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|---|---|---|---|---|---|---|---|---|---|---|---|---|---|---|---|---|---|---|---|---|---|---|---|
annals_absolute_profinite_rigidity | tasks/annals_absolute_profinite_rigidity | Absolute profinite rigidity and hyperbolic geometry | annals-challenge | https://github.com/leanprover/lean-eval | 38361be884302c7edce1908c4aef8296eb2cb27e | research | Research mathematics; qualitative level, not empirically calibrated. | LeanEval.GroupTheory.AbsoluteProfiniteRigidity | 1 | active | true | M. R. Bridson, D. B. McReynolds, A. W. Reid, and R. Spitler, `Absolute profinite rigidity and hyperbolic geometry`, Annals of Math, 192 (3) 2020. Statement taken from https://github.com/ImperialCollegeLondon/AnnalsChallenge (v1.0.0, e32eb14), AnnalsChallenge/AnnalsOfMathematics/2020-192-3-AbsoluteProfiniteRigidity.lean | Thomas Browning | https://lean-lang.org/eval/problems/annals_absolute_profinite_rigidity/ | [
"theorem_7_1"
] | [] | [
"AbsoluteProfiniteRigidity.theorem_7_1"
] | [
"theorem"
] | 1 | true | 10,800 | {"Challenge.lean": "3a59f64238765e2aff534d4fddb226ee8a4958dd545153bb5f4817e738968056", "ChallengeDeps.lean": "7fff7cc8dbdfd13e67c37805830f70249b33272c63b1d2fe10fe259272dfa87c", "Solution.lean": "9648882d5fbf864c7206fa72acd4d2da6800a303223066891cd2dfaa8a8eb187", "Submission.lean": "ce3b6a38f5b8953d6ed565369394c16a9b7e64... | |
lean_gap_df_10_2_1 | tasks/lean_gap_df_10_2_1 | Kernel and image of a linear map are submodules | lean-gap | https://arxiv.org/abs/2606.02588 | sha256:23db6c436d7b115038a049d5bf8c61c55c713ade2f64e98e566f821393ffcbe3 | textbook | Graduate algebra curriculum; qualitative mathematical level, not empirically calibrated. | Formal.DF_10.DF_10_2 | 1 | sample | true | Lean-GAP, Dummit and Foote exercise 10.2.1; supplied Formal.tar, Formal/DF_10/DF_10_2.lean. | anonymous (as recorded in supplied source) | [
"DF_10_2_1"
] | [] | [
"DF_10_2_1"
] | [
"theorem"
] | 1 | false | 10,800 | {"Challenge.lean": "3fe291eeaf6242f852d51e8e3fb3495b059f08a8bef245cd5bb51742fb96fe20", "Solution.lean": "e60b75a99cb0cd0348a845d6e27cd85673e36cc5235086f838ea4c439786c67e", "Submission.lean": "4815e19074c440fc141bc718f12ad914873037dbe73444010cca91952f038095", "Submission/Helpers.lean": "49daa8c78bad5a3b9613530b8c1758099... |
Desargues Formal Reasoning Sample
Two Lean 4 theorem-proving tasks spanning textbook algebra and research mathematics, packaged by Desargues with execution environments and automated verification for Harbor.
RL environments: We convert formal theorem statements into RL tasks with executable verification. Our Lean-GAP example is derived from open-source statements authored by contributors in our network. This sample pairs a textbook algebra exercise with an AnnalsChallenge research theorem, using the same reproducible Lean and Mathlib environment and separate submission verifier.
Expert-authored data: Our contributors have worked on research-level formalizations, including AnnalsFormalization. We can recruit experts to produce new, mathematically reviewed formal statements tailored to labs' research goals.
Included tasks
| Task | Task ID | Mathematical level |
|---|---|---|
| Kernel and image of a linear map are submodules | lean_gap_df_10_2_1 |
Textbook algebra (Lean-GAP, exercise 10.2.1) |
| Absolute profinite rigidity and hyperbolic geometry | annals_absolute_profinite_rigidity |
Research mathematics (AnnalsChallenge) |
Each task has one theorem target and includes instructions, an environment recipe, starter workspace inputs, and a verifier. manifest.json, manifest.parquet, and registry.json describe both tasks. The levels describe the mathematics; agent solving difficulty has not been empirically calibrated. Reference proofs are not included.
Agent workflow and grading
- Initialize
/workspaceusing the command in the task's instructions. - Complete
Submission.lean, adding Lean helper files underSubmission/as needed. Lean and Mathlib are available; task execution runs without network access. - Harbor collects the submitted Lean files and sends them to a fresh verifier sandbox. Comparator checks the proof against the original trusted statement.
Reward is 1 for a fully accepted proof and 0 for an incomplete, invalid, or timed-out submission. There is no partial credit. Infrastructure failures are reported separately. Lean compilation alone does not establish success: unfinished sorry proofs are rejected by the verifier.
Solution.lean connects the submitted declarations to the verifier; it contains no reference proof. The submitted answer is the workspace files.
Run a task
Requires Python 3.12+, the Hugging Face CLI, and a Daytona account. Set DAYTONA_API_KEY, DAYTONA_API_URL, and the credentials required by your agent. Replace AGENT_NAME and MODEL_NAME below with your chosen agent and model.
hf download desargues-hf/annals-math-rl-sample --repo-type dataset --local-dir annals-math-rl-sample
cd annals-math-rl-sample
python3 -m venv .venv
source .venv/bin/activate
python -m pip install -e './generator[run]'
python -m annals_challenge_harbor.snapshot
SNAP=$(python -m annals_challenge_harbor.snapshot --print-name)
harbor run -p tasks -e daytona --ek snapshot_template_name="$SNAP" \
-a AGENT_NAME -m MODEL_NAME -i lean_gap_df_10_2_1 -n 1
The snapshot command builds the shared environment in your Daytona account. Initial setup requires network access; agent execution and grading are offline. To run the research task, use -i annals_absolute_profinite_rigidity.
Each task requests 4 CPUs, 8 GiB memory, and 10 GiB storage, with a four-hour agent budget and a three-hour-fifteen-minute verifier budget.
Environment
The sample includes a shared Docker build recipe and a Daytona snapshot helper. See the environment documentation for local Docker builds, dependency versions, and regeneration.
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