rewirebio.iobenchmarks
Evaluation

SpliceAI on the Barbosa et al. deep intronic pathogenic variants with matched common controls (484 variants)

Published comparison transcribed from the pinned source; not reproduced.

Evaluation results

1 evaluation · 4 results. Different protocols are not a single leaderboard.

Protocol: Splice-altering variant classification, Barbosa et al. deep intronic pathogenic variants with matched common controls (484 variants) (Fortier et al. Table 4) · Dataset: Barbosa et al. deep intronic pathogenic variants with matched common controls (484 variants)

Sorted by Balanced accuracy (threshold optimised per algorithm for balanced accuracy on this dataset) (higher is better). The best value in each column is highlighted. Decimals are rounded for display; each value links to the printed value and its source.

Tested configurationBalanced accuracy (threshold optimised per algorithm for balanced accuracy on this dataset)F1 (threshold optimised per algorithm for balanced accuracy on this dataset)Recall (threshold optimised per algorithm for balanced accuracy on this dataset)Specificity (threshold optimised per algorithm for balanced accuracy on this dataset)
SpliceAI (Fortier et al. 2026)Evaluation0.940.9390.930.95
All 4 result rows with coverage, uncertainty and sources
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Exact evaluated configurations and original reported results
Tested configurationProtocol and datasetFindingEvidence and details
Configuration: SpliceAI (Fortier et al. 2026)Protocol: Splice-altering variant classification, Barbosa et al. deep intronic pathogenic variants with matched common controls (484 variants) (Fortier et al. Table 4)
Dataset: Barbosa et al. deep intronic pathogenic variants with matched common controls (484 variants)
0.94 Balanced accuracy (threshold optimised per algorithm for balanced accuracy on this dataset)
fraction · higher

Uncertainty: Not reported by the source

Coverage: Not reported scored / Not reported eligible

Independent external evaluation · Source checked
Methods, coverage and source

SpliceAI on the Barbosa et al. deep intronic pathogenic variants with matched common controls (484 variants)

rna-splicing-20261011-fortier2026-protocol-barbosa-deep-intronic

Aggregation: Not reported

Analyzing the performance of deep learning splice prediction algorithms (Fortier, Rudy and Scherer, PLOS One 2026) · Table 4, row 'SpliceAI', column 'Balanced Accuracy'
Configuration: SpliceAI (Fortier et al. 2026)Protocol: Splice-altering variant classification, Barbosa et al. deep intronic pathogenic variants with matched common controls (484 variants) (Fortier et al. Table 4)
Dataset: Barbosa et al. deep intronic pathogenic variants with matched common controls (484 variants)
0.939 F1 (threshold optimised per algorithm for balanced accuracy on this dataset)
fraction · higher

Uncertainty: Not reported by the source

Coverage: Not reported scored / Not reported eligible

Independent external evaluation · Source checked
Methods, coverage and source

SpliceAI on the Barbosa et al. deep intronic pathogenic variants with matched common controls (484 variants)

rna-splicing-20261011-fortier2026-protocol-barbosa-deep-intronic

Aggregation: Not reported

Analyzing the performance of deep learning splice prediction algorithms (Fortier, Rudy and Scherer, PLOS One 2026) · Table 4, row 'SpliceAI', column 'F1'
Configuration: SpliceAI (Fortier et al. 2026)Protocol: Splice-altering variant classification, Barbosa et al. deep intronic pathogenic variants with matched common controls (484 variants) (Fortier et al. Table 4)
Dataset: Barbosa et al. deep intronic pathogenic variants with matched common controls (484 variants)
0.93 Recall (threshold optimised per algorithm for balanced accuracy on this dataset)
fraction · higher

Uncertainty: Not reported by the source

Coverage: Not reported scored / Not reported eligible

Independent external evaluation · Source checked
Methods, coverage and source

SpliceAI on the Barbosa et al. deep intronic pathogenic variants with matched common controls (484 variants)

rna-splicing-20261011-fortier2026-protocol-barbosa-deep-intronic

Aggregation: Not reported

Analyzing the performance of deep learning splice prediction algorithms (Fortier, Rudy and Scherer, PLOS One 2026) · Table 4, row 'SpliceAI', column 'Sensitivity'
Configuration: SpliceAI (Fortier et al. 2026)Protocol: Splice-altering variant classification, Barbosa et al. deep intronic pathogenic variants with matched common controls (484 variants) (Fortier et al. Table 4)
Dataset: Barbosa et al. deep intronic pathogenic variants with matched common controls (484 variants)
0.95 Specificity (threshold optimised per algorithm for balanced accuracy on this dataset)
fraction · higher

Uncertainty: Not reported by the source

Coverage: Not reported scored / Not reported eligible

Independent external evaluation · Source checked
Methods, coverage and source

SpliceAI on the Barbosa et al. deep intronic pathogenic variants with matched common controls (484 variants)

rna-splicing-20261011-fortier2026-protocol-barbosa-deep-intronic

Aggregation: Not reported

Analyzing the performance of deep learning splice prediction algorithms (Fortier, Rudy and Scherer, PLOS One 2026) · Table 4, row 'SpliceAI', column 'Specificity'

Source checking is not independent reproduction. Release 2026-10-22-1b7cf027e4f6.

