7.1 KiB
HyperliquidBench — Agent Guide
Measures operational competence of Hyperliquid perp trading agents: correct
order routing, cancels, transfers, and leverage changes across two tracks —
Coverage (breadth of action signatures across perp/account/risk domains) and
HiaN (Haystack-in-a-Needle long-context precision). Registered in the suite
registry as hyperliquid_bench.
Scoring: FINAL_SCORE = Base + Bonus − Penalty computed by hl-evaluator (Rust).
The Python __main__.py routes plan generation through the Eliza TS bridge (--mode eliza)
and delegates execution/evaluation to the Rust crates.
Run
# Direct — demo mode (no funds at risk, no key required), eliza TS bridge
python -m benchmarks.HyperliquidBench --demo
# Direct — coverage scenario, demo mode
python -m benchmarks.HyperliquidBench \
--coverage \
--demo
# Through the suite orchestrator (stores results, resolves provider/model)
python -m benchmarks.orchestrator run \
--benchmarks hyperliquid_bench \
--provider cerebras \
--model gpt-oss-120b
# Live orchestrated run (all harnesses, Cerebras, no demo)
HL_PRIVATE_KEY=0x... \
CEREBRAS_API_KEY=csk-... \
python -m benchmarks.orchestrator run \
--benchmarks hyperliquid_bench \
--all-harnesses \
--provider cerebras \
--model gpt-oss-120b \
--force \
--show-incompatible
Smoke test (no API keys, no network)
# Deterministic local agent — no TS bridge, no Rust required for plan generation
python -m benchmarks.HyperliquidBench --mode deterministic --demo
# Rust runner demo mode (validates full pipeline without touching live endpoints)
cargo run -p hl-runner --release -- \
--demo \
--out runs/demo
cargo run -p hl-evaluator --release -- \
--input runs/demo/per_action.jsonl \
--domains dataset/domains-hl.yaml \
--out-dir runs/demo
The convenience wrapper scripts/run_cov.sh handles the two-step runner + evaluator
call; omit NETWORK or set it to demo and pass -- --demo for offline runs.
Test the harness
# Rust unit tests (no API keys required)
cargo test
# Or via make
make test
No Python pytest suite exists in this directory; harness logic is tested through
the Rust cargo test target and the Makefile shortcuts (make format, make check, make build).
Layout
| Path | Role |
|---|---|
__main__.py |
Python CLI entrypoint (python -m benchmarks.HyperliquidBench) |
eliza_agent.py |
Local deterministic agent + scenario helpers |
types.py |
HLBenchConfig, TradingScenario shared types |
crates/hl-runner/ |
Rust CLI: loads plans, signs + submits actions, writes artifacts |
crates/hl-evaluator/ |
Rust CLI: normalizes signatures, applies scoring, emits score reports |
crates/hl-common/ |
Shared plan schema, action types, time utils, artifact helpers |
dataset/domains-hl.yaml |
Domain weights + signature allowlists (scoring config) |
dataset/tasks/ |
Authoritative coverage task JSONL files |
dataset/hian/ |
HiaN case bundles (prompt, ground truth, metadata) |
scripts/run_cov.sh |
Convenience wrapper: runner + evaluator in one call |
scripts/run_hian.sh |
HiaN demo runner + validator wrapper |
frontend/ |
Static leaderboard + trajectory explorer |
Notes
- Results write to
HyperliquidBench/runs/<timestamp>/(gitignored). The Python entrypoint also writes an aggregatedhyperliquid_bench-<mode>-<timestamp>.jsonto--output(default:runs/). - Scored by
_score_from_hyperliquid_bench_jsoninregistry/scores.py. Demo-mode results are intentionally rejected by the publishability gate. - Rust crates must be built before live runs:
cargo build --release -p hl-runner -p hl-evaluator - Live network runs require
HL_PRIVATE_KEYand--no-demo. Default model provider is Cerebras (gpt-oss-120b); OpenRouter is also supported. - Full background: README.md.
⛔ NON-NEGOTIABLE — evidence, trajectories & real end-to-end tests
The binding, repo-wide standard is AGENTS.md. Read it. Nothing in this package is done until it is proven done — a reviewer must confirm it works without reading the code, from the artifacts you attach. This applies to every feature, fix, refactor, and chore here. "Tests pass" is not proof; "CI is green" is not proof.
- Record AND read model trajectories. Capture the actual inputs and outputs of the model
from a live LLM — not the deterministic proxy, not a mock: the prompt, the
providers/context, the raw model output, every tool/action call, and the result. Then open
the trajectory and review it by hand. A captured-but-unread trajectory is not evidence
(
packages/scenario-runner/bin/eliza-scenarios run <scenario> --report <out>). - Real, full-featured E2E — no larp. Every feature ships detailed end-to-end tests that drive the real path end to end. Not the happy "front door" only: cover error paths, edge/empty/invalid input, concurrency, roles/permissions, and adversarial input. A test that asserts against a mock/stub/fixture standing in for the thing under test does not count. If the real model/device/chain/connector/account is hard to reach, make it reachable — that is the work, not an excuse to mock. If the existing tests here are shallow or mocked, fixing them is part of your change.
- Screenshots + logs at every phase, plus a complete walkthrough video/run-through of
the entire feature or view, start to finish (
bun run test:e2e:record). - Manually review every artifact the change touches — never just the green check: client
logs (console + network), server logs (
[ClassName] …), the model trajectories in and out, before/after full-page screenshots, and the domain artifacts listed below for this package. - No residuals. No shortcuts. The goal is not "done" — it is everything done. Clear every blocker by the hard path: build the real architecture, stand up the real model/device/service, actually test it. Never leave a TODO, a stub, a stepping-stone, or a "follow-up." When unsure, research thoroughly, weigh the options, and ship the best, highest-effort, production-ready version. Keep going until every possibility is exhausted.
Artifacts → attached inline in the PR (MP4 video, JPG screenshots, logs in <details>); attach each evidence type or
explicitly mark it N/A with a reason — never leave it blank. If develop moved and changed
behavior, re-capture evidence; stale proof is worse than none.
Capture & manually review for this package — benchmark / eval suite:
- A real-model run (not the mock/smoke fixture) producing the score-report JSON, with the numbers inspected and the provider/model recorded.
- The per-item trajectories the harness captured, spot-reviewed for correctness — a green harness run over mock fixtures is not a result.
- The provider matrix actually exercised, and the scoring math validated against a known case.
- Failure / timeout / partial-output handling in the harness itself.