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pool/honeypot-login-persistence-09
I'm writing up which bots got into our SSH honeypot by sheer persistence, and I need the numbers from yesterday's login log. The log is /home/user/honeypot/logins.csv, comma-separated with a header row: ts, session, src, username, password, outcome. One row is one login attempt; outcome is success or failed; ts is a U...
From a Cowrie honeypot login log, find sources whose first successful login followed 30+ failed attempts across sessions, with the winning credentials.
[]
1.1
{ "schema_version": "1.1", "task": { "name": "pool/honeypot-login-persistence-09", "description": "From a Cowrie honeypot login log, find sources whose first successful login followed 30+ failed attempts across sessions, with the winning credentials." }, "metadata": { "format_profile": "standard", ...
{ "format_profile": "standard", "budget_tier": "standard", "arena_domain": "cybersecurity", "source": "CyberLab honeynet dataset (Zenodo 3687527), cyberlab_2019-12-10, sensor ubuntu-ssh (see provenance.json)" }
[ "environment/Dockerfile", "instruction.md", "task.toml", "tests/test_outputs.py" ]
tasks/cybersecurity/honeypot-login-persistence-09/tb2
pool/nvd-cpe-applicability-10
Our endpoint team wants to know how exposed each machine's Foxit PDF install is, using NVD's applicability data rather than advisory text. The endpoints are in /home/user/endpoints.csv, comma-separated with a header row endpoint_id,os,product,version: 24 rows. os is windows or macos, product is pdf_reader or pdf_edito...
Count, per endpoint, the Foxit PDF vulnerabilities whose flattened NVD CPE applicability rows (version bounds, exact versions, platform) cover it.
[]
1.1
{ "schema_version": "1.1", "task": { "name": "pool/nvd-cpe-applicability-10", "description": "Count, per endpoint, the Foxit PDF vulnerabilities whose flattened NVD CPE applicability rows (version bounds, exact versions, platform) cover it." }, "metadata": { "format_profile": "standard", "budget...
{ "format_profile": "standard", "budget_tier": "standard", "arena_domain": "cybersecurity", "source": "NVD CVE JSON 2.0 feeds 2023-2025 (see provenance.json)" }
[ "environment/Dockerfile", "instruction.md", "task.toml", "tests/test_outputs.py" ]
tasks/cybersecurity/nvd-cpe-applicability-10/tb2
pool/osv-pypi-inventory-audit-06
I need a vulnerability audit of the Python packages on our application servers, using the PyPA advisory database. The inventory is /home/user/inventory.csv, comma-separated with a header row host_id,package,version: 70 rows, one installed package per row, 16 hosts. Every version in it is a plain release number made of...
Audit a Python package inventory against PyPA OSV advisories (ECOSYSTEM ranges, withdrawn entries, numeric version compare).
[]
1.1
{ "schema_version": "1.1", "task": { "name": "pool/osv-pypi-inventory-audit-06", "description": "Audit a Python package inventory against PyPA OSV advisories (ECOSYSTEM ranges, withdrawn entries, numeric version compare)." }, "metadata": { "format_profile": "standard", "budget_tier": "standard",...
{ "format_profile": "standard", "budget_tier": "standard", "arena_domain": "cybersecurity", "source": "PyPA advisory-database commit 182ac805 and PyPI release lists (see provenance.json)" }
[ "environment/Dockerfile", "instruction.md", "task.toml", "tests/test_outputs.py" ]
tasks/cybersecurity/osv-pypi-inventory-audit-06/tb2
pool/acs-household-income-se-01
I'm writing up household income estimates for three survey areas from the American Community Survey public-use microdata, and I need the point estimates together with their standard errors. The file /home/user/households.csv is comma-separated with one header line and one row per housing-unit record from the 2023 one-...
