Direct Solver baseline_llm
One model receives the problem and produces a final answer. This is the cheapest reference point for the four-protocol end-to-end routing comparison. DHD's controlled K=0 replay is a separate condition.
Open, schema-stable resources for studying how AI agents collaborate on scientific problems — from protocol choice and cost to critique uptake, trajectory value, and agent attribution.
Most agent benchmarks report only a final score, which throws away what a system designer actually needs: which collaboration protocol to run, at what cost, and whether the collaboration was worth it. AgentsSci releases resources built around a matched design — the same problem solved under multiple collaboration protocols — so these become measurable, trainable quantities.
The private review release provides traces for all five protocols across five benchmark slices and both Gemma 4 31B and GPT-OSS 120B. The first four are matched end-to-end protocol conditions; DHD is a message-intervention design with cached hypotheses and controlled replays.
A trace-complete 5 protocols × 5 benchmark slices × 2 actor models candidate, including Gemma 4 and GPT-OSS DHD traces, hypotheses, interventions, and compressed raw shards.
Open the private review release →Requires logged-in access. Public dataset visibility still awaits institutional approval.
A public, same-page guide to the five released protocol designs, with stable protocol IDs and direct private release links for logged-in HF members.
Jump to protocol designs →Use compact label files first for correctness, cost, and trajectory value; open raw traces only when you need the full multi-agent conversation.
New scientific domains (GPQA, ScienceAgentBench, DiscoveryWorld) and model families (Gemma-4, Llama, …) — added as new rows under the same schema.
All 50 trace cells exist in the private review revision. Choose one cell to open its partition; for DHD, the raw link includes both Layer-A hypotheses and leave-one-out replay shards.
Five benchmark cells are present with trajectory, hypothesis,
intervention, interventional-credit, Layer-A, and LOO artifacts.
Runs retain compute_site=crux and
inference_backend=metis.
The same five benchmark cells and artifact types are present for GPT-OSS 120B, preserving the same normalized partition layout.
Start with GPT-OSS × Omni-MATH-2 × DHD →These public summaries explain what each released protocol is designed to measure. Each card uses the stable protocol ID from the registry and links to a corresponding private Hugging Face example for logged-in org members.
One model receives the problem and produces a final answer. This is the cheapest reference point for the four-protocol end-to-end routing comparison. DHD's controlled K=0 replay is a separate condition.
A single agent solves, evaluates its own answer, and revises within the same protocol boundary. It tests whether extra thinking by the same agent improves reliability without adding a separate collaborator.
A hierarchy of specialized roles divides planning, solution execution, and review. This separates decomposition from answer production and makes critique events inspectable.
Multiple agents deliberate in a shared broadcast context before the final answer is judged. It is the higher-cost collaborative condition in the core four-protocol routing analysis.
The AAAI paper names the fifth protocol Diverse Hypothesis Deliberation (DHD). A recruiter creates five diverse solver roles, each hypothesizer independently proposes a structured hypothesis, and an integrator synthesizes a final answer from controlled hypothesis pools.
The authoritative IDs live in registry/protocols.parquet, with label semantics in docs/label_card.md and cost limits in measurement_coverage.md.
Dataset sizes below are the evaluated text-only or filtered problem counts used in this release, not necessarily the full upstream benchmark. Classic and DHD counts are shown separately when their publication scopes are not identical.
| Dataset | Domain | Comparison size | Source and protocol scope | Original source |
|---|---|---|---|---|
| Omni-MATH-2 | competition math | 4,181 classic / 4,181 DHD | 4,181-problem filtered competition-math slice | Omni-MATH-2 HF / Omni-MATH HF |
| JEEBench | physics, chemistry, math | 515 classic / 515 DHD | all 515 public source problems | JEEBench GitHub |
| SciBench | college science | 574 classic / 580 DHD | 574 classic text-only problems; DHD retains 580 source records and marks the exact 574-row comparison subset | SciBench GitHub / SciBench HF |
| LAB-Bench | biology protocols and QA | 741 classic / 741 DHD | LLM-strict: CloningScenarios 33, ProtocolQA 108, SeqQA 600; FigQA and TableQA excluded | LAB-Bench HF / LAB-Bench GitHub |
| MaScQA | materials science | 642 classic / 649 DHD | 642 canonical classic text-only problems; broader DHD source scope has 649 | MaScQA GitHub |
Counts come from the private dataset coverage registry. LAB-Bench uses the 741-problem LLM-strict slice for AAAI DHD results; its broader 1,542-row text-no-tool stress test remains a separate classic-protocol slice.
FinalPassRate (%) across five protocols, five exact benchmark slices, and both actor models; the evaluator is fixed to GPT-OSS 120B. The four classic protocols are matched end-to-end runs. DHD adds the final outcome from its five-hypothesis committee (K=5).
