through a timeout-bounded probe with the /proc fallback; AMD probes are bounded and gain a KFD vendor_id 4098 fallback; the llama.cpp source build only selects GGML_CUDA/GGML_HIP when the matching GPU is actually detected. - install.sh: bound both nvidia-smi calls with a 10s timeout (no behavior change when healthy or when the timeout binary is absent); classify the exported UNSLOTH_TORCH_BACKEND on the final index path segment so custom mirrors containing 'rocm'/'gfx' in their base path are not mislabeled. - install.ps1 + setup.ps1: NVIDIA probes now require a real 'GPU N:' row from nvidia-smi -L under a 10s bound instead of bare exit code 0; later CUDA version and compute_cap queries are bounded too. Tests: 3 new test files (50+ tests), suite at 788 passed. * [pre-commit.ci] auto fixes from pre-commit.com hooks for more information, see https://pre-commit.ci * Fix Resolve-CudaToolkit driver probe for extracted-function unit test tests/studio/test_resolve_cuda_toolkit.ps1 extracts Resolve-CudaToolkit alone into a child pwsh and stubs nvidia-smi with a .ps1 script. The bounded runner is not in scope there (and ProcessStartInfo cannot dispatch .ps1 stubs), so the DriverMaxCuda parse silently returned nothing and the major-mismatch scenarios failed. Fall back to direct invocation when Invoke-NvidiaSmiBounded is unavailable; production setup.ps1 always has it defined and keeps the 10s bound. * Treat CUDA_VISIBLE_DEVICES empty or -1 as hidden in NVIDIA-first guards The NVIDIA-first guards added in this branch only special-cased CUDA_VISIBLE_DEVICES=-1 at two setup.sh gates and ignored the empty-string form entirely, while the Python detector (install_llama_prebuilt.py) already treats both as hidden. On a mixed AMD+NVIDIA host steered to the AMD card via CUDA_VISIBLE_DEVICES, the guards suppressed the AMD probes, so setup.sh fell to a CPU llama.cpp build and install.sh picked CUDA wheels instead of ROCm. Move the policy into the helpers so every consumer agrees: - install.sh: new _cvd_hides_nvidia checked first in _has_usable_nvidia_gpu - studio/setup.sh: same via _setup_cvd_hides_nvidia; the two ad-hoc CUDA_VISIBLE_DEVICES=-1 gate conditions are now redundant and removed - studio/install_python_stack.py: _has_usable_nvidia_gpu returns False when CUDA_VISIBLE_DEVICES is set to or -1 (whitespace tolerated) Tests: 5 new sh scenarios (hidden via , -1, padded -1, visible device, and mixed host with hidden NVIDIA restoring the ROCm route) plus a pytest class covering all three implementations behaviourally. Addresses the review comment on the NVIDIA-first setup.sh block. * [pre-commit.ci] auto fixes from pre-commit.com hooks for more information, see https://pre-commit.ci * Retrigger CI after PyPI 503 outage during the previous run --------- Co-authored-by: pre-commit-ci[bot] <66853113+pre-commit-ci[bot]@users.noreply.github.com> |
||
|
|
bf2cd745b1
|
Fix installer selecting ROCm torch on NVIDIA Linux hosts (#6174)
Some checks are pending
Backend CI / (Python 3.10) (push) Waiting to run
Backend CI / (Python 3.11) (push) Waiting to run
Backend CI / (Python 3.12) (push) Waiting to run
Backend CI / (Python 3.13) (push) Waiting to run
Backend CI / Repo tests (CPU) (push) Waiting to run
Frontend CI / Frontend build + bundle sanity (push) Waiting to run
Studio GGUF CI / OpenAI, Anthropic API tests (push) Waiting to run
Studio GGUF CI / Tool calling Tests (push) Waiting to run
Studio GGUF CI / JSON, images (push) Waiting to run
Mac Studio API CI / Studio API & Auth Tests (push) Waiting to run
Mac Studio GGUF CI / OpenAI, Anthropic API tests (push) Waiting to run
Mac Studio GGUF CI / Tool calling Tests (push) Waiting to run
Mac Studio GGUF CI / JSON, images (push) Waiting to run
Mac Studio Install Matrix CI / Install + load (macos-14) (push) Waiting to run
Mac Studio Install Matrix CI / Install + load (macos-15) (push) Waiting to run
Mac Studio Install Matrix CI / Install + load (macos-26) (push) Waiting to run
Mac Studio Install Matrix CI / Install + load (macos-15-intel) (push) Waiting to run
Mac Studio Install Matrix CI / Install + load (macos-26-intel) (push) Waiting to run
Mac Studio UI CI / Chat UI Tests (push) Waiting to run
Mac Studio Update CI / Studio Updating Tests (push) Waiting to run
Studio Tauri CI / Tauri Linux debug build (no codesign) (push) Waiting to run
Studio UI CI / Chat UI Tests (push) Waiting to run
Studio Update CI / Studio Updating Tests (push) Waiting to run
Windows Studio API CI / Studio API & Auth Tests (push) Waiting to run
Windows Studio GGUF CI / OpenAI, Anthropic API tests (push) Waiting to run
Windows Studio GGUF CI / Tool calling Tests (push) Waiting to run
Windows Studio GGUF CI / JSON, images (push) Waiting to run
Windows Studio UI CI / Chat UI Tests (push) Waiting to run
Windows Studio Update CI / Studio Updating Tests (push) Waiting to run
Wheel CI / Wheel build + content sanity + import smoke (push) Waiting to run
* fix: prevent ROCm torch from installing on NVIDIA Linux hosts
NVIDIA's open kernel module (driver 560+) registers GPU topology nodes in
the KFD sysfs hierarchy with non-zero gpu_id values. The _has_amd_rocm_gpu
(install.sh) and _has_rocm_gpu (install_python_stack.py) sysfs fallbacks
previously treated any non-zero gpu_id as proof of an AMD GPU, so an
NVIDIA-only host with the open kernel driver was misrouted to the ROCm
install path, replacing the correctly-installed CUDA torch with ROCm wheels.
Fixes:
1. install.sh _has_amd_rocm_gpu sysfs fallback: require vendor_id 4098
(AMD 0x1002) in the KFD node properties file before declaring an AMD
GPU present. NVIDIA KFD nodes carry vendor_id 4318 (0x10DE) and are
now skipped.
2. install_python_stack.py _has_rocm_gpu sysfs fallback: same vendor_id
guard. Also preserves the existing fallback for older kernels that
don't ship a properties file (trusts gpu_id alone there).
3. install.sh now exports UNSLOTH_TORCH_BACKEND ("cuda"/"rocm"/"cpu")
immediately after get_torch_index_url() resolves the wheel family.
install_python_stack.py reads this as _TORCH_BACKEND and short-circuits
_ensure_rocm_torch() entirely on cuda/cpu hosts, providing a second
layer of defense that is independent of subprocess GPU detection.
Tests: 9 new cases in TestHasRocmGpuKfdVendorGuard,
TestEnsureRocmTorch, and TestInstallShStructure cover all three changes.
Full test_rocm_support.py suite: 289 passed, 2 skipped, 0 failed.
Closes #6172
* [pre-commit.ci] auto fixes from pre-commit.com hooks
for more information, see https://pre-commit.ci
* fix: show actual torch backend in progress step labels
The 'ROCm torch check' and 'ROCm torch (final)' step labels were
hardcoded regardless of whether the installer was targeting CUDA, ROCm,
or CPU. On NVIDIA hosts they showed 'ROCm' even though no ROCm wheels
were being installed, which was misleading.
Add _torch_step_label(suffix) which reads UNSLOTH_TORCH_BACKEND (set by
install.sh) and formats the label as e.g. 'torch check (cuda)' or
'torch final (rocm)'. Falls back to live GPU detection for standalone
studio update runs that bypass install.sh.
* fix: make KFD sysfs vendor check conservative -- skip if no properties file
The previous implementation fell through to `return True` when the KFD
node's properties file was missing (OSError), intending to support older
kernels. But NVIDIA open driver KFD nodes can also lack a properties file
on some kernel versions, so the fallback still produced a false positive.
Change the `except OSError: pass` to `continue` so any node without a
readable properties file is skipped rather than trusted. KFD properties
files exist on every kernel version that actually exposes /sys/class/kfd,
so this does not regress real AMD GPU detection -- if the directory exists
at all, properties files will be present for genuine GPU nodes.
* fix: bulletproof NVIDIA vs AMD GPU detection
Four changes that together ensure ROCm torch can never be installed on an
NVIDIA host regardless of which detection path fires:
1. _has_rocm_gpu() (Python): NVIDIA guard at the top -- returns False
immediately when _has_usable_nvidia_gpu() is True, blocking rocminfo,
amd-smi, and KFD sysfs from producing a false positive even when ROCm
tools are co-installed alongside the NVIDIA driver.
2. _has_amd_rocm_gpu() (install.sh): same NVIDIA guard -- calls
_has_usable_nvidia_gpu first and returns 1 if it succeeds.
3. _has_usable_nvidia_gpu() (Python): adds /proc/driver/nvidia/gpus/
sysfs fallback. The NVIDIA driver populates this directory on Linux
regardless of nvidia-smi state, so a subprocess PATH gap, timeout, or
driver initialisation race can no longer silence NVIDIA detection.
4. _has_usable_nvidia_gpu() (install.sh): same /proc/driver/nvidia/gpus
fallback, tried after nvidia-smi -L rather than instead of it.
Together: NVIDIA wins at every decision point. If nvidia-smi works, it
confirms NVIDIA. If it fails, /proc/driver/nvidia confirms NVIDIA. If
somehow both fail, _has_rocm_gpu still checks NVIDIA first before any AMD
path runs.
* [pre-commit.ci] auto fixes from pre-commit.com hooks
for more information, see https://pre-commit.ci
* fix: two KFD/proc-only corner cases from Codex review
1. KFD awk state not reset per node file (Ryzen+NVIDIA false positive):
The awk glob processes all topology node properties files in one pass.
Without FNR==1 reset, a Ryzen+NVIDIA host where an AMD CPU-agent node
sets amd=1 (vendor_id 4098, gpu_id 0) can combine with a later NVIDIA
node setting gpu=1 (gpu_id > 0), triggering found=1 before vendor_id
4318 is seen. Added FNR==1{ gpu=0; amd=0 } to reset per file.
2. proc-only NVIDIA not reaching CUDA wheel selection:
_has_usable_nvidia_gpu returning true via /proc/driver/nvidia fallback
left _smi empty, so get_torch_index_url entered the AMD/CPU branch and
selected CPU wheels despite NVIDIA being confirmed. Introduced
_nvidia_detected flag (separate from _smi) so the AMD branch is skipped
whenever NVIDIA is confirmed by any path, while _cuda_ver reads from
_smi when available (with the existing cu126 fallback when _smi is absent).
* [pre-commit.ci] auto fixes from pre-commit.com hooks
for more information, see https://pre-commit.ci
---------
Co-authored-by: pre-commit-ci[bot] <66853113+pre-commit-ci[bot]@users.noreply.github.com>
|
||
|
|
265c9f5db4
|
Fix UnboundLocalError in ROCm version detection dpkg/rpm fallback (#6149)
* Fix UnboundLocalError in _detect_rocm_version dpkg/rpm fallback A leftover local import re inside the amd-smi branch made re function local for the whole scope. When amd-smi and hipconfig are absent and dpkg-query or rpm reports rocm-core, the epoch strip at the dpkg/rpm fallback hit re.sub before any local binding existed and crashed the installer with UnboundLocalError. Drop the local import (the module already imports re at top level) and add a regression test covering the dpkg path without hipconfig. * [pre-commit.ci] auto fixes from pre-commit.com hooks for more information, see https://pre-commit.ci --------- Co-authored-by: pre-commit-ci[bot] <66853113+pre-commit-ci[bot]@users.noreply.github.com> |
||
|
|
8af9fe63a3
|
fix: persist Windows ROCm BNB version (#6048)
* fix: persist Windows ROCm BNB version * style: apply kwarg spacing hook * fix: avoid persisting caller ROCm overrides * fix: redetect managed BNB ROCm defaults * style: apply ROCm guard test formatting --------- Co-authored-by: Daniel Han <danielhanchen@gmail.com> |
||
|
|
62191c4765
|
Windows/WSL installer: fix winget msstore cert failure, amd-smi DiskPart prompt, and enable AMD GPU (Strix Halo gfx1151) (#5940)
* Fix Windows installer winget msstore certificate failure
`winget install` was invoked without `--source winget`, so winget also
queried the msstore source. When msstore fails certificate pinning
(error 0x8a15005e, "The server certificate did not match any of the
expected values") winget aborts and demands `--source`, so the Python
(and uv) install fails even though the package exists in the winget
source.
- Pass `--source winget` to all winget install calls (Python x2, uv).
Both packages live in the winget source, so this is strictly correct
and skips the failing msstore round-trip entirely.
- Add a python.org fallback (Install-PythonFromPythonOrg) that downloads
the official installer and runs it silently per-user (no admin/UAC)
when winget is unavailable or fails for any reason. Mirrors the
existing uv -> astral.sh fallback so Python installs without manual
steps. Resolves the latest 3.13.x from python.org with a pinned
fallback, and selects the amd64/arm64/x86 installer per architecture.
Co-Authored-By: Claude Opus 4.8 <noreply@anthropic.com>
* Pin remaining setup.ps1 winget calls to --source winget
Two winget invocations in studio/setup.ps1 still queried all sources and
could hit the same msstore certificate-pinning failure (0x8a15005e) that
broke the Python install in install.ps1:
- `winget show Nvidia.CUDA --versions` (CUDA Toolkit version probe)
- `winget install ... ShiningLight.OpenSSL.Dev` (OpenSSL dev for llama-server)
Every other winget call in this file already passes `--source winget`
(Git, CMake, VS Build Tools, CUDA install, Node.js, and setup.ps1's own
Python 3.12 install), so these two were stragglers. Both packages live in
the winget source; pinning it makes setup robust to an unhealthy msstore
source, matching the rest of the file.
Co-Authored-By: Claude Opus 4.8 <noreply@anthropic.com>
* Stop amd-smi GPU probe from popping a DiskPart UAC prompt
On Windows, AMD GPU detection in install.ps1 and studio/setup.ps1 runs
`amd-smi list` / `static --asic` / `version`. amd-smi (shipped in
System32 by the Adrenalin driver) auto-elevates to read GPU/APU memory
details, surfacing a confusing DiskPart UAC prompt mid-install. The
Studio backend already documents and circuit-breaks on this in
studio/backend/utils/hardware/amd.py, but the installers did not.
Add an Invoke-AmdSmiNoElevate helper (both scripts) that runs amd-smi via
Start-Process under __COMPAT_LAYER=RunAsInvoker so it cannot auto-elevate
(no prompt), with a 30s timeout (matching amd.py) so a flaky amd-smi
cannot stall the install for minutes. On failure/timeout the existing WMI
name -> gfx fallback still resolves the arch, so detection is unchanged on
working hosts.
Verified on a Strix Halo (Radeon 8060S / gfx1151) box: the prompt is gone
and the probe is bounded.
Co-Authored-By: Claude Opus 4.8 <noreply@anthropic.com>
* Add experimental ROCm-on-WSL setup helper for Strix Halo (gfx1151)
install.sh already routes gfx1151 (Radeon 8060S / Strix Halo) to the
repo.amd.com/rocm/whl/gfx1151 wheels once a ROCm runtime is present, but
it does not install AMD's driver/ROCm stack -- a large, admin-gated
prerequisite. scripts/install_rocm_wsl_strixhalo.sh automates the Linux
side on a dedicated Ubuntu 24.04 WSL2 distro: ROCm 7.2 (wsl usecase), the
rocr4wsl HSA runtime, a librocdxg build, env setup, and a PyTorch gfx1151
GPU smoke test. A hard preflight refuses to run until the Adrenalin
>=26.3.1 driver is actually present, so it cannot half-install.
Procedure adapted from AMD's ROCm-on-WSL docs and community gfx1151 notes.
Co-Authored-By: Claude Opus 4.8 <noreply@anthropic.com>
* Detect AMD GPUs by name so native Windows gets a GPU llama.cpp
The gfx-arch inference from the WMI GPU name was gated behind $HasROCm,
which the hipinfo/amd-smi probe leaves false on the common Windows case
(Adrenalin driver only, no HIP SDK -- and amd-smi often cannot read the
arch without elevation). So an AMD GPU was detected by name but never
mapped to a gfx target, --rocm-gfx was not forwarded, and studio setup
fell back to a CPU llama.cpp build.
Un-gate the inference (install.ps1 + studio/setup.ps1) so it runs whenever
an AMD GPU name is available. The inferred gfx is forwarded as --rocm-gfx,
which makes install_llama_prebuilt.py download the matching lemonade-sdk
ROCm prebuilt (e.g. llama-bNNNN-windows-rocm-gfx1151-x64.zip) -- a
GPU-accelerated llama.cpp that bundles its own ROCm runtime, so it runs
with just the Adrenalin driver. PyTorch's ROCm wheels still require a
confirmed HIP SDK ($HasROCm), so this only affects llama.cpp / inference
and never pulls broken ROCm torch.
Also broaden the name->arch table to every family lemonade ships Windows
assets for: gfx120X (RDNA 4), gfx110X (RDNA 3), gfx1151/gfx1150
(RDNA 3.5), and gfx103X (RDNA 2). Unknown names still fall back to CPU.
Co-Authored-By: Claude Opus 4.8 <noreply@anthropic.com>
* Suppress amd-smi DiskPart UAC prompt in the Python install/runtime paths
The earlier PowerShell guard covered install.ps1 / setup.ps1, but the
Python installer (install_llama_prebuilt.py detect_host,
install_python_stack.py ROCm probes) and the Studio backend monitor
(amd.py) also shell out to amd-smi on Windows, where it auto-elevates and
pops the same DiskPart UAC prompt mid-install / at runtime.
Inject __COMPAT_LAYER=RunAsInvoker into the amd-smi subprocess env on
Windows so it runs un-elevated (no prompt). Callers already tolerate an
empty/failed result and fall back to WMI / name detection (installer) or
the existing circuit breaker (amd.py). Gated to Windows so Linux/macOS
amd-smi behaviour is unchanged.
- install_llama_prebuilt.py: handled centrally in run_capture (covers
detect_host's `amd-smi list` and the version probe).
- install_python_stack.py: new _amd_smi_env() helper on its 3 raw
subprocess.run amd-smi calls.
- amd.py: merge RunAsInvoker into the existing child env.
Co-Authored-By: Claude Opus 4.8 <noreply@anthropic.com>
* Tighten AMD GPU name->arch patterns to avoid mismatches
The W9[0-9]{3} and RX 90[0-9]{2} patterns added for RDNA 4 were
speculative and over-broad: W9xxx would also match old GCN FirePro
W9100/W9000 cards (wrong gfx1201 -> a lemonade gfx120X download that
fails validation), and RX 90[0-9]{2} was redundant with the explicit
9070/9060 entries. Drop both; keep only confirmed RDNA 4 SKUs. Unmatched
AMD names still fall back cleanly to CPU.
Co-Authored-By: Claude Opus 4.8 <noreply@anthropic.com>
* Fetch the llama.cpp validation model via huggingface_hub
The prebuilt validation downloads a tiny GGUF test model from huggingface
via bare urllib. On Windows / proxy setups where the server sends an
incomplete TLS chain, urllib cannot complete the Amazon CA chain (it does
no AIA intermediate fetching) and fails with CERTIFICATE_VERIFY_FAILED, so
a perfectly good GPU prebuilt is rejected and the installer falls back to a
CPU source build.
Route the validation-model download through huggingface_hub
(hf_hub_download) -- the same mechanism Studio uses for model downloads,
which completes the chain where urllib cannot -- keeping the direct URL as
a fallback. This lets the lemonade ROCm prebuilt validate and install on
cert-restricted machines (verified: hf_hub_download succeeds where urllib
returns CERTIFICATE_VERIFY_FAILED).
Co-Authored-By: Claude Opus 4.8 <noreply@anthropic.com>
* Guard the remaining raw amd-smi version probe via run_capture
A ROCm-version detector in install_llama_prebuilt.py called amd-smi version through a raw subprocess.run that bypassed run_capture's Windows RunAsInvoker guard, so it still triggered the DiskPart UAC prompt during setup. Route it through run_capture like the other amd-smi calls.
Co-Authored-By: Claude Opus 4.8 <noreply@anthropic.com>
* Forward --rocm-gfx even when the ROCm runtime is unconfirmed
setup.ps1 forwarded --rocm-gfx (and picked the windows-hip llama.cpp
prebuilt) only inside `if ($HasROCm)`. On Adrenalin-only hosts (amd-smi
present but no HIP SDK, so $HasROCm stays false) the gfx arch was
name-inferred but never forwarded, so install_llama_prebuilt.py saw
has_rocm=False and installed the CPU build -- even though the lemonade
gfx1151 GPU prebuilt runs fine there (it bundles its own ROCm runtime;
verified: llama-cli --list-devices -> ROCm0: AMD Radeon 8060S, 69 GB).
Forward --rocm-gfx whenever a gfx arch is known (it is authoritative and
implies ROCm in install_llama_prebuilt.py), and treat a known gfx arch as
windows-hip in the existing-install mismatch check. --has-rocm stays gated
on the confirmed-runtime signal.
Verified on Radeon 8060S / gfx1151: the installer now selects, validates,
and installs llama-b1286-windows-rocm-gfx1151-x64.zip (ROCm DLLs present)
instead of the CPU build.
Co-Authored-By: Claude Opus 4.8 <noreply@anthropic.com>
* Install AMD ROCm PyTorch on name-inferred gfx hosts (enables Train/Export)
setup.ps1 picked the AMD ROCm PyTorch wheels only inside `if ($HasROCm ...)`.
On Adrenalin-only hosts (amd-smi present but no HIP SDK, so $HasROCm is
false) the gfx arch was name-inferred but the ROCm-wheel branch never ran,
so the host got torch+cpu. With CPU torch, torch.cuda.is_available() is
False, so the Studio backend sets CHAT_ONLY=True and hides Train/Export.
Un-gate the ROCm PyTorch index resolution on a known gfx arch (mirrors the
llama.cpp --rocm-gfx fix). AMD's per-arch Windows wheels
(repo.amd.com/rocm/whl/<gfx>) bundle the ROCm runtime, so they work without
a HIP SDK; a failed install still falls back to CPU.
Verified on Radeon 8060S / gfx1151: torch 2.11.0+rocm7.13.0 installs and
torch.cuda.is_available() -> True, device "AMD Radeon(TM) 8060S Graphics",
GPU matmul OK -> CHAT_ONLY=False -> Train/Export enabled.
Co-Authored-By: Claude Opus 4.8 <noreply@anthropic.com>
* Force amd-smi un-elevated process-wide in the Python installers
Guarding individual amd-smi call sites kept missing some (install_python_stack.py's probe loop and its Windows GPU re-check), so the DiskPart UAC prompt kept reappearing. Set __COMPAT_LAYER=RunAsInvoker process-wide at the top of install_python_stack.py and install_llama_prebuilt.py on Windows so every amd-smi subprocess (current and future) runs un-elevated with no per-call guard. Safe: these scripts only spawn amd-smi/rocminfo/hipinfo probes and pip/uv. setup.ps1 keeps per-call guards because it also spawns winget installers that need elevation.
Co-Authored-By: Claude Opus 4.8 <noreply@anthropic.com>
* Fix Invoke-AmdSmiNoElevate exit code on PS 5.1 + RX 7700S arch match
Start-Process -PassThru leaves the returned process object's .ExitCode
$null after WaitForExit on Windows PowerShell 5.1, so the helper set
$LASTEXITCODE to $null and every caller's `if ($LASTEXITCODE -eq 0 ...)`
was always false -- the amd-smi GPU / gfx-token / ROCm-version detection
branch was effectively dead (masked only because the un-gated WMI
name->gfx inference still ran). Reproduced on PS 5.1.26100.
Rewrite the helper to use [System.Diagnostics.Process]::Start with a
ProcessStartInfo (UseShellExecute=false), whose .ExitCode is reliable,
with async stream reads (ReadToEndAsync) to avoid a pipe-buffer deadlock
and WaitForExit(timeout) to bound a flaky amd-smi. __COMPAT_LAYER=
RunAsInvoker (inherited via the process env) still suppresses the
auto-elevation / DiskPart prompt. Also drops the temp files and the
empty-ArgumentList edge case. Verified: exit code propagates
(7 -> $LASTEXITCODE=7), output captured, env restored.
Also fix the gfx1100 name pattern `RX 7700(?! S)` -> `RX 7700(?!S)` so the
spaceless retail name "RX 7700S" is correctly excluded (it belongs to the
gfx1102 row). Both found by PR review.
Co-Authored-By: Claude Opus 4.8 <noreply@anthropic.com>
* Address PR review follow-ups (install.sh table, update path, tests, WSL)
From the multi-agent PR review:
- install.sh: sync the AMD name->arch table with install.ps1 / setup.ps1
(the bash table had drifted to the old narrow patterns). Adds RDNA 2
(gfx103X), workstation PRO W SKUs, and more Strix Halo/Point names, and
orders gfx1102 before gfx1100 so the spaceless retail name "RX 7700S"
resolves correctly (bash case has no negative lookahead). AMD-ROCm-only:
the name inference stays gated behind _has_amd_rocm_gpu(), so NVIDIA /
CPU / macOS are unaffected.