Estimate households and mean adjusted household income for three areas from ACS PUMS housing records, with successive-difference replicate standard errors.
[]
1.1
{ "schema_version": "1.1", "task": { "name": "pool/acs-household-income-se-01", "description": "Estimate households and mean adjusted household income for three areas from ACS PUMS housing records, with successive-difference replicate standard errors." }, "metadata": { "format_profile": "standard", ...
{ "format_profile": "standard", "budget_tier": "standard", "arena_domain": "mathematics-or-formal-reasoning", "source": "US Census Bureau ACS 2023 1-year PUMS housing records (see provenance.json)" }
[ "environment/Dockerfile", "instruction.md", "task.toml", "tests/test_outputs.py" ]
tasks/mathematics-or-formal-reasoning/acs-household-income-se-01/tb2
pool/b1-county-adjacency-symmetry-11
Before we load a county adjacency table into our routing system I need it checked against the rules it must follow. /home/user/adjacency.txt is a pipe-separated excerpt of the Census Bureau county adjacency file for one state, with a header line county|neighbor and 827 lines, one per (county, neighbor) pair, grouped b...
Check a disguised Census county adjacency excerpt for one-way pairs, missing self lines and duplicates, and list the fixes.
[]
1.1
{ "schema_version": "1.1", "task": { "name": "pool/b1-county-adjacency-symmetry-11", "description": "Check a disguised Census county adjacency excerpt for one-way pairs, missing self lines and duplicates, and list the fixes." }, "metadata": { "format_profile": "standard", "budget_tier": "standar...
{ "format_profile": "standard", "budget_tier": "standard", "arena_domain": "mathematics-or-formal-reasoning", "source": "US Census Bureau county adjacency file 2023 (see provenance.json)" }
[ "environment/Dockerfile", "instruction.md", "task.toml", "tests/test_outputs.py" ]
tasks/mathematics-or-formal-reasoning/b1-county-adjacency-symmetry-11/tb2
pool/b1-cremona-isogeny-classes-07
Our elliptic curve table groups curves over the rationals into isogeny classes, and a few curves were filed under the wrong class. I need them found. /home/user/curves.csv is comma-separated with a header line and 58 rows: curve_id, class_id, a1, a2, a3, a4, a6. The integers give each curve as y^2 + a1*x*y + a3*y = x^...
Find curves filed under the wrong isogeny class in a re-modelled table of Cremona elliptic curves, by comparing a_p from point counts.
[]
1.1
{ "schema_version": "1.1", "task": { "name": "pool/b1-cremona-isogeny-classes-07", "description": "Find curves filed under the wrong isogeny class in a re-modelled table of Cremona elliptic curves, by comparing a_p from point counts." }, "metadata": { "format_profile": "standard", "budget_tier":...
{ "format_profile": "standard", "budget_tier": "standard", "arena_domain": "mathematics-or-formal-reasoning", "source": "Cremona ecdata allcurves.20000-29999, commit 25cec5e (see provenance.json)" }
[ "environment/Dockerfile", "instruction.md", "task.toml", "tests/test_outputs.py" ]
tasks/mathematics-or-formal-reasoning/b1-cremona-isogeny-classes-07/tb2
pool/b1-nhanes-ckd-stages-13
I'm summarizing kidney function among US adults from the NHANES 2017-2018 examination data and need the eGFR stage counts and a weighted chronic kidney disease prevalence. /home/user/nhanes_kidney.csv is comma-separated with a header line and one row per sampled person (9,254 rows): SEQN (respondent id), RIAGENDR (1 m...
