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autoresearch-arena/bbo_noisy_continuous | # Noisy Continuous Black-Box Optimizer Design
Your task is to design a reproducible, noise-aware optimizer that minimizes 10-dimensional continuous black-box objectives with smooth periodic, multimodal structure. You inherit a weak uniform-random baseline, and every run uses the box `[-5, 5]^10` with a strict budget o... | Design a noise-aware optimizer for multimodal continuous functions under a fixed query budget and a comparable visible/sealed normalized anytime-final metric. | [] | 1.3 | {
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"name": "autoresearch-arena/bbo_noisy_continuous",
"description": "Design a noise-aware optimizer for multimodal continuous functions under a fixed query budget and a comparable visible/sealed normalized anytime-final metric.",
... | {} | [
"environment/Dockerfile",
"environment/bbo_harness.py",
"environment/data/visible.json",
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"task.toml",
"tests/Dockerfile",
"tests/child_optimizer.py",
"tests/grade.py",
"tests/heldout/bbo_harness.py",
"tests/hel... | bbo_noisy_continuous |
autoresearch-arena/bbo_simopt_inventory | # Query-efficient stochastic inventory policy search
Design a reproducible optimizer for four normalized controls of a replenishment policy under stochastic demand and lead times. Minimize simulated operating cost within 48 queries over `[0, 1]^4`. You inherit a uniform-random starter and receive noisy objective feedb... | Design a query-efficient optimizer for a stochastic replenishment policy across varied cost and demand regimes. | [] | 1.3 | {
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"task": {
"name": "autoresearch-arena/bbo_simopt_inventory",
"description": "Design a query-efficient optimizer for a stochastic replenishment policy across varied cost and demand regimes.",
"authors": [
{
"name": "haoting... | {} | [
"environment/Dockerfile",
"environment/bbo_harness.py",
"environment/data/visible.json",
"environment/data/visible_anchors.json",
"environment/methods/main/solver.py",
"environment/public_scoring.py",
"environment/selfcheck.py",
"instruction.md",
"solution/reference_optimizer.py",
"solution/solve.... | bbo_simopt_inventory |
autoresearch-arena/bigann_filtered_vector_search | # Filtered nearest-neighbour search at 10M scale
A photo library holds **10,000,000 images**. Each is a 192-dimensional `uint8` embedding plus a set
of metadata tags (uploader, camera, place, year, and so on). A query arrives as an embedding plus a
**tag predicate**: one or two tags. An image is a valid answer only if... | Build a filtered-ANN index/search solver over the real Big-ANN yfcc-10M library (10M x 192 uint8 vectors, 200,386 tags, 108M tag entries); graded by wall-clock throughput of one batch call at recall@10>=0.90 on a sealed hidden workload. | [] | 1.3 | {
"schema_version": "1.3",
"artifacts": [
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"task": {
"name": "autoresearch-arena/bigann_filtered_vector_search",
"description": "Build a filtered-ANN index/search solver over the real Big-ANN yfcc-10M library (10M x 192 uint8 vectors, 200,386 tags, 108M tag entries); graded by wall-... | {} | [
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"environment/methods/main/ann_utils.py",
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"environment/selfcheck.py",
"environment/visible_ids.npy",
"instruction.md",
"solution/methods/reference/ann_utils.py",
"solution/methods/reference/solver.py",
"solu... | bigann_filtered_vector_search |
autoresearch-arena/citywide_signal_coordination | # City-Wide Signal Coordination
You inherit a full-city traffic microsimulation — a real metropolitan road network with
~600 signalised junctions and a synthetic morning-peak demand — running on its original,
un-optimised static signal timing. Improve the signal control so the whole
city moves better under load, minim... | Coordinate signal timing across a full metropolitan road network (~600 signalised junctions) to minimise a weighted delay/teleport/stop cost under heavy demand; you submit a signal program / online controller, re-run on sealed hidden load and seed settings, lower is better. | [] | 1.3 | {
"schema_version": "1.3",
"artifacts": [
"/app/methods"
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"task": {
"name": "autoresearch-arena/citywide_signal_coordination",
"description": "Coordinate signal timing across a full metropolitan road network (~600 signalised junctions) to minimise a weighted delay/teleport/stop cost under heavy de... | {} | [
"environment/Dockerfile",