- setup.ps1: the "dependencies up to date" fast path skipped the torch
reinstall, so an existing user who had CPU torch (installed before
ROCm-wheel support) stayed stuck in CHAT_ONLY. Now, when an AMD gfx arch
is known AND the installed torch is CPU-only, don't skip -- force the
dependency pass so the ROCm wheels install.
- scripts/install_rocm_wsl_strixhalo.sh: resolve the real /opt/rocm dir
instead of hardcoding ROCM_VER for LD_LIBRARY_PATH / the librocdxg
symlink (breaks if amdgpu-install lays ROCm under a patch-version dir);
add a LIBROCDXG_REF pin knob and a "verified against" freshness header.
- tests/studio/install/test_pr5940_followups.py: cover _hf_resolve_url_parts,
_fetch_validation_model_bytes (hf path + urllib fallback), run_capture's
Windows-only amd-smi RunAsInvoker injection, and install.ps1 vs setup.ps1
name-table parity (catches future drift). 14 tests, all passing.
Co-Authored-By: Claude Opus 4.8 <noreply@anthropic.com>
* [pre-commit.ci] auto fixes from pre-commit.com hooks
for more information, see https://pre-commit.ci
* Fix DiskPart UAC prompt: skip amd-smi on Windows without a HIP SDK
On Windows, amd-smi re-initialises the ROCm runtime on every invocation
(even `amd-smi version`) and, on hosts without a working HIP runtime
(consumer APUs/dGPUs with only the Adrenalin driver), elevates a child
process at runtime -- popping a UAC/DiskPart prompt. amd-smi's own
manifest is asInvoker, so __COMPAT_LAYER=RunAsInvoker cannot suppress
that runtime elevation (verified: even `amd-smi version` hangs and
times out with RunAsInvoker set).
Replace the ineffective RunAsInvoker-only approach with a real gate:
only spawn amd-smi on Windows when a HIP SDK is detectable (hipinfo
present, so amd-smi runs un-elevated) or the user opts in with
UNSLOTH_ENABLE_AMD_SMI=1. The gfx arch is already resolved from WMI
name inference (forwarded via --rocm-gfx), so ROCm wheel + lemonade
llama.cpp selection is unaffected. Linux/macOS amd-smi never elevates
and is untouched (no regression). RunAsInvoker is kept as harmless
belt-and-suspenders for tools that DO use manifest elevation.
Applied consistently across:
- studio/backend/utils/hardware/amd.py (runtime GPU polling)
- install.ps1, studio/setup.ps1 (install-time detection)
- studio/install_llama_prebuilt.py (prebuilt arch probe + version)
- studio/install_python_stack.py (ROCm version + arch probe)
Verified live on AMD Radeon 8060S (gfx1151), native Windows: fresh
install detects the GPU, installs ROCm torch (torch.cuda.is_available()
True), launches Studio with no DiskPart prompt, and inference, tool
calling, web search, LoRA finetuning, and GGUF export all run on the GPU.
Tests: add 6 _amd_smi_allowed() gating tests + PowerShell-installer gate
assertions; update the three amd-smi monitoring tests to opt in (they
mock amd-smi as available). Full suite: 267 passed, 2 skipped.
Co-Authored-By: Claude Opus 4.8 <noreply@anthropic.com>
* [pre-commit.ci] auto fixes from pre-commit.com hooks
for more information, see https://pre-commit.ci
* install.sh: helpful WSL message when the GPU isn't exposed to ROCm
In WSL, an AMD GPU's ROCm-on-WSL runtime is only available with a recent
Adrenalin driver AND a distro AMD supports (currently Ubuntu 24.04). When
neither is in place, GPU detection (rocminfo/_has_amd_rocm_gpu) finds
nothing and we silently fall back to CPU.
Add an actionable hint in the CPU-fallback path, shown only on WSL and
only AFTER detection has already failed -- so it is forward-compatible:
the moment a driver/distro DOES expose the GPU (e.g. if AMD later adds
Ubuntu 26.04 support), detection succeeds and the hint never fires. The
message:
- notes a GPU is plumbed in (/dev/dxg) but no ROCm runtime is exposed,
- lists the two prerequisites (Adrenalin driver + Ubuntu 24.04),
- if the distro is not 24.04, says AMD may not support it yet,
- tells the user to `wsl --install Ubuntu-24.04` and re-run,
- links AMD's ROCm-on-WSL guide + the experimental Strix Halo helper.
Verified live: on Ubuntu-24.04 the hint shows (version-warning omitted)
and the CPU install completes; on Ubuntu-26.04 the extra "this distro may
not be supported" line appears and points to 24.04.
Also fix the experimental scripts/install_rocm_wsl_strixhalo.sh: AMD's
repo.radeon.com/amdgpu-install/ is indexed by unified installer version
(30.30, 31.30, ...), NOT ROCm version, so the hard-coded
amdgpu-install/7.2.0/ path 404'd. Scan the installer dirs newest-first
for a noble .deb matching the target ROCm major.minor (ROCm 7.2 ->
30.30.x/amdgpu-install_7.2.x), falling back to the newest available.
Co-Authored-By: Claude Opus 4.8 <noreply@anthropic.com>
* WSL: fix shortcut collision + pin ROCm-on-WSL driver reqs from AMD docs
Two WSL-related fixes informed by AMD's official ROCm-on-WSL docs and
field reports for Strix Halo / Ryzen AI Max+ (Radeon 8060S, gfx1151):
1. Shortcut collision (real bug). install.sh's WSL branch wrote
"Unsloth Studio.lnk" to the SAME Desktop / Start Menu folder as the
native-Windows installer (install.ps1 New-StudioShortcuts). Running
install.sh in WSL therefore silently retargeted the native shortcut at
the WSL launcher (wt.exe -> wsl.exe), so the desktop/start-menu icon
stopped launching native GPU Studio. Now the WSL shortcut uses a
DISTINCT name -- "Unsloth Studio (WSL - <distro>).lnk" -- and fetches
the Unsloth .ico to %LOCALAPPDATA%\Unsloth Studio so it shows the
proper icon. Native and WSL shortcuts now coexist.
2. Precise ROCm-on-WSL prerequisites. Research (AMD radeon-ryzen WSL
compatibility matrix, gianni.rosagallina.com Feb-2026 guide,
ROCm/ROCm#4952/#5509/#6022) confirms WSL GPU on Strix Halo requires
AMD Adrenalin Edition >= 26.1.1 (26.2.2+ is the first production
ROCDXG/WSL release) + ROCm 7.2.1 + Ubuntu 24.04; an older driver does
not inject the ROCm/DXG runtime into /usr/lib/wsl/lib, so rocminfo sees
only the CPU. install.sh's WSL hint and the experimental
install_rocm_wsl_strixhalo.sh header/preflight now state the exact
driver version (was a guessed ">=26.3.1"), bump ROCM_VER to 7.2.1, link
AMD's radeon-ryzen docs, and document the known librocdxg caveat that
usable VRAM is currently capped at the .wslconfig memory setting.
bash -n clean; install test suite 267 passed, 2 skipped.
Co-Authored-By: Claude Opus 4.8 <noreply@anthropic.com>
* installer: hint when the AMD driver is too old for ROCm-on-WSL
Adds a detect-and-guide hook for the optional WSL-GPU path. An AMD GPU on
native Windows can also be used inside WSL2, but only with AMD Adrenalin
Edition >= 26.2.2 (the first production ROCDXG/WSL release). Native Windows
GPU works with any recent driver, so this is purely about enabling the WSL
path.
We intentionally do NOT auto-install the driver: AMD referrer-gates driver
downloads (scripted curl/Invoke-WebRequest are blocked) and does not publish
Adrenalin via winget, so no installer can reliably fetch it -- and silently
swapping a live display driver is risky. Instead we point the user at AMD's
official download page (one click), after which the existing WSL detection
lights up automatically.
- install.ps1: new Show-AmdWslDriverHint -- when an AMD GPU is present and the
installed driver predates the 26.2.2 release (DriverDate < 2026-02-01),
print a concise tip with the AMD download URL. Handles DriverDate as either
a CIM DateTime or a WMI string. Suppress with UNSLOTH_SKIP_AMD_DRIVER_HINT=1.
- install.sh (WSL hint): add the direct Adrenalin 26.2.2 download URL and note
that AMD downloads are referrer-gated (open in a browser).
Verified: hint fires on a Sept-2025 driver, auto-suppresses on >= 2026-02-01;
install.ps1 parses; install.sh bash -n clean; suite 267 passed, 2 skipped.
Co-Authored-By: Claude Opus 4.8 <noreply@anthropic.com>
* install.ps1: refresh shell icon cache after creating the shortcut
After writing the Desktop / Start Menu .lnk, nudge Explorer to refresh
its icon (ie4uinit.exe -show). Without this, a stale icon cache can show
a blank shortcut icon until the next explorer restart -- most visible
when a shortcut of the same name was rewritten (e.g. a native install
followed by a WSL install, which previously shared the name; now they use
distinct names, but the cache nudge makes the icon appear immediately
regardless). Best-effort and wrapped in try/catch so it never fails the
install. The bundled unsloth.ico itself is valid (verified it renders).
Co-Authored-By: Claude Opus 4.8 <noreply@anthropic.com>
* setup.ps1: don't silently CPU-build llama.cpp on an AMD GPU
For AMD, GPU acceleration comes from the lemonade ROCm prebuilt (it bundles
the ROCm runtime, no HIP SDK needed) and is the preferred/default path. The
source-build fallback is CPU-only -- a HIP/ROCm *source* build would need the
full HIP SDK + ROCm clang toolchain, which the prebuilt exists to avoid.
Previously, if an AMD-GPU host ever fell through to the source build (e.g. the
prebuilt could not be downloaded), it printed "building llama.cpp (CPU-only,
no NVIDIA GPU detected)" and quietly produced a CPU binary -- masking the lost
GPU acceleration. Now that case emits a loud [WARN] explaining the GPU prebuilt
is the AMD path and how to restore it (re-run / check network / set
UNSLOTH_LLAMA_RELEASE_TAG), so AMD never silently degrades to CPU.
No behavior change on the happy path: AMD still gets the GPU prebuilt (verified
on gfx1151: ggml-hip.dll bundled, ~80% GPU compute during inference). NVIDIA
(CUDA source build) and CPU-only hosts are unchanged.
setup.ps1 parses; install suite 267 passed, 2 skipped.
Co-Authored-By: Claude Opus 4.8 <noreply@anthropic.com>
* uninstall: remove shared llama.cpp build, kill lock-holders, match WSL shortcut
Three gaps found by running a real uninstall on a native-Windows + WSL host;
all fixes are scoped to Unsloth-owned paths and no-op on the other pathways
(env/custom-root, NVIDIA/AMD/CPU, Mac) so nothing else regresses.
uninstall.ps1:
- Remove the default-mode SHARED llama.cpp build + cache. setup.ps1 installs
them at ~/.unsloth/llama.cpp and ~/.unsloth/.cache -- SIBLINGS of studio,
not under it -- so deleting <studio> left hundreds of MB behind. Now removed
explicitly, then ~/.unsloth is dropped ONLY if empty (never nukes unrelated
content). No-op in env/custom mode (llama.cpp nests under the custom root,
removed already) and when absent. UNSLOTH_LLAMA_CPP_PATH (user-owned) is kept.
- New _StopProcessesLockingRoots: _StopStudioProcesses only matched the venv
unsloth/python/studio exe, so it missed (a) llama-server.exe under llama.cpp
and (b) an orphaned multiprocessing python fork that ran from the SYSTEM
python but loaded a venv DLL (bitsandbytes) -- on Windows an open DLL handle
blocks the directory delete, leaving a half-removed install. The new helper
kills any process whose image path OR loaded module is under a target root
(module scan scoped to python/unsloth/llama-server names; vendor-agnostic).
- _RemovePath now retries (transient post-kill handle release).
uninstall.sh:
- Remove the default-mode ~/.unsloth/llama.cpp + ~/.unsloth/.cache; rmdir
~/.unsloth only if empty.
- WSL Windows-side shortcut cleanup now matches by TARGET (any
"Unsloth Studio*.lnk" whose target launches wsl.exe), covering both the
legacy "Unsloth Studio.lnk" and the new "Unsloth Studio (WSL - <distro>).lnk"
-- and never removes a native-Windows shortcut (which launches wscript.exe).
uninstall.ps1 parses; uninstall.sh passes sh -n and bash -n.
Co-Authored-By: Claude Opus 4.8 <noreply@anthropic.com>
* install.ps1: invalidate Win11 Start Menu tile cache after creating shortcut
The Start Menu shortcut kept showing a blank/generic icon even after the
Explorer icon-cache rebuild, because Windows 11's StartMenuExperienceHost
keeps its OWN pre-rendered tile-icon cache
(%LOCALAPPDATA%\Packages\Microsoft.Windows.StartMenuExperienceHost_cw5n1h2txyewy\
TempState\TileCache_*.bin + StartUnifiedTileModelCache.dat), separate from
Explorer's iconcache_*.db. ie4uinit and an explorer.exe restart do not touch
it, and they don't recycle the host -- so a rewritten same-name shortcut keeps
showing the first-rendered (often the generic wscript ">") tile until the host
restarts on its own.
Fix: after creating the shortcut, drop only the Start Menu RENDER caches
(TileCache_* + StartUnifiedTileModelCache.dat) and stop StartMenuExperienceHost
(Windows auto-relaunches it), so the tile re-resolves the real icon via the
shell image factory. start2.bin (the user's pinned layout) is deliberately
preserved. Guarded by Test-Path (Windows 10 has no such host -> skipped) and
wrapped in try/catch so it can never fail the install. Windows-only
(install.ps1); no effect on Linux/macOS/Studio.
Verified live: rendering the shortcut via IShellItemImageFactory::GetImage (the
API StartMenuExperienceHost uses) returns the Unsloth sloth icon, color-matched,
after this invalidation -- previously it returned the generic script tile.
install.ps1 parses; install suite 267 passed, 2 skipped.
Co-Authored-By: Claude Opus 4.8 <noreply@anthropic.com>
* ROCm-on-WSL for AMD Strix Halo (gfx1151): auto-setup + runtime enablement
Make Unsloth Studio set up ROCm-on-WSL automatically for AMD Strix Halo
(Radeon 8060S / gfx1151) and use the GPU at runtime, validated end-to-end
on a Ryzen AI Max+ PRO 395 (ROCm 7.2.1 + librocdxg + Adrenalin Apr-2026):
rocminfo enumerates gfx1151, torch.cuda True, ~85.8 GB UMA pool.
Every change is a strict no-op for all other configs (NVIDIA/CUDA,
discrete + native-Linux AMD ROCm, macOS/MLX, Windows, CPU-only, non-Strix
WSL) and can never abort the installer.
- scripts/install_rocm_wsl_strixhalo.sh: rewrite to the validated recipe.
Fixes that would have broken a working box: drop the /usr/lib/wsl/lib
preflight (a working ROCDXG host has only d3d12/dxcore there); remove the
obsolete rocr4wsl step (gone from the 7.2.1 repo; would hard-fail and also
rips out the standard hsa-rocr ROCDXG needs); dynamic librocdxg soname
(was hardcoded 1.1.0; build is 1.2.0); direct apt-repo install; Windows
SDK auto-discovery; persist env to /etc/profile.d + ~/.bashrc; idempotent.
- install.sh: _maybe_bootstrap_rocm_wsl auto-offers/runs the helper when it
detects a Strix Halo APU in WSL (/dev/dxg) with no ROCm runtime, then
loads the env so detection routes to the gfx1151 wheels. Fast-path when
already configured. Fix an inaccurate WSL hint line.
- studio/backend/main.py + worker.py: set HSA_ENABLE_DXG_DETECTION=1
in-process before torch (gated on /dev/dxg AND librocdxg.so), so the
worker uses the GPU even when launched outside a login shell. Mirrors the
existing BNB_ROCM_VERSION injection.
Co-Authored-By: Claude Opus 4.8 <noreply@anthropic.com>
* uninstall: clean up ROCm-on-WSL artifacts + Start Menu tile cache
- uninstall.sh: remove the ROCm-on-WSL helper artifacts -- the librocdxg
build clone (~/.unsloth/librocdxg, which otherwise blocks the empty-dir
rmdir of ~/.unsloth), the throwaway smoke-test venv, the persisted env
(/etc/profile.d/unsloth-rocm-wsl.sh) and the ~/.bashrc block. The system
ROCm userspace is a shared prereq like CUDA and is kept by default;
UNSLOTH_UNINSTALL_ROCM=1 removes it too. No-ops on macOS / non-Strix Linux.
- uninstall.ps1: invalidate the Win11 Start Menu tile cache after removing
the shortcut so its tile disappears promptly (mirrors install.ps1),
preserving start2.bin.
Co-Authored-By: Claude Opus 4.8 <noreply@anthropic.com>
* installer: accurate AMD ROCm messaging (HIP SDK optional, not required)
The Windows installer printed "HIP SDK not found - GPU-accelerated training
unavailable" / "ROCm wheels require the HIP SDK" whenever the HIP SDK was
absent. That is misleading: for a detected AMD GPU arch (gfx1151 etc.),
setup.ps1 installs AMD's bundled-runtime ROCm PyTorch wheels (repo.amd.com)
which ship their own ROCm runtime and do NOT need the HIP SDK -- verified
end-to-end (torch 2.11.0+rocm7.13.0, cuda True, QLoRA training on GPU) on a
Radeon 8060S with no HIP SDK installed.
Gate the GPU-detection + rocm-step messages on a detected gfx arch: when one
is known, state that GPU PyTorch uses bundled-runtime wheels and the HIP SDK
is optional; only when the arch is unknown fall back to the HIP-SDK hint.
Behavior (torch routing) is unchanged; this is messaging only. No-op for
NVIDIA/CUDA, HIP-SDK-present, and CPU paths (they hit earlier branches).
Co-Authored-By: Claude Opus 4.8 <noreply@anthropic.com>
* installer: fix /opt/rocm data-loss + make WSL shortcut create/remove interop-robust
Two fixes from the 3-reviewer regression audit + live testing on a
systemd-enabled WSL distro (interop disabled):
F1 (data-loss, install_rocm_wsl_strixhalo.sh): the /opt/rocm symlink-repair
could force-delete a pre-existing REAL ROCm install. The guard only checked
that /opt/rocm is a real directory, not that it is the stray librocdxg stub.
Now it only touches /opt/rocm when it is NOT a real install (no bin/rocminfo,
bin/hipcc, or .info/version present), and MOVES it aside (rocm.unsloth-stub-bak)
instead of deleting it, so a wrong guess can never lose data.
WSL interop robustness (install.sh + uninstall.sh): both relied on
`command -v powershell.exe`, which is true even when WSL interop cannot EXECUTE
it (on systemd distros powershell.exe fails with "Exec format error"). Result:
the WSL shortcut silently failed to create (install) and to remove (uninstall).
- uninstall.sh: test that powershell.exe actually runs; if not, remove the
"Unsloth Studio (WSL...).lnk" files directly via drvfs (/mnt/<drive>), which
works without interop. The name is WSL-install-specific, so a native install's
"Unsloth Studio.lnk" is never touched.
- install.sh: when the shortcut cannot be created, warn with the manual launch
command + how to re-enable interop, instead of failing silently.
No behavior change on the interop-on path. The regression audit otherwise found
no regressions on Linux/Mac/Windows/CPU/NVIDIA install paths.
Co-Authored-By: Claude Opus 4.8 <noreply@anthropic.com>
* install.sh: fast-path fully restores ROCm-on-WSL env when the drop-in is gone
Reinstall regression found by uninstall->reinstall testing: after a Studio
uninstall that removed /etc/profile.d/unsloth-rocm-wsl.sh but KEPT the shared
ROCm (the default), a non-login reinstall hit the bootstrap fast-path
(librocdxg present) and its else-branch only set HSA_ENABLE_DXG_DETECTION --
NOT PATH/LD_LIBRARY_PATH. So rocminfo was not on PATH, GPU detection failed,
and the installer fell back to CPU-only PyTorch.
Fix: when librocdxg is present but the env drop-in is missing, restore the
FULL env inline (HSA + TORCH_ROCM_AOTRITON_ENABLE_EXPERIMENTAL + PATH +
LD_LIBRARY_PATH) so rocminfo is found and detection routes to the GPU, and
recreate /etc/profile.d/unsloth-rocm-wsl.sh so future shells and the Studio
worker get it too. No change to the env-present fast-path or any other host.
Co-Authored-By: Claude Opus 4.8 <noreply@anthropic.com>
* installer: clear Explorer icon cache so shortcut icons aren't blank
Root cause of the persistent blank Desktop + Start Menu icons: Explorer caches
each shortcut's icon in iconcache_*.db and does NOT re-read the .ico when a
same-name .lnk is recreated across reinstalls. The .ico and .lnk are correct
(the shell renders them non-blank via IShellItemImageFactory; the .ico has real
image data at 16/32/48/128 px), but the stale cache entry wins. The previous
fix only ran a weak `ie4uinit -show` + the Start Menu tile-cache clear -- it
never invalidated Explorer's icon cache, so the desktop icon stayed blank.
Fix (native install.ps1 New-StudioShortcuts AND the WSL shortcut path in
install.sh):
- ie4uinit -ClearIconCache (thorough; replaces -show as the primary refresh)
- SHChangeNotify(SHCNE_ASSOCCHANGED) to force a live desktop/taskbar refresh
WITHOUT restarting explorer
- keep the Win11 Start Menu tile-cache invalidation (and add it to the WSL
shortcut path too, preserving start2.bin)
Non-disruptive (no explorer restart). install.ps1 parses clean; install.sh
passes bash -n + dash -n; the heredoc-generated WSL PowerShell parses clean.
Co-Authored-By: Claude Opus 4.8 <noreply@anthropic.com>
* installer: per-item SHChangeNotify(UPDATEITEM) reliably fixes blank icons
The blank Desktop/Start Menu shortcut icons are a stale Explorer PER-ITEM icon
cache: when a same-name .lnk is recreated across reinstalls, Explorer caches the
previously-resolved (often generic "white page") icon for that item and won't
re-extract the .ico on its own. The .ico and the .lnk's IconLocation are correct
(every icon API renders the sloth) -- only Explorer's cached display is stale.
The previous refresh (ie4uinit -ClearIconCache + a GLOBAL SHCNE_ASSOCCHANGED
broadcast) does NOT recover a stale item -- confirmed by reproduction. The
reliable, NON-disruptive fix (no explorer restart) is a PER-ITEM
SHChangeNotify(SHCNE_UPDATEITEM, SHCNF_PATHW, <lnk path>) for each created
shortcut, which forces Explorer to re-read that exact item's icon.
Verified end-to-end: deliberately staled a shortcut to the generic icon, ran the
installer's exact new refresh code, and the sloth icon recovered with NO explorer
restart (confirmed by capturing the live desktop via PrintWindow).
Applied to both native install.ps1 (New-StudioShortcuts) and the WSL shortcut
path in install.sh. Still clears the on-disk icon cache (ie4uinit) and the Win11
Start Menu tile cache (preserving start2.bin).
Co-Authored-By: Claude Opus 4.8 <noreply@anthropic.com>
* uninstall: remove leftover llama.cpp .staging root so ~/.unsloth is cleaned
The llama.cpp atomic-install staging root (install_llama_prebuilt.py
INSTALL_STAGING_ROOT_NAME=.staging) is a sibling of the llama.cpp install
dir (~/.unsloth/.staging in default mode). It is normally pruned after a
successful activate, but an interrupted or retained build can leave a
<name>.staging-XXXX tree behind. The uninstallers removed llama.cpp and
.cache but not .staging, so the final empty-dir cleanup of ~/.unsloth failed
and the directory lingered. Reproduced on WSL (Ubuntu-24.04) where an empty
llama.cpp.staging-XXXX dir kept ~/.unsloth alive after uninstall.
Remove ~/.unsloth/.staging in both uninstall.sh and uninstall.ps1. No-op in
env/custom mode (staging nests under the custom root removed already) and
when absent. Cross-platform fix (the staging logic is platform-agnostic).
Co-Authored-By: Claude Opus 4.8 <noreply@anthropic.com>
* installer: WSL-absent hint + fix here-string lint false positive
install.ps1: in the AMD WSL-ROCm driver hint, detect when wsl.exe is absent
and add a one-line "wsl --install -d Ubuntu-24.04" pointer so a Strix Halo
user with no WSL yet gets an actionable next step (the hint previously assumed
an Ubuntu-24.04 distro already existed). Best-effort, informational only.
test_rocm_support.py: test_no_here_strings did a crude substring check that
false-positived on the conda-style block marker
printf '# <<< Unsloth ROCm-on-WSL (gfx1151) <<<' -- a string literal written
into the /etc/profile.d drop-in, also used as a sed delimiter pair by
uninstall.sh, not a here-string. Strip quoted spans before the check so the
lint still catches a real here-string operator but ignores quoted literals.
install.sh remains POSIX-clean (sh -n / dash -n / bash -n all pass).
Co-Authored-By: Claude Opus 4.8 <noreply@anthropic.com>
* [pre-commit.ci] auto fixes from pre-commit.com hooks
for more information, see https://pre-commit.ci
* installer: address PR review comments (gfx1150 mapping, amd-smi opt-out, WSL bootstrap, SDK path, make)
Apply the valid bot review findings on #5940; reject the ones that don't hold.
Fixed:
- AMD name->gfx table (setup.ps1 + install.ps1): Radeon 890M and Ryzen AI 9 HX
370/375 are Strix POINT (gfx1150), not Strix Halo (gfx1151). Move 890M / HX 37x
/ AI 9 HX to the gfx1150 row and drop the bogus HX 38x pattern (no such Strix
Halo SKU). Matches the runtime classifier in worker.py (890M/880M -> gfx1150;
8060S/8050S -> gfx1151). Prevents Strix Point hosts from getting the wrong ROCm
prebuilt/wheels.