CKD-EPI 2021 eGFR, KDIGO stage counts and weighted chronic kidney disease prevalence from NHANES 2017-2018 examination data.
[]
1.1
{ "schema_version": "1.1", "task": { "name": "pool/b1-nhanes-ckd-stages-13", "description": "CKD-EPI 2021 eGFR, KDIGO stage counts and weighted chronic kidney disease prevalence from NHANES 2017-2018 examination data." }, "metadata": { "format_profile": "standard", "budget_tier": "standard", ...
{ "format_profile": "standard", "budget_tier": "standard", "arena_domain": "mathematics-or-formal-reasoning", "source": "NHANES 2017-2018 DEMO_J, BIOPRO_J, ALB_CR_J (see provenance.json)" }
[ "environment/Dockerfile", "instruction.md", "task.toml", "tests/test_outputs.py" ]
tasks/mathematics-or-formal-reasoning/b1-nhanes-ckd-stages-13/tb2
pool/cremona-curve-audit-02
Some entries in our table of elliptic curves were damaged when it was assembled, and I need them found before it goes into the database. /home/user/curves.tsv is tab-separated with a header line and 60 rows. Columns: curve_id, a1, a2, a3, a4, a6, ap, gens. The integers a1 to a6 give the curve y^2 + a1*x*y + a3*y = x^...
Audit a table of elliptic curves (Cremona ecdata, re-modelled) for wrong a_p values and points not on the curve.
[]
1.1
{ "schema_version": "1.1", "task": { "name": "pool/cremona-curve-audit-02", "description": "Audit a table of elliptic curves (Cremona ecdata, re-modelled) for wrong a_p values and points not on the curve." }, "metadata": { "format_profile": "standard", "budget_tier": "standard", "arena_domai...
{ "format_profile": "standard", "budget_tier": "standard", "arena_domain": "mathematics-or-formal-reasoning", "source": "Cremona ecdata allgens/aplist 10000-19999, commit 25cec5e (see provenance.json)" }
[ "environment/Dockerfile", "instruction.md", "task.toml", "tests/test_outputs.py" ]
tasks/mathematics-or-formal-reasoning/cremona-curve-audit-02/tb2
pool/b1-cd-discid-04
I'm cleaning up a batch of CD rips before we submit them to MusicBrainz, and I need the MusicBrainz disc ID for each disc so I can check which ones are already in the database. The ripper's track tables are in /home/user/rips/toc_lba.tsv, a tab-separated file with one header line and then one line per track (178 lines...
Compute MusicBrainz disc IDs and playing times from ripper LBA track tables (CD TOCs from MusicBrainz, jittered).
[]
1.1
{ "schema_version": "1.1", "task": { "name": "pool/b1-cd-discid-04", "description": "Compute MusicBrainz disc IDs and playing times from ripper LBA track tables (CD TOCs from MusicBrainz, jittered)." }, "metadata": { "format_profile": "standard", "budget_tier": "standard", "arena_domain": "m...
{ "format_profile": "standard", "budget_tier": "standard", "arena_domain": "media-content-production", "source": "MusicBrainz core data CD TOCs, 2026-10-14 (see provenance.json)" }
[ "environment/Dockerfile", "instruction.md", "task.toml", "tests/test_outputs.py" ]
tasks/media-content-production/b1-cd-discid-04/tb2
pool/b1-tracklist-recon-01
Hi, I look after our label's back-catalogue metadata. Before we push corrections upstream I need the CD releases in our MusicBrainz export reconciled against the Discogs export of the same catalogue. There are two tab-separated files, each with one header line. They are about 290 lines each, too long to print in full,...
Reconcile a label's CD releases between MusicBrainz and Discogs exports by barcode and report track-count and runtime status per release.
[]
1.1
{ "schema_version": "1.1", "task": { "name": "pool/b1-tracklist-recon-01", "description": "Reconcile a label's CD releases between MusicBrainz and Discogs exports by barcode and report track-count and runtime status per release." }, "metadata": { "format_profile": "standard", "budget_tier": "sta...