"environment/methods/main/controller.py",
"environment/methods/main/tls_info.json",
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"environment/sim/eval_core.py",
"environment/sim/sim_rpc.py",
"instruction.md",
"task.toml",
"tests/Dockerfile",
"tests/anchors... | citywide_signal_coordination |
autoresearch-arena/clevr_cogent_grpo_qwen2vl | # Train Qwen2-VL-2B with GRPO so it generalizes off the training distribution
You inherit a deliberately weak reinforcement-learning (GRPO) training project for the
vision-language model `Qwen2-VL-2B-Instruct`: the starting point in `/app/methods/main/` trains on
the provided counting-VQA split with a trivial reward a... | Train Qwen2-VL-2B-Instruct with GRPO on CLEVR-CoGenT-A so it generalizes to hidden CLEVR-CoGenT-B and SuperCLEVR; graded by mean keyword-matching counting accuracy. | [] | 1.3 | {
"schema_version": "1.3",
"artifacts": [
"/app/submission",
"/app/methods"
],
"task": {
"name": "autoresearch-arena/clevr_cogent_grpo_qwen2vl",
"description": "Train Qwen2-VL-2B-Instruct with GRPO on CLEVR-CoGenT-A so it generalizes to hidden CLEVR-CoGenT-B and SuperCLEVR; graded by mean keywor... | {} | [
"environment/Dockerfile",
"environment/docker-compose.yaml",
"environment/eval_common.py",
"environment/methods/main/README.md",
"environment/methods/main/train.sh",
"environment/prepare_data.py",
"environment/selfcheck.py",
"instruction.md",
"task.toml",
"tests/Dockerfile",
"tests/anchors.json"... | clevr_cogent_grpo_qwen2vl |
autoresearch-arena/cxr_ood_triage_policy | # Chest X-ray triage under cross-site distribution shift
You inherit a radiology triage component from a teammate. A fixed, frozen chest-radiograph classifier already emits per-finding probabilities for every study; the teammate's stop-gap refers a study to a radiologist whenever the largest critical-finding probabili... | Improve a weak chest-X-ray triage policy over frozen classifier scores. You submit triage(cases, resources, seed); a sealed verifier refers the top-risk studies under a fixed shared budget across an in-domain and an unseen site, and scores mean sensitivity minus a Brier (calibration) penalty minus a worst-site gap. Raw... | [] | 1.3 | {
"schema_version": "1.3",
"artifacts": [
"/app/methods"
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"task": {
"name": "autoresearch-arena/cxr_ood_triage_policy",
"description": "Improve a weak chest-X-ray triage policy over frozen classifier scores. You submit triage(cases, resources, seed); a sealed verifier refers the top-risk studies u... | {} | [
"environment/.dockerignore",
"environment/Dockerfile",
"environment/data/calibration.jsonl",
"environment/data/grade.jsonl",
"environment/data/score_schema.yaml",
"environment/methods/main/solver.py",
"environment/selfcheck.py",
"instruction.md",
"solution/methods/README.md",
"solution/methods/ref... | cxr_ood_triage_policy |
autoresearch-arena/device_iv_regime_extrapolation_v1 | # Commit terminal-current numbers for a diode lot beyond the safe test window
You are an AI agent assisting the device engineer who must qualify a new
power-diode lot at a semiconductor supplier. The probe station covers only a safe
bias/temperature window — 290–325 K, reverse bias to −3.6 V — but the
qualification si... | Power-device qualification sign-off: submit a prediction method that turns safe-window I-V/temperature measurements of a diode lot into terminal-current commitments at mission-profile extremes (high temperature, deep reverse bias); a sealed evaluation re-runs it on an unseen lot drawn from the same population as the pr... | [] | 1.3 | {
"schema_version": "1.3",
"artifacts": [
"/app/methods"
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"task": {
"name": "autoresearch-arena/device_iv_regime_extrapolation_v1",
"description": "Power-device qualification sign-off: submit a prediction method that turns safe-window I-V/temperature measurements of a diode lot into terminal-curre... | {} | [
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"environment/Dockerfile",
"environment/data/practice/DATA_CARD.md",
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"environment/data/qualification/records.json",
"environment/examples/devsim_diode_demo.py",
"environment/methods/main/solver.py",
"environment/run_solver.py",
... | device_iv_regime_extrapolation |
autoresearch-arena/discoveryworld_agent_harness_low2 | # Improve a Scientific Discovery Agent
You inherit a weak but working ReAct harness that drives a fixed language model
through open-ended scientific discovery scenarios in a simulated world. Improve
its reasoning, experimentation, memory, action selection, and the explanatory