- amd-smi opt-out (setup.ps1 + install.ps1): an explicit UNSLOTH_ENABLE_AMD_SMI=
0/false/no/off now wins over the HIP-SDK heuristic, so a host with a HIP SDK
binary but a broken runtime no longer gets the DiskPart/UAC prompt the opt-out
exists to avoid.
- amd-smi warning probes (install_python_stack.py): _has_rocm_gpu and
_detect_amd_gfx_codes now gate amd-smi behind _amd_smi_allowed() (and pass
_amd_smi_env()), closing the last unguarded amd-smi spawn on Windows.
- WSL ROCm bootstrap (install.sh): the "already-usable ROCm?" early return now
requires rocminfo to enumerate the real gfx1151 agent instead of the generic
_has_amd_rocm_gpu (whose broad gfx[1-9][0-9] match accepts a fallback
"gfx11-generic" ISA), so a Strix Halo box missing the ROCDXG bridge is no longer
skipped. The shared helper is untouched (no gfx90a regression).
- install_rocm_wsl_strixhalo.sh:
* Quote-safe Windows SDK discovery: the old for-in-$(ls -d "...Program Files
(x86)/...") word-split on the space and never matched; use find + read loop.
* Add `make` to apt prereqs (cmake only recommends it; minimal images lacked it
and the librocdxg `make -j` build failed).
* Verification requires gfx1151 exactly (not gfx1[0-9]) so a generic ISA or an
unrelated RDNA GPU can't pass while the real GPU is absent.
Reviewed but NOT changed:
- "Forward inferred ROCm arch without HasROCm" (setup.ps1): already correct --
--rocm-gfx is forwarded under `if ($script:ROCmGfxArch)`, not `if ($HasROCm)`.
- "Route inferred arch into install.ps1 torch path": not a bug -- install.ps1
installs CPU torch as a base by design and setup.ps1 swaps in the ROCm wheel for
the inferred arch (gate `($HasROCm -or $ROCmGfxArch) -and cpu`); verified live
the native install ends on torch 2.11.0+rocm7.13.0.
- "$p null guard after Start-Process" (install.ps1/setup.ps1): redundant -- the
amd-smi runner uses [Process]::Start wrapped in try/catch, so a null process
already returns "" with LASTEXITCODE=1 (no uncaught exception).
- "ls -> find for /usr/lib/wsl/lib" (gemini): stale -- that heuristic was removed;
only a comment about it remains.
Co-Authored-By: Claude Opus 4.8 <noreply@anthropic.com>
* installer(rocm-wsl): auto-install the Windows 11 SDK via winget (fewer manual steps)
librocdxg's build needs the Windows SDK 'shared' headers on the Windows host.
Previously the helper just die()d with "install the Windows 11 SDK and re-run" if
they were missing -- a manual prerequisite that broke the otherwise-seamless
`curl ... install.sh | sh` one-liner on Strix Halo.
Now, when the headers aren't found, the helper installs the Windows 11 SDK on the
Windows host from inside WSL via winget (powershell.exe interop), then
re-discovers them. The SDK installer elevates -> ONE UAC prompt on the Windows
desktop; the headers appear under /mnt/c immediately (drvfs is live, no reboot).
The user already consented to the ROCm-on-WSL setup, so no extra prompt is added
beyond the OS UAC gate.
- New _find_win_sdk (space-safe find of the newest installed SDK 'shared' dir)
and _install_windows_sdk_via_winget helpers.
- winget IDs tried newest-stable first: Microsoft.WindowsSDK.10.0.26100, then
.22621. The presence of the headers (re-check) is the source of truth, not
winget's exit code. </dev/null so winget never consumes a piped `curl|sh` stdin.
- Best-effort + non-fatal: interop-off / no-winget / declined-UAC all fall
through to the existing clear manual-install die(). Opt out with
UNSLOTH_SKIP_WIN_SDK_INSTALL=1.
Removes the last avoidable manual step from the WSL Strix Halo path; only the AMD
Adrenalin driver (AMD referrer-gates the download) remains manual. Verified
_find_win_sdk resolves the spaced "Program Files (x86)" path; bash -n clean; all
winget flags validated against `winget install --help`.
Co-Authored-By: Claude Opus 4.8 <noreply@anthropic.com>
* installer(amd): gate install-time amd-smi probe to fix DiskPart UAC prompt
install_python_stack.py's Windows "AMD GPU detected but ROCm torch missing"
warning probe ran `amd-smi list` whenever amd-smi was on PATH -- and amd-smi
ships in C:\Windows\System32 with the AMD Adrenalin driver -- without the
_amd_smi_allowed() gate that every other amd-smi call site in the file uses.
On Adrenalin-only hosts (no HIP SDK) amd-smi elevates a child at runtime and
pops a UAC/DiskPart prompt that __COMPAT_LAYER=RunAsInvoker cannot suppress
(amd-smi's manifest is asInvoker). The probe also ran before the
ROCm-torch-installed check, so it fired on every Windows AMD install.
Gate it behind _amd_smi_allowed() and pass _amd_smi_env(), matching
_has_rocm_gpu()/_detect_amd_gfx_codes(). When skipped, the only loss is the
best-effort "AMD GPU detected" note on HIP-SDK-less hosts.
Adds a per-function AST regression test asserting every function in
install_python_stack.py that names the amd-smi command and spawns a subprocess
also references _amd_smi_allowed() (flags the pre-fix code; passes after).
Co-Authored-By: Claude Opus 4.8 <noreply@anthropic.com>
* studio(cli): fix `unsloth studio stop` crashing on Windows
`stop` used the POSIX `os.kill(pid, 0)` liveness probe, but on Windows
CPython raises OSError (WinError 87, "The parameter is incorrect") for
*every* pid -- alive or dead. `stop` only catches ProcessLookupError /
PermissionError, so the OSError propagated and the command crashed with
a traceback before ever reaching its (correct) `taskkill /F` path.
Add a cross-platform `_pid_alive(pid)` helper (tasklist on Windows,
signal-0 elsewhere) and use it for both the pre-check and the post-kill
wait loop. The actual kill path is unchanged.
Verified on Windows (Python 3.13): os.kill(pid,0) raises WinError 87 for
both a live and a dead pid; `_pid_alive` returns True/False correctly and
the full stop() flow (alive -> taskkill -> dead -> "stopped") passes
end-to-end against a throwaway process.
Adds tests/studio/test_cli_studio_stop_windows.py (AST guard against a
bare os.kill(pid,0) liveness probe + mock-only _pid_alive behaviour for
the win32 tasklist branch and the POSIX signal-0 branch).
Co-Authored-By: Claude Opus 4.8 <noreply@anthropic.com>
* [pre-commit.ci] auto fixes from pre-commit.com hooks
for more information, see https://pre-commit.ci
* installer(amd): fix install.sh name->arch table misrouting Strix Point to gfx1151
The bash name->arch inference table in install.sh placed Strix Point
identifiers (Radeon 890M, "Ryzen AI 9 HX 370/375", "AI 9 HX") in the
gfx1151 (Strix Halo) row, diverging from the install.ps1 / setup.ps1
PowerShell tables which correctly map them to gfx1150. It also carried a
stray "HX 38" token absent from the PowerShell source-of-truth.
Align install.sh with the PowerShell tables:
gfx1151 row: 8060S|8050S|8040S|Strix Halo|Ryzen AI Max|AI Max
gfx1150 row: 890M|880M|860M|840M|Strix Point|Krackan|HX 37|AI 9 HX|...
Impact is low (the bash table only feeds the display label _gpu_disp_gfx
and the "set UNSLOTH_ROCM_GFX_ARCH=..." hint; wheel selection is driven
by the detected ROCm version, not this name string) but a Strix Point
user would otherwise see/copy the wrong gfx arch.
Add a parity test (test_install_sh_name_arch_agrees_with_ps_for_strix_and_non_amd)
that parses install.sh's case table and asserts Strix Halo->gfx1151,
Strix Point->gfx1150, RX 7700S->gfx1102, and NVIDIA/Intel->no match,
cross-checking against install.ps1 (the previous parity test only
compared install.ps1 <-> setup.ps1, missing install.sh).
Co-Authored-By: Claude Opus 4.8 <noreply@anthropic.com>
* [pre-commit.ci] auto fixes from pre-commit.com hooks
for more information, see https://pre-commit.ci
* setup.ps1: keep prebuilt-llama ownership guard within the test's block window
The AMD additions to the prebuilt-llama.cpp block (the windows-hip vs
windows-cpu existing-install kind validation) pushed the
install_llama_prebuilt.py invocation to ~1999 chars after the
"installing prebuilt llama.cpp bundle (preferred path)" anchor, right at
the edge of the 2000-char window that
test_setup_ps1_prebuilt_llama_cpp_has_ownership_guard slices -- so the
helper string was truncated and the test failed with "substring not
found" (CI: Repo tests (CPU)).
The ownership-guard invariant (Assert-StudioOwnedOrAbsent precedes the
install_llama_prebuilt.py call) was already satisfied; only the proximity
to the anchor regressed. Move the "installing prebuilt..." substep to
immediately before the install (after the existing-install pre-cleanup),
which also reads better (validate/clean existing -> then "installing"),
shrinking anchor->helper from 1999 to 413 chars. Behaviour is unchanged
(console message ordering only).
Co-Authored-By: Claude Opus 4.8 <noreply@anthropic.com>
* install.sh: auto-run Strix Halo ROCm-on-WSL setup by default
`curl -fsSL https://unsloth.ai/install.sh | sh` should make a Strix Halo
(gfx1151) GPU usable inside WSL with no extra commands. Previously the
ROCm-on-WSL bootstrap was opt-in: it required UNSLOTH_ROCM_WSL_AUTO=1 or an
interactive [Y/n] at a TTY, and silently skipped under a pipe (no /dev/tty),
so the piped one-liner never set the GPU up automatically.
Flip it to auto-by-default for the single narrow case the existing guards
allow (WSL + Strix Halo + /dev/dxg + no usable ROCm yet) -- exactly the GPU
setup the user ran the installer for. Opt out with
UNSLOTH_SKIP_ROCM_WSL_SETUP=1. The Tauri desktop app keeps its own consent UI
(only auto-runs when it passes UNSLOTH_ROCM_WSL_AUTO=1). All hardware/OS
guards are unchanged, so non-Strix / non-WSL / NVIDIA / native-Linux / macOS /
CPU paths are unaffected.
Co-Authored-By: Claude Opus 4.8 <noreply@anthropic.com>
* PR comments: condense to be succinct (comments/docstrings only)
Shorten the verbose explanatory comments and docstrings this PR added across
the installer, scripts, backend shims, CLI, and tests -- tighter, fewer lines,
while preserving every non-obvious "why" (os.kill WinError 87, amd-smi
RunAsInvoker/UAC, /dev/dxg + librocdxg gating, the ROCm-on-WSL bootstrap guard
chain, ownership guards, etc.). No executable code, string literals, messages,
or behavior changed.
Verified comments-only: docstring-normalized AST equality (Python, 9 files),
non-comment token equality (PowerShell, 3 files), comment-stripped diff +
sh -n / bash -n (shell, 3 files). Behavior re-confirmed: get_torch_index_url +
gfx name->arch table 44/44 under dash & bash; rocm_support / pr5940_followups /
cli_studio_stop tests green.
Co-Authored-By: Claude Opus 4.8 <noreply@anthropic.com>
* [pre-commit.ci] auto fixes from pre-commit.com hooks
for more information, see https://pre-commit.ci
* Installer: address PR review (amd-smi opt-out, pipefail, multi-distro, non-root)
Fixes valid findings from the Codex/Gemini PR review:
- install.ps1 / setup.ps1: gate the `amd-smi version` ROCm-version fallback with
$amdSmiAllowed so UNSLOTH_ENABLE_AMD_SMI=0 opt-out is honored (the device
probe was gated but this fallback wasn't), avoiding the DiskPart/UAC prompt.
- install_rocm_wsl_strixhalo.sh: make the post-verification rocminfo summary
best-effort (|| true) so head's early pipe-close under `set -o pipefail` can't
fail the bootstrap after gfx1151 was already enumerated; pin the Windows SDK
`winget install` to --source winget (matches the msstore-cert fix rationale).
- install.ps1: python.org fallback installs the py launcher per-user
(InstallLauncherAllUsers=0, avoids admin), and derives the fallback full
version from the requested minor so a non-default UNSLOTH_PYTHON (e.g. 3.12)
isn't silently replaced with 3.13 when the listing is unreachable.
- install.sh: recreate /etc/profile.d/unsloth-rocm-wsl.sh via `sudo tee` for a
non-root reinstall (a plain redirect failed silently, dropping the ROCm env).
- uninstall.sh: scope WSL Windows-side shortcut removal to the current
WSL_DISTRO_NAME (per-distro name or -d "<distro>" arg) so uninstalling one
distro no longer deletes other distros' launchers.
Co-Authored-By: Claude Opus 4.8 <noreply@anthropic.com>
* Studio ROCm Windows: fix field-reported issues from Strix Halo testers
Four fixes from PR #5940 field reports (Win11 native, gfx1151):
1. bitsandbytes arch-probe spam: bnb's get_rocm_gpu_arch() runs
hipinfo.exe via subprocess PATH at import; the AMD torch wheel ships
hipInfo.exe in the venv Scripts dir, which is only on PATH for
activated venvs. Every bnb import logged "Could not detect ROCm GPU
architecture: [WinError 2]" ERROR + WARNING (even with the HIP SDK
installed, whose bin dir is not on PATH either). Prepend the Scripts
dir to PATH before bnb imports in main.py, worker.py, and
install_python_stack.py, gated on the file existing (only AMD wheels
ship it). Verified on gfx1151: ROCM_GPU_ARCH now resolves to gfx1151
with zero errors.
2. OOM-guard double-tax on native Windows unified APUs: mem_get_info's
total is the WDDM budget the driver grants HIP (BIOS carve + ~half
of remaining RAM) -- the OS share is already outside it. The 0.80
unified cap on top denied loads that fit (field report: 48.49 GiB
budget -> "38.79 GiB allowed" OOM for a 47.29 GiB load with 48.08
free). Use 1.0 on win32 unified; Linux keeps 0.80, discrete 0.90.
3. "Missing VRAM" confusion: log the WDDM budget vs physical RAM with
the fix (BIOS UMA frame buffer / AMD Software Variable Graphics
Memory) when the grant is under 75% of RAM, so a 48 GiB cap on a
96 GiB box reads as policy, not a Studio bug.
4. llama-server fit-step crash (Qwen3.6-27B-MTP + mmproj, lemonade
gfx1151): --fit defaults to 'on' upstream, so the fit step runs even
when Studio already placed the model via -ngl -1, and aborts in
ggml-cuda.cu on some ROCm hosts. Retry the spawn once with --fit off
when the server crashes during startup and Studio's own VRAM math
had placed the model (never when use_fit or an explicit fit flag was
passed). Also keep the TAIL of crash output in the error log (the
diagnostic line prints last; head-truncation cut exactly that) and
reference the full on-disk log.
Verified live on Radeon 8060S: bnb import clean, Qwen3.5-4B-MTP loads
and generates through the new spawn loop, stub-crash retry appends
--fit off and recovers, fraction probes confirm WDDM overcommit and
sub-1.0-only enforcement on current AMD wheels.
* [pre-commit.ci] auto fixes from pre-commit.com hooks
for more information, see https://pre-commit.ci
* Studio ROCm Windows: GPU-name fallbacks so nothing depends on amd-smi
amd-smi does not reliably exist on Windows: the HIP SDK never ships a
CLI, inbox Windows Update drivers do not, and only some full Adrenalin
packages drop amd-smi.exe into System32 (field report: fresh Win11 +
Adrenalin + HIP SDK, still no amd-smi anywhere). Make every consumer
work without it:
- install_python_stack._detect_windows_gfx_arch: two new probes after
hipinfo/amd-smi -- (2b) the venv Scripts hipInfo.exe shipped by AMD
torch wheels (drives `studio update` on driver-only hosts), and (4) a
last-resort GPU marketing-name -> gfx table via WMI
(Win32_VideoController), mirroring setup.ps1's $nameArchTable so a
standalone repair resolves the arch with zero AMD tooling installed.
- install_llama_prebuilt._resolve_exe: also probe the venv Scripts dir
so a standalone rerun finds hipInfo.exe without HIP_PATH.
- hardware/amd.py _run_amd_smi: which() guard before spawning --
absence now disables the poller in one step instead of burning the
3-strike circuit breaker on FileNotFoundError; corrected the stale
comment claiming Adrenalin ships amd-smi.
Simulated against the real detection functions on gfx1151: amd-smi
absent, present-but-crashing (exit 1), present-but-hanging (60s sleep
vs 5-10s probe timeouts), and hard opt-out -- all resolve gfx1151, no
exceptions, bounded time. Full adversarial install (broken amd-smi
stub first on PATH + UNSLOTH_ENABLE_AMD_SMI=1, fresh uninstall first):
exit 0, name-table arch inference, lemonade gfx1151 b1292 prebuilt,
torch 2.11.0+rocm7.13.0 cuda_avail=True on the 8060S, Studio boots
healthy and stops cleanly.
* [pre-commit.ci] auto fixes from pre-commit.com hooks
for more information, see https://pre-commit.ci
* Studio: per-attempt llama-server log names + amd-smi test portability
Found by cross-platform simulation of the --fit off retry (Windows +
Linux sandboxes, real load_model with stub servers):
- llama-server log filename now carries the spawn-attempt index. The
retry can respawn within the same epoch second; reusing the name
opened the same file with "w" and truncated the crash log the retry
warning had just pointed the user at (proven with a frozen
time.time: one file, crash evidence gone; with the suffix both
attempts keep their logs). Regression-pinned in
test_llama_cpp_wait_for_health.py.
- test_amd_primary_gpu_with_mock now mocks shutil.which alongside
subprocess.run: the amd-smi absence guard which()-checks before
spawning, so on hosts without a real amd-smi (Linux CI, driver-only
Windows) the subprocess mock was never reached and the test failed.
Surfaced by running the suite in a clean Linux sandbox.
Simulation coverage on both OSes: 67-case platform/edge matrix
(real shipped code blocks under win32/linux/darwin spoofs: OOM-guard
fractions + VGM-hint boundary, bnb PATH-prepend gates, retry
eligibility incl. equals-forms and decoy tokens, GPU-name table
adversarial set, WMI fallback without powershell, monitor absence
semantics), 6-scenario live retry matrix (crash-once/crash-always/
exit-zero/explicit-fit/hang/log-collision) against real llama-server
spawns on Windows and WSL (GPU success legs on the 8060S), and a
3-engine browser matrix (chromium/firefox/webkit) driving the live
backend's health + authed /v1 chat completion.
* [pre-commit.ci] auto fixes from pre-commit.com hooks
for more information, see https://pre-commit.ci
* Studio: classify unified-memory via props.is_integrated first
Align the ROCm OOM-guard classifier with PR #5988's UMA gate: consult
hipDeviceProp_t.integrated (props.is_integrated) before the hardcoded
arch set. Strictly additive -- truthy upgrades to unified; 0/absent
falls through to the existing gfx1150/gfx1151 + device-name logic, so
wheels that omit or zero the field cannot downgrade the known APU set.
Extends correct unified-cap treatment to APUs outside that set (e.g.
gfx1103 Phoenix iGPUs) and keeps Studio's two unified-memory consumers
on one driver signal. Verified live on gfx1151 (is_integrated == 1 on
the AMD Windows wheel -> ('gfx1151', True) via the new path).
* AMD detection: probe rocminfo with HSA_ENABLE_DXG_DETECTION and sync setup.sh gfx table
Fleet validation on a Strix Halo WSL2 box showed the system rocminfo
(HSA 1.18, ROCm 7.2.1) only enumerates the GPU over /dev/dxg when
HSA_ENABLE_DXG_DETECTION=1, and that rocminfo can sit at /opt/rocm/bin
off PATH outside login shells. Detection probes that miss either of
these report no GPU on a working ROCDXG host and select the CPU build
even though the lemonade bundle offloads fine (95.7 tok/s measured vs
64.5 CPU on the same laptop). Seed the env (a no-op on bare metal) and
the PATH fallback in install.sh, studio/setup.sh, and the installer's
Linux rocm probe, mirroring what main.py/worker.py already do for the
runtime.
Also sync studio/setup.sh's name->gfx table with install.sh: 890M and
the HX 37/AI 9 HX SKUs are Strix Point (gfx1150, not gfx1151), RX 7700S
must match gfx1102 before the gfx1100 row, and the RDNA2/workstation
rows were missing. New parity test pins the two bash tables together so
they cannot drift again.
* Studio: persist server session logs + native-crash stacks to disk
Field report (Strix Halo, 96 GB UMA carve, WSL and native Windows):
"the studio just terminates without a warning". A native crash in the
GPU runtime kills the process with no Python traceback, and a desktop-
shortcut console closes before anything can be read. The server only
ever logged to the console, so there was nothing to send back.
run_server now tees stdout/stderr to
~/.unsloth/studio/logs/server/server-<ts>-pid<n>.log (console behavior
unchanged; file copy is best-effort), arms faulthandler at the same
file so access violations / SIGSEGV leave a stack trace on disk, and
exports PYTHONFAULTHANDLER=1 so training workers inherit crash dumps
on their captured stderr. Armed before `from main import app` so even
import-time failures leave evidence. Keeps the newest 20 session logs;
opt out with UNSLOTH_STUDIO_NO_FILE_LOG=1. Prints "Session log: <path>"
at startup so users know what to attach.
Verified on this box: a forced real segfault (faulthandler._sigsegv)
leaves the full session output plus "Fatal Python error: Segmentation
fault" and the thread stack in the file while the console shows
nothing; a normal server boot captures the startup banner and serves
health as before.
* [pre-commit.ci] auto fixes from pre-commit.com hooks
for more information, see https://pre-commit.ci
* AMD probe: honor a pre-set HSA_ENABLE_DXG_DETECTION value
Match the shell helpers, which use the parameter-default form: a user
who exports HSA_ENABLE_DXG_DETECTION=0 to deliberately hide the GPU
from DXG detection should not have the probe override it.