{ "format_profile": "standard", "budget_tier": "standard", "arena_domain": "media-content-production", "source": "MusicBrainz core data + Discogs release data, 2026-10-14 (see provenance.json)" }
[ "environment/Dockerfile", "instruction.md", "task.toml", "tests/test_outputs.py" ]
tasks/media-content-production/b1-tracklist-recon-01/tb2
pool/b1-vinyl-sides-08
Before we send a batch of vinyl reissues to the cutting room, I need every side checked against our cutting-time limits, because an over-long side has to be cut quieter or re-sequenced. There are two tab-separated files, each with one header line. /home/user/cutting/releases.tsv has one line per release (36 releases) ...
Sum Discogs vinyl tracklists per side (A/B/AA ...) and flag sides over the cutting limit for the record speed.
[]
1.1
{ "schema_version": "1.1", "task": { "name": "pool/b1-vinyl-sides-08", "description": "Sum Discogs vinyl tracklists per side (A/B/AA ...) and flag sides over the cutting limit for the record speed." }, "metadata": { "format_profile": "standard", "budget_tier": "standard", "arena_domain": "me...
{ "format_profile": "standard", "budget_tier": "standard", "arena_domain": "media-content-production", "source": "Discogs release data, 2026-10-14 (see provenance.json)" }
[ "environment/Dockerfile", "instruction.md", "task.toml", "tests/test_outputs.py" ]
tasks/media-content-production/b1-vinyl-sides-08/tb2
pool/b1-actions-token-perms-17
Hi, I'm reviewing what the GITHUB_TOKEN can do in the GitHub Actions workflows we vendor from six upstream projects. The workflow files are in /home/user/workflows, in six folders (astral-sh__uv, fastapi__fastapi, pallets__click, pypa__cibuildwheel, pytest-dev__pytest, python-poetry__poetry), 89 .yml or .yaml files in...
Resolve effective GITHUB_TOKEN permissions for every job in 89 real workflows (job overrides workflow, defaults) and flag write-capable jobs under pull_request_target/workflow_run.
[]
1.1
{ "schema_version": "1.1", "task": { "name": "pool/b1-actions-token-perms-17", "description": "Resolve effective GITHUB_TOKEN permissions for every job in 89 real workflows (job overrides workflow, defaults) and flag write-capable jobs under pull_request_target/workflow_run." }, "metadata": { "forma...
{ "format_profile": "standard", "budget_tier": "standard", "arena_domain": "software-engineering", "source": "Workflow files of six OSS repositories at pinned commits (see provenance.json)" }
[ "environment/Dockerfile", "instruction.md", "task.toml", "tests/test_outputs.py" ]
tasks/software-engineering/b1-actions-token-perms-17/tb2
pool/b1-codeowners-resolve-09
Hi, we are setting up review routing and I need to know who GitHub would request as code owners for a list of files in our repository. /home/user/CODEOWNERS is the repository's CODEOWNERS file (about 660 lines). Blank lines and lines starting with # are ignored. Every other line is a path pattern followed by zero or m...
Resolve GitHub CODEOWNERS for 160 paths of a real repository: gitignore pattern semantics, last match wins, owner-less rules.
[]
1.1
{ "schema_version": "1.1", "task": { "name": "pool/b1-codeowners-resolve-09", "description": "Resolve GitHub CODEOWNERS for 160 paths of a real repository: gitignore pattern semantics, last match wins, owner-less rules." }, "metadata": { "format_profile": "standard", "budget_tier": "standard", ...
{ "format_profile": "standard", "budget_tier": "standard", "arena_domain": "software-engineering", "source": "CPython .github/CODEOWNERS and file tree at a pinned commit (see provenance.json)" }