| Dataset / slice | Actor | N | Baseline | Single | PER | Broadcast | DHD K=5 | B − PER |
|---|---|---|---|---|---|---|---|---|
| Omni-MATH-2competition_math_4181 | Gemma 4 31B | 4,181 | 69.4% | 85.9% | 90.6% | 93.0% | 77.5%†labels 4,048 / 4,181 | 2.3 ↑ |
| GPT-OSS 120B | 4,181 | 56.8% | 78.8% | 85.2% | 89.2% | 78.3%labels 4,181 / 4,181 | 4.0 ↑ | |
| JEEBenchtext_only | Gemma 4 31B | 515 | 70.5% | 81.4% | 95.9% | 98.3% | 89.1%†labels 512 / 515 | 2.3 ↑ |
| GPT-OSS 120B | 515 | 41.6% | 55.3% | 91.5% | 95.0% | 86.0%labels 515 / 515 | 3.5 ↑ | |
| SciBenchtext_only · exact 574 | Gemma 4 31B | 574 | 70.6% | 79.4% | 91.3% | 87.8% | 73.9%labels 574 / 574 | −3.5 ↓ |
| GPT-OSS 120B | 574 | 62.4% | 72.3% | 87.5% | 89.7% | 79.6%labels 574 / 574 | 2.3 ↑ | |
| LAB-Benchllm_strict | Gemma 4 31B | 741 | 44.4% | 58.2% | 69.4% | 89.3% | 68.5%†labels 667 / 741 | 20.0 ↑ |
| GPT-OSS 120B | 741 | 19.0% | 30.2% | 47.6% | 74.2% | 39.8%labels 741 / 741 | 26.6 ↑ | |
| MaScQAtext_only · exact 642 | Gemma 4 31B | 642 | 94.4% | 97.7% | 99.4% | 98.6% | 93.9%labels 642 / 642 | −0.8 ≈ |
| GPT-OSS 120B | 642 | 80.8% | 91.4% | 95.8% | 97.5% | 91.4%labels 642 / 642 | 1.7 ↑ |
Reading the DHD column. Every DHD cell has all comparison traces. Its denominator is the number of observed final-correctness labels shown inside the cell. † The Gemma DHD source retains 210 explicit null outcomes: 133 Omni-MATH-2, 3 JEEBench, and 74 LAB-Bench; they are not silently counted as incorrect. Because this missingness may be non-random, Gemma DHD accuracy is descriptive over observed labels. All 50 protocol × benchmark × model trace cells are present. SciBench and MaScQA use the exact 574/642 comparison subsets, not their broader 580/649 retained DHD source views.
Broadcast versus PER. B − PER is the Broadcast minus PER accuracy difference in percentage points. Paired bootstrap 95% confidence intervals determine the marker: ↑ Broadcast > PER, ↓ PER > Broadcast, and ≈ tie.
Scope. DHD is an additional
hypothesis-and-intervention condition, not a claim of identical runtime
measurement support. Its token, request, and comparable per-problem
elapsed fields remain unavailable. Values are generated from
comparison_eligible=true trajectories in the validated
five-protocol release; see the partitioned trajectory table
and DHD measurement coverage.
Using the oracle cheapest-successful protocol — the cheapest protocol that actually solves each problem — "when collaboration pays" is strongly domain-dependent:
| Cheapest successful protocol | Mathematics | Science |
|---|---|---|
| Baseline / single-agent (cheap) | 79.8% | 57.7% |
| Collaboration (Hierarchical PER + Broadcast) | 12.9% | 28.6% |
| No protocol solved it | 7.3% | 13.6% |
Collaboration is the cheapest successful choice 2.2× more often in science than in math — a contrast invisible to accuracy alone, and stable across two actor families. A preprint will be linked here. arXiv: (to be added).
AgentsSci connects a public trace resource with studies of protocol choice, critique uptake, trajectory value, and credit assignment. The projects use matched runs to separate whether an agent detects an error from whether the collaboration actually acts on that signal.
| Project | Question | Status / venue | Role in the portfolio |
|---|---|---|---|
| SciMAS-Traces | Can matched protocol traces make collaboration measurable instead of anecdotal? | AIMS @ COLM 2026 preview; AgenticAI4HPC @ SC26 dataset-release; NeurIPS D&B 2027 roadmap | Resource backbone: datasets, documentation, schemas, and reproducibility artifacts. |
| Cost-Aware Protocol Routing | Can a model predict when it may fail, and when expensive collaboration is worth the cost? | EMNLP 2026 / ARR submitted | Routing and cost-value study over matched protocol outcomes. |
| Precise but Uncoupled | Why can a reviewer identify errors precisely without improving the answer the protocol carries forward? | Under review at NeurIPS 2026 · arXiv 2607.15388 | Separates reviewer precision from critique uptake and repair on 4,181 matched Omni-MATH problems, including targeted acknowledgment and context interventions. |
| Wrong but Useful | Can a locally wrong reasoning signal still improve the final answer? | AAAI measurement paper | Introduces Diverse Hypothesis Deliberation (DHD) and trajectory value. |
| Learning When Agents Should Listen | Can predicted correctness and predicted trajectory value improve downstream integration? | ICLR-style companion project | Intervention paper: exposes signal metadata to agents and tests whether accuracy improves. |
| Confidence Routing Audit | What does confidence-routed deliberation actually control? | AAAI-27 planned resubmission | Audit of routing, calibration, commitment, and poll-to-speak behavior. |
| Who Gets the Reward & Who Gets the Blame? | Which agents or messages deserve credit or blame for the final outcome? | NeurIPS 2025 LAW Workshop; arXiv 2511.10687 | Attribution and evaluation-aligned training signals for multi-agent traces. |
| Research layer | Projects | What it adds |
|---|---|---|
| Resource | SciMAS-Traces | Matched traces, labels, schemas, source links, and public protocol documentation. |
| Decision | Cost-Aware Protocol Routing · Confidence Routing Audit | When to escalate, how confidence behaves, and whether routing signals are trustworthy. |
| Mechanism | Precise but Uncoupled · Wrong but Useful | Whether feedback is acted on, and whether correctness is distinct from downstream value. |
| Learning | Learning When Agents Should Listen · Reward & Blame | How trace labels can become training, listening, and attribution signals. |
Chih-Hsuan (Bella) Yang · Argonne National Laboratory
Email: bellayang@anl.gov
LinkedIn: linkedin.com/in/chih-hsuan-yang-isu