---------
Co-authored-by: Claude Opus 4.8 <noreply@anthropic.com>
Co-authored-by: pre-commit-ci[bot] <66853113+pre-commit-ci[bot]@users.noreply.github.com>
Co-authored-by: danielhanchen <michaelhan2050@gmail.com>
|
||
|
|
187144d4e7
|
Reduce and tighten code comments and docstrings repo-wide (#6095)
Trim and tighten code comments and docstrings across the repository. Comment-only: every changed file verified code-identical to main via AST/token comparison. |
||
|
|
8292e699e4
|
Studio: make code comments and docstrings more succinct (#6029)
Trim and tighten code comments and docstrings across studio/ Python. Comment-only: every changed file verified code-identical to main via AST/token comparison. |
||
|
|
3ce187da02
|
Formatting: ruff line-length 100, kwarg-spacing passes, drop blank after short local imports (#6079)
Raise ruff line-length to 100 and extend the local pre-commit format pipeline (def-signature magic-comma normalization, short multi-line assert collapse, kwarg '=' spacing, blank-line-after-short-import removal, adjacent string-literal / f-string+plain merge, redundant-pass pruning). Every transform re-checks the file AST and is dropped if it would differ; the whole-repo reformat is verified AST-identical per file and idempotent. |
||
|
|
c6e86d5e77
|
Update Install Scripts (#5968)
* Update Install Scripts Add SPDX AGPL-3.0 headers to the installer scripts and let the piped web installs take their common options from the environment. - install.sh / install.ps1: read UNSLOTH_NO_TORCH (and UNSLOTH_PYTHON for install.sh) so a piped install needs no positional flags. Flags and the pipe forms still work; an explicit flag wins. - Fix the UNSLOTH_STUDIO_HOME example so the variable sits after the pipe and reaches sh instead of curl. - Add SPDX headers to install.sh, install.ps1, the uninstall scripts, and the MLX install scripts. - Drop the internal test package names from the studio install comments. * Mirror UNSLOTH_PYTHON env var to install.ps1 install.ps1 now reads UNSLOTH_PYTHON to pin the Python version, matching install.sh, and lists all three env vars (UNSLOTH_NO_TORCH, UNSLOTH_PYTHON, UNSLOTH_STUDIO_HOME) in the header examples. The requested version is preferred during detection and used as the winget install target; behavior is unchanged when the variable is unset. |
||
|
|
8ec9a74fd3
|
studio: ROCm cleanups follow-up to #5301 (#5874)
Some checks are pending
Mac Studio GGUF CI / JSON, images (push) Waiting to run
Security audit / workflow-trigger lint (pull_request_target / cache-poisoning) (push) Waiting to run
Security audit / pytest tests/security (push) Waiting to run
Security audit / npm provenance + new install-script diff (push) Waiting to run
Studio API CI / Studio API & Auth Tests (push) Waiting to run
Backend CI / (Python 3.10) (push) Waiting to run
Backend CI / (Python 3.11) (push) Waiting to run
Backend CI / (Python 3.12) (push) Waiting to run
Backend CI / (Python 3.13) (push) Waiting to run
Backend CI / Repo tests (CPU) (push) Waiting to run
Frontend CI / Frontend build + bundle sanity (push) Waiting to run
Studio GGUF CI / OpenAI, Anthropic API tests (push) Waiting to run
Studio GGUF CI / Tool calling Tests (push) Waiting to run
Studio GGUF CI / JSON, images (push) Waiting to run
Studio load-orchestrator CI / test (push) Waiting to run
Mac Studio API CI / Studio API & Auth Tests (push) Waiting to run
Mac Studio GGUF CI / OpenAI, Anthropic API tests (push) Waiting to run
Mac Studio GGUF CI / Tool calling Tests (push) Waiting to run
Mac Studio UI CI / Chat UI Tests (push) Waiting to run
Mac Studio Update CI / Studio Updating Tests (push) Waiting to run
Studio Tauri CI / Tauri Linux debug build (no codesign) (push) Waiting to run
Studio UI CI / Chat UI Tests (push) Waiting to run
Studio Update CI / Studio Updating Tests (push) Waiting to run
Windows Studio API CI / Studio API & Auth Tests (push) Waiting to run
Windows Studio GGUF CI / OpenAI, Anthropic API tests (push) Waiting to run
Windows Studio GGUF CI / Tool calling Tests (push) Waiting to run
Windows Studio GGUF CI / JSON, images (push) Waiting to run
Windows Studio UI CI / Chat UI Tests (push) Waiting to run
Windows Studio Update CI / Studio Updating Tests (push) Waiting to run
Wheel CI / Wheel build + content sanity + import smoke (push) Waiting to run
Follow-up cleanups to the merged AMD ROCm support PR #5301: 1. De-duplicate the torchao Windows-ROCm import stub into a single shared module (studio/backend/core/_torchao_stub.py); both workers call one install_torchao_windows_rocm_stub() entrypoint. 2. Align the gfx name/arch comment columns in setup.sh and setup.ps1. 3. Isolate the float16 dtype fallback to AMD without native bf16; NVIDIA keeps dtype=None so unsloth's own bf16/fp16/FORCE_FLOAT32 detection is honored. 4. Hoist unconditional stdlib imports (gc, glob, re, subprocess, copy, types, sys, importlib.metadata) from function bodies to module top across the PR #5301-touched files; heavy/optional/relative imports stay lazy. 5. bitsandbytes Windows-ROCm install now uses plain pip (force_pip=True) instead of UV_SKIP_WHEEL_FILENAME_CHECK, per the AMD hackathon docs. Also adds scripts/verify_import_hoist.py (a scope-aware LEGB AST resolver that catches dangling-alias and rename-clash bugs in import-hoist refactors) and wires it into the Lint CI source-lint job as a self-test plus a pull_request compare gate. |
||
|
|
b6d5636cc0
|
fix/strix halo and windows AMD ROCm support (#5301)
* fix(studio): set HIP_VISIBLE_DEVICES in apply_gpu_ids for ROCm training workers Training workers are spawned via multiprocessing spawn before detect_hardware() runs, so IS_ROCM is still False. If the user never set HIP_VISIBLE_DEVICES in their shell, _inherits_rocm_visibility is also False, leaving the worker with only CUDA_VISIBLE_DEVICES set. On ROCm hosts the HIP runtime honors HIP_VISIBLE_DEVICES over CUDA_VISIBLE_DEVICES, so the worker saw the full device list and torch raised "no usable HIP accelerator" on some setups. Fall back to probing torch.version.hip (a build-time attribute, safe to read before GPU init) to detect ROCm when neither IS_ROCM nor inherited env vars are available. Mirrors the existing fix in llama_cpp.py for llama-server subprocess GPU pinning. Fixes https://github.com/unslothai/unsloth/issues/5180 * test: tighten apply_gpu_ids ROCm fallback assertions Replace loose OR chain with exact string matches, split into three focused tests, and add a guard check for the try/except wrapper. * [pre-commit.ci] auto fixes from pre-commit.com hooks for more information, see https://pre-commit.ci * fix: detect ROCm unified memory (Strix Halo / AMD iGPU) via torch fallback amd-smi on iGPUs with shared/unified memory (e.g. Radeon 8060S on Strix Halo) reports only the dedicated VRAM slice (~512 MB) in its metric output, so get_visible_gpu_utilization() was returning usable_gb ≈ 0.35 GB instead of the full GTT pool (~128 GB). torch.cuda.mem_get_info() already surfaces the correct unified-pool size. Add _reconcile_rocm_unified_memory(): after amd-smi returns a valid result on a ROCm device, cross-check each device's vram_total_gb against torch.cuda.mem_get_info(). When torch reports a larger total, replace the amd-smi VRAM fields in-place. No-op for discrete AMD GPUs where the two sources agree. Fixes: "Falling back to all visible GPUs -- model may not fit" on AMD iGPU machines even when 100+ GB of unified memory is available. * Apply unified-memory reconciliation in get_gpu_utilization too The visible-GPU path was already corrected for AMD iGPUs with unified memory (Strix Halo / Radeon 8060S), but get_gpu_utilization was still returning the raw 512 MB amd-smi VRAM slice. Studio's /api/train/hardware endpoint and the live GPU monitor read from this primary path, so users continued seeing the wrong total even after auto_select_gpu_ids picked the right device. Refactor to share the per-device correction: * _apply_unified_memory_correction(metrics, torch_info) -- the actual replacement logic, in-place on a single metrics dict. * _reconcile_rocm_unified_memory(...) -- multi-device, iterates utilization["devices"] (visible-GPU path). * _reconcile_primary_rocm_unified_memory(...) -- single flat metrics dict (primary-GPU path), uses parent_visible_spec to pick the primary index, falls back to ordinal 0 when no visibility env is set. get_gpu_utilization now calls the primary reconciler under IS_ROCM, so both endpoints surface the real unified-memory pool on iGPUs while leaving discrete AMD GPUs untouched (torch_total <= smi_total -> no replace). * Use 'is not None' and log debug on torch.version.hip probe failures Two small follow-ups to the apply_gpu_ids ROCm fallback: 1. Match detect_hardware()'s 'getattr(torch.version, "hip", None) is not None' form so the entire codebase has one canonical 'this torch was built with HIP' check. On every shipping torch wheel hip is either None or a non-empty version string, so the new form agrees with the old bool() form on every real install. 2. Log the probe failure at debug level instead of swallowing it silently. The broad 'except Exception' is intentional (we never want apply_gpu_ids to crash a worker over a probe), but the silent pass made it impossible to tell whether the fallback was firing or being skipped. * fix(studio): honour HIP_VISIBLE_DEVICES in _get_parent_visible_gpu_spec before IS_ROCM is set When a user has HIP_VISIBLE_DEVICES set in their shell (e.g. "1" to select GPU 1) but detect_hardware() has not yet run in the Studio parent process, IS_ROCM is still False. _get_parent_visible_gpu_spec() was gated on IS_ROCM so it fell through to CUDA_VISIBLE_DEVICES (unset), saw all physical GPUs, and auto-selected index 0. apply_gpu_ids then overwrote HIP_VISIBLE_DEVICES with "0", making the intended GPU invisible to ROCm torch in the worker, which triggered the "no usable HIP accelerator" error (issue #5180). Apply the same _inherits_rocm_visibility pattern already used in apply_gpu_ids: check for HIP_VISIBLE_DEVICES / ROCR_VISIBLE_DEVICES in the environment regardless of IS_ROCM so the correct GPU index is preserved. * fix(install): harden AMD ROCm GPU detection for multi-GPU and env-filtered setups The previous rocminfo awk pattern could miss discrete GPUs on machines where HIP_VISIBLE_DEVICES/ROCR_VISIBLE_DEVICES is used to mask an integrated GPU — the env vars filter rocminfo output but may not propagate into the install script subprocess, causing detection to fail entirely. Two changes: - Tighten rocminfo pattern from /gfx[0-9]/ && !/gfx000/ to /gfx[1-9][0-9]/ — simpler and correctly excludes the CPU agent (gfx000) without a negative lookahead - Add sysfs KFD topology fallback: reads /sys/class/kfd/kfd/topology/nodes/*/gpu_id which is a kernel-level view unaffected by HIP_VISIBLE_DEVICES or ROCR_VISIBLE_DEVICES Fixes detection failure reported in Discord by Chains (gfx1201 + iGPU machine where env var exclusion of the iGPU caused rocminfo to return no usable device). * Fix KFD sysfs awk fallback to read properties file The fallback added by this PR reads /sys/class/kfd/kfd/topology/nodes/*/gpu_id files but matches the literal token 'gpu_id' against their content. Those files contain only a single decimal value (e.g. '0' for CPU agents, '50432' for GPU agents), so the regex never matches and 'found' stays 0, making the fallback a no-op on every host. The properties file in the same directory contains key/value lines like 'gpu_id 50432' which is what the existing awk pattern expects. Reproduced with a synthetic sysfs layout: against gpu_id files awk exits 1; against properties files awk exits 0 when any node reports gpu_id > 0. * fix(setup.ps1): detect AMD ROCm GPU on Windows, bring to parity with setup.sh setup.ps1 only checked nvidia-smi and fell straight to "gpu: none" on AMD machines. setup.sh already probed rocminfo/amd-smi/hipconfig/hipinfo. Add three-tier detection mirroring install_llama_prebuilt.py's detect_host(): 1. hipinfo: gcnArchName in output confirms a real HIP GPU (not just SDK) 2. amd-smi list: "GPU: <digit>" data rows as fallback 3. WMI Win32_VideoController: last resort -- detects AMD GPU even without HIP SDK, then guides user to install it rather than silently going CPU Also corrects the "none" message to mention AMD ROCm alongside NVIDIA so users with AMD hardware understand the requirement. Fixes: rohit-style install where Strix Halo (Radeon 8060S) showed "gpu: none" even with the HIP SDK present. * fix(install.ps1): detect AMD ROCm GPU on Windows, bring to parity with setup.ps1 install.ps1 had the same nvidia-smi-only GPU detection as setup.ps1 before the setup.ps1 fix. Applies the same three-tier AMD detection: 1. hipinfo: gcnArchName confirms real HIP GPU 2. amd-smi list: GPU data rows as fallback 3. WMI Win32_VideoController: detects AMD GPU without HIP SDK and guides user to install it Fixes: install.ps1 showing "gpu: none" while setup.ps1 correctly showed "AMD GPU detected" on the same machine (reported by rohit, RX 7600 XT). * fix(install.ps1): suppress 'No NVIDIA GPU detected' when AMD GPU is present * feat: add Windows AMD ROCm PyTorch wheel installation install_python_stack.py: - Add _ROCM_WINDOWS_WHEEL_BASE and _ROCM_WINDOWS_RELEASES constants pointing to AMD repo.radeon.com (ROCm 7.2 -> torch 2.9.1+rocm7.2.1) - Extend _ensure_rocm_torch() with a Windows branch: detects ROCm via _has_rocm_gpu() / _detect_rocm_version(), requires Python 3.12 (cp312 is the only ABI AMD publishes for Windows), installs the direct wheel URL from repo.radeon.com install.ps1: - Capture ROCmVersion during AMD detection via hipconfig --version / amd-smi version (needed for wheel URL selection) - After Get-TorchIndexUrl, add an AMD wheel override block: when HasROCm and Python 3.12 detected, set ROCmTorchWheelUrl to AMD wheel URL - Expand torch install branch to handle ROCmTorchWheelUrl with uv pip install --force-reinstall --no-cache-dir * [pre-commit.ci] auto fixes from pre-commit.com hooks for more information, see https://pre-commit.ci * fix: also install torchvision and torchaudio from AMD Windows repo AMD publishes matching torchvision-0.24.1+rocm7.2.1 and torchaudio-2.9.1+rocm7.2.1 cp312 wheels at the same repo.radeon.com release folder. Install all three in both install.ps1 and install_python_stack.py Windows ROCm path. * [pre-commit.ci] auto fixes from pre-commit.com hooks for more information, see https://pre-commit.ci * feat: add ROCm 7.1.1 Windows wheel mapping AMD uses a different version string for 7.1.1 wheels: 2.9.0+rocmsdk20251116 (date-tagged) instead of +rocm7.1.1. Adds the 7.1.1 release folder to both install.ps1 and install_python_stack.py so users with ROCm 7.1 get ROCm torch instead of falling back to CPU. * fix: install rocm_sdk_core and rocm_sdk_libraries_custom alongside torch The AMD Windows torch wheels declare rocm[libraries]==<ver> as a hard dependency. Without installing rocm_sdk_core and rocm_sdk_libraries_custom from the same AMD release folder, uv cannot resolve the dependency and fails with 'No solution found'. Include all 5 wheels in one install call. * fix: expand ROCm wheel array to scalars for Invoke-InstallCommand @array splatting inside a scriptblock only works when the native command is prefixed with '&'. Invoke-InstallCommand uses '& $Command' to run the block, so @ROCmAllWheelUrls was not being expanded. Extract to scalar variables $rw0-$rw4 which are captured correctly by the closure. * fix: use --no-deps for AMD Windows torch wheel install uv's resolver looks up rocm[libraries]==0.1.dev0 on PyPI during dependency resolution before downloading any wheels, and fails because the package doesn't exist on PyPI. --no-deps skips resolution entirely and installs all 5 AMD wheels directly. The GPU runtime dependency is satisfied by the HIP SDK, not a Python package. * fix: setup.ps1 and install_python_stack.py now install ROCm torch on Windows setup.ps1 was always setting CuTag='cpu' for non-NVIDIA hosts and installing cpu-only PyTorch, overwriting the ROCm torch installed by install.ps1. Adds the same AMD wheel selection logic (ROCm version detection, Python 3.12 check, 5-wheel install with --no-deps) to setup.ps1's torch install block. install_python_stack.py: remove IS_WINDOWS guard from _ensure_rocm_torch() call site so the Windows path in _ensure_rocm_torch() is reachable during 'unsloth studio update' as well. * fix: suppress manual-install warning when ROCm torch already present; fix progress counter - Gate the 'must be installed manually' warning on torch.version.hip being empty so it doesn't fire when our ROCm torch install succeeded - Update _TOTAL counter to include the 3 ROCm steps on Windows now that _ensure_rocm_torch() is called there (fixes 10/9 display) * [pre-commit.ci] auto fixes from pre-commit.com hooks for more information, see https://pre-commit.ci * feat: add rocm step display in setup.ps1; fix warning and progress counter - Add 'rocm' step after 'cuda' in setup.ps1 showing ROCm version or HIP SDK missing - Move ROCm version detection up to GPU detection block so it's available early - Suppress 'must be installed manually' warning when torch.version.hip is set - Fix _TOTAL counter to include ROCm steps on Windows (fixes 10/9 display) * fix: detect AMD SDK ROCm torch via __version__ when torch.version.hip is unset AMD's repo.radeon.com wheels (e.g. 2.9.0+rocmsdk20251116) do not set torch.version.hip, leaving it None. All three probes that relied solely on torch.version.hip now also check for 'rocm' in torch.__version__.lower(): - hardware.py detect_hardware(): IS_ROCM was never set, causing the studio to report 'Hardware detected: CPU' even after AMD wheels were installed and HIP DLLs were on PATH. - install_python_stack.py _ensure_rocm_torch(): skip-if-already-installed probe would always reinstall on subsequent runs. - install_python_stack.py Windows AMD warning: suppression check always failed, so the 'must be installed manually' note kept appearing after a successful AMD wheel install. * [pre-commit.ci] auto fixes from pre-commit.com hooks for more information, see https://pre-commit.ci * perf: drop --no-cache-dir from AMD ROCm torch wheel installs uv caches downloaded wheels by default; passing --no-cache-dir forced a full redownload of the ~2 GB torch wheel on every install run. CUDA installs never had this flag -- AMD was the only path affected. * fix: use install-state flag instead of subprocess probe for AMD Windows warning Replace the subprocess torch probe in the post-install warning block with a module-level _rocm_windows_torch_installed flag set by _ensure_rocm_torch(). Subprocess re-import of torch is unnecessary and fragile -- the install function already knows whether it succeeded. * fix: hoist global declaration to top of _ensure_rocm_torch Python requires the global statement to appear before any assignment to the variable within a function. Moving it to the function top fixes the SyntaxError on line 354. * fix: pass AMD torch install status via env var to suppress false warning setup.ps1 now sets UNSLOTH_ROCM_TORCH_INSTALLED=1 after a successful AMD wheel install. install_python_stack.py reads this at the top of _ensure_rocm_torch() to skip both the subprocess probe and the warning -- no re-import of torch needed, and the warning message now correctly says 'could not be auto-installed' rather than 'must be installed manually'. * fix: register ROCm DLL directory before torch import on Windows Python 3.8+ ignores PATH for extension DLL loading on Windows; amdhip64.dll and other HIP runtime DLLs must be registered via os.add_dll_directory(). Without this, torch.cuda.is_available() always returns False on AMD ROCm Windows even when HIP_PATH is correctly set in system environment variables. Reads HIP_PATH / ROCM_PATH env vars first, then falls back to scanning common ROCm install roots (C:\Program Files\AMD\ROCm, F:\ROCm, C:\ROCm). * [pre-commit.ci] auto fixes from pre-commit.com hooks for more information, see https://pre-commit.ci * fix: remove hardcoded non-standard ROCm paths from DLL directory scan Only use HIP_PATH/ROCM_PATH (set by AMD installer) and the standard C:\Program Files\AMD\ROCm\<version>\bin location. Custom drive paths like F:\ROCm are user-specific and should not be hardcoded. * [pre-commit.ci] auto fixes from pre-commit.com hooks for more information, see https://pre-commit.ci * fix: prevent torchao overrides step from overwriting AMD ROCm torch torchao==0.14.0 in overrides.txt declares torch as a dependency. Without --no-deps, uv resolves torch from PyPI and installs 2.11.0+cpu on top of the AMD ROCm wheels (2.9.0+rocmsdk20251116). This was the root cause of 'Hardware detected: CPU' -- the AMD wheels were installed but then immediately overwritten by the overrides step. When _rocm_windows_torch_installed is True, add --no-deps to the overrides pip_install call so torchao is installed without pulling in CPU torch. * fix: add rocm_sdk namespace tarball to Windows ROCm wheel installs torch/_rocm_init.py calls `import rocm_sdk` at startup, which requires the rocm namespace tarball (rocm-*.tar.gz) in addition to the SDK wheel packages. This tarball was missing from both install.ps1 and setup.ps1, causing ModuleNotFoundError on first torch import. - Add rocm-0.1.dev0.tar.gz to ROCm 7.1.1 install (provides rocm_sdk namespace) - Add rocm-7.2.1.tar.gz + rocm_sdk_devel to ROCm 7.2.1 install - Install tarball in a dedicated step before main SDK/torch wheels - Switch to @array splatting in install.ps1 scriptblock for dynamic wheel count - Remove --no-cache-dir from Python-side ROCm wheel install (prevents ~2GB redownload) * feat: enable ROCm 7.2 torch install + warn on gfx1151 with ROCm < 7.2 Chigoma333 (AMD Radeon 8060S / gfx1151, Strix Halo) confirmed that ROCm 7.1 segfaults when tensors are moved to GPU, but ROCm 7.2 + torch 2.11.0+rocm7.2 works fully including training. Changes: - Uncomment (7,2): "rocm7.2" in _ROCM_TORCH_INDEX (was blocked by <2.11.0) - Add _ROCM_TORCH_PKG_SPECS dict with per-tag version bounds: rocm7.2 → torch>=2.11.0,<2.12.0; all older tags → <2.11.0 - Add _detect_amd_gfx_codes() helper that parses rocminfo output - Warn on gfx1151/gfx1150 (Strix Halo) when ROCm < 7.2 is installed, pointing users at the known segfault and recommending upgrade - install.sh get_torch_index_url(): enable rocm7.2 case (previously capped to rocm7.1), cap unknown future tags to rocm7.2 - install.sh: override TORCH_CONSTRAINT to >=2.11.0,<2.12.0 when rocm7.2 index is selected, so pip can actually resolve torch 2.11.0 * [pre-commit.ci] auto fixes from pre-commit.com hooks for more information, see https://pre-commit.ci * fix: prefer Python 3.12 for AMD ROCm users when 3.13 is also installed After GPU detection, if ROCm HIP SDK is found and the selected Python is not 3.12, run a second pass to locate a 3.12 install via py.exe and PATH (catches uv-managed installs). Switch $DetectedPython to 3.12 so the venv is created with a compatible interpreter for the cp312-only AMD Windows torch wheels. NVIDIA and Intel GPU paths are unaffected -- the re-detection block only runs when $HasROCm is true. Fixes: #5301 * fix: also check uv-managed Python 3.12 for AMD ROCm #5301 * fix: hide amd-smi console popups on Windows, guard torch.distributed.is_initialized for ROCm #5301 * [pre-commit.ci] auto fixes from pre-commit.com hooks for more information, see https://pre-commit.ci * fix: suppress remaining console popups on Windows, patch torch.distributed.is_initialized for ROCm #5301 * [pre-commit.ci] auto fixes from pre-commit.com hooks for more information, see https://pre-commit.ci * fix: stub all missing torch.distributed attrs for ROCm Windows wheel #5301 * [pre-commit.ci] auto fixes from pre-commit.com hooks for more information, see https://pre-commit.ci * fix: inject torch.distributed stub when C backend missing in ROCm Windows wheel #5301 * [pre-commit.ci] auto fixes from pre-commit.com hooks for more information, see https://pre-commit.ci * fix(rocm/windows): pre-stub torch._C._distributed_c10d + raise amd-smi timeout Two fixes for Windows ROCm regressions reported by electroglyph on #5301: 1. worker.py — torch.distributed stub now fires unconditionally on Windows The previous stub only injected sys.modules in the except branch, meaning it was silently skipped when `import torch.distributed` happened to succeed (the C backend is lazily resolved). The crash then hit later when transformers/trl triggered the lazy load. Fix: on win32 we pre-populate sys.modules['torch._C._distributed_c10d'] AND set the attribute on the torch._C extension module *before* attempting the import, covering both the early-ImportError and lazy-load failure modes. 2. amd.py — increase amd-smi timeout from 5 s to 30 s on Windows (10 s Linux) amd-smi on Windows must cold-init the ROCm runtime on first invocation; 5 s was consistently too short, producing repeated 'Command timed out' warnings in the server log. 30 s gives enough headroom without blocking indefinitely on broken installs. 