[ "environment/Dockerfile", "instruction.md", "task.toml", "tests/test_outputs.py" ]
tasks/software-engineering/b1-codeowners-resolve-09/tb2
pool/b1-osv-branch-ranges-01
Hi, I'm on the security team for our internal Python service, which ships the package ledgerd. I need the exact list of ledgerd releases that each known vulnerability affects. Both input files are described below, so you can go straight to writing one Python script (create it with write_file, then run it); the packagin...
Reconcile GHSA- and PYSEC-style OSV advisory records with per-branch and multi-span ranges into the exact set of affected released versions per vulnerability.
[]
1.1
{ "schema_version": "1.1", "task": { "name": "pool/b1-osv-branch-ranges-01", "description": "Reconcile GHSA- and PYSEC-style OSV advisory records with per-branch and multi-span ranges into the exact set of affected released versions per vulnerability." }, "metadata": { "format_profile": "standard", ...
{ "format_profile": "standard", "budget_tier": "standard", "arena_domain": "software-engineering", "source": "OSV.dev PyPI export (GHSA + PyPA advisory db) and PyPI release list, 2026-10-14 (see provenance.json)" }
[ "environment/Dockerfile", "instruction.md", "task.toml", "tests/test_outputs.py" ]
tasks/software-engineering/b1-osv-branch-ranges-01/tb2
pool/b1-scorecard-risk-flags-08
Hi, I'm doing a supply-chain risk pass over 57 of our PyPI dependencies using a registry snapshot taken on 2026-07-21 and OpenSSF Scorecard results. The input is /home/user/packages.csv, comma-separated with a header and one row per package. Columns: package, version (latest release), yanked (1 if that release is yank...
Assign ordered supply-chain risk flags to 57 PyPI packages from registry metadata and OpenSSF Scorecard checks, where missing checks are not zeros.
[]
1.1
{ "schema_version": "1.1", "task": { "name": "pool/b1-scorecard-risk-flags-08", "description": "Assign ordered supply-chain risk flags to 57 PyPI packages from registry metadata and OpenSSF Scorecard checks, where missing checks are not zeros." }, "metadata": { "format_profile": "standard", "bud...
{ "format_profile": "standard", "budget_tier": "standard", "arena_domain": "software-engineering", "source": "pypi-data SQLite snapshot 2026.07.21, packages and scorecard_checks tables (see provenance.json)" }
[ "environment/Dockerfile", "instruction.md", "task.toml", "tests/test_outputs.py" ]
tasks/software-engineering/b1-scorecard-risk-flags-08/tb2
pool/b1-specifier-hygiene-14
Hi, I'm reviewing how strictly our 34 PyPI dependencies constrain their own dependencies. /home/user/requirements.csv is comma-separated with the header package,requirement and 287 rows: each requirement string (PEP 508, possibly with extras and an environment marker) that the current release of each package declares....
Class 271 real PEP 508 requirement strings of 30 PyPI packages as pinned, bounded, floor or open (PEP 440 operator semantics) and count per package.
[]
1.1
{ "schema_version": "1.1", "task": { "name": "pool/b1-specifier-hygiene-14", "description": "Class 271 real PEP 508 requirement strings of 30 PyPI packages as pinned, bounded, floor or open (PEP 440 operator semantics) and count per package." }, "metadata": { "format_profile": "standard", "budge...
{ "format_profile": "standard", "budget_tier": "standard", "arena_domain": "software-engineering", "source": "pypi-data SQLite snapshot 2026.07.21, deps table (see provenance.json)" }
[ "environment/Dockerfile", "instruction.md", "task.toml", "tests/test_outputs.py" ]
tasks/software-engineering/b1-specifier-hygiene-14/tb2