conclusions it states; the submitted harne... | Improve a ReAct harness over a fixed language model on low-baseline Space Sick and Chemistry Challenge tasks. | [] | 1.3 | {
"schema_version": "1.3",
"artifacts": [
"/app/methods"
],
"task": {
"name": "autoresearch-arena/discoveryworld_agent_harness_low2",
"description": "Improve a ReAct harness over a fixed language model on low-baseline Space Sick and Chemistry Challenge tasks.",
"authors": [
{
"name... | {} | [
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"environment/knowledge_eval.py",
"environment/methods/main/agent.py",
"environment/runner.py",
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"instruction.md",
"solution/methods/sota/agent.py",
"solution/solve.sh",
"task.toml",
"tests/Dockerfile",
"tests/anchors.json",
"tests/grade.py",... | discoveryworld_agent_harness_low2 |
autoresearch-arena/eda_gate_sizing | # Optimize logic gate sizing under timing and design-rule penalties
## Background
A chip is built from millions of tiny logic gates, and the same gate comes in several sizes that
do the identical job. A bigger one switches faster, but burns more power and is heavier for the
gate feeding it to push. Picking a size for... | Choose a library cell per instance to minimize power under timing/DRV constraints on placed netlists (CircuitOps IR tables); submit an algorithm, graded on sealed hidden designs, lower is better. | [] | 1.3 | {
"schema_version": "1.3",
"artifacts": [
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"task": {
"name": "autoresearch-arena/eda_gate_sizing",
"description": "Choose a library cell per instance to minimize power under timing/DRV constraints on placed netlists (CircuitOps IR tables); submit an algorithm, graded on sealed hidde... | {} | [
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"environment/eval/OpenROAD_helper.py",
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"environment/eval/evaluate_case.py",
"environment/eval/evaluation.py",
"environment/methods/main/solver.py",
"environment/prepare_data.py",
"environment/self... | eda_gate_sizing |
autoresearch-arena/feeder_phase_impedance_inversion_v1 | # Repair a feeder's phase and impedance records from smart-meter archives
You are an AI agent assisting a distribution planning engineer at a mid-size
utility with a solar interconnection queue. Before any hosting-capacity or voltage-drop
study can be signed off, the feeder model has to be calibrated: the GIS
says whi... | Distribution-feeder model calibration before hosting-capacity studies: submit a method that jointly repairs per-customer phase labels, per-segment conductor impedances and the regulator tap from magnitude-only AMI archives plus head SCADA; a sealed evaluation re-runs it on a larger fleet of unseen feeders drawn from th... | [] | 1.3 | {
"schema_version": "1.3",
"artifacts": [
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"task": {
"name": "autoresearch-arena/feeder_phase_impedance_inversion_v1",
"description": "Distribution-feeder model calibration before hosting-capacity studies: submit a method that jointly repairs per-customer phase labels, per-segment c... | {} | [
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"environment/Dockerfile",
"environment/data/assessment/records.json",
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"environment/methods/main/dss_forward.py",
"environment/methods/main/solver.py",
"environment/run_solver.py",
"envi... | feeder_phase_impedance_inversion |
autoresearch-arena/finscope_dcf_valuation | # FinScope coverage desk — forward value-driver model
You have inherited a buy-side equity-research desk's **intrinsic-value model**. The desk
values companies with a fixed, trusted discounted-cash-flow (DCF) engine that turns a set of
**forward value-drivers** into a per-share value; the open problem is **forecasting... | Forecast forward value-drivers for a coverage universe from a messy fundamentals panel; graded by median absolute DCF valuation error on a sealed held-out tier. | [] | 1.3 | {
"schema_version": "1.3",
"artifacts": [
"/app/methods"
],
"task": {
"name": "autoresearch-arena/finscope_dcf_valuation",
"description": "Forecast forward value-drivers for a coverage universe from a messy fundamentals panel; graded by median absolute DCF valuation error on a sealed held-out tier."... | {} | [
"environment/.dockerignore",
"environment/Dockerfile",
"environment/README.md",
"environment/TODO.md",
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"environment/data/coverage.csv",
"environment/data/data_dictionary.md",
"environment/data/fundamentals.csv",
"environment/fit_calibration.py",
"environme... | finscope_dcf_valuation |