Research readiness

0 of 4 readiness checks met. These checks assess whether the evidence supports a reproducible investigation; a source-checked score alone does not meet them.

Readiness checks, gaps and artifacts

Release 2026-10-22-1b7cf027e4f6 · Evidence verified: Not verified

Evidence incomplete

Replay metrics

Exact outcomes, predictions, identifiers and evaluator are connected.

Missing or unresolved evidence

  • No verified artifact manifest is linked to this exact record.
  • File checksums match the recorded files: not yet verified
  • Predictions are matched to the right samples: not yet verified
  • Score meaning and direction are confirmed: not yet verified
  • Metrics are recomputed from the saved predictions: not yet verified

Verified: Not verified

Evidence incomplete

Investigate discrepancies

Replay evidence includes annotations and an assessment of dependence. Unknown independence permits descriptive analysis only.

Missing or unresolved evidence

  • No verified artifact manifest is linked to this exact record.
  • File checksums match the recorded files: not yet verified
  • Predictions are matched to the right samples: not yet verified
  • Score meaning and direction are confirmed: not yet verified
  • Metrics are recomputed from the saved predictions: not yet verified
  • Sample annotations are recorded: not yet verified
  • Dependence between samples is assessed: not yet verified

Verified: Not verified

Evidence incomplete

Run locally

A pinned recipe describes the inputs, environment and resource requirements.

Missing or unresolved evidence

  • No verified artifact manifest is linked to this exact record.
  • File checksums match the recorded files: not yet verified
  • Predictions are matched to the right samples: not yet verified
  • Score meaning and direction are confirmed: not yet verified
  • A pinned run recipe exists: not yet verified
  • Compute requirements are estimated: not yet verified

Verified: Not verified

Evidence incomplete

Validate independently

Separate data and exposure records support an independent test.

Missing or unresolved evidence

  • No verified artifact manifest is linked to this exact record.
  • File checksums match the recorded files: not yet verified
  • Predictions are matched to the right samples: not yet verified
  • Score meaning and direction are confirmed: not yet verified
  • Independent validation data exist: not yet verified
  • Overlap with training data is checked: not yet verified

Verified: Not verified

Readiness describes the evidence in this release. Availability on your computer is checked separately when an investigation runs. Existing data exposure can prevent independent validation even when files are available.

Artifacts and reproduction

No verified artifact manifest is connected to this record yet. The gaps above identify what is needed before analysis can begin.

Evaluation procedure

Splice-altering variant classification, Barbosa et al. deep intronic pathogenic variants with matched common controls (484 variants) (Fortier et al. Table 4)

Configuration
SpliceAI (Fortier et al. 2026)
Protocol
Splice-altering variant classification, Barbosa et al. deep intronic pathogenic variants with matched common controls (484 variants) (Fortier et al. Table 4)
Dataset
Barbosa et al. deep intronic pathogenic variants with matched common controls (484 variants)
origin
Independent external evaluation
configuration
Primary source as retrieved 2026-10-11
dataset version
As assembled by Fortier et al. 2026
split
Whole set
population
242 pathogenic intronic variants more than 10 bp from the nearest splice site with experimental evidence of aberrant splicing (RT-PCR, cDNA sequencing, RNA-seq or minigene), 194 causing pseudoexon activation; 242 matched common gnomAD v2.1 intronic negatives (AF > 1%) from the same genes, absent from ClinVar
inputs
Variant with genomic sequence context (VCF)
adaptation
threshold optimised per algorithm for balanced accuracy on this dataset
metric implementation
Sensitivity, specificity, F1 = 2TP/(2TP+FP+FN), balanced accuracy = mean of sensitivity and specificity (Equations 1 to 4)
aggregation
Whole dataset
budget
Not reported
protocol id
rna-splicing-20261011-fortier2026-protocol-barbosa-deep-intronic

Metadata review: source checked. Unreported conditions prevent automatic comparisons.