Pool Desk v3

An OpenEnv environment for the OpenEnv Arena: 16 terminal tasks built on real public data, from four Arena domains. It is an experiment-designed subset of the reviewed task pool behind Pool Desk and Pool Desk v2. Each episode is one task in a fresh container with its own image. The model works in a shell (exec, write_file), then calls evaluate, and a pytest verifier checks the files it leaves behind.

Experiment design

This run changes one thing from Pool Desk v2: the completion budget binds. Every task is sent with a binding completion budget instead of 4,096: 2,048 tokens for software, math and media, and 3,072 for cybersecurity, whose inputs are larger. Each domain's budget is the tightest of 2,048 and 3,072 that kept at least 40% of the base model's solves at 4,096 in a measurement made before the run. That budget counts the model's tokens and every observation after the first.

The Arena still scores an episode that runs out of budget, so an answer already written survives. Under a tighter budget, only attempts that reach a correct answer economically are rewarded. The questions:

  1. Economy. Do replies get shorter across visits when the budget binds? The previous run, at 4,096, got longer.
  2. Learning. Are the tasks still learned?
  3. Prediction. Can a task's training solve rate under a new budget be predicted offline? The prediction multiplies its earlier training rate by the ratio of measured solve rates at the two budgets.
  4. Transfer. Does the economy habit move the Arena's eval?

The tasks come from the four domains where our runs have not yet scored: software engineering, cybersecurity, math and media. Every task was trained on in an earlier run, so prereg.prior_trainer_rate and prior_n record its trainer rate at 4,096, and prereg.predicted_rate is the registered prediction under the new budget. The trainer visits tasks in the submission's order and cycles, so step k trains the task at position ((k-1) mod N)+1. Tasks are interleaved round-robin across the four domains. The full pre-registration (hypotheses, pass/fail criteria, analysis code) is in PREREGISTRATION.md.

Reward is binary on every task, and no task content changed from the pool.

Position Task Domain Budget Trainer rate at 4096 (episodes) Measured at 4096 β†’ at budget Predicted Visit-1 rate Per-Task-ratio prediction
1 b1-cremona-isogeny-classes-07 mathematics-or-formal-reasoning 2048 0.75 (8) 0.25 β†’ 0.12 0.40 0.45
2 nvd-cpe-applicability-10 cybersecurity 3072 1.00 (8) 0.62 β†’ 0.25 0.60 0.46
3 b1-tracklist-recon-01 media-content-production 2048 0.50 (8) 0.38 β†’ 0.38 0.32 0.50
4 b1-actions-token-perms-17 software-engineering 2048 0.75 (8) 0.50 β†’ 0.25 0.36 0.42
5 b1-county-adjacency-symmetry-11 mathematics-or-formal-reasoning 2048 0.83 (12) 0.75 β†’ 0.38 0.44 0.45
6 osv-pypi-inventory-audit-06 cybersecurity 3072 0.62 (8) 0.25 β†’ 0.25 0.38 0.62
7 b1-cd-discid-04 media-content-production 2048 0.88 (8) 0.75 β†’ 0.38 0.56 0.47
8 b1-codeowners-resolve-09 software-engineering 2048 0.88 (8) 0.62 β†’ 0.12 0.42 0.24
9 cremona-curve-audit-02 mathematics-or-formal-reasoning 2048 0.83 (12) 0.62 β†’ 0.25 0.44 0.38
10 honeypot-login-persistence-09 cybersecurity 3072 0.88 (8) 0.38 β†’ 0.12 0.53 0.38
11 b1-vinyl-sides-08 media-content-production 2048 0.62 (8) 0.50 β†’ 0.25 0.40 0.35
12 b1-specifier-hygiene-14 software-engineering 2048 0.88 (8) 0.25 β†’ 0.50 0.42 0.95
13 acs-household-income-se-01 mathematics-or-formal-reasoning 2048 0.88 (8) 0.38 β†’ 0.12 0.47 0.38
14 b1-osv-branch-ranges-01 software-engineering 2048 1.00 (8) 0.62 β†’ 0.38 0.48 0.64
15 b1-nhanes-ckd-stages-13 mathematics-or-formal-reasoning 2048 0.92 (12) 0.88 β†’ 0.38 0.49 0.43
16 b1-scorecard-risk-flags-08 software-engineering 2048 1.00 (8) 0.56 β†’ 0.62 0.48 0.95

Domains

Arena domain Tasks completion_tokens
mathematics-or-formal-reasoning 5 2048
cybersecurity 3 3072
media-content-production 3 2048
software-engineering 5 2048

