AIPOCH Open-Science Benchmarks

Explore AIPOCH Open-Science’s results across scientific benchmarks, with evaluation methods, configurations, and supporting evidence.

How to read these results · 19 October 2026
Every AIPOCH score on this page comes from our own local evaluation runs. The "rank" in each chart orders the listed records by score; it is not an official leaderboard placement. On AstaBench our runs use the validation split, while most public entries use the test split, so cross-split gaps are indicative only. On ASI-Bench our primary comparison is Codex run locally with the same model on the same tasks; public leaderboard entries are shown for context.
100%
LitQA2-FullText-Search
+20.0 over best public val. 80.0
0.4554
PaperFinding
+0.069 over best public val. 0.3862
79.35
ASI-Bench B1 · full protocol
+4.57 over Codex 74.78
56.11
ASI-Bench B2 · methods only
+0.02 over Codex 56.09
59.67
ASI-Bench B3 · autonomous
+1.55 over Codex 58.12
59.46
ASI-Bench B4 · with distractors
+4.01 over Codex 55.45

Benchmarks for agentic scientific research

AIPOCH Open-Science has completed six tests on two scientific-agent benchmarks. Together they cover the main stages of research work: locating the papers a question depends on, assembling a complete literature set, executing a given research protocol, choosing methods autonomously, and staying on course when the task description is padded with irrelevant information.

On every one of the six tests, Open-Science posts the highest score among the records we compiled. Each test below is described in terms of what it measures, how we ran it, and what the number does and does not mean, followed by every comparison record in full. Separate submissions from the same system are kept as separate rows.1

Six tests at a glance
what each test asks of the agent
TestCapabilityOpen-ScienceMain comparison
LitQA2-FullText-SearchFind the paper that answers a research question100% (10/10)Best public validation 80%; best public test 90.67%
PaperFindingRetrieve an accurate, complete set of papers for a request0.4554 (66 q.)Best public validation 0.3862; best public test 0.4403
ASI-Bench B1Execute a complete, given research protocol79.35Local Codex 74.78 (+4.57)
ASI-Bench B2Turn specified methods into a working pipeline56.11Local Codex 56.09 (+0.02, near parity)
ASI-Bench B3Choose and run research methods autonomously59.67Local Codex 58.12 (+1.55)
ASI-Bench B4Research autonomously despite distracting information59.46Local Codex 55.45 (+4.01)
Figure 1.The six tests, the capability each targets, and the comparison we treat as primary.

AstaBench: literature search

AstaBench, from Ai2, spans literature understanding, code execution, data analysis and scientific discovery across 11 sub-benchmarks and more than 2,400 samples. We ran its two literature-retrieval tasks, which test whether an agent can find the work a research question depends on.

LitQA2-FullText-Search

The agent receives a research question and must find the paper that contains the answer. A question counts as solved when the target paper appears among the top 30 results returned, so the metric, recall@30, measures how well the agent locates literature. We used the 10-question validation split and repeated the run three times locally; each question is an open retrieval request, not a choice among ten papers.

Open-Science finds the target paper for all 10 questions (100%), the highest value among the 30 records below. That is 20 points above the best public result on the same validation split (80%), and about 9.3 points above the best public test-split result (90.67%), although the latter compares different question sets. A perfect recall@30 means every target paper was found; it does not mean every scientific question was answered correctly.

LitQA2-FullText-Search
recall@30, % of questions whose target paper is returned in the top 30
AIPOCH Open-ScienceAstaReActSmolagents Coderother agents
Figure 2.Open-Science and every listed LitQA2-FullText-Search record: one local validation result, three public validation results and 26 public test results. Rows tagged val use the 10-question validation split; untagged rows use the 75-question test split.

PaperFinding

PaperFinding asks for a set of papers that satisfies a request: a research topic, clues pointing to a specific paper, or metadata such as author and year. The score combines the precision and coverage of the returned set, which makes it closer to real literature gathering than single-paper lookup. We ran the 66-question validation split: 48 semantic, 10 specific-paper and 8 metadata queries. The public records below use a separate 267-question test split.

Open-Science scores 0.4554 out of 1. That is about 0.069 above the best public validation result we compiled (0.3862) and 0.015 above the top public test record, RoboPhD (2) at 0.4403. Because the validation and test splits contain different questions, the second gap should not be read as a same-split lead.

PaperFinding
combined precision and coverage score, 0 to 1
AIPOCH Open-ScienceRoboPhDAstaReActSmolagents Coderother agents
Figure 3.Open-Science's local validation result and all 33 public test records. Different submissions from the same system are kept as separate rows; hover a bar for models and submission date.

Broken down by query type, specific-paper and metadata queries are already strong. Semantic queries, which make up most of the split, are where the most headroom remains.

