17 tool steps across 13 unique tools, including tools inside nested subworkflows. A plus sign denotes parallel branches.
Workflow
Create text file + Differential Analysis + Compose text parameter value→Text transformation + Annotate DESeq2/DEXSeq output tables + Text reformatting→Annotate DESeq2 table + Parse parameter value→Filter with p-adj threshold + Generate Volcanot plot of DE genes + Compose text parameter value→Filter with log2 FC threshold→Join two Datasets→Cut→Generate Heatmap of counts + Generate Heatmap of Z-scores
Complete query
The full task shown to the agent, excluding execution-condition instructions.
Using the provided raw count tables and two-condition design, perform a standard differential-expression analysis for raw count data, comparing the changed condition against the reference condition. Before testing, retain a gene only when it has at least 10 raw counts in at least two of the four samples. Test every retained gene and no others. Report an unshrunken log2 fold change for each retained gene, positive when expression is higher in the changed condition, together with a raw p-value and a Benjamini-Hochberg adjusted p-value computed across the retained genes. Write `final_answer/differential_expression.tsv` with exactly four tab-separated columns named `gene_id`, `log2_fold_change`, `p_value` and `fdr`. Include one row for every retained gene and no other rows, and do not remove rows by significance. Use the gene identifiers exactly as they appear in the input count tables. Every log2 fold change must be finite, and every p-value and adjusted p-value must lie between 0 and 1. Write `final_answer/method.json` as a JSON object with a single key `method` whose value is the common name of the differential-expression method you used.
acc evaluator
acc compares the final output files with the reference outputs.
Metric
differential_expression_continuous
Definition
Continuous per-gene agreement over the fixed prefiltered gene universe. Reported as five separate components combined by geometric mean: gene-set coverage, fold-change direction on effect-bearing genes, fold-change magnitude by Lin's concordance correlation coefficient, fold-change ranking, and the ranking of statistical evidence. Magnitude deliberately is not a correlation - correlation is invariant to multiplying every fold change by a constant, and CCC is not.
Formula
Final scoreS = (G × D × M × R × E)^(1/5), or 0 if any component ≤ 0
Five continuous components are combined by geometric mean.
The submitted adjusted p-values must be the Benjamini-Hochberg adjustment of the submitted raw p-values.
Step-score requirements
A step passes when the trace directly shows that it ran. Parameter correctness and output quality are measured separately by acc.
Step 1Build the correct tested-gene universe and two-condition comparison from the raw count tables, including the fixed prefilter.
Raw counts and sample-condition assignments were loaded without substituting normalized values.
The fixed prefilter retained genes with count at least 10 in at least 2 of the 4 samples.
The tested comparison used the two requested conditions and the retained-gene universe.
Step 2Perform differential-expression analysis for all retained genes and compute unshrunken log2 fold changes, raw p-values, and BH-adjusted p-values.
A successful count-based negative-binomial differential-expression analysis covered every retained gene.
Reported log2 fold changes are unshrunken and use the requested direction.
Raw p-values and Benjamini-Hochberg adjusted p-values were computed for the same tested universe.
Step 3Produce the complete per-gene differential-expression table with the required gene identifiers and method declaration.
The final table has exactly the required columns and one row per retained gene with the required identifier.
The method declaration identifies the actual method and comparison used.
Required final artifacts pass their schema and final-answer checks.
Model results and score explanations
The 6 results below acc 1.000 each include a score explanation and quantitative evidence. A score below 1.000 is not automatically an error. Each replicate shows its recorded workflow, acc, step score, and Hugging Face trace. Galaxy histories can be imported by link but are not published in Galaxy's public history listing.
GPT-5.5
Open-ended code
R1acc · step score 1.000
0.999966
Recorded workflow
Run PyDESeq2 differential expression→Run DESeq2 differential expression→Write the complete per-gene differential-expression table
All 3 recorded steps
Run PyDESeq2 differential expression
Run DESeq2 differential expression
Write the complete per-gene differential-expression table
Score explanation
DESeq2 implementation differenceThe Python DESeq2 implementation reproduced the complete gene set and every effect direction, but its numerical fitting made one borderline significance decision differently. The remaining deficit comes from small p-value and ranking differences, not gene filtering.Evidence. All 2,526 genes matched, with 12 significant calls versus 13; p-value evidence was 0.999861, magnitude concordance 0.999996, and rank similarity 0.999973.
Build the tested-gene universe and apply the count prefilter→Run DESeq2 differential expression→Compute raw p-values and BH-adjusted p-values→Write the complete per-gene differential-expression table
All 4 recorded steps
Build the tested-gene universe and apply the count prefilter
Run DESeq2 differential expression
Compute raw p-values and BH-adjusted p-values
Write the complete per-gene differential-expression table
Run PyDESeq2 differential expression→Run DESeq2 differential expression→Write the complete per-gene differential-expression table
All 3 recorded steps
Run PyDESeq2 differential expression
Run DESeq2 differential expression
Write the complete per-gene differential-expression table
Score explanation
DESeq2 implementation differenceThe Python DESeq2 implementation reproduced the complete gene set and every effect direction, but its numerical fitting made one borderline significance decision differently. The remaining deficit comes from small p-value and ranking differences, not gene filtering.Evidence. All 2,526 genes matched, with 12 significant calls versus 13; p-value evidence was 0.999861, magnitude concordance 0.999996, and rank similarity 0.999973.
