Content
67%Weight 40%Scale 1-5Reviews the quality of instructions and guidance provided to agents. Good implementation is clear, handles edge cases, and produces reliable results.
A well-structured, actionable skill body with a genuine bundle (three reference files and a runnable script), clear troubleshooting, and reproducibility guidance. Main weaknesses are duplicated content between SKILL.md and the reference files, an undefined `analyze_consensus` call in an example, and the absence of explicit output-validation checkpoints.
Suggestions
Remove the duplicated install command and trim the Algorithm Selection and Distributed Computing sections to one short snippet each, pointing to `references/algorithms.md` and `references/distributed_computing.md` for the rest.
Replace the undefined `analyze_consensus(networks)` call with concrete consensus-filtering code (e.g., merge on (TF, target) and keep links appearing in a majority of seeds).
Add a short validation step after inference, such as checking the output DataFrame is non-empty and has the expected TF/target/importance columns before saving.
| Dimension | Reasoning | Score |
|---|---|---|
Conciseness | Mostly efficient, but there is recurring avoidable duplication rather than merely minor trimmings: the install command appears twice (Quick Start and Installation), the Algorithm Selection section inlines a GRNBoost2-vs-GENIE3 comparison that duplicates `references/algorithms.md`, and the Distributed Computing section inlines three code blocks (default, custom local client, cluster) that overlap `references/distributed_computing.md`. This fits the 3 anchor ('mostly efficient but includes some unnecessary explanation or could be tightened') better than 4, where over-explanation would be only minor. | 3 / 5 |
Actionability | Nearly all code is concrete, copy-paste ready (quick start, TF filtering, multi-condition loops) and there is a ready-to-run script with an exact CLI invocation: `python scripts/basic_grn_inference.py expression_data.tsv output_network.tsv --tf-file tfs.txt --seed 777`. It falls short of 5 because the Reproducibility example calls an undefined `analyze_consensus(networks)` that would raise NameError, and the pySCENIC integration snippet ends with 'See pySCENIC documentation' rather than a concrete next step. | 4 / 5 |
Workflow Clarity | The single-task workflow (install → load data → infer → save → filter/interpret) is unambiguous via the Quick Start and use-case sections, and the Troubleshooting section supplies error-recovery guidance for memory, performance, Dask, and empty results ('Check data format (genes as columns), verify TF names match gene names'). It does not reach 5 because there are no explicit validation checkpoints (e.g., verify the output has expected columns/non-empty before saving), placing it at the 'clear sequence with most checkpoints; minor validation gaps' anchor. | 4 / 5 |
Progressive Disclosure | Good structure: SKILL.md is an overview with well-signaled, real, one-level-deep references (`references/basic_inference.md`, `references/algorithms.md`, `references/distributed_computing.md` — all exist) plus a bundled script, and the one cross-link found in the references (basic_inference.md → algorithms.md) is a sibling link, not nested content. It falls short of 5 because substantial content that belongs in the references (algorithm comparison details, three distributed-computing code blocks) is inlined in SKILL.md alongside the pointers, a minor organization gap matching the 4 anchor. | 4 / 5 |
Total | 15 / 20 Passed |