PaperFinding by query type
Open-Science score per query type, validation split, 66 questions
.3308
Semantic
48 questions · 0.3308

Understands a research topic and finds papers whose content matches it.

.8286
Specific paper
10 questions · 0.8286

Pins down one particular paper from the clues given.

.7359
Metadata
8 questions · 0.7359

Finds papers by author, year and other bibliographic fields.

Figure 4.Score by query type. Ring fill is the score out of 1.
AstaBench: the whole field
each dot is one record; each row has its own scale
AIPOCH Open-ScienceAstaReActSmolagents CoderRoboPhDother agentsvalidation split
LitQA2recall@30, %
100.030 records
PaperFindingscore, 0–1
0.455434 records
Figure 5.Where Open-Science sits in each AstaBench field. Every dot is one listed record; open dots use the validation split, filled dots the test split. Hover a dot for details.

ASI-Bench: research execution

ASI-Bench contains 60 project-level research tasks across 11 disciplines. Each task is a small research project: the agent has to process data, write and run code, and deliver results that can be checked. Levels B1 to B4 keep the same task and progressively withdraw guidance, so the gap between levels shows how much an agent depends on being told what to do.

All ASI-Bench scores are task-quality scores out of 100, not the share of tasks fully correct. Our runs use the locally available task set while the public leaderboard uses the official one, so our primary comparison is Codex run locally with the same model (GPT-6 Astra), with public leaderboard records as secondary context.

Four levels of guidance
what the task statement gives the agent at each level
B1
Full protocol
  • Background & goal
  • Specified method
  • Formulas & full steps
79.35Open-Science score
B2
Methods only
  • Background & goal
  • Specified method
  • Formulas & full steps
56.11Open-Science score
B3
Autonomous
  • Goal, data & constraints
  • Specified method
  • Formulas & full steps
59.67Open-Science score
B4
With distractors
  • Goal, data & constraints
  • Specified method
  • Irrelevant but true facts
59.46Open-Science score
Figure 6.The ASI-Bench guidance levels. Blue squares are given, open squares are withheld, orange squares are distractors added. Scores are Open-Science's.
ASI-Bench by guidance level
task-quality score out of 100
AIPOCH Open-Science · GPT-6 AstraCodex · GPT-6 Astra (local)best public record
B1Full protocol
79.35
+4.57 vs Codex
B2Methods only
56.11
+0.02 vs Codex
B3Autonomous
59.67
+1.55 vs Codex
B4With distractors
59.46
+4.01 vs Codex
Figure 7.Open-Science, Codex run locally with the same model, and the best public leaderboard record at each level. Numbers to the right are Open-Science's lead over local Codex.
ASI-Bench: the whole field
task-quality score out of 100; each dot is one record
AIPOCH Open-ScienceCodexClaude Codeother agentslocal Codex · GPT-6 Astra
B1Full protocol
79.3524 records
B2Methods only
56.1123 records
B3Autonomous
59.6723 records
B4With distractors
59.4623 records
Figure 8.The full ASI-Bench field at each level. Every dot is one record; the dashed line marks local Codex with GPT-6 Astra. Hover a dot for details.

B1: execute a complete protocol

The task gives the research background, the specified method, the formulas and every step. The agent has to implement the protocol as a running program, compute the results and deliver them. B1 asks whether an agent can actually do the work once the route is fully mapped out. We ran three local repetitions; the reported score covers 59 scored tasks, since one of the 60 standard tasks was excluded after a grader fault.

Open-Science with GPT-6 Astra scores 79.35, 4.57 above Codex with the same model (74.78) and 7.06 above the best public record (Claude Code with Claude Opus 5, 72.29). A second Open-Science run with DeepSeek v4-flash scores 69.64 and is kept in the chart.

ASI-Bench B1
execute a complete, given protocol · score out of 100
AIPOCH Open-ScienceCodexClaude Codeother agents
Figure 9.All 24 B1 records. Repeated records for the same system and model are labelled record 1 and record 2.

B2: organise specified methods into a pipeline

The methods and constraints stay in the task, but the step-by-step plan is removed. The agent decides what to do first, how the methods connect and which implementation details to fill in, and must end with a pipeline that runs. We ran three local repetitions; the number of scored tasks was not recorded separately for this level.

Open-Science scores 56.11 against 56.09 for local Codex, effectively parity. Both sit well above the best public record, Codex with GPT-5.6 Sol at 49.57.

ASI-Bench B2
organise specified methods into a pipeline · score out of 100
AIPOCH Open-ScienceCodexClaude Codeother agents
Figure 10.All 23 B2 records.