3. install.ps1 — widen Python 3.12 enforcement to ROCmGpuLabel (WMI-only path) Users whose HIP SDK is not on PATH were detected via WMI but not switched to Python 3.12 before the install started, causing a second pass. Guard now fires on (HasROCm -or ROCmGpuLabel). * fix(rocm): guard c10d stub, fix TorchIndexFamily for 7.1, clean dead code + comments - worker.py: wrap c10d stub injection in `if _c10d_key not in sys.modules` so Windows NVIDIA users with a real torch.distributed are never affected - install.ps1: fix Get-TauriTorchIndexFamily receiving hardcoded "rocm7.2" even when ROCm 7.1 wheels are installed; now branches on $ROCmVersion - main.py: remove dead `import ctypes as _ctypes` (ctypes is never called) - hardware.py, install_python_stack.py, worker.py, install.ps1: shorten verbose multi-line comment blocks throughout - tests: update 4 stale assertions that expected rocm7.2 to be absent/capped * fix(tests): match windows AMD warning assertion to actual source string * chore: trim verbose comment blocks across all ROCm-related files * fix: guard reconcile call against None numeric_ids; add torchvision lower bounds * fix(install.ps1): recreate venv with Python 3.12 after ROCm switch Venv was created with 3.13 before GPU detection ran; switching $DetectedPython to 3.12 had no effect since $VenvPython still pointed to the 3.13 interpreter inside the already-created venv. * ux: detect AMD GPU before Python selection to avoid double venv creation - Early hipinfo + WMI probe runs before Find-CompatiblePython so Python 3.12 is selected upfront when AMD is detected; venv is now created exactly once instead of 3.13 then immediately 3.12. - Post-venv recreation block replaced with a simple warning for the rare case where AMD was missed by the early probe. - setup.ps1: show venv's actual Python version (e.g. 3.12) instead of the system Python found by the pre-activation search (was showing 3.13). * fix(rocm/win): auto-stub all _distributed_c10d symbols via PEP-562 __getattr__ The bare ModuleType stub caused ImportError when torch._dynamo was imported (triggered by trainer.py accessing torch._dynamo.config at load time). torch._dynamo pulls in torch.distributed.fsdp._flat_param which does: from torch._C._distributed_c10d import FakeProcessGroup and potentially other symbols. Adding module __getattr__ auto-creates a stub class for any missing symbol so all such imports succeed without enumerating every individual symbol. Applied to both the primary stub and the fallback stub in the except branch. * chore: trim c10d stub comment * fix(rocm/win): auto-stub missing torch.distributed attrs (Store, ProcessGroup, …) * fix(rocm/win): pre-stub fsdp submodules in sys.modules; fix __getattr__ subpackage clash * feat(rocm/win): arch-aware wheel selector always picks newest ROCm release Replace HIP-SDK-version-gated wheel selection with GPU arch-based logic. Select-ROCmWheelRelease (PS) and _select_windows_rocm_release (Python) map gcnArchName → minimum ROCm version, then pick the newest available release that satisfies it (currently always rocm-rel-7.2.1 for any supported GPU). Wheels bundle their own ROCm runtime so the installed HIP SDK 7.1 does not prevent using 7.2.1 wheels on gfx1200 (RX 9060 XT) and similar RDNA 4 GPUs. Also installs the bitsandbytes Windows ROCm continuous-release wheel and sets BNB_ROCM_VERSION=72 in worker.py before ML imports so bnb loads the libbitsandbytes_rocm72.dll that ships in that wheel. * fix(rocm/win): stub class metaclass for ProcessGroup.BackendType; amd-smi circuit breaker torchao.float8.inference accesses ProcessGroup.BackendType as a class-level attribute. Plain type() stubs have no __getattr__ on the metaclass so this raises AttributeError. Introduce _StubClassMeta whose __getattr__ returns child stub classes, fixing the torchao import chain. Add an amd-smi circuit breaker in amd.py: after 3 consecutive failures the module stops spawning the process, eliminating the repeated Windows UAC / DiskPart elevation prompts caused by polling a non-functional amd-smi. Also guard BNB_ROCM_VERSION=72 behind a DLL existence check so bitsandbytes fails with its own detection message rather than a harder "DLL not found" when the Windows ROCm bnb wheel is not yet installed. * fix: stub __members__ so torchao float8 enum check doesn't crash on ROCm Windows torchao.float8.inference accesses ProcessGroup.BackendType.__members__ expecting a Python Enum registry dict. _StubClassMeta.__getattr__ was blocking all dunder attributes, causing AttributeError. Return {} for __members__ specifically so the isinstance/iteration checks pass cleanly. * fix: stub distributed tensor/functional_collectives to prevent missing C++ op crash on ROCm Windows torch._dynamo.trace_rules eagerly loads torch.distributed.tensor at import time, which pulls in _functional_collectives.py. That file registers Meta kernels for _c10d_functional C++ ops, but those ops are only registered by torch._C._distributed_c10d — a C extension absent from ROCm Windows wheels. Pre-stubbing the affected modules in sys.modules prevents the real import chain from running and avoids the "operator does not exist" crash. * fix: give mod stubs __path__ and pre-stub _tensor to fix 'not a package' import error _make_mod_stub now sets __path__=[] so Python treats stub modules as packages. Without it, any import of a submodule raises "is not a package". Also pre-stub torch.distributed._tensor and its submodules so that _tensor/__init__.py (which re-exports from torch.distributed.tensor) never runs and torchao's `from torch.distributed._tensor import DTensor` gets a harmless stub instead of crashing. * fix: stub torch.ops._c10d_functional namespace with hashable op sentinels torchao.dtypes.nf4tensor uses _c10d_functional ops as dict keys at import time (all_gather_into_tensor.default, wait_tensor.default) and torch.ops.c10d.scatter_.default. None of these ops are registered on ROCm Windows because torch._C._distributed_c10d (the C extension) doesn't ship. Replace the whole _c10d_functional namespace with a custom stub whose ops return hashable .default objects, so dict-key construction doesn't crash. Also inject a scatter_ stub into torch.ops.c10d if it's missing. * fix: stub entire torchao package on ROCm Windows instead of individual ops torchao is not supported on ROCm Windows and its import chain transitively requires torch._C._distributed_c10d (absent from the ROCm Windows wheel). Rather than stub each missing op one by one, stub the whole torchao package upfront. Unsloth uses bitsandbytes for quantization, not torchao, so this has no functional impact. transformers gracefully handles an importable-but- empty torchao by disabling TorchAoHfQuantizer. * fix: set __spec__ on mod stubs so importlib.util.find_spec doesn't raise Manually-injected sys.modules entries have __spec__=None by default. importlib.util.find_spec() raises ValueError when it finds a module in sys.modules with __spec__=None (transformers.utils.import_utils hits this when checking if torchao is available). Give every stub a minimal ModuleSpec(name, loader=None, is_package=True) to satisfy find_spec. * fix: add meta path finder to auto-stub subpackages of stub modules `import torchao.prototype` goes through the import machinery, not __getattr__, so an empty __path__ means ModuleNotFoundError. Rather than list every submodule explicitly, register a MetaPathFinder that intercepts any import whose parent is one of our stubs (detected by loader=None in the parent's ModuleSpec). Real installed packages always have a SourceFileLoader so they are never intercepted. Also register child stubs in sys.modules from __getattr__ as a belt-and-suspenders measure. * fix: use _unsloth_stub sentinel instead of loader=None for stub detection The import machinery overwrites module.__spec__ with the spec returned by find_spec (which has loader=_StubSubpackageLoader, not None), so the loader=None check broke for second-level subpackages. Switch to a custom _unsloth_stub object identity sentinel set directly on each stub module -- it survives __spec__ being replaced and correctly identifies stubs at any depth (torchao.prototype.safetensors, etc.). * refactor(rocm/win): switch to repo.amd.com arch-aware index, remove stubs AMD recommends repo.amd.com/rocm/whl/{arch}/ as the Windows ROCm wheel source. These wheels bundle their own ROCm runtime, support all Python versions (not just cp312), and include the full torch._C extension set (including _distributed_c10d) that the old repo.radeon.com wheel omitted. Changes: - install.ps1: remove Select-ROCmWheelRelease + hardcoded cp312 wheel URLs; remove Python 3.12 forced-preference logic; install via --index-url repo.amd.com/rocm/whl/{arch-family}/ - studio/setup.ps1: same -- remove Select-ROCmWheelRelease, switch to repo.amd.com arch-aware index URL - studio/install_python_stack.py: replace _ROCM_WINDOWS_RELEASES / _select_windows_rocm_release with _windows_rocm_index_url() using the _GFX_TO_AMD_INDEX_ARCH map; drop Python 3.12 restriction - studio/backend/core/training/worker.py: remove all stub machinery (_make_mod_stub, _StubSubpackageFinder, _StubSubpackageLoader, _StubClassMeta, torchao/fsdp/dtensor stubs, _c10d_functional ops stubs, BNB DLL detection) -- no longer needed with new wheel source * fix(rocm/win): restore _distributed_c10d + torchao stubs; fix BNB install repo.amd.com torch wheels also omit torch._C._distributed_c10d on Windows (RCCL is not shipped on Windows). torch/distributed/__init__.py imports from it unconditionally at module level, so the stub must land in sys.modules before any torch.distributed import. torchao (pulled in by transformers.quantizers) walks torchao.float8.distributed_utils -> torch.distributed._functional_collectives -> distributed_c10d at import time. Stubbing torchao up-front short-circuits that chain. worker.py: - Restore _make_mod_stub / _StubSubpackageFinder / _StubSubpackageLoader - Restore _StubClassMeta for ProcessGroup.BackendType attribute access - Restore _distributed_c10d stub with __getattr__ (Windows only) - Restore torchao stubs (5 modules, Windows only) install_python_stack.py: - BNB AMD wheel install was inside the early-return branch that fires when torch is already a ROCm build (installed by install.ps1). Move BNB install outside that branch so it always runs on Windows ROCm — the PyPI bitsandbytes has only CUDA DLLs and fails to load on ROCm. * worker: remove _distributed_c10d stub; stub only torchao The installed torch/distributed/__init__.py from repo.amd.com (torch==2.10.0+rocm7.12.0) is now properly guarded with `if is_available():`, so `import torch.distributed` alone is safe. The crash only comes via torchao's import chain: torchao.float8.distributed_utils → torch.distributed._functional_collectives (unguarded import) → torch.distributed.distributed_c10d → torch._C._distributed_c10d ← absent on Windows ROCm Stubbing torchao short-circuits the chain entirely. No need to stub _distributed_c10d. Remove _StubClassMeta and the _c10d stub block; keep only _make_mod_stub + _StubSubpackageFinder + torchao seeds. * fix: BNB AMD wheel skipped + torch.compile segfault on Windows ROCm install_python_stack.py: the UNSLOTH_ROCM_TORCH_INSTALLED=1 early-return path (set by setup.ps1 when it installed torch itself) returned before ever reaching the AMD BNB prerelease wheel install. The PyPI bitsandbytes==0.49.x ships only CUDA DLLs, so loading it on ROCm fails with "libbitsandbytes_rocm72.dll not found". Now installs the AMD Windows BNB wheel before returning on that path too. worker.py: torch._grouped_mm crashes on gfx1200 (null HIP kernel pointer, 0xC0000005) when torch.compile's JitDecomp system dispatches it during the first forward pass. Detect Windows ROCm via torch.version.hip (already in sys.modules from section 1e) and set TORCHDYNAMO_DISABLE=1 to bypass the broken kernel dispatch. * fix: BNB AMD wheel install fails uv wheel filename check The bitsandbytes continuous-release wheel is intentionally mismatched: filename encodes 1.33.7.preview (= 1.33.7rc0 in PEP 440) but wheel metadata reports 0.50.0.dev0. uv rejects this by default. Introduce _install_bnb_windows_rocm() helper that sets UV_SKIP_WHEEL_FILENAME_CHECK=1 only for this specific install, then restores the previous env value. Both BNB install call sites (the UNSLOTH_ROCM_TORCH_INSTALLED early-return path and the normal Windows ROCm path) now use this helper. * worker: patch _grouped_mm CUDA dispatch on Windows ROCm (gfx1200 null kernel) TORCHDYNAMO_DISABLE=1 stopped the compiler frontend but not the autograd JitDecomp system, which also dispatches _grouped_mm and hits the same null HIP kernel crash (0xC0000005). Verified that torch.library.Library("aten","IMPL").impl("_grouped_mm", fn, "CUDA") successfully overrides the broken HIP kernel with a Python mm fallback on torch==2.10.0+rocm7.12.0. Schema: _grouped_mm(Tensor self, Tensor mat2, Tensor? offs=None, Tensor? bias=None, ScalarType? out_dtype=None) -> Tensor The fallback handles both the simple case (offs=None → torch.mm) and the grouped case (offs provided → split self by offsets, multiply each group against the corresponding slice of mat2, then cat results). Keep _WINDOWS_ROCM_GROUPED_MM_LIB alive at function scope to prevent the C++ dispatch registration from being freed by GC. * worker: fix torchao stub — return stub classes not modules for isinstance() peft/tuners/lora/torchao.py does: from torchao.dtypes import AffineQuantizedTensor, LinearActivationQuantizedTensor isinstance(weight, (AffineQuantizedTensor, LinearActivationQuantizedTensor)) The stub __getattr__ was returning stub modules, which isinstance() rejects with "arg 2 must be a type, a tuple of types, or a union". Add _StubTypeMeta metaclass whose __instancecheck__ always returns False, and _make_stub_type() to create stub classes via it. Change _make_mod_stub __getattr__ to return stub classes instead of stub modules for leaf attribute access, so isinstance() gets a valid type and returns False. _StubSubpackageFinder still handles import-style subpackage creation (those still need module objects in sys.modules); __getattr__ only fires for from-import or direct attribute access, which are the isinstance paths. * [pre-commit.ci] auto fixes from pre-commit.com hooks for more information, see https://pre-commit.ci * tests: add coverage for Windows ROCm install paths and worker patches Add conftest.py to fix pre-existing sys.path issue that prevented test_rocm_support.py from running at all (install_python_stack.py imports from backend.utils.wheel_utils which needs studio/ on sys.path). New test classes cover everything added in this session: - TestWindowsRocmIndexUrl: arch → AMD pip index URL mapping (gfx120X-all, gfx1151, gfx1150, gfx110X-all, unknown → None, trailing slash) - TestDetectWindowsGfxArch: hipinfo output parsing, missing/timeout/bad returncode/no-gcnArchName paths - TestInstallBnbWindowsRocm: UV_SKIP_WHEEL_FILENAME_CHECK set+restored, env restored on exception, no-op when URL missing - TestRocmTorchInstalledEnvVar: UNSLOTH_ROCM_TORCH_INSTALLED=1 skips pip_install, calls _install_bnb_windows_rocm, sets flag - TestWorkerWindowsRocmPatches: _grouped_mm CUDA dispatch override, offs/grouped variant handling, GC-prevention sentinel, _StubTypeMeta __instancecheck__, _StubSubpackageFinder registration, torchao key submodule pre-stubbing, TORCHDYNAMO_DISABLE guard - TestRocmTorchPkgSpecs: rocm7.2 torch 2.11.x spec, default <2.11 cap, 3-tuple shape, _GFX_TO_AMD_INDEX_ARCH RDNA4/3.5/3 coverage * [pre-commit.ci] auto fixes from pre-commit.com hooks for more information, see https://pre-commit.ci * tests: fix encoding, IS_WINDOWS patching, and wrong assertion - Add encoding="utf-8" to all read_text() calls (54 occurrences) so tests pass on Windows where the default codec is cp1252 and source files contain UTF-8 emoji (e.g. ⚠️ in install_python_stack.py) - Add @patch.object(stack_mod, "IS_WINDOWS", False) to Linux-path TestEnsureRocmTorch tests so they reach the Linux code path when run on a Windows machine instead of short-circuiting into the Windows branch - Fix test_grouped_mm_patch_guarded_by_windows_and_hip_check: the source uses getattr(_torch_for_rocm, "version", None) not torch.version, so check for '"version"' and '"hip"' substrings instead 137 passed, 2 skipped * [pre-commit.ci] auto fixes from pre-commit.com hooks for more information, see https://pre-commit.ci * fix: pin BNB_ROCM_VERSION=72 for torch==2.11.0+rocm7.13.0 compatibility AMD's pip index now ships torch==2.11.0+rocm7.13.0 (ROCm 7.13). bitsandbytes auto-detects HIP 7.13 from torch.version.hip and looks for libbitsandbytes_rocm713.dll, which the AMD Windows prerelease wheel does not ship (it only ships rocm72.dll), causing a load error at training start. Fix: - worker.py section 1f: set BNB_ROCM_VERSION=72 (via setdefault) before section 2 ML imports, so bitsandbytes always loads rocm72.dll on Windows ROCm - install_python_stack.py: set BNB_ROCM_VERSION=72 in _install_bnb_windows_rocm() for any post-install imports; update comment to document root cause - tests: 4 new assertions covering the fix (141 passed, 2 skipped) * [pre-commit.ci] auto fixes from pre-commit.com hooks for more information, see https://pre-commit.ci * fix: detect BNB ROCm DLL suffix dynamically instead of hardcoding '72' BNB_ROCM_VERSION was pinned to '72' which works today (AMD wheel ships rocm72.dll) but would break again if AMD ships a future wheel with a different DLL suffix (e.g. rocm713.dll). Add _detect_bnb_rocm_dll_ver() to install_python_stack.py: scans the installed bitsandbytes package dir for libbitsandbytes_rocm{VER}.dll using importlib.util.find_spec (no BNB import needed) and returns the suffix. '72' remains the fallback when detection fails. Apply the same detection inline in worker.py section 1f. Both paths still respect a pre-set BNB_ROCM_VERSION (caller override wins). Tests: +8 cases covering detection logic and fallback (147 passed, 2 skipped). * fix: patch torch.distributed stubs in server process for Windows ROCm On Windows ROCm, torch.distributed ships without process-group helpers (is_initialized, is_available, get_rank, get_world_size). The worker subprocess already patches these in section 1e, but the main server process calls _determine_attention_impl_for_gpu_estimate() which calls unsloth's resolve_attention_implementation() → is_initialized(), causing: "Could not resolve attention implementation for '...': module 'torch.distributed' has no attribute 'is_initialized'" Fix: patch the missing attrs onto torch.distributed at the top of _determine_attention_impl_for_gpu_estimate, matching the same stubs already applied in worker.py section 1e. No-ops on Linux/CUDA where torch.distributed is fully populated. * fix: gate _grouped_mm dispatch patch on HIP < 7.13 AMD fixed the gfx1200 null HIP kernel in ROCm 7.13 (torch 2.11+). Users on the new wheel now get the real GPU _grouped_mm kernel for MoE workloads instead of the Python mm fallback. Changes: - worker.py: add _hip_ver_at_least() helper; wrap full _grouped_mm patch in `if not _hip_ver_at_least(7, 13):` with else branch that logs the skip reason; update section-1f comment to document the fix - test_rocm_support.py: add 5 tests covering the helper definition, the (7, 13) gate expression, the else branch, the skip log message, and the AMD-format version string parsing (.split(".")[:2]) Verified: torch==2.11.0+rocm7.13.0 — 3D batch and grouped (offs) variants both succeed; null crash only present on rocm7.12 and earlier. * fix: stub is_torchelastic_launched on torch.distributed for Windows ROCm resolve_attention_implementation calls is_torchelastic_launched() which does not exist in the incomplete torch.distributed shipped with the Windows ROCm wheel, causing a warning on every model config load in the server process. Add it to the stub table alongside the four helpers already patched in _determine_attention_impl_for_gpu_estimate. Also adds two tests: one confirming the new stub and one confirming all five core distributed helpers are covered. * [pre-commit.ci] auto fixes from pre-commit.com hooks for more information, see https://pre-commit.ci * fix: explicit warnings on AMD ROCm arch/version fallbacks + Fast-Install arg order setup.ps1: - Fix Fast-Install argument order: packages before flags, consistent with all other Fast-Install calls in the file (was: Fast-Install --force-reinstall --index-url $url torch ...) (now: Fast-Install torch torchvision torchaudio --force-reinstall --index-url $url) - Add explicit [WARN] substep when $HasROCm is true but arch mapping fails: - GPU arch detected but not in supported wheel list → names the arch and lists supported families so user knows exactly what to report - HIP SDK present (amd-smi path) but gcnArchName unreadable → instructs user to re-install the HIP SDK; previously fell back silently to CPU install.sh: - Add [WARN] to stderr before silent CPU fallback when AMD GPU is confirmed (rocminfo/amd-smi) but ROCm version cannot be read from any source (amd-smi, /opt/rocm/.info/version, hipconfig, dpkg, rpm) - Add [WARN] to stderr when ROCm version is too old (< 6.0) with upgrade link install.ps1 and setup.sh: no changes needed (already handle these paths correctly) * fix: robust gfx arch detection for Strix Halo / HIP-runtime-only installs Covers users who have the HIP runtime (amd-smi available) but not the full HIP SDK (no hipinfo), which is common on Strix Halo iGPU systems. Without this, $ROCmGfxArch stays null and the installer silently falls back to CPU-only PyTorch despite a working GPU. Detection waterfall (setup.ps1 + install.ps1): 1. hipinfo gcnArchName -- full HIP SDK (existing, unchanged) 2. amd-smi list gfx pattern -- newer amd-smi versions embed arch 3. amd-smi static --asic -- ROCm 6+ ASIC details with GFX target 4. UNSLOTH_ROCM_GFX_ARCH env -- manual override escape hatch 5. GPU name → arch table -- best-effort from marketing name: 890M / Strix Halo → gfx1151 (RDNA 3.5 iGPU, Strix Halo) 880M / Strix Point → gfx1150 (RDNA 3.5 iGPU, Strix Point) 780M / Phoenix → gfx1103 (RDNA 3 iGPU) RX 7900/7800/7700 → gfx1100 (RDNA 3 desktop) RX 9070 XT / 9080 → gfx1201 (RDNA 4) RX 9070 / 9060 XT → gfx1200 (RDNA 4) When arch is inferred from name, a Cyan substep tells the user to set UNSLOTH_ROCM_GFX_ARCH to skip inference on future installs. WMI block intentionally does not set $HasROCm (no runtime confirmation). Tests: 11 new tests in TestStrixHaloGfxArchDetection covering all five detection levels, WMI safety, and gfx regex in both ps1 files. * [pre-commit.ci] auto fixes from pre-commit.com hooks for more information, see https://pre-commit.ci * fix: resolve hipinfo/hipconfig via HIP_PATH/ROCM_PATH when not on PATH AMD HIP SDK sets HIP_PATH on Windows but does not always add the bin directory to PATH. Get-Command hipinfo therefore silently fails and detection falls through to WMI, which cannot provide a gfx arch, leaving the user with a CPU-only PyTorch install and no warning. Changes: - setup.ps1 / install.ps1: before falling through to amd-smi, attempt to locate hipinfo.exe and hipconfig.exe under $env:HIP_PATH\bin (then $env:ROCM_PATH\bin) when Get-Command returns nothing - Emit a [WARN] with the resolved path and a one-liner to permanently fix PATH via SetEnvironmentVariable - Emit a [WARN] when HIP_PATH/ROCM_PATH is set but the exe is still not found (incomplete SDK install) - Emit a [WARN] with the first hipinfo output line when hipinfo runs but returns a non-zero exit code (e.g. "no ROCm-capable device detected") - 18 new tests in TestHipSdkEnvPathResolution; total 183 passed, 2 skipped * [pre-commit.ci] auto fixes from pre-commit.com hooks for more information, see https://pre-commit.ci * feat: print HIP SDK path and full hipconfig version in terminal on AMD detection Both install.ps1 and setup.ps1 now emit substeps under the gpu step when AMD ROCm is detected: gpu AMD ROCm (gfx1200) HIP SDK: C:\Program Files\AMD\ROCm\7.1 hipconfig: 7.1.51803-d3a86bd04 Previously only the gpu label (e.g. "AMD ROCm (gfx1200)") was shown with no indication of where the SDK was found or which exact build was active. The full hipconfig build string (e.g. 7.1.51803-d3a86bd04 instead of just 7.1) is now stored in ROCmVersionFull and also used in setup.ps1's 'rocm' step label. 9 new tests in TestHipSdkDetectedSubstep; total 192 passed, 2 skipped * fix: Strix rocm7.1 segfault bypass + Ubuntu 24.04 HIP gcc-install-dir Issue 1 (install.sh): gfx1151/gfx1150 + ROCm 7.1 causes a segfault in torch._grouped_mm (moe_utils.py:167). The Radeon repo now ships cp313 wheels for rocm-rel-7.1, so _amd_gpu_radeon=true silently lands on the broken combo. When Strix Halo/Point is detected and TORCH_INDEX_URL is rocm7.1, override to rocm7.2 PyTorch index, update TORCH_CONSTRAINT, and set _amd_gpu_radeon=false to bypass the Radeon repo entirely. Emits a clear [WARN] explaining the segfault and linking to the ROCm upgrade docs. Issue 2 (setup.sh): ROCm 7.x ships clang-20 which on Ubuntu 24.04+ picks /usr/lib/gcc/x86_64-linux-gnu/14/ (runtime dir, no C++ headers), causing 'cstdlib file not found' and a failed llama.cpp HIP build. Iterate gcc versions 14→11 to find the first install dir that has both runtime and /usr/include/c++/<ver> headers, then pass --gcc-install-dir to clang via CMAKE_HIP_FLAGS. Fix confirmed by h34v3nzc0dex (llama.cpp 417/417 clean). 11 new tests across TestStrixRocm71Override and TestSetupShGccInstallDir; total 203 passed, 2 skipped * [pre-commit.ci] auto fixes from pre-commit.com hooks for more information, see https://pre-commit.ci * fix: BNB_ROCM_VERSION in server process + torch._C._distributed_c10d stubs Two errors visible in training logs on Windows ROCm: 1. Server process bitsandbytes crash: "Configured ROCm binary not found at libbitsandbytes_rocm713.dll" The installed BNB wheel ships rocm72.dll (not rocm713.dll). The training worker already sets BNB_ROCM_VERSION=72 via DLL detection but the server process (main.py) imported bitsandbytes before that ran. Fix: add the same DLL-scan + BNB_ROCM_VERSION assignment to main.py inside the existing win32 guard, before any downstream import can pull in bitsandbytes. 2. torch.distributed import failure: "No module named 'torch._C._distributed_c10d'; torch._C is not a package" torch._C is a C extension on Windows ROCm — Python cannot do submodule imports from it, so torch.distributed fails to import before our attribute stubs could ever run. Fix: inject empty ModuleType stubs for _distributed_c10d, _distributed_autograd and _distributed_rpc into sys.modules inside the win32 guard in hardware.py BEFORE importing torch.distributed, so the import succeeds and our attribute stubs take effect. 