WFGY/archive/benchmarks_archive/semantic-drift-demo

Semantic‑Drift Demo 📐

A minimal, fully‑reproducible experiment to prove how the WFGY framework cuts semantic drift in multi‑step reasoning.

This demo compares plain LLM answers (Baseline) to WFGY✚DrunkMode on 30 carefully‑crafted prompts.
The prompts come from the WFGY 1.0 – All Principles Return to One public PDF, and specifically target long‑chain reasoning weaknesses documented in Section 3 of that paper.

Unlike generic QA tests, this benchmark does not evaluate factual correctness or syntax.
Instead, it tests semantic integrity — whether the model preserves meaning over multi-hop chains.
It was derived directly from Section 3 of the WFGY1.0 paper and quantifies how ΔS and λ_observe
reflect a model’s ability to avoid drift as reasoning unfolds.

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1. Why run this experiment? 🎯

Large language models often look correct but secretly drift—mixing facts, skipping steps, or hallucinating logic as the chain gets longer.
WFGY introduces four closed‑loop modules (BBMC / BBPF / BBCR / BBAM) to self‑heal those drifts in real time.

This repo lets anyone:

• Quantify drift with two simple metrics (ΔS, λ_observe).
• Visualise the gap instantly (two PNG charts).
• Swap in any model (or any guard framework) and reproduce the numbers in <1min.

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2. Metrics 📊

Metric	Meaning	Good?
ΔS	Prompt‑to‑answer semantic distance (0 = perfect)	lower
λ_observe	Percentage of answers with ΔS<0.4 (pass‑rate)	higher

* **Left chart** – average ΔS: green (WFGY) bar is lower ⇒ answers wander off topic less. * **Right chart** – λ_observe pass‑rate: green hits 100% ⇒ WFGY beats baseline on **every** prompt.

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3. Quick Start ⚡

3‑line local run

pip install -r requirements.txt          # sklearn · pandas · matplotlib · statsmodels
python scripts/run_eval.py               # → data/metrics.csv
python scripts/plot_results.py           # → images/ refreshed charts

One‑click Colab

1. Open https://colab.research.google.com/
2. !git clone <YOUR‑REPO‑URL>
3. Run the same three lines above.

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4. Swap in your own model 🔄

1. Put your outputs in

   • data/baseline_answers.txt  (WFGY OFF)
   • data/wfgydrunk_answers.txt (WFGY ON) *✧ One answer block per prompt, separated by a blank line.

2. Rerun the two scripts – charts update automatically.

3. Interpret: green lower ΔS & higher λ=your guard beats raw model; if not, drift remains.

(Optional) Human κ agreement

# create data/error_annotations.csv  with columns: Q#,rater1,rater2,rater3 (ok / drift)
python scripts/compute_kappa.py         # prints Fleiss κ

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5. Folder layout 🗂️

semantic-drift-demo/
├─ data/
│   ├─ test_prompts.json      # 30 prompts (from WFGY PDF, Section 3)
│   ├─ baseline_answers.txt   # answers with WFGY OFF
│   ├─ wfgydrunk_answers.txt  # answers with WFGY ON
│   └─ metrics.csv            # auto‑generated
├─ scripts/
│   ├─ run_eval.py            # computes ΔS & λ_observe
│   ├─ plot_results.py        # draws the two PNG charts
│   └─ compute_kappa.py       # optional Fleiss κ
├─ images/
│   ├─ drift_comparison.png   # ΔS chart
│   └─ lambda_pass.png        # λ chart
└─ requirements.txt

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6. How the code works 🔍

1. TF‑IDF ΔS

   • We embed each prompt and answer with TF‑IDF; 1 – cosine = ΔS.
   • Swap to sentence‑transformers in run_eval.py for higher‑fidelity embeddings.

2. λ_observe

   • If ΔS < threshold (default 0.4) → pass for that answer.
   • λ=(# passes)/30.

3. plot_results.py

   • Saves two charts in images/ (scaled to 420px width for GitHub dark mode).

4. compute_kappa.py

   • Reads three human labels per answer and outputs Fleiss κ (agreement score).

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7. Background: WFGY in one paragraph 📚

WFGY 1.0 (paper DOI 10.5281/zenodo.15630969) unifies four modules:

Module	Function
BBMC	Measures semantic residue (meaning gap) and minimises it.
BBPF	Perturbs reasoning paths, encouraging convergent refinement.
BBCR	Detects collapse, resets, and rebirths the chain mid‑inference.
BBAM	Dampens noisy attention spikes, boosting cross‑modal alignment.

The paper reports +22% semantic accuracy and 3.6×stability. This repo isolates the semantic‑drift aspect so anyone can reproduce a slice of those gains without full training.

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8. FAQ 🙋‍♂️

Question	Answer
Why 30 prompts?	Enough to visualise trends; small for fast Colab runs. Extend easily by appending prompts.
Can I use GPT‑4/Claude outputs?	Yes—paste them into the two answer files.
Where is the prompt list from?	Adapted from Section 3 “Stress Tests” of the WFGY 1.0 PDF.
Charts look blank?	Ensure images are committed; GitHub caches aggressively—hard‑refresh if needed.
ΔS too close between models?	Switch to sentence‑transformer embeddings (use_embed=True in run_eval.py) for finer deltas.

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9. License 📜

Code released under MIT; prompt set under CC‑BY 4.0 (credit “PS BigBig, WFGY 1.0 PDF”). See LICENSE for details.

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Clone, run, swap, publish—prove your model drifts less. For questions or pull‑requests, open an issue or ping @PSBigBig. Good luck & happy benchmarking! 🚂💨

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