B3: choose the research method

Only the research goal, input data, constraints and deliverables remain; no method is specified. The agent must select an appropriate approach, design the workflow, run the analysis and validate the results. Open-Science and local Codex each completed three runs over all 60 tasks, and both scores are three-run means.

Open-Science scores 59.67, 1.55 above local Codex (58.12) and 8.07 above the best public record (51.60). It is also higher than our own B2 score: without being told the method, the agent did slightly better than when handed one.

ASI-Bench B3
choose and run methods autonomously · score out of 100
AIPOCH Open-ScienceCodexClaude Codeother agents
Figure 11.All 23 B3 records.

B4: autonomous research with distractors

B4 takes the B3 task and adds information that is factually correct but not needed to complete it. The agent must pick out what matters and keep the extra background from pulling the research off course. As in B3, both agents completed three runs over 60 tasks and we report the means.

Open-Science scores 59.46, 4.01 above local Codex (55.45) and 9.05 above the best public record (50.41).

ASI-Bench B4
autonomous research with distractors · score out of 100
AIPOCH Open-ScienceCodexClaude Codeother agents
Figure 12.All 23 B4 records.

Adding distractors cost Open-Science 0.21 points on average (59.67 to 59.46), against 2.67 points for local Codex (58.12 to 55.45). Across the field, most entries move by a few points in either direction. A near-flat mean says the two levels behave alike on average in this run; it does not mean that no individual task was affected.

Effect of distractors, B3 → B4
score out of 100; change on the right
B3 autonomousB4 with distractorsAIPOCH Open-Science
Figure 13.B3 to B4 for every entry that appears at both levels, ordered by B4 score. Open circles are B3, filled circles B4; the right column is the change.

How we ran the evaluation

Each benchmark runs with its own tasks, grader and metric, and we report each in that metric rather than converting to a common scale. AIPOCH runs were repeated where noted and the reported value is the stated mean or result; the table below lists the exact scope of each run.

TestModelSplit / scopeRunsMetric
LitQA2-FullText-SearchDeepSeek v4-flashValidation, 10 questions3 localrecall@30
PaperFindingDeepSeek v4-flashValidation, 66 questions (48 / 10 / 8)LocalCombined score, 0–1
ASI-Bench B1GPT-6 Astra59 of 60 tasks scored3 localTask quality, 0–100
ASI-Bench B2GPT-6 AstraLocal task set3 localTask quality, 0–100
ASI-Bench B3GPT-6 Astra60 tasks per run3 local, meanTask quality, 0–100
ASI-Bench B4GPT-6 Astra60 tasks per run3 local, meanTask quality, 0–100
Figure 14.Scope of every AIPOCH run reported on this page. Local Codex baselines on ASI-Bench B1–B4 used the same model and task set.

What the results say

Literature retrieval. Open-Science reliably locates a target paper and performs strongly on specific-paper and metadata lookups. Semantic topic search, the largest share of PaperFinding, is the clearest area for improvement.

Research execution. The lead is largest where the work is most concrete (B1, +4.57) and where the task is most cluttered (B4, +4.01). On B2 the two harnesses are level, which tells us that turning a list of methods into a working pipeline is where our harness adds least today.

Same model, different harness. On ASI-Bench, Open-Science and Codex ran the same model on the same tasks, so the gap between them reflects the harness rather than the model.

Availability

Open-Science is AIPOCH's open-source harness for scientific research: model-agnostic, auditable and yours to run. Install the desktop app, read the documentation, or browse the source on GitHub. Medical research skills for the agent are available in the Skills Hub, and every skill can be audited before deployment with MedSkillAudit.

Notes

  1. All AIPOCH Open-Science scores are local test results compiled on 19 October 2026. The order of rows in each chart follows the listed scores and is not an official leaderboard ranking. Comparison records are reproduced as compiled in our internal summary, including separate submissions from the same system.
  2. AstaBench: AIPOCH runs use the validation splits (LitQA2-FullText-Search, 10 questions; PaperFinding, 66 questions). Most public records use the test splits (75 and 267 questions). Differences across splits are for reference only. Best public validation results cited: LitQA2-FullText-Search 0.80 (Asta Paper Finder); PaperFinding 0.3862.
  3. ASI-Bench: AIPOCH and the local Codex baseline use the locally available task set; public leaderboard records use the official evaluation set. B1 excludes one task after a grader fault (59 scored). B3 and B4 report three-run means over 60 tasks for both agents.

Citation

@misc{aipoch2026openscience,
  title        = {AIPOCH Open-Science: Benchmark Results on AstaBench and ASI-Bench},
  author       = {{AIPOCH Research}},
  year         = {2026},
  month        = oct,
  organization = {AIPOCH},
  howpublished = {\url{https://github.com/aipoch/open-science}}
}