Evidence Receipt. Related Resources.
Evidence Receipt. Related Resources.
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Canonical ID atime-consistent-benchmark-for-repository-level-software-engineering-evaluation | Route /signal-canvas/atime-consistent-benchmark-for-repository-level-software-engineering-evaluation
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References: 9
Proof: Verification pending
Freshness state: computing
Source paper: ATime-Consistent Benchmark for Repository-Level Software Engineering Evaluation
PDF: https://arxiv.org/pdf/2603.26137v1
Source count: 3
Coverage: 50%
Last proof check: 2026-03-30T21:58:57.202Z
Signal Canvas receipt window
/buildability/atime-consistent-benchmark-for-repository-level-software-engineering-evaluation
Subject: ATime-Consistent Benchmark for Repository-Level Software Engineering Evaluation
Verdict
Watch
Verdict is Watch because viability or proof quality is intermediate and should be re-evaluated before execution.
Preparing verified analysis
Dimensions overall score 7.0
No public code linked for this paper yet.
We present a time-consistent benchmark methodology that snapshots a repository at time T0, constructs repository-derived code knowledge using only artifacts available before T0, and evaluates on engineering tasks derived from pull requests merged in the future interval (T0, T1].
This is a core methodological contribution explicitly stated in the abstract and elaborated on in the introduction.
partial
and the benchmark is formalized as a matched A/B comparison in which the same software engineering agent is evaluated with and without repository-derived code knowledge while all other variables are held constant.
This describes the experimental design for evaluating the impact of repository knowledge, as stated in the abstract.
partial
Across both repositories, file-level F1 increases monotonically from minimal to guided prompts, reaching 0.8081 on DragonFly and 0.8078 on React for the strongest tested model.
This is a specific quantitative result reported in the abstract and detailed in the results section and figures.
partial
These results show that prompt construction is a first-order benchmark variable.
This is a direct conclusion drawn from the experimental results regarding prompt granularity.
partial
More broadly, the benchmark highlights that temporal consistency and prompt control are core validity requirements for repository-aware software engineering evaluation.
This is a broader conclusion about the implications of the benchmark methodology and findings.
partial
We also report a baseline characterization study on two open-source repositories, DragonFly and React, using three Claude-family models and four prompt granularities.
The repositories used for the baseline study are explicitly listed in the abstract and the 'Category Setting' table.
partial
Task source Historical PRs merged in(𝑇 0, 𝑇1]
The source of tasks for the benchmark is clearly defined in the abstract and the 'Category Setting' table.
partial
The distribution does not simply shift upward smoothly; rather, prompt strengthening moves substantial probability mass out of the zero-performance bin and into the high-F1 and exact-match bins.
This observation is made from the F1 distribution figures for both repositories, indicating the impact of prompt quality on task solvability.
partial
We present a time-consistent benchmark methodology that snapshots a repository at time T0, constructs repository-derived code knowledge using only artifacts available before T0, and evaluates on engineering tasks derived from pull requests merged in the future interval (T0, T1].
This is a core methodological contribution explicitly described in the abstract and introduction.
partial
and the benchmark is formalized as a matched A/B comparison in which the same software engineering agent is evaluated with and without repository-derived code knowledge while all other variables are held constant.
This describes the experimental setup for evaluating the impact of repository knowledge, as stated in the abstract.
partial
Across both repositories, file-level F1 increases monotonically from minimal to guided prompts, reaching 0.8081 on DragonFly and 0.8078 on React for the strongest tested model.
This is a key result reported in the abstract and supported by figures and tables showing F1 scores across different prompt granularities.
partial
Across both repositories, file-level F1 increases monotonically from minimal to guided prompts, reaching 0.8081 on DragonFly and 0.8078 on React for the strongest tested model.
Specific numerical results are provided for the highest performing models and prompts on the tested repositories.
partial
Related resources will appear here when this paper maps cleanly to topic, benchmark, or dataset surfaces.
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Receipt path
/buildability/atime-consistent-benchmark-for-repository-level-software-engineering-evaluation
Paper ref
atime-consistent-benchmark-for-repository-level-software-engineering-evaluation
arXiv id
2603.26137
Generated at
2026-03-30T21:58:57.202Z
Evidence freshness
stale
Last verification
2026-03-30T21:58:57.202Z
Sources
3
References
9
Coverage
50%
Lineage hash
e6e5a94572e0733533d727fc00f281d433a3241302e97aee6ed65af5ee0a4524
Canonical opportunity-kernel lineage hash.
External signature
unsigned_external
No founder, registry, pilot, or production-adoption signature is attached to this receipt.
Verification
not_verified
Verification is blocked until an external signature is provided.
9 refs / 3 sources / Verification pending
repo_url
proof_status