Reproduction

Split
Whole set
Adaptation
threshold optimised per algorithm for balanced accuracy on this dataset
Scoring implementation
Sensitivity, specificity, F1 = 2TP/(2TP+FP+FN), balanced accuracy = mean of sensitivity and specificity (Equations 1 to 4)

No execution recipe has been verified for this exact configuration and evaluation. A benchmark's general instructions may use different inputs, splits or model settings.

Reproducing this published result requires matching its model configuration, data, split and scorer. Source checking or a successful smoke test does not establish score reproduction.

Evidence

Source checking verifies the cited claim or transcription. It does not establish independent reproduction.

Evidence table

Inspect claims, sources and review details

Trace each statement to its source and review. A context-only reference supports the record generally; it does not verify an individual field. Source checking does not reproduce an experiment.

One row per statement and cited source. Multiple citations are not independent evaluations. Shared locators are labelled explicitly.

18 evidence rows matching the loaded filters

Claims, original sources and review scope · Release 2026-10-22-1b7cf027e4f6
Property and statementOriginal source and locationReview and provenance
Comparison: adaptation
threshold optimised per algorithm for balanced accuracy on this dataset
Context-only references
Analyzing the performance of deep learning splice prediction algorithms (Fortier, Rudy and Scherer, PLOS One 2026)

Original source ↗

Table 4 row 'SpliceAI'

Version: PLOS One 21(5):e0348885, published 2026-05-13; PMC13170886 full-text XML
Retrieved: 2026-10-11T21:37:04Z

not individually reviewed

No individual claim review recorded

independent paper

Audit details

Field: attributes.comparison.adaptation

Source artifact SHA-256: dffe74cee7782cbdfdbc9423cf00f0a846b3d720b90b10e9732d6f768c485176

Hash scope: Hash scope not separately documented; inspect source record

Inspected artifact

Comparison: aggregation
Whole dataset
Context-only references
Analyzing the performance of deep learning splice prediction algorithms (Fortier, Rudy and Scherer, PLOS One 2026)

Original source ↗

Table 4 row 'SpliceAI'

Version: PLOS One 21(5):e0348885, published 2026-05-13; PMC13170886 full-text XML
Retrieved: 2026-10-11T21:37:04Z

not individually reviewed

No individual claim review recorded

independent paper

Audit details

Field: attributes.comparison.aggregation

Source artifact SHA-256: dffe74cee7782cbdfdbc9423cf00f0a846b3d720b90b10e9732d6f768c485176

Hash scope: Hash scope not separately documented; inspect source record

Inspected artifact

Comparison: budget
Not reported
Context-only references
Analyzing the performance of deep learning splice prediction algorithms (Fortier, Rudy and Scherer, PLOS One 2026)

Original source ↗

Table 4 row 'SpliceAI'

Version: PLOS One 21(5):e0348885, published 2026-05-13; PMC13170886 full-text XML
Retrieved: 2026-10-11T21:37:04Z

missing or unspecified

No individual claim review recorded

independent paper

Audit details

Field: attributes.comparison.budget

Source artifact SHA-256: dffe74cee7782cbdfdbc9423cf00f0a846b3d720b90b10e9732d6f768c485176

Hash scope: Hash scope not separately documented; inspect source record

Inspected artifact

Comparison: dataset version
As assembled by Fortier et al. 2026
Context-only references
Analyzing the performance of deep learning splice prediction algorithms (Fortier, Rudy and Scherer, PLOS One 2026)

Original source ↗

Table 4 row 'SpliceAI'

Version: PLOS One 21(5):e0348885, published 2026-05-13; PMC13170886 full-text XML
Retrieved: 2026-10-11T21:37:04Z

not individually reviewed

No individual claim review recorded

independent paper

Audit details

Field: attributes.comparison.dataset_version

Source artifact SHA-256: dffe74cee7782cbdfdbc9423cf00f0a846b3d720b90b10e9732d6f768c485176

Hash scope: Hash scope not separately documented; inspect source record

Inspected artifact

Comparison: inputs
Variant with genomic sequence context (VCF)
Context-only references
Analyzing the performance of deep learning splice prediction algorithms (Fortier, Rudy and Scherer, PLOS One 2026)

Original source ↗

Table 4 row 'SpliceAI'

Version: PLOS One 21(5):e0348885, published 2026-05-13; PMC13170886 full-text XML
Retrieved: 2026-10-11T21:37:04Z

not individually reviewed

No individual claim review recorded

independent paper

Audit details

Field: attributes.comparison.inputs

Source artifact SHA-256: dffe74cee7782cbdfdbc9423cf00f0a846b3d720b90b10e9732d6f768c485176