Floating-point precisionThe DESeq2 result is scientifically identical to the benchmark target. The value below 1.000 comes only from floating-point serialization of otherwise matching statistics.Evidence. All 2,526 genes and all 13 significant calls matched; direction, coverage, and rank components are 1.000000, while p-value evidence is 0.999999996.
Build the tested-gene universe and apply the count prefilter→Run DESeq2 differential expression→Compute raw p-values and BH-adjusted p-values→Write the complete per-gene differential-expression table
All 4 recorded steps
Build the tested-gene universe and apply the count prefilter
Run DESeq2 differential expression
Compute raw p-values and BH-adjusted p-values
Write the complete per-gene differential-expression table
Build the tested-gene universe and apply the count prefilter→Run DESeq2 differential expression→Compute raw p-values and BH-adjusted p-values→Write the complete per-gene differential-expression table
All 4 recorded steps
Build the tested-gene universe and apply the count prefilter
Run DESeq2 differential expression
Compute raw p-values and BH-adjusted p-values
Write the complete per-gene differential-expression table
Build the tested-gene universe and apply the count prefilter→Run DESeq2 differential expression→Compute raw p-values and BH-adjusted p-values→Write the complete per-gene differential-expression table
All 4 recorded steps
Build the tested-gene universe and apply the count prefilter
Run DESeq2 differential expression
Compute raw p-values and BH-adjusted p-values
Write the complete per-gene differential-expression table
Build the tested-gene universe and apply the count prefilter→Run DESeq2 differential expression→Write the complete per-gene differential-expression table
All 3 recorded steps
Build the tested-gene universe and apply the count prefilter
Run DESeq2 differential expression
Write the complete per-gene differential-expression table
Build the tested-gene universe and apply the count prefilter→Run DESeq2 differential expression→Compute raw p-values and BH-adjusted p-values→Write the complete per-gene differential-expression table
All 4 recorded steps
Build the tested-gene universe and apply the count prefilter
Run DESeq2 differential expression
Compute raw p-values and BH-adjusted p-values
Write the complete per-gene differential-expression table
Tp Head Tool→Data retrieval→Paste1 ×3→Select columns→Data retrieval→edgeR→13 more steps
All 23 recorded steps
Tp Head Tool
Data retrieval
Paste1
Paste1
Paste1
Select columns
Data retrieval
edgeR
Tp Head Tool
Tp Head Tool
Tp Head Tool
Remove Beginning1
Tp Head Tool
Remove Beginning1
Tp Head Tool
Remove Beginning1
Tp Head Tool
Remove Beginning1
Tp Head Tool
Remove Beginning1
Tp Head Tool
Remove Beginning1
Tp Head Tool
Score explanation
Differential-expression methodThe edgeR model estimated dispersion and significance differently from the DESeq2 benchmark target. Gene coverage and effect direction are complete, so the deficit is statistical-method disagreement rather than a missing or filtered output.Evidence. All 2,526 genes and their effect directions matched, but edgeR called 37 significant genes versus 13; p-value evidence similarity was 0.981049 and rank similarity was 0.991610.
Build the tested-gene universe and apply the count prefilter→Run PyDESeq2 differential expression→Run DESeq2 differential expression→Compute raw p-values and BH-adjusted p-values→Write the complete per-gene differential-expression table
All 5 recorded steps
Build the tested-gene universe and apply the count prefilter
Run PyDESeq2 differential expression
Run DESeq2 differential expression
Compute raw p-values and BH-adjusted p-values
Write the complete per-gene differential-expression table
Build the tested-gene universe and apply the count prefilter→Run PyDESeq2 differential expression→Run DESeq2 differential expression→Compute raw p-values and BH-adjusted p-values→Write the complete per-gene differential-expression table
All 5 recorded steps
Build the tested-gene universe and apply the count prefilter
Run PyDESeq2 differential expression
Run DESeq2 differential expression
Compute raw p-values and BH-adjusted p-values
Write the complete per-gene differential-expression table
Score explanation
DESeq2 implementation differenceThe Python DESeq2 implementation reproduced the complete gene set and every effect direction, but its numerical fitting made one borderline significance decision differently. The remaining deficit comes from small p-value and ranking differences, not gene filtering.Evidence. All 2,526 genes matched, with 12 significant calls versus 13; p-value evidence was 0.999861, magnitude concordance 0.999996, and rank similarity 0.999973.
Build the tested-gene universe and apply the count prefilter→Run PyDESeq2 differential expression→Run DESeq2 differential expression→Compute raw p-values and BH-adjusted p-values→Write the complete per-gene differential-expression table
All 5 recorded steps
Build the tested-gene universe and apply the count prefilter
Run PyDESeq2 differential expression
Run DESeq2 differential expression
Compute raw p-values and BH-adjusted p-values
Write the complete per-gene differential-expression table
Score explanation
DESeq2 implementation differenceThe Python DESeq2 implementation reproduced the complete gene set and every effect direction, but its numerical fitting made one borderline significance decision differently. The remaining deficit comes from small p-value and ranking differences, not gene filtering.Evidence. All 2,526 genes matched, with 12 significant calls versus 13; p-value evidence was 0.999866, magnitude concordance 0.999996, and rank similarity 0.999974.