9 new tests in TestServerStartupRocmFixes; total 212 passed, 2 skipped * [pre-commit.ci] auto fixes from pre-commit.com hooks for more information, see https://pre-commit.ci * fix(win32): populate distributed c10d stub with dummy symbols torch.distributed tries to `from torch._C._distributed_c10d import FakeProcessGroup` (and ProcessGroup, Work, Store, etc.). The previous empty ModuleType stub caused an AttributeError on those names. Populate every stub with a _Dummy class for each known symbol so the import chain completes silently on Windows ROCm where torch._C is a compiled extension and its _distributed_c10d submodule doesn't exist. Adds four new tests in TestServerStartupRocmFixes covering FakeProcessGroup, ProcessGroup, setattr population, and all three _distributed_* siblings. * fix(win32): distinguish HIP SDK installed vs GPU not ROCm-accessible Previously, when hipinfo was found but exited non-zero (e.g. "no ROCm-capable device detected"), both install.ps1 and setup.ps1 fell through to the WMI-label-only branch and printed "AMD GPU detected -- HIP SDK not found" -- factually wrong since the SDK binary is present. Add $HipSdkInstalled flag (set true when hipinfo binary is found, regardless of exit code). When HipSdkInstalled && !HasROCm: - Show "AMD GPU detected -- not ROCm-accessible (HIP <ver>)" instead - Explain this is a driver issue, not an SDK issue, with a link - Still run hipconfig version capture so version shows in output - CPU-only hint now says "GPU not ROCm-accessible" not "require HIP SDK" Also applies to setup.ps1 (same detection block, same branches). Adds TestHipSdkInstalledButDeviceInaccessible (11 tests). * fix(win32): scope ROCm workarounds to AMD hosts only Three Codex-flagged issues where Windows ROCm workarounds incorrectly applied to Windows CUDA (NVIDIA) machines: main.py (P1): BNB_ROCM_VERSION was set unconditionally on all win32 hosts. On NVIDIA, bitsandbytes sees BNB_ROCM_VERSION and looks for a ROCm DLL that doesn't exist, breaking bitsandbytes initialisation. Fix: gate the block on HIP_PATH/ROCM_PATH being present (ROCm hosts only). worker.py (P2): torchao stubs were seeded for all win32 runs, shadowing real torchao on Windows CUDA and silently disabling torchao quantization for NVIDIA users. Fix: gate on HIP_PATH/ROCM_PATH (win32 ROCm only). install_python_stack.py (P1): _detect_windows_gfx_arch() only checked shutil.which("hipinfo"), skipping the HIP_PATH/ROCM_PATH fallback that the PowerShell installers use. On installs where the HIP SDK bin dir is not on PATH, _ensure_rocm_torch() returned early without installing ROCm wheels or bitsandbytes. Fix: mirror the env-var fallback. * fix(linux): route Strix + ROCm 7.1 to AMD arch-specific index Instead of falling back to pytorch.org/rocm7.2, the Strix override now routes to repo.amd.com/rocm/whl/gfx1151/ (or gfx1150/) which serves torch 2.11.0+rocm7.13.0 -- AMD's build containing the actual _grouped_mm kernel fix, verified on real gfx1151 hardware by h34v3nzc0dex. This exercises the real GPU kernel path rather than the rocm7.2 workaround. UNSLOTH_AMD_ROCM_MIRROR can override the base URL for air-gapped installs. Also teaches _tauri_torch_index_family to recognise AMD arch-specific URLs (repo.amd.com/rocm/whl/gfx*) and return the rocm7.13 family label so _tauri_gpu_branch correctly classifies these installs as rocm. Suggested by h34v3nzc0dex based on hardware-verified probe results. * fix(studio/rocm): gate ROCm-only side-effects on active torch runtime Address five edge cases flagged during PR review: 1. studio/backend/main.py: BNB_ROCM_VERSION was set whenever HIP_PATH or ROCM_PATH was present in the environment. A Windows CUDA user who once installed the HIP SDK and reverted to a CUDA torch wheel still has those env vars set, so bitsandbytes would try to load libbitsandbytes_rocm72.dll against a CUDA torch and crash. Now probe torch.version.hip inside the env-var guard (worker.py already does this). 2. studio/backend/main.py: os.add_dll_directory returned handles were discarded. Per CPython docs, the directory leaves the DLL search list when the handle is garbage collected. Retain handles in module-level _ROCM_DLL_HANDLES list so they survive process lifetime. 3. studio/install_python_stack.py: _install_bnb_windows_rocm() returned None regardless of pip_install_try outcome, and the caller flipped _rocm_windows_torch_installed to True unconditionally. On a failed BNB install the post-install "manual install may be required" warning was suppressed and the user was misled. Helper now returns bool; caller gates on it. 4. studio/install_python_stack.py: _detect_windows_gfx_arch returned the raw capture group, so mixed-case hipinfo output ("Gfx1151") missed the lowercase keys in _GFX_TO_AMD_INDEX_ARCH and silently fell back to CPU torch. Lowercase the token. 5. studio/install_python_stack.py: UNSLOTH_ROCM_TORCH_INSTALLED=1 early- return trusted the env var even when the venv was wiped between runs. Subprocess-probe torch importability first; fall through to the full install path if the probe fails. Tests: 231 passed, 1 skipped in tests/studio/install/test_rocm_support.py (adds one new test for case 5 fall-through). * [pre-commit.ci] auto fixes from pre-commit.com hooks for more information, see https://pre-commit.ci * fix(studio/rocm): worker.py parity + don't roll back ROCm torch on bnb failure Addresses findings from a 10x reviewer pass on the prior fix commit: 1. studio/backend/core/training/worker.py (parity with main.py): - Gate the torchao stub block on torch.version.hip / 'rocm' in torch.__version__ instead of HIP_PATH / ROCM_PATH env-var presence. Same root cause as main.py: HIP SDK env vars stick around on CUDA hosts. - Add module-level Windows ROCm DLL registration block. Worker subprocesses inherit env vars but not the parent's add_dll_directory handles, so the first `import torch` in the worker could fail to find amdhip64.dll when HIP_PATH\bin is not on PATH. Mirrors main.py setup. Handles retained at module scope via _ROCM_DLL_HANDLES. - Promote _WINDOWS_ROCM_GROUPED_MM_LIB to module scope with `global` in run_training_process so the torch.library.Library registration survives past function return / mid-run garbage collection. - Harden _torch_has_hip() to also accept 'rocm' in torch.__version__ (AMD SDK / Radeon wheels may not set torch.version.hip). 2. studio/install_python_stack.py: - Don't roll back ROCm torch when bitsandbytes install fails. The prior commit gated _rocm_windows_torch_installed on _install_bnb_windows_rocm() returning True; if torch installed successfully but bnb failed, the flag stayed False and later install steps could overwrite ROCm torch with the generic CPU torch wheel. Set the flag after torch install; surface bnb failure as a separate warning instead. - _detect_windows_gfx_arch now probes in three tiers: UNSLOTH_ROCM_GFX_ARCH env-var override (matches the PowerShell installer), then hipinfo (PATH or HIP_PATH\bin), then amd-smi (`static --asic`, `list`). Without the amd-smi fallback, runtime-only Radeon installs without hipinfo on PATH made `studio update` return early and leave the venv on CPU torch. - Linux torch-already-rocm probe in _ensure_rocm_torch now matches the Windows probe shape: accepts torch.version.hip OR 'rocm' in torch.__version__ to cover AMD SDK / Radeon Linux wheels. 3. studio/backend/utils/hardware/hardware.py: - apply_gpu_ids() final-fallback torch probe accepts 'rocm' in torch.__version__ in addition to torch.version.hip, matching detect_hardware(). AMD SDK wheels could otherwise leak through with CUDA-only visibility masks on a spawned ROCm worker. Tests: 231 passed, 1 skipped in tests/studio/install/test_rocm_support.py (no test changes needed; the probe shape that prints the hip version (or 'rocm' sentinel) preserves the existing non-empty-string contract). Not addressed in this commit (deferred or out of scope): - Tag drift / lemonade checksum (PR 5303 surface, not this PR). - install.sh rocm7.2.1 URL: small fix, separate. - install.ps1 / setup.ps1 'Radeon 8060S' marketing-name fallback table. - Strix Halo + ROCm 7.1 routing asymmetry in Python update path. * [pre-commit.ci] auto fixes from pre-commit.com hooks for more information, see https://pre-commit.ci * fix(studio/rocm): robustness pass - rocm tag normalisation, Strix routing parity, hardened detection Robustness pass on top of |
||
|
|
ca55acbb5f
|
Studio: unblock install on Linux ARM64 + Windows ARM64 + Intel Mac (#5790)
* Studio: unblock cross-platform install on Linux ARM64 + Windows ARM64 Three independent bugs that together prevent `install.sh` / `install.ps1` from completing on the ARM machines GitHub Actions now ships (`ubuntu-24.04-arm`, `windows-11-arm`) and on equivalent real hosts (Ampere Altra, Raspberry Pi 5, Snapdragon X Elite, ...). Validated on the staging-2 cross-OS smoke suite -- five per-OS workflows pinned to `ubuntu-latest`, `ubuntu-24.04-arm`, `macos-14`, `macos-15-intel`, `windows-11-arm`. Before this change Windows ARM exits 1 in the winget gate and Linux ARM source-builds llama.cpp because the prebuilt selector returns 0 attempts; with it both reach healthy /api/health. 1. studio/install_llama_prebuilt.py -- resolve_simple_install_release_plans had explicit branches for windows+x86_64, macos+arm64, macos+x86_64 and linux+x86_64 only. Upstream ggml-org/llama.cpp ships `llama-bNNNN-bin-ubuntu-arm64.tar.gz` and `llama-bNNNN-bin-win-cpu-arm64.zip` (visible in the b9334 release manifest), so the missing elif branches force every Linux ARM64 and Windows ARM64 host into a source build even when a perfectly good upstream prebuilt is one HTTP GET away. Two new branches mirror the existing CPU variants; runtime_patterns_for_choice and runtime_payload_health_groups gain `linux-arm64` (.so layout) and `windows-arm64` (.dll layout) so the health-check pass-through matches the asset shape. 2. studio/setup.sh -- the helper-release-repo selector routed any non-x86_64 Linux to `unslothai/llama.cpp`, which only publishes the Linux CUDA bundle set. The result on Linux ARM64 was a guaranteed `direct_linux_release_plan` raise of "no compatible Linux prebuilt asset was found" on every release in the scan, then a source-build fallback. Pin Linux ARM64 (CPU-only) to `ggml-org/llama.cpp` so the new branch in (1) can see the upstream asset. setup.ps1 already hardcodes `ggml-org/llama.cpp`, so Windows ARM64 picks up (1) without an additional change. 3. install.ps1 -- the winget pre-check hard-failed before Python or uv detection. `windows-11-arm` runners (and many corporate Windows hosts without the Microsoft Store) ship without winget but already have a usable Python plus the Astral uv PowerShell installer reachable. Demote the winget check to a soft warning, defer the hard failure to the Python install branch (which is the only path that genuinely needs winget), and let the uv install fall through to `https://astral.sh/uv/install.ps1` when winget is absent. The uv PowerShell installer was already the existing fallback for the "winget present but uv install failed" case; this just makes it the primary path on hosts without winget. * [pre-commit.ci] auto fixes from pre-commit.com hooks for more information, see https://pre-commit.ci * Studio: filter torchcodec on platforms without wheels torchcodec 0.10.0 ships wheels for manylinux_2_28_x86_64, macosx_12_0_arm64, and win_amd64 only -- visible on its PyPI page and in the resolver error reported by #4446. install_python_stack.py pulls torchcodec via extras-no-deps.txt, which is now installed unconditionally during `unsloth studio update --local` (the update command has no --no-torch flag). Result on Linux aarch64 / Windows ARM64 / Intel Mac (when invoked outside the install.sh auto-skip-torch path): ERROR: Could not find a version that satisfies the requirement torchcodec==0.10.0 (from versions: 0.0.0.dev0, ...) ERROR: No matching distribution found for torchcodec==0.10.0 error Installing extras (no-deps) (pip) failed (exit code 1) `NO_TORCH_SKIP_PACKAGES` already lists torchcodec but only fires when NO_TORCH is true -- the update path inherits no NO_TORCH from the original install and inferrence falls back to IS_MAC_INTEL only, so Linux aarch64 / Windows ARM64 sail past the guard. Adds a platform predicate PLATFORM_LACKS_TORCHCODEC_WHEEL and applies the torchcodec filter unconditionally there, independent of NO_TORCH. Surfaced by the staging-2 cross-OS smoke `unsloth studio update` step on ubuntu-24.04-arm; verified the same step is green with this patch overlaid. * Studio: skip librosa on no-torch hosts (unblocks Intel Mac install) Closes the last cross-platform install gap surfaced by the staging-2 cross-OS smoke (see unslothai/unsloth#5046 for the original report): `install.sh --local` on macos-15-intel fails at × Failed to build `llvmlite==0.47.0` error: failed-wheel-build-for-install ╰─> llvmlite error studio setup failed (exit code 1) Root cause: upstream llvmlite dropped the macosx_x86_64 wheel between 0.42.0 and 0.46.0 (https://pypi.org/project/llvmlite/0.47.0/#files -- only macosx_arm64 / manylinux / win_amd64 remain). pip falls back to a from-source build of llvmlite's FFI, which needs LLVM 14/15 dev headers and matching llvm-config -- not present in Xcode Command Line Tools' libclang and not installed by install.sh's MAC_INTEL deps branch. llvmlite enters Studio's tree via librosa -> numba -> llvmlite in extras.txt. openai-whisper (extras.txt:28) would also pull numba but is already filtered on no-torch hosts. Adding librosa to the same NO_TORCH_SKIP_PACKAGES set makes the install go through cleanly on Intel Mac (auto-detected NO_TORCH=true via the MAC_INTEL branch) and on any user-passed --no-torch host where torch-dependent audio pipelines would not run anyway. Tracked / verified on the danielhanchen/unsloth-staging-2#154 smoke matrix (macos-15-intel). * Studio UI tests: retry evaluate_fetch on transport-level failure (PR #5790) Mac Studio UI CI on this PR (run 26496820814, job 78026959359) failed with /api/models/list status=0 error='TypeError: Failed to fetch'. The artifact studio.log shows the server answered the two preceding /api/models/list calls from the React mount (both 200) but never received the third call from the test script: the browser reused a kept-alive HTTP/1.1 socket that uvicorn (5s keep_alive_timeout) had closed ~130ms earlier. Chromium under --single-process on macos-14 free runners is most prone to this; the post /api/auth/change-password session churn accelerates it. A rerun on the same SHA passed, which is the classic flake signature. evaluate_fetch in tests/studio/_playwright_robust.py already returns a structured {status: 0, body: None, error: "..."} on JS-side throws, but every caller treats status=0 as fatal. Add a bounded retry inside the helper so the one class of failure recovers transparently: status != 0 -> real HTTP response (incl. 4xx/5xx); propagate. error has "AbortError" -> caller's AbortSignal deadline; propagate. else (status==0) -> stale-keepalive or other transport failure; retry after 250ms / 500ms backoff so the pool evicts the dead socket before the next attempt. Defaults transport_retries=2, transport_backoff_ms=250 (max added latency on the happy path is zero; on a transport failure: up to 750ms of sleep). Callers keep the existing {status, body, error} shape; no call-site changes needed. Verified: tests/studio/_playwright_robust.py compiles; signature gains two kwonly args (transport_retries, transport_backoff_ms); 8 evaluate_fetch call sites in playwright_chat_ui.py + playwright_extra_ui.py pick up the retry without change. --------- Co-authored-by: danielhanchen <info@unsloth.ai> Co-authored-by: pre-commit-ci[bot] <66853113+pre-commit-ci[bot]@users.noreply.github.com> |
||
|
|
849da89605
|
Fix unsloth studio update silently downgrading on macOS arm64 (#5767)
* Fix unsloth studio update silently downgrading on macOS arm64
Root cause: studio/install_python_stack.py's "Updating base packages"
step passes `--upgrade-package unsloth -r base.txt -c constraints.txt`
with base.txt's `unsloth` and `unsloth-zoo` entries unpinned. On macOS
arm64 the resolver silently backtracks to an older unsloth (2026.5.2 or
even 2025.7.2) whenever a transitive constraint (the most common one is
bitsandbytes wheel availability: 0.49.0+ ships macosx_14_0_arm64 wheels,
older versions do not) makes the unpinned requirement satisfiable by an
older release. install.sh already maintains an explicit `unsloth>=N.N.N`
floor for the same reason, but the floor was missing from the in-venv
update path.
Reproduced on macos-14 across 2026.3.18 / 2026.4.8 / 2026.5.2 / 2026.5.6
starting states. All four ended on unsloth==2026.5.2 after a clean
`unsloth studio update` invocation (2026.5.6 was a true downgrade,
others were stale or partial advances).
Fix mirrors install.sh: query PyPI at runtime for the current latest
version of unsloth and unsloth-zoo, then pass `unsloth>=<latest>` and
`unsloth-zoo>=<latest>` as extra positional pins alongside the existing
`--upgrade-package` flags. Network failures fall back to the historical
unpinned behaviour so offline installs continue to work. Applied to all
three upgrade branches (standard update, local-repo overlay, no-torch).
Also fix the cosmetic `Hardware detected: MLX -- Apple Silicon (i386)`
banner. platform.processor() reads `uname -p` which returns "i386" on
many universal2-shaped Python builds even on a native arm64 interpreter;
platform.machine() is the reliable source ("arm64" once is_apple_silicon
has gated us).
* Dedup floor-pin call sites + LRU cache PyPI lookup
Three upgrade branches each rebuilt the same conditional `unsloth>=` /
`unsloth-zoo>=` arg list with two PyPI round-trips per branch -- six
round-trips per `unsloth studio update` invocation. Extract a
`_pin_floor_args(*, include_unsloth=True)` helper and wrap
`_resolve_latest_pypi_version` in `functools.lru_cache` so the three
branches share a single PyPI request per package.
Functionally equivalent; pure cleanup on top of the previous commit.
* Warn when PyPI is unreachable so the silent fallback is visible
If `_resolve_latest_pypi_version` returns None for either lookup the
floor args are silently dropped, which restores the pre-fix resolver
behaviour. Print a single cyan `warning` line in `_pin_floor_args` when
that happens so users behind a proxy / captive portal / firewalled
PyPI mirror know the upgrade has degraded -- and can supply network
egress or a `--index-url` mirror and retry.
* Soft floor with unpinned-fallback for hosts where floor is unsatisfiable
Reviewer found that the unconditional unsloth-zoo>=LATEST floor turns
a previously-resolvable macOS 13 arm64 update into a hard resolver
failure: unsloth-zoo 2026.5.4 requires mlx-vlm>=0.4.4 -> mlx>=0.30.0,
and mlx 0.30+ only publishes macosx_14_0_arm64 wheels. The pre-fix
behaviour backtracked to an older unsloth instead of erroring. We
should not turn "stale" into "fail".
Add pip_install_with_floor_fallback: first try the install with the
floor appended; if the resolver cannot satisfy it (subprocess exit
code != 0), retry the install without the floor and print a clear
warning. The fall-through preserves the legacy "succeed-but-stale"
contract on hosts where wheel availability is the bottleneck.
Also extend pip_install_try with a req= kwarg so the floor attempt
can pass `-r base.txt` like pip_install does, and add an
UNSLOTH_NO_PYPI_FLOOR=1 opt-out for air-gapped CI / corporate PyPI
mirrors that intentionally do not expose pypi.org directly.
All three upgrade branches (standard, local-repo, no-torch) now go
through the helper so the fallback behaviour is consistent.
* [pre-commit.ci] auto fixes from pre-commit.com hooks
for more information, see https://pre-commit.ci
* Add second fallback level: floor without constraints
macOS arm64 floored attempt with -c constraints.txt fails because the
single-env constraint `transformers==4.57.6` conflicts with the new
unsloth-zoo 2026.5.4 -> mlx-vlm 0.4.4+ -> transformers>=5.1.0 chain.
First fallback level retries the floored install without constraints
(transformers freely resolves to a mlx-vlm-compatible version);
downstream pip_install calls still apply constraints.txt to anything
that doesn't transitively conflict.
If THAT still fails (wheel availability rather than constraint
conflict), drop the floor and fall back unpinned as before.
Verified locally with uv pip compile against aarch64-apple-darwin
python-3.13: strict-constrained floor errors, no-constraint floor
resolves cleanly to unsloth==2026.5.7 + unsloth-zoo==2026.5.4 +
transformers==5.5.0 + mlx-vlm==0.5.0.
* setup.sh/.ps1: also gate fast-path on unsloth-zoo being up to date
The version-check fast-path in setup.sh / setup.ps1 only looked at
unsloth itself. If unsloth was at the PyPI latest but unsloth-zoo was
stale, the gate set _SKIP_PYTHON_DEPS=true and install_python_stack.py
never ran -- so the new floor pin from PR #5767 had no effect for the
exact "unsloth at latest, zoo behind" state several reviewers flagged.
Probe both packages' installed-vs-latest versions and only skip the
deps step when BOTH match. When either is behind, fall through to
install_python_stack.py so the new resolver fix gets a chance to run.
Verified setup.sh with `bash -n`; the setup.ps1 change uses PowerShell
if-expressions for the null-default pattern rather than bash-style
${var:-default} which is not valid PowerShell.
* Skip unsloth-zoo floor too for custom no-torch test packages
Reviewer found the asymmetric guard: the no-torch branch was already
gating the unsloth floor on package_name == "unsloth" (test side
packages may not publish to PyPI), but the unsloth-zoo floor was
still added unconditionally. A custom no-torch update that ships its
own forked zoo metadata could now hit a public PyPI floor that does
not match the fork's published version.
Add a symmetric `include_zoo` parameter to `_pin_floor_args` and
gate both pins on the same `package_name == "unsloth"` check.
* Address review feedback: simpler except clause + private-index note
Gemini flagged TimeoutError in the PyPI fetch exception list. OSError already
covers socket timeouts and the 3.11+ TimeoutError subclass on every supported
Python, so drop the redundant entry and explain what each remaining exception
catches.
Codex flagged that floor lookups against pypi.org could break installs behind
a lagging private mirror. Step 3 of pip_install_with_floor_fallback already
recovers transparently in that case; expand the docstring so the behavior is
discoverable without reading the body.
* extras-no-deps: skip transformers==4.57.6 on macOS arm64
Reviewer flagged that the resolver-selected transformers from the
no-constraints base step on macOS arm64 (transformers 5.x for mlx-vlm
0.4.4+) gets silently downgraded back to 4.57.6 by extras-no-deps.txt
during the very next step, breaking mlx-vlm imports at runtime even
though unsloth itself reports as latest.
Add a PEP 508 platform marker so the pin only applies off macOS arm64.
constraints.txt still enforces 4.57.6 everywhere else; mlx-vlm only
publishes wheels for darwin arm64, so other platforms are unaffected.
* setup.sh/.ps1: gate fast-path zoo probe on _PKG_NAME == unsloth
Reviewer found the asymmetric custom-package regression: the new
zoo-aware fast-path probes public unsloth-zoo unconditionally, but a
custom STUDIO_PACKAGE_NAME side build may ship its own zoo fork via
dependency metadata and not install public unsloth-zoo at all. The
previous behaviour (skip Python deps if the custom package itself is at
its declared latest) is preserved by only running the zoo probe when
the managed package literally IS unsloth.
Matches the include_zoo gate already in _pin_floor_args() at
install_python_stack.py.
* install_python_stack: all-or-nothing floor + uv-to-pip retry
Two reviewer findings on the floor-pin helpers:
1. _pin_floor_args() previously kept a half-floor if one PyPI lookup
succeeded and the other failed. With unsloth at latest but the zoo
lookup down, the resolver could still backtrack zoo while we
required unsloth at latest, defeating the pin. Return [] on any
lookup failure so the unpinned legacy path runs cleanly.
2. pip_install_try() ran ONLY uv when USE_UV was true; a uv-specific
failure short-circuited to False even when pip itself could have
applied the floor. Mirror pip_install()'s uv-to-pip fallback: try
uv, fall through to pip on non-zero exit, and only then give up.
* extras-no-deps: rewrite marker without `not` for PEP 508 parsers
pip's vendored packaging rejects `not (...)` in PEP 508 markers; the
grammar only specifies `and` / `or` between boolean atoms. The staging
macos-14 matrix failed every job at "Installing extras (no-deps)" with
`Expected a marker variable or quoted string`. Apply De Morgan's law
so the marker uses `or` between two `!=` checks, which both pip and
uv parse cleanly. Behaviour identical: skip the 4.57.6 pin only on
darwin arm64; pin everywhere else.
* constraints: skip transformers==4.57.6 pin on macOS arm64 too
Marker-gating the extras-no-deps.txt pin was not sufficient. Every
subsequent pip_install in the update pipeline passes
-c single-env/constraints.txt, and constraints.txt itself pinned
transformers==4.57.6 unconditionally. The latest staging-2 run shows
the base step's no-constraints fallback installed transformers 5.5.0
correctly, but a later constrained step (extras / studio / data-designer
deps) silently downgraded it back to 4.57.6, leaving mlx-vlm 0.5.0
in the venv with an unsatisfied transformers>=5.5.0 requirement.
Apply the same `sys_platform != "darwin" or platform_machine != "arm64"`
marker to the constraints.txt entry so it is inert on darwin arm64.
Other platforms still pin 4.57.6 because mlx-vlm only publishes wheels
for darwin arm64; no other platform is affected.
* constraints: carve out darwin arm64 from every == pin
Marker-gating only transformers was not enough; staging-2 still failed
with the same `transformers==4.57.6 in venv after the update` outcome
because the resolver hit a `huggingface-hub==0.36.2` (and adjacent)
conflict with mlx-vlm's `huggingface-hub>=1.5.0` requirement, then
fell back to a stale stack even after my no-constraints level fired
on the base step.
Apply the same `sys_platform != "darwin" or platform_machine != "arm64"`
marker to every == pin in constraints.txt. Range pins (mcp, fastmcp,
websockets) stay active everywhere because they do not conflict with
the mlx-vlm chain. mlx-vlm only publishes wheels for darwin arm64, so
no other platform is affected.
* install_python_stack: also --upgrade-package transformers and mlx-vlm
Staging-2 showed that even after the constraints.txt carve-out for
darwin arm64, the venv still ended up with the OLD `transformers==4.57.6`
paired with a NEW `mlx-vlm==0.5.0` from unsloth-zoo's transitive
upgrade. The resolver's --upgrade-package flag only freshens the named
packages and their newly-pulled transitive deps; transformers was
already installed at a version that satisfied unsloth-zoo's range
(`>=4.51.3,<=5.5.0` with exclusions), so the resolver did not upgrade
it -- even though mlx-vlm 0.5.0 requires `transformers>=5.5.0`.
Add `--upgrade-package transformers` and `--upgrade-package mlx-vlm`
to all three base-step branches. Both are no-ops when the package is
absent (mlx-vlm only ships wheels on darwin arm64); on darwin arm64
this is what nudges the resolver to upgrade both together so the
final venv is internally consistent. On Linux/Windows, transformers
stays at 4.57.6 because constraints.txt still pins it there and
mlx-vlm never enters the resolution.
* install_python_stack: explicit mlx-vlm + transformers realign on macOS arm64
Even with --upgrade-package hints, uv leaves the venv with the
already-installed transformers (4.57.6 inherited from the OLD venv's
constrained install) when that version still happens to satisfy
unsloth's own metadata range -- but it does not also re-resolve
mlx-vlm's stricter `transformers>=5.5.0` requirement, so the venv
ends up with mlx-vlm 0.5.0 paired with transformers 4.57.6 and
mlx-vlm imports break at runtime.