How every task was built and checked

  1. Raw data. Each task uses a pinned slice of a public dataset with its licence recorded (provenance.json). Where the clean public source could be fetched from inside the sandbox to read off the answer, the slice is disguised: task-local ids, no names or geography, and seeded per-entity scaling.
  2. Measurement (pool admission). The base model, Qwen3.8-27B with thinking off, made 8 or more attempts. Sampling was temperature 1.0 and top_p 1.0, calibrated against the Arena trainer's own per-task rewards. The reference model, Qwen3.8-2.4T-A95B with low reasoning, made 4 attempts.
    • A task is kept when the base model solves 25–75% of its pooled attempts and the reference model at least 50%.
    • Every batch for unchanged content is pooled into one verdict.
    • Each task's measurement.json has the numbers.
    • For this run, every candidate was re-measured with the calibrated setup at three completion budgets (4096, 3072, 2048). The setup was chosen against the trainer's own per-task rewards from an earlier run:
      • DeepInfra bf16;
      • a guide-style system prompt;
      • observation tokens counted with the real Qwen tokenizer;
      • broken replies resampled.
    • Those numbers are prereg.measured_rate_4096 and prereg.measured_rate_tight. PREREGISTRATION.md has the probe and the prediction rule.
  3. Task review. Separate reviewer agents applied a fixed protocol:
    • static checks;
    • three clean builds;
    • the reference solution scoring 1, three times out of three;
    • doing nothing scoring 0;
    • a Learnable measurement;
    • a rubric (instruction matches tests, the tests can't be gamed, "do not modify" rules are enforced, no answers in the image), adapted from Terminal-Bench's Apache-2.0 task rubric;
    • a reward-hacking scan of the transcripts.
  4. Red-team review.
    • Defensive verifier checks: integrity manifest, hidden tests and solution unreachable, empty outputs scoring 0.
    • A shortcut audit: the reference model is asked to pass without doing the work, and every passing transcript is judged.
    • A check for routes to the answer through public sources.

The verifier is hardened against an agent running as root. It stops leftover processes and hashes the interpreter, the standard library and a snapshot of the packages the tests import. It runs pytest isolated from anything the agent installed. Reward is binary: 1.0 if every test passes, otherwise 0.0.

Tags carried over from the pool

Each task's tb2/task.toml carries two tags:

  • budget_tier. In the pool, standard means 4,096 completion and 8,192 context tokens. In this run every task is sent with a tighter completion budget instead (2,048, or 3,072 for cybersecurity; context 8,192 and 32 tool calls unchanged). That is the experiment, and each task's budget is in its limits.
  • format_profile. format-stress is used on some cybersecurity and media tasks. These have an eval-style markdown instruction and content that is awkward to quote inline (spaces in paths, quotes, regexes, embedded JSON), so writing a script with write_file is the reliable way through. Every other task is standard.

Files

  • tasks.jsonl: one line per task in training order (task_id, arena_domain, arm, prereg, budget_tier, format_profile, limits).
  • tasks/<domain>/<task_id>/:
    • tb2/: the Terminal-Bench task (instruction, tests, task.toml);
    • data/: the input files;
    • solution/solve.sh: the reference solution;
    • notes/: the generator and the build notes;
    • Dockerfile;
    • provenance.json;
    • measurement.json: a summary.
  • selection-v3.json: the ordered task list with each task's arm and pre-registered predictions.
  • LICENSES.md: every task's source and licence.

Licences

The tasks draw on many sources under different permissive terms. Most are US federal government works (public domain). The others include:

  • CC0 (MusicBrainz);
  • CC-BY-4.0 (e.g. GitHub Advisory Database, PUDL, Red Hat VEX, Loghub);
  • ODC-BY;
  • Artistic-2.0 (Cremona's ecdata);
  • the UK Open Government Licence v3.0;
  • Apache-2.0, MIT, BSD and PSF;
  • source-specific open terms.

No task uses share-alike or non-commercial data. Attribution for each task is in LICENSES.md and its provenance.json. Reuse must keep that attribution.

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