autoresearch-arena/flashattention_varlen_feature_full_vjp_speedup | # Noncausal Global Extreme-GQA Ragged Attention Full VJP
Optimize an inherited eager implementation of packed ragged GQA
cross-attention with extreme query-head sharing, bidirectionally unequal Q/K
lengths, per-sequence ALiBi, softcapping, non-dense packed views, and complete
Q/K/V vector-Jacobian products. Maximize r... | Optimize six preregistered D160 noncausal-global ragged attention strata per panel with 48–96:1 GQA, ALiBi, softcap, non-dense packed views, and complete Q/K/V VJP. | [] | 1.3 | {
"schema_version": "1.3",
"artifacts": [
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"task": {
"name": "autoresearch-arena/flashattention_varlen_feature_full_vjp_speedup",
"description": "Optimize six preregistered D160 noncausal-global ragged attention strata per panel with 48–96:1 GQA, ALiBi, softcap, non-dense packed vie... | {} | [
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"environment/Dockerfile",
"environment/docker-compose.yaml",
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"environment/methods/main/solver.py",
"environment/methods/versions/v0/solver.py",
"environment/problems/visible_baseline_manifest.json",
"environment/problems/visible_cas... | flashattention_varlen_feature_full_vjp_speedup |
autoresearch-arena/flashfftconv_multistream_gated_forward_speedup | # Multi-stream Gated FlashFFTConv Forward
Optimize multiple independent gated causal convolutions across the published long-convolution range. The final implementation is re-run on sealed stream counts, shapes, gate distributions, kernel scales, lengths, and seeds.
## Hard Constraints
- Edit only `/app/methods/main/... | Optimize independent multi-stream gated causal convolutions in the published FP16 D=768, length-2048 regime across multiple batch/stream/head factorizations on NVIDIA H100. | [] | 1.3 | {
"schema_version": "1.3",
"artifacts": [
"/app/methods"
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"task": {
"name": "autoresearch-arena/flashfftconv_multistream_gated_forward_speedup",
"description": "Optimize independent multi-stream gated causal convolutions in the published FP16 D=768, length-2048 regime across multiple batch/stream/... | {} | [
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"environment/problems/visible_cases.json",
"environment/protocol.py",
"environment/selfcheck.py",
"enviro... | flashfftconv_multistream_gated_forward_speedup |
autoresearch-arena/game2048_policy_search | # 2048 Strategy
You inherit a weak Python policy that plays deterministic seeded 2048 games. Improve
the policy using repeated experiments on the public seed suite; your submitted policy
is replayed from scratch on sealed seeds from the same generator for scoring.
## Hard Constraints
- Edit `methods/main/policy.py`;... | Improve a Python policy for seeded 2048 games, using public games for feedback and sealed same-distribution seeds for final scoring. | [] | 1.3 | {
"schema_version": "1.3",
"artifacts": [
"/app/methods"
],
"task": {
"name": "autoresearch-arena/game2048_policy_search",
"description": "Improve a Python policy for seeded 2048 games, using public games for feedback and sealed same-distribution seeds for final scoring.",
"authors": [
{
... | {} | [
"environment/.dockerignore",
"environment/Dockerfile",
"environment/docker-compose.yaml",
"environment/evaluate.py",
"environment/game2048.py",
"environment/methods/main/policy.py",
"environment/selfcheck.py",
"environment/visible_seeds.json",
"instruction.md",
"task.toml",
"tests/.dockerignore"... | game2048_policy_search |
autoresearch-arena/johnson1991_leighton_graph_coloring | # Drive coloring conflicts to zero at a fixed color budget
You inherit a TabuCol graph-coloring baseline. For every graph you are given a **fixed
color budget** `target_k`. Assign each vertex a color in `{0, 1, ..., target_k-1}` so as
to **minimize the number of monochromatic edges** (edges whose two endpoints share a... | Minimize coloring conflicts at a fixed color budget on real, hard DIMACS/COLOR02 graphs (Leighton le450, Johnson DSJC, DSJR; n=450..1000). target_k is each graph's PUBLISHED best-known chromatic number, so a proper 0-conflict coloring provably exists but sits at the coloring frontier. The verifier reruns solve(data) on... | [] | 1.3 | {
"schema_version": "1.3",
"artifacts": [
"/app/methods"
],
"task": {
"name": "autoresearch-arena/johnson1991_leighton_graph_coloring",
"description": "Minimize coloring conflicts at a fixed color budget on real, hard DIMACS/COLOR02 graphs (Leighton le450, Johnson DSJC, DSJR; n=450..1000). target_k ... | {} | [
