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classifier-lab-subagent

Validate subagent reliability by running 3 concurrent classifier training loops. Each subagent runs /classifier-lab (deterministic code) and reports via JSON stream. The subagent's only job: run the skill, fix crashes, write /test-lab tests. 90% code, 10% agent. HP adjustment between rounds uses /scillm Gemini structured JSON, not agent judgment.

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grahama1970/agent-skills
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8 de agosto de 2026 a las 13:48
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SKILL.md
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name
classifier-lab-subagent
description
Validate subagent reliability by running 3 concurrent classifier training loops. Each subagent runs /classifier-lab (deterministic code) and reports via JSON stream. The subagent's only job: run the skill, fix crashes, write /test-lab tests. 90% code, 10% agent. HP adjustment between rounds uses /scillm Gemini structured JSON, not agent judgment.
triggers
["classifier lab subagent","test subagent reliability","concurrent classifier training","subagent experiment","validate subagent architecture"]
allowed-tools
["Bash","Read","Write","Glob","Grep"]
metadata
{"short-description":"3-concurrent subagent classifier training experiment","author":"Graham + Horus","version":"1.0.0"}
provides
["subagent-reliability-validation","concurrent-training-orchestration"]
composes
["classifier-lab","scillm","scillm","test-lab","agentic-evals"]
taxonomy
["agents","orchestration","reliability","classifier"]
disciplines
["ml-training","agentic-orchestration","evaluation-quality"]
# /classifier-lab-subagent Validate whether subagents can reliably run long-running deterministic tasks. ## The Experiment 3 subagents run concurrently, each training a different text classifier model on the same HuggingFace dataset (`ag_news`). Each subagent runs `/classifier-lab`'s existing self-improvement loop. The orchestrator watches JSON streams, enforces timeouts, and collects results. **The point:** Determine if subagents can reliably perform long-running tasks when 90% of the intelligence is in the code and the subagent is just a process runner. ## Architecture ``` Project agent (interactive session) │ ├── Decides: dataset, 3 models, initial HPs, gate threshold ├── Writes: config YAMLs for each model ├── Tests: preflight sanity (1 epoch each) │ └── orchestrator.py (asyncio) ├── Subagent 1: distilbert-base-uncased ├── Subagent 2: bert-tiny └── Subagent 3: all-MiniLM-L6-v2 │ Each subagent: 1. Runs classifier-lab/run.sh with config 2. Script streams JSON to stdout 3. If crash → debug, write /test-lab test, retry 4. If blocked → report to orchestrator 5. Between rounds: /scillm Gemini for structured HP suggestions ``` ## What the Subagent Gets ``` Run this command: classifier-lab/run.sh e2e --task "ag_news" --dataset ag_news --modality text \ --backbones {model} --gate-f1 0.95 --max-rounds 5 The script streams JSON progress. Let it run. If it crashes: read the error, fix the obvious issue, write a /test-lab test, rerun. If you can't fix it after 3 attempts: report "blocked" with the error. Do not modify training logic. Do not change the self-improvement loop. Do not add features. Just run it and report. ``` ## What the Orchestrator Does - Spawns 3 subagents via /subagent-service - Reads JSON streams from each - Heartbeat: no output for 120s → kill - Wall-clock: 30min max per subagent - Collects final metrics from all 3 - Reports: which succeeded, which failed, which blocked - Computes subagent reliability rate ## HP Adjustment via /scillm (not agent judgment) Between rounds, the self-improvement loop calls /scillm Gemini with structured JSON: ```json POST http://localhost:4001/v1/chat/completions { "model": "text", "messages": [{"role": "user", "content": "...round history..."}], "response_format": {"type": "json_object"} } ``` Returns: ```json { "learning_rate": 3e-5, "batch_size": 16, "epochs": 5, "dropout": 0.2, "reasoning": "Overfitting after epoch 3, reduce LR and increase dropout" } ``` The code applies this directly. No agent interpretation needed. ## Usage ```bash # Run the full experiment (3 concurrent subagents) ./run.sh experiment # Preflight only (test each model for 1 epoch) ./run.sh preflight # Single model test (no subagent, local) ./run.sh single --model distilbert-base-uncased # Check results ./run.sh results ``` ## Success Criteria The experiment succeeds if: 1. All 3 subagents complete (not blocked/crashed) 2. At least 2/3 reach the accuracy gate (95%) 3. JSON streams were continuous (no heartbeat timeouts) 4. Total wall-clock time < 90 minutes This tells us: subagents CAN reliably run deterministic code with monitoring. If it fails: subagents can't even babysit a script, and we know the ceiling.
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