autoresearch

name	autoresearch
description	Autonomous ML research loop — modify train.py, run 5-min GPU experiments, track val_bpb, iterate overnight. Invoke when the user wants to run self-directed architecture search on the autoresearch repo.
metadata	{"clawphd":{"emoji":"🔬","os":["linux"],"requires":{"bins":"[Truncated]"}}}

autoresearch

Autonomous ML experiment loop. You modify train.py, run timed GPU training, log val_bpb, and iterate forever — keeping improvements, reverting regressions.

The autoresearch/ directory lives at <workspace>/../autoresearch/ relative to the ClawPhD workspace, or wherever the user specifies. Always confirm the path before starting.

Setup

Work with the user to:

1. Confirm the repo path: default is /home/ubuntu/research/ClawPhD/autoresearch. Verify it exists with exec.
2. Agree on a run tag: propose a tag based on today's date (e.g. mar12). The branch autoresearch/<tag> must not already exist.
3. Create the branch: git checkout -b autoresearch/<tag> from current master.
4. Read the in-scope files: Read README.md, prepare.py (fixed — do not modify), and train.py (agent-editable).
5. Verify data: Check ~/.cache/autoresearch/ for data shards and tokenizer. If missing, tell the user to run uv run prepare.py first.
6. Initialize results.tsv: Create it with just the header row:

   commit	val_bpb	memory_gb	status	description
   

7. Confirm and go: Confirm setup, then start the loop immediately.

Running experiments (exec + background pattern)

Since each training run takes ~5 minutes, use background execution to avoid blocking:

# Step 1 — Launch in background (returns immediately)
cd /home/ubuntu/research/ClawPhD/autoresearch
uv run train.py > run.log 2>&1 &
echo "Training started, PID: $!"

# Step 2 — Poll every ~60s until summary appears
tail -80 run.log

# Step 3 — Extract results once complete
grep "^val_bpb:\|^peak_vram_mb:\|^training_seconds:" run.log

The summary block looks like:

---
val_bpb:          0.997900
training_seconds: 300.1
total_seconds:    325.9
peak_vram_mb:     45060.2

If grep "^val_bpb:" run.log returns empty after 10+ minutes, the run crashed — check tail -50 run.log for the stack trace.

Timeout rule: If training_seconds exceeds 360 after the summary appears, treat it as anomalous but still log it. If the process is still running after 10 minutes wall-clock, kill it: kill <PID>, log as crash, revert.

Experiment rules

You CAN:

• Modify train.py freely: architecture, optimizer, hyperparameters, batch size, model size, anything.

You CANNOT:

• Modify prepare.py (fixed evaluation harness, data loading, constants).
• Install new packages or add dependencies.
• Change the evaluation function evaluate_bpb.

Goal: lowest val_bpb. Time budget is fixed at 5 minutes, so parameter count and compute efficiency both matter.

Simplicity criterion: All else equal, simpler code wins. A 0.001 improvement with 20 hacky lines is not worth it. Equal performance with less code is always a win.

Logging to results.tsv

Tab-separated (NOT comma-separated). Five columns:

commit	val_bpb	memory_gb	status	description

• commit: 7-char git hash
• val_bpb: e.g. 0.997900; use 0.000000 for crashes
• memory_gb: peak_vram_mb / 1024, rounded to 1 decimal; use 0.0 for crashes
• status: keep, discard, or crash
• description: brief plain-text description of the change

Do not commit results.tsv (leave it untracked).

The experiment loop

LOOP FOREVER:

1. Check git state: current branch and last commit.
2. Edit train.py with a new idea.
3. git commit -m "autoresearch: <brief description>"
4. Launch training in background (see above).
5. Poll run.log until the summary block appears.
6. Extract val_bpb and peak_vram_mb.
7. Log to results.tsv.
8. If val_bpb improved (lower): keep the commit, advance the branch.
9. If equal or worse: git reset --hard HEAD~1 (revert to before this experiment).

NEVER STOP: Once the loop begins, do not pause to ask the user whether to continue. The user may be asleep. Run indefinitely until manually interrupted.

When stuck: Read papers referenced in train.py comments, re-read prepare.py for new angles, try combining previous near-misses, attempt more radical architectural changes (different depth/width ratios, different attention patterns, different optimizers).

Reporting results via ClawPhD channels

At the end of each experiment (or every N experiments), use the message tool to send a summary to the user's configured channel:

Experiment #N: <description>
val_bpb: 0.XXXXXX → 0.YYYYYY (<+/-> delta)
Status: keep / discard

This way the user wakes up to a digest of overnight progress in Telegram/Slack/etc.

Autonomous overnight use with HeartbeatService

To run the experiment loop fully autonomously (without a human kicking it off), add a task to HEARTBEAT.md in the workspace:

## autoresearch
Every 10 minutes: check if an autoresearch branch is active and the training loop is running. If not, resume the loop from where it left off.

The HeartbeatService will trigger this periodically and the agent will keep the loop alive.