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"tests/Dockerfile",
"tests/child_solve.py",
"tests/grade.py",
"tests/heldout/hidden_anchors.json",
"... | johnson1991_leighton_graph_coloring |
autoresearch-arena/lean_formal_proof_workflow_design | # Design a verifier-guided Lean 4 proof workflow
You inherit a small compiler-guided proof workflow over a pinned language model. Improve the workflow in `/app/methods/main/` so it completes canonical Lean 4 theorem statements reliably under a tight inference and compiler-feedback budget. The verifier copies your fina... | Design one verifier-guided workflow that proves fixed formal theorem statements with a pinned language model under per-problem inference, compiler-check, and wall-clock budgets. | [] | 1.3 | {
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"artifacts": [
"/app/methods"
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"name": "autoresearch-arena/lean_formal_proof_workflow_design",
"description": "Design one verifier-guided workflow that proves fixed formal theorem statements with a pinned language model under per-problem inference, compiler-che... | {} | [
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"environment/methods/main/solver.py",
"environment/model_proxy.py",
"envir... | lean_formal_proof_workflow_design |
Benchmarking Recursive Self-Improvement through Executable Research
Can frontier AI agents achieve Recursive Self-Improvement by turning a weak method into one that performs better on hidden data?
Overview
RSI-Exam is a benchmark of 88 executable research tasks for evaluating whether frontier AI agents can achieve recursive self-improvement. Instead of measuring one-shot problem solving, each task hands the agent a working but weak method and lets it run its own experiments for up to 12 hours against a visible split.
Whatever it submits is then replayed once, from scratch, on a sealed split it never touched, and that single number is the score. An improvement that does not transfer earns nothing. We publicly release 35 tasks with their full grading containers.
Task Taxonomy
The full benchmark holds 88 active tasks across six domains.
This repository holds the 35 public tasks. The other 53 are held back.
| Domain | What it covers | Public | Private | Total |
|---|---|---|---|---|
| AI Models & Agents | Agent harnesses, LLM memory, post-training and sampler recipes, offline RL | 8 | 10 | 18 |
| Systems & Hardware | GPU and TPU kernels, EDA placement, vector search, QEC decoders | 9 | 4 | 13 |
| Physical Sciences & Engineering | Inference and extrapolation from measurement data, control policies, physical design | 4 | 15 | 19 |
| Optimization, Planning & Control | Routing, scheduling, cutting and black-box search under a hard budget | 6 | 12 | 18 |
| Life Sciences & Medicine | Single-cell genomics, molecular structure, clinical policy under shift | 5 | 7 | 12 |
| Finance, Law & Business | Valuation, alpha factors, long-horizon professional casework | 3 | 5 | 8 |
| Total | 35 | 53 | 88 |
Task Structure & Evaluation
<task>/
task.toml metric, timeouts, network policy, artifact declarations
instruction.md the brief the agent is given
environment/ the agent's container: starting method, visible data, tools
tests/ the grading container: grade.py, anchors, the sealed split
solution/ frontier-calibrated reference (where one exists)
environment/ and tests/ build into two separate images, and that split is the
sealed boundary. The agent edits, measures and repeats inside its own container; the
only thing that ever crosses is the artifact it submits. A fresh container then reruns
that artifact against hidden data with a fixed verifier, and the number it returns is
the score.
Leaderboard
Mean hidden-set score. Every task is normalised the same way: a shipped baseline scores 0, 0.6 is a frontier-calibrated reference, and a proven upper bound scores 1. No agent reaches the reference.
Public 35 and private 53 splits
Score against what it costs to get there:
Running a task
Setup, dependencies and harness configuration are documented at github.com/aiming-lab/RSI-Exam.
Links
- Website and leaderboard: rsi-exam.ai
- Code and runbooks: github.com/aiming-lab/RSI-Exam
- Task pages: rsi-exam.ai/tasks.html, where every task has its own page with the metric, the anchors and the trajectories of nine models
- Community: Discord · WeChat group
Contact
To be evaluated on the full 88-task suite, write to contact@rsi-exam.ai.
For everything else — questions, feedback, contributions — join us on Discord or in the WeChat group.
Full details, timelines and the contribution form are at rsi-exam.ai/contribute.html.
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