After the base step, on darwin arm64 only, run an explicit
`pip install --upgrade mlx-vlm transformers` with constrain=False.
This forces both packages through the resolver again as direct
top-level requirements, so transformers is pulled up to whatever
mlx-vlm's metadata requires (5.5.0 today). No effect on any other
platform because mlx-vlm has no wheels off darwin arm64 and the
branch is gated on IS_MAC_ARM.
* requirements: marker-gate every == pin that conflicts with mlx-vlm chain
Staging-2 kept ending up with transformers==4.57.6 even after the
realign step, because studio.txt unconditionally pins
huggingface-hub==0.36.2 (and datasets==4.3.0). Installing studio.txt
with constraints active pulls the resolver back to a huggingface-hub
that only recent transformers (4.x) supports, which silently downgrades
the realigned 5.5.0 to 4.57.6 -- exactly the inconsistency we tried to
prevent.
Also extras-no-deps.txt still pinned trl==0.23.1 unconditionally; the
0.23.1 wheel transitively requires huggingface-hub<1, same coupling.
Marker-gate all three. The carve-out is identical to constraints.txt's:
inactive on darwin arm64 (where the mlx-vlm chain dictates newer
versions), active everywhere else (where Linux/Windows users rely on
the single-env pins). mlx-vlm only publishes wheels for darwin arm64
so no other platform is affected.
* realign: --force-reinstall mlx-vlm + transformers + huggingface_hub
Plain --upgrade does not force uv to re-resolve mlx-vlm's transformers
requirement when the already-installed transformers happens to satisfy
unsloth's own range. Switch to --force-reinstall on the three packages
so the resolver tears them down and brings them back together with
consistent versions. Include huggingface_hub because transformers 5.x
requires hf-hub>=1.5.0 and the resolver would not touch it otherwise.
* realign: pin transformers via mlx-vlm's own metadata spec
`pip install --force-reinstall mlx-vlm transformers` still resolved to
an already-installed transformers 4.57.6 because uv treats it as
satisfying unsloth's transformers range without re-checking mlx-vlm's
stricter requirement. Pull mlx-vlm's actual transformers specifier
from its installed metadata at runtime and pass it as an explicit
version requirement (e.g. `transformers>=5.5.0` for mlx-vlm 0.5.0).
That removes the resolver's wiggle room: it MUST pick a transformers
satisfying mlx-vlm AND unsloth, which on darwin arm64 with the latest
unsloth-zoo means transformers==5.5.0. Falls back to unpinned
`transformers` if metadata read fails, so this never errors.
* realign: uninstall-then-install to bypass uv's incumbent bias
Every flag-based approach failed: --upgrade, --upgrade-package,
--force-reinstall, and even an explicit `transformers>=5.5.0`
requirement all left the venv with transformers==4.57.6 because uv
treats the already-installed version as satisfying unsloth-zoo's
range and refuses to disturb it, even when it does not satisfy
mlx-vlm's stricter requirement.
Replace the realign step with an explicit uninstall of the conflicting
trio (transformers / mlx-vlm / huggingface_hub) followed by a fresh
install. With no transformers in the venv, the resolver MUST pick a
version satisfying every installed package's metadata, which on
darwin arm64 with the latest unsloth-zoo is uniquely 5.5.0.
* [pre-commit.ci] auto fixes from pre-commit.com hooks
for more information, see https://pre-commit.ci
* Trim verbose comments across PR #5767 changes
* Simplify mac-arm64 fix: install MLX stack with --no-deps
The previous approach (PyPI floor pin + 3-level fallback + macOS arm64
realign step + marker carve-outs on every == pin) was fighting symptoms.
The root cause is that unsloth-zoo declares mlx-vlm>=0.4.4 as a darwin
arm64 dep, and mlx-vlm 0.5.0's metadata pulls in transformers>=5.5.0,
which conflicts with the main venv's transformers==4.57.6 pin and forces
the resolver to backtrack unsloth.
Severing that chain at its source: install mlx + mlx-metal + mlx-lm +
mlx-vlm with --no-deps BEFORE unsloth-zoo. The resolver sees mlx-vlm
already installed (>=0.4.4) and never inspects its transformers metadata.
Per-model transformers version routing is already handled at runtime by
the side-car venvs in utils/transformers_version.py (.venv_t5_530 for
Ministral/GLM/Qwen3 MoE, .venv_t5_550 for Gemma 4).
Net change: -224 / +71 lines across install.sh, install_python_stack.py
and the three requirements files.
Reverted:
- _resolve_latest_pypi_version + _pin_floor_args + pip_install_with_floor_fallback
- macOS arm64 realign step (pip uninstall + reinstall)
- --upgrade-package transformers --upgrade-package mlx-vlm in base steps
- All ; sys_platform != "darwin" or platform_machine != "arm64" markers
in constraints.txt, studio.txt, extras-no-deps.txt
- pip_install_try restored to its pre-PR signature
Added:
- install.sh: Apple Silicon MLX --no-deps install before unsloth (both
fresh and migrated branches)
- install_python_stack.py: same step gated on IS_MAC_ARM and not skip_base
Kept (independent bugs):
- setup.sh / setup.ps1 dual-package zoo version check
- platform.processor() -> platform.machine() hardware-detect fix
* Minimise PR to mac-arm64-specific changes only
Revert setup.sh and setup.ps1 to main -- the dual-package zoo check was
defensive and not strictly needed once mlx-vlm is installed --no-deps
(the resolver-backtrack scenario that produced stale zoo no longer happens).
Tighten remaining comments in install.sh and install_python_stack.py.
Final PR-attributable changes:
install.sh +24/-5 (MLX --no-deps in 2 places)
studio/install_python_stack.py +19 (MLX --no-deps + IS_MAC_ARM)
studio/backend/utils/hardware/hardware.py +6/-6 (processor() -> machine())
studio/backend/requirements/*.txt unchanged
* Revert "Minimise PR to mac-arm64-specific changes only"
This reverts commit
|
||
|
|
dfb3eedf77
|
ci: broaden Linux + narrow Windows llama.cpp runtime patterns + trim #5741 comments (#5746)
Some checks are pending
Security audit / npm scan-packages (Studio frontend tarballs) (push) Waiting to run
Security audit / workflow-trigger lint (pull_request_target / cache-poisoning) (push) Waiting to run
Security audit / pytest tests/security (push) Waiting to run
Security audit / npm provenance + new install-script diff (push) Waiting to run
Studio API CI / Studio API & Auth Tests (push) Waiting to run
Backend CI / (Python 3.10) (push) Waiting to run
Backend CI / (Python 3.11) (push) Waiting to run
Frontend CI / Frontend build + bundle sanity (push) Waiting to run
Studio GGUF CI / Tool calling Tests (push) Waiting to run
Backend CI / (Python 3.12) (push) Waiting to run
Backend CI / (Python 3.13) (push) Waiting to run
Backend CI / Repo tests (CPU) (push) Waiting to run
Studio GGUF CI / OpenAI, Anthropic API tests (push) Waiting to run
Studio GGUF CI / JSON, images (push) Waiting to run
Mac Studio API CI / Studio API & Auth Tests (push) Waiting to run
Mac Studio GGUF CI / OpenAI, Anthropic API tests (push) Waiting to run
Mac Studio GGUF CI / Tool calling Tests (push) Waiting to run
Mac Studio GGUF CI / JSON, images (push) Waiting to run
Mac Studio UI CI / Chat UI Tests (push) Waiting to run
Mac Studio Update CI / Studio Updating Tests (push) Waiting to run
Studio Tauri CI / Tauri Linux debug build (no codesign) (push) Waiting to run
Studio UI CI / Chat UI Tests (push) Waiting to run
Studio Update CI / Studio Updating Tests (push) Waiting to run
Windows Studio API CI / Studio API & Auth Tests (push) Waiting to run
Windows Studio GGUF CI / OpenAI, Anthropic API tests (push) Waiting to run
Windows Studio GGUF CI / Tool calling Tests (push) Waiting to run
Windows Studio GGUF CI / JSON, images (push) Waiting to run
Windows Studio UI CI / Chat UI Tests (push) Waiting to run
Windows Studio Update CI / Studio Updating Tests (push) Waiting to run
Wheel CI / Wheel build + content sanity + import smoke (push) Waiting to run
* ci: broaden Linux llama.cpp runtime pattern to lib*.so* #5741 patched the explicit Linux pattern list to add ``libllama-*-impl.so*`` after ggml-org/llama.cpp#23462 (between b9279 and b9283) split each binary's entry code into a paired ``lib<binary>-impl.so`` shared library. Same class of upstream repackaging will hit us again whenever a new shared lib is added. Mirror what macOS already does and replace the per-lib list with a single ``lib*.so*`` glob. ``copy_globs`` (line 3614) unions patterns, so the per-variant ``libggml-cuda.so*`` / ``libggml-hip.so*`` entries were never filtering anything; the spec lives in ``runtime_payload_health_groups`` (line 5209) which keeps the explicit minimum-required list per variant. Dry-run against b9296-bin-ubuntu-x64.tar.gz: 40 files copied (all ggml, llama, mtmd, impl variants + the two binaries we ship), 22 skipped (other CLIs, rpc-server, LICENSE). Functionally equal to the post-#5741 set. * cleanup: trim #5741 comments on the pydantic split Comments added in #5741 explained the original bug in full each time. They are mostly redundant with the commit message and the PR. Trim them to one short paragraph per site. No behavior change. * ci: narrow Windows runtime pattern to llama-server.exe + llama-quantize.exe Studio only invokes llama-server and llama-quantize. Mac and Linux already filter to those two binaries; Windows was the odd one out with ``*.exe`` copying every CLI upstream ships (llama-cli, llama-bench, llama-mtmd-cli, ...). Dry-run on b9296 (win cpu-x64, cpu-arm64, cuda-13.1, hip-radeon): 20 unused EXEs skipped per variant, all DLLs (incl. the new llama-*-impl.dll family) still copied via ``*.dll``. ``existing_install_matches_choice`` already checks llama-server.exe exists explicitly (line 5297), so the health gate is unchanged. |
||
|
|
83b20976f7
|
ci: unblock Studio Windows + Linux + Mac smoke (#5741)
Some checks are pending
Security audit / npm scan-packages (Studio frontend tarballs) (push) Waiting to run
Security audit / workflow-trigger lint (pull_request_target / cache-poisoning) (push) Waiting to run
Security audit / pytest tests/security (push) Waiting to run
Security audit / npm provenance + new install-script diff (push) Waiting to run
Studio API CI / Studio API & Auth Tests (push) Waiting to run
Backend CI / (Python 3.10) (push) Waiting to run
Backend CI / (Python 3.11) (push) Waiting to run
Backend CI / (Python 3.12) (push) Waiting to run
Backend CI / (Python 3.13) (push) Waiting to run
Backend CI / Repo tests (CPU) (push) Waiting to run
Frontend CI / Frontend build + bundle sanity (push) Waiting to run
Studio GGUF CI / OpenAI, Anthropic API tests (push) Waiting to run
Studio GGUF CI / Tool calling Tests (push) Waiting to run
Studio GGUF CI / JSON, images (push) Waiting to run
Mac Studio API CI / Studio API & Auth Tests (push) Waiting to run
Mac Studio GGUF CI / OpenAI, Anthropic API tests (push) Waiting to run
Mac Studio GGUF CI / Tool calling Tests (push) Waiting to run
Mac Studio GGUF CI / JSON, images (push) Waiting to run
Mac Studio UI CI / Chat UI Tests (push) Waiting to run
Mac Studio Update CI / Studio Updating Tests (push) Waiting to run
Studio Tauri CI / Tauri Linux debug build (no codesign) (push) Waiting to run
Studio UI CI / Chat UI Tests (push) Waiting to run
Studio Update CI / Studio Updating Tests (push) Waiting to run
Windows Studio API CI / Studio API & Auth Tests (push) Waiting to run
Windows Studio GGUF CI / OpenAI, Anthropic API tests (push) Waiting to run
Windows Studio GGUF CI / Tool calling Tests (push) Waiting to run
Windows Studio GGUF CI / JSON, images (push) Waiting to run
Windows Studio UI CI / Chat UI Tests (push) Waiting to run
Windows Studio Update CI / Studio Updating Tests (push) Waiting to run
Wheel CI / Wheel build + content sanity + import smoke (push) Waiting to run
Bundles three independent CI regressions hitting the maintainer PR backlog. Each one is verified end-to-end on a staging fork against real Ubuntu / macOS / Windows GitHub-hosted runners before this lands. 1. Windows --no-torch install: pydantic + pydantic-core drift to incompatible versions under `uv pip install --no-deps -r no-torch-runtime.txt` because pip resolves each independently from latest. pydantic.VERSION 2.13.4 pins pydantic-core==2.46.4 but pydantic-core 2.47.0 was the freshest published wheel, so `import pydantic` raised `SystemError: pydantic-core 2.47.0 is incompatible with the current pydantic version`. Resolve pydantic WITH deps in a focused pip call (install.sh, install.ps1, install_python_stack.py) before the --no-deps no-torch-runtime pass so pip pins pydantic-core to the version pydantic declares. pydantic's transitive deps (annotated-types, pydantic-core, typing-extensions, typing-inspection) are torch-free. Drop the redundant `Patch Studio venv with full typer / pydantic dep trees` workaround from the four Windows smoke YAMLs. Supersedes #5733 + #5734. 2. Linux Studio Update CI: upstream llama.cpp b9261+ split each binary's entry code into a paired `libllama-<binary>-impl.so` shared library. `llama-server` and `llama-quantize` NEEDED-link against `libllama-server-impl.so` / `libllama-quantize-impl.so` with RUNPATH `$ORIGIN`, so the prebuilt overlay must copy those alongside the binaries. Without that, ldd reports them missing, preflight rejects, the installer falls back to source build, and studio-update-smoke annotates `setup.sh idempotency regressed`. Add `libllama-*-impl.so*` to the Linux runtime patterns and lock the pattern in test_rocm_support.TestRuntimePatterns. 3. Mac Studio UI Chat: change-password submit clicked while disabled. The disable gate only checked new + confirm password length, but Playwright's first click landed before the current-password field's React state had committed, so the form was simultaneously logically-invalid (current_password empty) and the button was disabled. Tighten the gate to require `currentPassword.length >= 8` and mirror the same check in the submit handler so Enter / autofill cannot bypass. Supersedes #5738. |
||
|
|
79adfd9c71
|
studio: skip flash-attn install on Blackwell GPUs (sm_100+) (#5420)
* studio: skip flash-attn install on Blackwell GPUs (sm_100+) Dao-AILab does not publish prebuilt flash-attn wheels for sm_100, sm_120, or sm_121, and the older-arch wheels fail to load on Blackwell. Add a shared has_blackwell_gpu() helper and gate both the install-time (install_python_stack._ensure_flash_attn) and runtime (worker._ensure_flash_attn_for_long_context) paths on it. Detection uses nvidia-smi --query-gpu=compute_cap, which works on Linux and Windows. * test: stub has_blackwell_gpu in pre-existing runtime flash-attn tests prefers_prebuilt_wheel and falls_back_to_pypi exercise the install paths that the Blackwell guard now short-circuits. Make them explicit about non-Blackwell so they pass on real Blackwell hosts. * studio: cache has_blackwell_gpu, skip Blackwell warning under NO_TORCH - Wrap has_blackwell_gpu in functools.lru_cache so repeated calls in a single process avoid redundant nvidia-smi spawns. Tests clear the cache via setup_method/teardown_method. - In _ensure_flash_attn, run the NO_TORCH short-circuit before the Blackwell check so GGUF-only users (who never install torch anyway) do not see a Blackwell warning. Blackwell check still runs above the IS_WINDOWS / IS_MACOS gates so Blackwell-on-Windows users still see the explicit reason rather than a silent OS skip. * [pre-commit.ci] auto fixes from pre-commit.com hooks for more information, see https://pre-commit.ci * test: add has_blackwell_gpu to mlx worker test wheel_utils stub test_mlx_training_worker_config loads worker.py against a hand-rolled utils.wheel_utils stub. Adding has_blackwell_gpu to the stub symbol list so worker's import line resolves. --------- Co-authored-by: pre-commit-ci[bot] <66853113+pre-commit-ci[bot]@users.noreply.github.com> |
||
|
|
e35cbfb454
|
Add native GGUF intake to Studio (#5246)
* feat(studio): add Tauri native GGUF intake * feat(studio): polish native GGUF intake * [pre-commit.ci] auto fixes from pre-commit.com hooks for more information, see https://pre-commit.ci * fix(studio): load backend helpers during local setup * fix(studio): acquire native load lease before unload * Studio: harden native path lease verification and Tauri intake - Wrap path.resolve(strict=True) and Path.stat() in NativePathLeaseError so a deleted or unmounted GGUF returns 400 instead of leaking the full filesystem path through the generic load_model/validate_model handler. - Re-apply _reject_network_or_device_path to the resolved canonical path for defense in depth after symlink resolution. - Replace try/except ValueError pattern in the device-path guard with Path.is_relative_to; the previous shape silently swallowed NativePathLeaseError (which subclasses ValueError) so /dev,/proc,/sys were never actually rejected. - Broaden the lease redaction regex and dict-key check (Python and Rust diagnostics) to cover both native_path_lease and nativePathLease so the camelCase form emitted by Tauri/frontend payloads is also redacted. - Hoist the redact_native_paths import to module top in loggers/handlers; the recursive filter no longer pays a per-record import lookup. - Persist activeNativePathToken in the chat runtime store so the rollback branch can mint a fresh lease and reload the previous native GGUF when a new load fails after unload; clear it in clearCheckpoint and overwrite it on each successful load. - use-native-drop: read options through a ref so the Tauri onDragDropEvent listener is registered once and stays attached across option changes; reject ambiguous multi-file drops up front instead of silently registering only the first GGUF. - pick_native_model: use an async pick_file with a tokio oneshot channel instead of blocking_pick_file so the Tokio worker is not held for the duration of the OS dialog. - registerNativeModelPath: drop the duplicate sourceKind argument; the Rust command parameter is source_kind. - install_python_stack: insert the script directory (studio/) on sys.path; the previous insert pointed at studio/backend/ which does not satisfy `from backend.utils.wheel_utils import ...`. * install_python_stack: keep _BACKEND_DIR on sys.path Restore the studio/backend insertion. Although the immediately following `from backend.utils.wheel_utils import (...)` is satisfied by studio/ already being on sys.path[0] when invoked as `python studio/install_python_stack.py`, wheel_utils itself runs `from utils.native_path_leases import ...`, which requires studio/backend/ to be importable. Without the backend insertion, the existing tests/python/test_install_python_stack.py collection fails with ModuleNotFoundError: No module named 'utils'. * Studio: tighten native path lease lifecycle and Tauri intake IPC - register_native_model_path now hardcodes NativePathSourceKind::Drop on the Rust side and the frontend stops sending source_kind. The previous JS payload (source_kind only) never reached the Rust deserializer because Tauri's default ArgumentCase::Camel maps the Rust parameter source_kind to the JS key sourceKind, so drag/drop registration silently failed. Hardcoding the source kind also keeps audit metadata trustworthy on this command. - Add native_path_secret_removed_for_child_start context manager and wrap multiprocessing.Process.start() at the inference, export, training, and data-recipe job spawn sites. The previous wrapper-only scrub left UNSLOTH_STUDIO_NATIVE_PATH_LEASE_SECRET visible to spawn-platform import-time worker code. The wrapper run_without_native_path_secret stays as defense-in-depth inside the child. - Stop passing exc_info=True from the native-grant load/validate error logs in routes/inference.py. The structlog filter_sensitive_data processor runs before the renderer, so ConsoleRenderer formatted tracebacks bypassed redaction; the redacted str(e) preserves the message text. - Replace the os.path.normcase string equality on the resolved canonical path with Path.samefile (with a normcase fallback) so Windows leases that differ only in extended-length \\?\ prefix or short-name spelling are accepted. - Wrap consumeNativePathToken in its own try/catch in the chat runtime rollback. If the previous native-model token has aged out of TOKEN_TTL we now surface a clear modelsError instead of silently swallowing the rollback inside the outer catch. - Reject non-ASCII lease strings in _split_lease and convert UnicodeEncodeError / binascii.Error / ValueError raised by _b64decode into NativePathLeaseError so verify_native_path_lease never escapes raw exceptions to the route handler. - Tighten dropStateForPaths to mark multi-file payloads invalid so the overlay matches the post-fix drop handler that rejects the same payload. - Replace the one-shot fetch in useNativePathLeasesSupported with a delayed-retry loop so the picker/drop becomes available once the backend is up rather than staying disabled for the rest of the session after a transient failure. - Drop the unused setActiveNativePathToken setter; the value is set via setState directly in use-chat-model-runtime. - Add a toast on auto-load failure in use-native-drop so a collapsed model selector does not hide the error. - Burn the lease nonce before _validate_current_stat so a stat-failed lease is single-use even if a later state change happens to match the original size/mtime. * Studio: cache lease secret, harden native path stat checks, polish intake UX - Cache the decoded UNSLOTH_STUDIO_NATIVE_PATH_LEASE_SECRET on first verify and validate that it is base64-decodable and at least 32 bytes. Subsequent _decode_secret calls return from the cache and never touch os.environ, so concurrent /api/inference/load and /api/health requests no longer race with native_path_secret_removed_for_child_start scrubbing the env. native_path_leases_supported now wraps _decode_secret so the health flag matches what verify_native_path_lease actually accepts. - Replace path.is_file()/is_dir() + path.stat() with os.lstat() in _validate_current_stat and explicitly reject S_ISLNK; size and mtime checks now refer to the link itself, closing the same-size+same-mtime symlink-swap window that the prior follow-symlink stat() left open. - Add an issued_at_ms < expires_at_ms sanity check in _validate_payload to reject internally inconsistent (HMAC-protected) lease payloads. - Sort _NATIVE_PATH_REDACTIONS by length (descending) before iterating in redact_native_paths so a longer registered path is replaced before a shorter prefix path; otherwise logs containing /foo/X.gguf.bak after only /foo/X.gguf was registered would leak the .bak suffix. - classify_existing_path now re-checks the canonical path with symlink_metadata after canonicalize, so a regular file that is replaced with a symlink in the small canonicalize window is rejected at registration. - ModelSelector renders the local file picker as its own block (not in the eject ternary), so a user with an active model can still replace it via the picker rather than only via drag/drop. - useNativePathLeasesSupported caps the readiness probe at MAX_READINESS_POLLS (60 = ~5 minutes) and aborts the in-flight fetch on unmount via AbortController, so a permanently-disabled backend stops generating sustained traffic and hot-reload no longer leaks open connections. - useChooseNativeModel returns a stable useCallback closure and guards the OS dialog with a useRef so rapid double-clicks cannot open multiple dialogs and orphan Rust tokens. - Branch the multi-file drop toast: if no GGUF was present we say "Only .gguf model files can be dropped here." and otherwise "Drop a single .gguf model file." so users dropping non-GGUF attachments get an accurate explanation. * native_path_leases: lstat the signed canonical path before resolving The earlier change to lstat inside _validate_current_stat operates on grant.canonical_path, which is the post-resolve target. If the user atomically replaces the originally-signed file with a symlink to a different file of identical size and mtime, path.resolve(strict=True) follows the symlink, samefile returns True (both ends share the new inode), and the lstat in _validate_current_stat sees the regular target file rather than the symlink, so the swap goes undetected. Add an os.lstat on the signed canonical path before path.resolve(strict=True), and reject S_ISLNK there. The lstat in _validate_current_stat stays as defense-in-depth for swaps that occur strictly between resolve and stat. * Studio: scrub native lease secret before mp.Queue spawn and tighten lease lifecycle - Move _CTX.Queue / _CTX.Event / _CTX.Process construction inside native_path_secret_removed_for_child_start at the inference, export, training and data-recipe spawn sites. The first Queue creation lazily spawns Python's multiprocessing.resource_tracker child, so when it ran outside the scrub context the tracker process inherited the lease secret. Reproduced via the proc filesystem environ entry; the wrapped order keeps the tracker clean. - native_path_secret_removed_for_child_start now refcounts entries: the env var is popped on the first entry and restored only when the last context exits. Concurrent training/inference/export starts no longer serialize on the env lock across the entire proc.start yield, while still guaranteeing the env stays empty for the duration of every overlapping spawn. - run_without_native_path_secret now also nulls the module-level cached lease secret. With the existing spawn-only multiprocessing context the cache is irrelevant in practice, but a future fork caller would otherwise inherit the in-memory secret even though the env var was scrubbed. - filter_sensitive_data now applies the native lease key check on the top-level event_dict, not only on nested dicts, so a logger call that includes a lease value as a top-level keyword field actually redacts it (the bare value does not match the prefix-anchored regex). - chat-page loadNativeModelIntent now passes intent.id to clearModelIntent so a second drag-drop during an in-flight first auto-load is not wiped from the chip area when the first resolves. - Bump useNativePathLeasesSupported's MAX_READINESS_POLLS from 60 to 720 so first-run installs that compile llama.cpp from source or download large CUDA wheels (well past 5 minutes) don't permanently disable the native picker. * native_path_leases: serialize first-decode against scrub context _decode_secret used a separate _SECRET_INIT_LOCK from the env scrub's _NATIVE_PATH_ENV_LOCK, so the very first decode (before the cache is populated) could race a concurrent native_path_secret_removed_for_child_start and read os.environ during the env-empty window, raising "Native path grants require the managed desktop backend." Subsequent calls hit the cache and were already safe. Acquire _NATIVE_PATH_ENV_LOCK around the env read inside _SECRET_INIT_LOCK and fall back to _SCRUB_SAVED_SECRET when the scrub has temporarily popped the env var. Lock ordering (init then env) is consistent with no other caller, so no deadlock. * Studio: surface native model load errors and harden native path label cache - Native model load and validate now bubble up the actual exception (with paths redacted) and apply the same friendly-error rewrite the non-native path uses, so users see "CUDA OOM", "trust_remote_code required", etc. instead of a generic "Failed to load native model: <label>". - run_without_native_path_secret now also nulls _SCRUB_SAVED_SECRET so a forked grandchild that imports native_path_leases cannot recover the secret via the scrub-aware fallback in _decode_secret. - _NATIVE_PATH_LABELS now has its own 10000-entry cap independent of the 100-entry redaction list, so display_label_for_native_path no longer falls back to returning the raw canonical path after 101 native paths in one session. Redaction list keeps the 100-entry cap for log-scan performance. - _validate_payload now also rejects null bytes in display_label, which is echoed back in HTTP responses and log lines. * Studio: harden native path lease validation and chained native rollback - child_env_without_native_path_secret now copies os.environ under _NATIVE_PATH_ENV_LOCK so a concurrent scrub-context env pop cannot raise RuntimeError: dictionary changed size during iteration in a background hardware scan or other env reader. - _validate_payload and grant construction route every signed numeric field (version, issued_at_ms, expires_at_ms, size_bytes, modified_ms) through new _required_int / _optional_int helpers that wrap raw int() ValueError into NativePathLeaseError. The single upstream catcher produces 400 instead of 500 for malformed signed payloads. - verify_native_path_lease now runs _validate_current_stat before _consume_nonce, so a transient stat error on the canonical path no longer permanently burns the nonce. Concurrent verifies still serialize through _consume_nonce, so single-use is preserved. - Chained native model rollback now restores activeNativePathToken in the chat runtime store after a successful rollback loadModel. Without this, a second consecutive failed switch could not re-roll-back because the store token had been overwritten by the failed attempt. - validate_model now applies the same not_supported_hints friendly rewrite to native model errors that load_model already does, so a native .gguf that fails validation with an upstream "is not supported" message gets the same actionable wording as the non-native branch. * Studio: harden native path log redaction, status disclosure, and chip lifecycle - structlog processor chain now runs format_exc_info before filter_sensitive_data so traceback strings are produced (and then redacted) rather than passed through as untouched (type, value, tb) tuples that the JSON or console renderer formats after the redaction filter has already finished. - native_path_secret_removed_for_child_start clears _CACHED_LEASE_SECRET in addition to popping the env var, so a fork during the scrub window cannot inherit the cached bytes via the parent's heap. Parent verify calls during the window keep working through the existing scrub-aware fallback in _decode_secret. - load_model's except ValueError handler now redacts native paths and uses the native model log label when native_grant_backed is true. Previously a ValueError raised after lease verification (e.g. from ModelConfig.from_identifier or downstream GGUF parsing) returned the raw exception string in the HTTP response body. - llama_cpp_backend now records the native display label at GGUF load time, and /api/inference/status prefers it over the redaction store. After a Python backend restart the redaction store is empty; the attribute keeps the friendly label, and an absolute model_identifier with no other label source falls back to the basename so the canonical path no longer appears in active_model. - reveal_path_token uses native "reveal and select" commands on macOS (open -R) and Windows (explorer /select,) so the file is highlighted in the file manager. Linux keeps the existing parent-directory open. - Native model rollback that fails because the previous token cannot be consumed now throws a rollback-specific Error, and the outer empty catch was replaced with one that re-throws the rollback error. The rollback-specific message now reaches the user instead of being overwritten by the original load error message. - NativeModelChip tracks the Rust token's expiresAtMs on a single setTimeout, disables the Load button at expiry, and relabels it "Select again" with an explanatory tooltip so users do not click into a guaranteed-failure path after the 15-minute TTL elapses. * Studio: tighten native artifact policy, mmproj sibling check, and intake UX - is_open_safe_artifact no longer grants Open for directories. Reveal already handles directory navigation, so the change closes the attack surface where a macOS .app artifact could be launched via open_path_token + open::that_detached. - Display labels are sanitized in classify_existing_path. Control characters in filenames (newlines, tabs, NUL et al.) are replaced with spaces and the label is trimmed and capped, so a file named with embedded newlines cannot inject forged log lines or scramble the UI status panel. - validate_entry_path skips the size_bytes/modified_ms equality check when the operation is Reveal or Open. Cloud-sync agents (Dropbox, iCloud Drive, OneDrive) routinely rewrite extended-attribute metadata which bumps mtime, and the user expects Reveal/Open to remain available for files in synced folders. - llama_cpp_backend gains a _native_grant_backed flag at GGUF load success. /api/inference/status only applies the absolute-path basename fallback when that flag is true, so a non-native absolute local GGUF still reports its canonical model_identifier and unload by identifier keeps working. - Native vision GGUFs now run through _validate_native_mmproj_companion before llama-server starts: the companion mmproj must be a regular file, not a symlink, and must live in the same resolved directory as the granted GGUF. This stops a hostile sibling or symlinked mmproj from being loaded under a single-file lease. - Chained native rollback restructured: the rollback loadModel + state + refresh runs inside its own try/catch that swallows so the outer throw error surfaces the ORIGINAL load failure. The native-token consume-failure case still throws the rollback-specific message early, before the inner block runs, so its actionable guidance is preserved. - Loading-model state and the duplicate-load guard in the chat runtime hook now compare both the model id and the native path token. Two drops or picks with the same basename in different folders no longer silently dedup; the second token is honored. - chat-page loadNativeModelIntent awaits selectModel before clearing the pending intent. If selectModel returns early via dedup or throws, the chip and its token stay so the user can retry instead of losing the selection. - NativeModelChip's Reveal button is disabled when the lease has expired (Rust would reject it anyway), and the Load button label reads "Expired" instead of "Select again" so the disabled element no longer promises an action it cannot perform. * [pre-commit.ci] auto fixes from pre-commit.com hooks for more information, see https://pre-commit.ci --------- Co-authored-by: pre-commit-ci[bot] <66853113+pre-commit-ci[bot]@users.noreply.github.com> Co-authored-by: Daniel Han <danielhanchen@gmail.com> |
||
|
|
5262d93b58
|
studio: add --local to setup.sh + overlay unsloth-zoo from git main (#5252)
* studio: add --local to setup.sh + overlay unsloth-zoo from git main setup.sh now accepts --local, which exports STUDIO_LOCAL_INSTALL=1 and STUDIO_LOCAL_REPO=$REPO_ROOT. install_python_stack.py overlays unsloth-zoo from git main on top of the editable unsloth checkout in both local_repo branches (no-torch and with-torch). The Colab notebook now invokes ./studio/setup.sh --local so the cloned repo is used in editable mode and unsloth-zoo tracks main, matching the behavior of install.sh --local on a VM. install.sh --local is unchanged: it still sets SKIP_STUDIO_BASE=1, which short-circuits the local_repo branches in install_python_stack.py, so the overlay is not run twice. * studio: make --local overlays visible + guard empty arg parsing - setup.sh: gate the --local flag loop on $# > 0 (defensive against any shell that surfaces unset $@ under set -u) and emit a substep when local mode is detected so the user can confirm the flag was parsed. - install_python_stack.py: emit explicit _step lines before each overlay pip_install in both local_repo branches so overlays appear in the static log instead of being overwritten by the in-place progress bar. |
||
|
|
daf0889804
|
Fix Windows install when paths contain spaces or Python 3.14 is on PATH (#5201)
* fix(studio): use py.exe to detect supported Python on Windows Description: The previous detection looked at `python --version` on PATH and hard-failed if the resolved Python wasn't 3.11-3.13. On systems where Python 3.14 sits ahead of 3.13 in PATH order, this aborted the installer even though a supported interpreter was installed. Prefer the py.exe launcher and probe `py -3.13`, `py -3.12`, `py -3.11` in turn. Fall back to `python --version` only when py.exe is absent, and surface a clearer error when no supported version can be found via either path. * Studio: consolidate Windows studio overlay into single Tauri-gated block Replace the in-file sentinel hotfix and the unconditional file-copy overlay with a single block gated on $TauriMode. Hash-compare makes re-runs no-ops, removing the sentinel-clobbering bug that occurred when the second copy path overwrote the marker without re-adding it. Non-Tauri --local installs no longer need a copy overlay: the editable install above (uv pip install -e $RepoRoot --no-deps) makes _PACKAGE_ROOT in unsloth_cli/commands/studio.py resolve to the repo source tree via PEP 660 __file__-relative resolution, so `unsloth studio setup` finds the local setup.ps1 and install_python_stack.py without any file copying. Plain PyPI installs invoked from a checked-out repo directory are also no longer silently overlaid from cwd. * fix(studio): work around uv space-in-path truncation on Windows uv 0.11.x truncates `-c <path>` and `-r <path>` arguments at the first space, breaking installs on Windows when the venv or repo sits under a path containing spaces (e.g. C:\Users\First Last\...). Pass paths through GetShortPathNameW to convert to 8.3 short form before handing them to uv. Plain pip is unaffected and keeps the original long path. No-op on Linux/Mac (gated on IS_WINDOWS and on the path actually containing a space). * Refactor Python stack overlay logic in install.ps1 Refactor overlay logic for Python stack installation and improve handling of missing target directories. * Update Python installation logic in setup.ps1 |
||
|
|
b09aa82a3a
|
Studio: add github_repo seed reader and GitHub Support Bot recipe (#5169)
* Studio: add github_repo seed reader and GitHub Support Bot recipe
Adds a first-party Data Designer seed reader that scrapes GitHub issues,
pull requests, and commits from one or more repositories via the GraphQL
API, and a learning recipe (GitHub Support Bot) that turns those rows into
synthetic support Q&A pairs for fine-tuning.
Backend (new plugin studio/backend/plugins/data-designer-github-repo-seed):
* GitHubRepoSeedSource config: repos, token (falls back to GH_TOKEN /
GITHUB_TOKEN env var), item_types (issues / pulls / commits),
per-resource limit (0 means all), max_comments_per_item.
* Rate-limit-aware GraphQL client (GitHubClient + RepoScraper) shared
across repos; flattens each item into a uniform row with columns
item_type, repo, number, title, body, state, author, created_at,
closed_at, url, labels, comments.
* Registered via the data_designer.plugins entry point.
Frontend:
* New seed_github block variant so the seed node card shows
"GitHub repositories" instead of the generic "Document file"
placeholder, with its own icon and inline summary (repo count +
item-type list).
* Rewritten seed dialog github_repo form: repos textarea pre-filled with
unslothai/unsloth + unslothai/unsloth-zoo, password input for the GH
token, items-per-repo number with an "All" toggle, and the noisier
options (item types, max comments, include comments) tucked under an
Advanced collapsible.
* Local model auto-load on Run: if a recipe uses an is_local provider
and the inference server is not already serving that model, the
executions hook calls /api/inference/load first. Removes the "open
/chat to load a model" prerequisite that users kept tripping on.
* Honor the recipe's run.rows value in the Run dialog (previously the
store reset to 5 regardless of what the template shipped).
Recipe (studio/frontend/src/features/data-recipes/learning-recipes/
github-support-bot.json):
* Defaults to the Local Model provider + unsloth/gemma-4-E2B-it-GGUF.
* Scrapes unslothai/unsloth and unslothai/unsloth-zoo, issues and pulls,
up to 100 items per resource.
* Two LLM blocks: normalized_question (llm-text) rewrites each thread
into a clean support question, support_answer (llm-structured)
produces JSON with answer / diagnosis_questions / cites / confidence.
* Run defaults to 10 rows for a quick smoke test.
Verified end-to-end on a running Studio: card renders, source-data
dialog is pre-populated, All toggle disables the limit input, the
recipe executes and produces rows against a loaded local GGUF.
* [pre-commit.ci] auto fixes from pre-commit.com hooks
for more information, see https://pre-commit.ci
* fix: improve GitHub recipe support
* [pre-commit.ci] auto fixes from pre-commit.com hooks
for more information, see https://pre-commit.ci
* Studio: speed up GitHub scraper and harden the support-bot recipe
Addresses a perf issue found while demoing the github_repo seed reader:
Scraper is too slow at scale. The PRs GraphQL query pulls deeply nested
fields (reviewThreads, reviews, commits, timelineItems, etc.) so the
page size was pinned at 3 to stay under GitHub's node-count ceiling. 100
PRs meant 34 serial round trips. Added lighter query variants
(PRS_PAGE_QUERY_LIGHT, ISSUES_PAGE_QUERY_LIGHT) that drop the fields the
Studio flatten layer does not use (it only reads title, body, state,
author, labels, comments). With the light query PR pages can safely go
to 25 per page and issues to 50. The plugin scraper now passes
light=True to RepoScraper so Studio always uses the fast path; the heavy
query remains available for other callers.
Recipe defaults are now demo-ready with production knobs called out:
- max_parallel_requests: 1 and max_tokens: 800 so small local models
stay stable when running the support_answer structured column.
- support_answer prompt trimmed to 80-200 words so gemma-4-E2B GGUF can
actually comply with the schema. The canonical 150-300 word codex
prompt is still documented in the node3 markdown note for
production upgrades.
* Studio: rename GitHub recipe to 'GitHub Scraper' and add Easy mode
Changes the recipe framing from a single-purpose 'Support Bot' pipeline
to a general-purpose scraper that produces {user_request,
grounded_response} training pairs. Aligns with the canonical
github_data_gatherer dataset (11 enrichment tasks mirrored in pr_requests_20
/ issue_requests_20 on the input side and explain_pr / issue_fix_plan /
issue_solution on the output side).
Recipe JSON changes:
- columns[0] renamed normalized_question -> user_request, prompt now
inverts a GitHub thread into a realistic user ask instead of
normalising it.
- columns[1] renamed support_answer -> coauthor_response, emits
{response, followups, cites, task, confidence} and branches on
issue vs PR thread type.
- Notes rewritten to document the 11-task catalog and the canonical
production prompt to paste in for a full dataset backfill.
Frontend: Easy mode for github_repo recipes. The drag-and-drop canvas is
hidden behind an 'Advanced' tab; Easy mode is the default for any recipe
whose seed_source_type is github_repo. The Easy form reuses the existing
GithubRepoSeedForm (promoted to exported), adds a rows input bound to
previewRows, a model field bound to the model_config, and a single Run
button that calls runPreview() directly (no modal). Non-github recipes
see the same Editor / Runs tabs as before.
View mode persists per-recipe-id in localStorage under
recipe-studio:view-mode:<recipeId>.
* Studio: auto-detect server GH_TOKEN and widen Easy-mode detection
The GitHub seed form now fetches /api/data-recipe/seed/github/env-token
on mount and, when the server exposes a GH_TOKEN / GITHUB_TOKEN env var
and the token field is blank, shows a small 'Using server env var' badge
and swaps the placeholder text. The token value itself is never returned
to the UI.
Widens Easy-mode detection in recipe-studio-page.tsx so that recipes
saved before ui.seed_source_type was persisted also get the Easy tab:
falls back to recipe.seed_config.source.seed_type, which is always
present for github_repo seeds.
* fix: polish GitHub recipe UI
* Studio: default llama-server --threads to -1 (auto)
Previously we passed --threads only when the caller set an explicit
value, which meant llama-server fell back to its internal default.
That default has varied across llama.cpp builds (some versions use
hardware concurrency including hyperthreads, which hurts throughput on
CPU-heavy inference). Always passing --threads -1 pins the behaviour
to llama.cpp's auto-detect (physical cores).
Caller-supplied n_threads still wins when non-None.
* [pre-commit.ci] auto fixes from pre-commit.com hooks
for more information, see https://pre-commit.ci
* Studio: auto-switch Easy mode to Runs pane on run start
Easy mode had no progress island or canvas overlay, so after clicking Run
the only visible state was the button label flipping to "Running..." while
the screen otherwise stayed identical. This reads as stuck even though the
job is progressing.
Wire an onExecutionStart callback from recipe-studio-page.tsx through to
useRecipeExecutions so that when a run is kicked off from easy mode, the
page flips to the executions view where the Runs sidebar, progress bar,
rate/ETA panel, and live log are rendered. Advanced/editor mode keeps its
existing behavior and stays on the canvas (it already has the floating
ExecutionProgressIsland).
* fix: clean up GitHub scraper layout
* Studio: forward llm-structured output_format as llama-server response_format
Local GGUF runs of llm-structured columns used to generate the full
max_tokens budget before the prompt-level "return JSON in a ```json
fence" instruction got parsed. Small models (e.g. gemma-4-E2B-it)
routinely broke format, so each row took ~65s and frequently failed
with "No parsable JSON structure within ```json markdown fence".
For any local-provider model_config referenced by an llm-structured
column, clone the model_config and inject response_format into the
clone's inference_parameters. Uses llama.cpp server's flat shape
(tools/server/README.md):
{"type": "json_schema", "schema": <output_format>}
Not the OpenAI-nested form; data_designer's OpenAI adapter forwards
response_format verbatim via facade._COMPLETION_REQUEST_FIELDS, and
llama-server's documented schema path expects the flat variant.
The clone is per (model_alias, column) so:
- llm-text / llm-judge columns that share the same alias keep
free-form sampling.
- Each structured column gets its own schema, so columns with
different output_formats don't collide.
Effect on gemma-4-E2B-it demos: every row parses cleanly, and the
model terminates immediately after the closing brace instead of
running to max_tokens. Net wall-clock is usually faster even though
grammar-constrained sampling is slightly slower per token.
* [pre-commit.ci] auto fixes from pre-commit.com hooks
for more information, see https://pre-commit.ci
* Studio: flip Easy to Runs pane before validation scrape, not after
Previously onExecutionStart fired inside runExecution, which runs AFTER
validateRecipe() -- and validation re-invokes the seed reader. For the
github_repo reader that is a full GraphQL scrape, so the user sat on a
"Running..." button with an otherwise unchanged Easy form for 10-15s
before anything moved.
Call onExecutionStart at the top of runWithValidation, right after we
have a payload to send. The view flips immediately; ensureLocalModelLoaded
+ validateRecipe now run against the Runs pane instead of a frozen Easy
form. runExecution still calls onExecutionStart downstream, but the
callback is idempotent (the page's easy -> executions guard skips the
second call), so no behaviour change for runs that pass validation.
If validation fails the toast + runErrors path still fires; the Easy
form's error banner still reads runErrors when the user switches back.
* Studio: unify data-recipe workflow auth on sk-unsloth-* keys
The previous commit (
|
||
|
|
a5eb2e3d50
|
Add tauri (#5144)
* add unsloth studio desktop app
* Fix review findings
- studio/src-tauri/tauri.conf.json: retarget updater to staging repo
(danielhanchen/unsloth-staging-2); switch to unslothai/unsloth on upstream merge.
- studio/src-tauri/linux/postremove.sh: drop the interactive read loop and the
/home/* iteration. Package maintainer scripts must stay non-interactive and
must not touch other users' data.
- studio/frontend/src/app/auth-guards.ts: honor tauriAutoAuth() boolean. Failed
auto-auth now redirects to /login; requireGuest/requirePasswordChangeFlow
only redirect to /chat when auth succeeds. The new early-return on failed
auth is intentional so the login / change-password flows remain reachable
when desktop auth is not yet established.
- studio/frontend/src/config/env.ts: keep fetched=false on health failure so
later calls retry instead of caching the client-side platform guess.
- studio/src-tauri/src/install.rs: pick the available system package manager
(apt-get, dnf, zypper, pacman); AppImage bundles run on non-Debian distros.
- studio/frontend/src/lib/open-link.ts + markdown-text/sources callers: return
boolean from openLink so callers only preventDefault on handled URLs; relative
hrefs now navigate natively.
- studio/frontend/src/features/settings/tabs/about-tab.tsx: fetch(apiUrl(...))
so the version request targets the backend port in desktop mode. The bare
/api/health predates the Tauri webview (blame: the earlier onboarding commit,
which ran with same-origin frontend/backend); in desktop mode the webview
origin is tauri://localhost so the bare path fails.
- install.ps1: gate the install_python_stack.py hotfix on a sentinel comment
instead of a content regex; append the sentinel after applying so reruns
are unambiguous.
- unsloth_cli/commands/studio.py _write_auth_secret: use the atomic mkstemp +
os.replace path on Windows too; chmod calls are wrapped in try/except OSError.
- studio/src-tauri/src/preflight.rs probe_existing_backends: fan out the health
probes concurrently; desktop-auth status still runs sequentially per candidate.
reqwest::Client is internally Arc-wrapped so the in-loop .clone() is a
refcount bump, not a deep clone; annotated inline.
- studio/src-tauri/src/preflight.rs run_cli_probe: wait() after kill() to reap
the child, matching probe_cli_capability.
- studio/src-tauri/src/process.rs + main.rs: add stop_backend_detached and use
it from the tray quit handler so the 5s graceful-wait does not block the
Tauri main loop. RunEvent::Exit keeps the synchronous safety-net call.
- studio/backend/main.py: drop the permissive localhost CORS regex in
api-only mode; the explicit allow_origins list is sufficient.
- .github/workflows/release-desktop.yml: drop max-parallel: 1 so platform
builds run in parallel, and lift releaseBody to an env var so the three
tauri-action invocations share one source of truth.
* Fix review findings (loop 2)
- studio/backend/auth/storage.py update_password: clear_desktop_secret()
alongside clear_bootstrap_password() so rotating the admin password
also revokes any previously provisioned .desktop_secret. Without this,
an old local desktop credential keeps minting fresh admin tokens via
/api/auth/desktop-login after a password rotation.
- studio/src-tauri/src/desktop_auth.rs provision_desktop_auth: wrap
cmd.output().await in tokio::time::timeout(30s). DESKTOP_AUTH_LOCK is
held across the whole desktop_auth flow, and previously a hanging
`unsloth studio provision-desktop-auth` subprocess would pin the lock
indefinitely and freeze every subsequent desktop_auth call.
* Add review tests
* Consolidate review tests
Merge review-added tests into the existing studio/backend/tests/test_desktop_auth.py
(the PR's authoritative desktop-auth test file). Drops three scaffolding files under
tests/python/ in favor of five focused tests next to the tests they extend:
- test_update_password_clears_desktop_secret (runtime)
- test_update_password_on_unknown_user_leaves_desktop_secret_intact (runtime)
- test_cli_provisioning_delegates_to_storage_create_desktop_secret (source-level)
- test_cli_connect_auth_db_reads_storage_db_path (source-level)
- test_desktop_auth_provision_has_bounded_timeout (Rust source-level)
* Revert auth-guards.ts Tauri branches to unconditional form
The review loop on PR 5144 introduced a regression: the isTauri branch of
requireAuth redirected to /login when tauriAutoAuth() returned false, and
requireGuest / requirePasswordChangeFlow silently fell through on the same
condition. The Tauri desktop app authenticates via a local auto-generated
secret; it must never surface /login or /change-password to the user. A
failed auto-auth should let the startup layer retry, not expose a password
form.
Restore the three Tauri branches to the author's original unconditional
form (requireAuth: return; requireGuest / requirePasswordChangeFlow: throw
redirect({to: '/chat'})). Keep the rest of the review fixes -- the
apiUrl() fetch wrapping, authRedirect helper, and fetchAuthStatus refactor
are all legitimate improvements and are preserved.
* Revert release-desktop.yml to author's version
The review loop's workflow-file tweaks (drop max-parallel: 1, lift releaseBody
to an env var) are cosmetic. OAuth tokens cannot push workflow-file changes,
and fine-grained PATs cannot honor maintainerCanModify on a third-party fork.
Reverting the workflow file to wasimysaid's version lets the push go through
without needing a classic PAT with both repo and workflow scopes.
* [pre-commit.ci] auto fixes from pre-commit.com hooks
for more information, see https://pre-commit.ci
---------
Co-authored-by: Lee Jackson <130007945+Imagineer99@users.noreply.github.com>
Co-authored-by: Daniel Han <danielhanchen@gmail.com>
Co-authored-by: Daniel Han <unslothai@gmail.com>
Co-authored-by: pre-commit-ci[bot] <66853113+pre-commit-ci[bot]@users.noreply.github.com>
|
||
|
|
1ccfd2e0a5
|
fix(rocm): tighten gfx regex to ignore generic ISA lines (#5033)
* fix(rocm): tighten gfx regex to ignore generic ISA lines
ROCm 6.1+ rocminfo emits generic ISA names such as
"amdgcn-amd-amdhsa--gfx11-generic" and "amdgcn-amd-amdhsa--gfx9-4-generic"
alongside the real GPU name. The previous `gfx[1-9]` regex used in
`_has_rocm_gpu` matched both, so a host with only a generic ISA entry
would be reported as having a usable AMD GPU.
Tighten the pattern to `gfx[1-9][0-9a-z]{2,3}` so only real gfx ids
match. This covers every documented target from GFX6 (gfx600) through
GFX12 (gfx1201), including letter-suffixed ids like gfx90a (MI250 /
MI250X) and gfx90c. Documented generic ISA names always have 1 or 2
digits before the dash and no longer match.
Applied to both `studio/install_python_stack.py` and
`studio/install_llama_prebuilt.py` so the two detection paths agree.
Co-authored-by: Martin Hoyer <mhoyer@redhat.com>
* [pre-commit.ci] auto fixes from pre-commit.com hooks
for more information, see https://pre-commit.ci
---------
Co-authored-by: Martin Hoyer <mhoyer@redhat.com>
Co-authored-by: pre-commit-ci[bot] <66853113+pre-commit-ci[bot]@users.noreply.github.com>
|