Hash scope: Hash scope not separately documented; inspect source record

Inspected artifact

Comparison: metric implementation
Sensitivity, specificity, F1 = 2TP/(2TP+FP+FN), balanced accuracy = mean of sensitivity and specificity (Equations 1 to 4)
Context-only references
Analyzing the performance of deep learning splice prediction algorithms (Fortier, Rudy and Scherer, PLOS One 2026)

Original source ↗

Table 4 row 'SpliceAI'

Version: PLOS One 21(5):e0348885, published 2026-05-13; PMC13170886 full-text XML
Retrieved: 2026-10-11T21:37:04Z

not individually reviewed

No individual claim review recorded

independent paper

Audit details

Field: attributes.comparison.metric_implementation

Source artifact SHA-256: dffe74cee7782cbdfdbc9423cf00f0a846b3d720b90b10e9732d6f768c485176

Hash scope: Hash scope not separately documented; inspect source record

Inspected artifact

Comparison: population
242 pathogenic intronic variants more than 10 bp from the nearest splice site with experimental evidence of aberrant splicing (RT-PCR, cDNA sequencing, RNA-seq or minigene), 194 causing pseudoexon activation; 242 matched common gnomAD v2.1 intronic negatives (AF > 1%) from the same genes, absent from ClinVar
Context-only references
Analyzing the performance of deep learning splice prediction algorithms (Fortier, Rudy and Scherer, PLOS One 2026)

Original source ↗

Table 4 row 'SpliceAI'

Version: PLOS One 21(5):e0348885, published 2026-05-13; PMC13170886 full-text XML
Retrieved: 2026-10-11T21:37:04Z

not individually reviewed

No individual claim review recorded

independent paper

Audit details

Field: attributes.comparison.population

Source artifact SHA-256: dffe74cee7782cbdfdbc9423cf00f0a846b3d720b90b10e9732d6f768c485176

Hash scope: Hash scope not separately documented; inspect source record

Inspected artifact

Comparison: protocol id
rna-splicing-20261011-fortier2026-protocol-barbosa-deep-intronic
Context-only references
Analyzing the performance of deep learning splice prediction algorithms (Fortier, Rudy and Scherer, PLOS One 2026)

Original source ↗

Table 4 row 'SpliceAI'

Version: PLOS One 21(5):e0348885, published 2026-05-13; PMC13170886 full-text XML
Retrieved: 2026-10-11T21:37:04Z

not individually reviewed

No individual claim review recorded

independent paper

Audit details

Field: attributes.comparison.protocol_id

Source artifact SHA-256: dffe74cee7782cbdfdbc9423cf00f0a846b3d720b90b10e9732d6f768c485176

Hash scope: Hash scope not separately documented; inspect source record

Inspected artifact

Comparison: split
Whole set
Context-only references
Analyzing the performance of deep learning splice prediction algorithms (Fortier, Rudy and Scherer, PLOS One 2026)

Original source ↗

Table 4 row 'SpliceAI'

Version: PLOS One 21(5):e0348885, published 2026-05-13; PMC13170886 full-text XML
Retrieved: 2026-10-11T21:37:04Z

not individually reviewed

No individual claim review recorded

independent paper

Audit details

Field: attributes.comparison.split

Source artifact SHA-256: dffe74cee7782cbdfdbc9423cf00f0a846b3d720b90b10e9732d6f768c485176

Hash scope: Hash scope not separately documented; inspect source record

Inspected artifact

Origin
independent_paper
Context-only references
Analyzing the performance of deep learning splice prediction algorithms (Fortier, Rudy and Scherer, PLOS One 2026)

Original source ↗

Table 4 row 'SpliceAI'

Version: PLOS One 21(5):e0348885, published 2026-05-13; PMC13170886 full-text XML
Retrieved: 2026-10-11T21:37:04Z

not individually reviewed

No individual claim review recorded

independent paper

Audit details

Field: attributes.origin

Source artifact SHA-256: dffe74cee7782cbdfdbc9423cf00f0a846b3d720b90b10e9732d6f768c485176

Hash scope: Hash scope not separately documented; inspect source record

Inspected artifact

How to read the evidence

Sources and history

Release 2026-10-22-1b7cf027e4f6 · Record review: source checked

1 source record and release historyDownload this release (gzip)
Technical metadata and extraction receipts

Stable ID: rna-splicing-20261011-fortier2026-eval-barbosa-deep-intronic-spliceai

areas
dna-genomes
contexts
clinical_research
origin
independent_paper
protocol
rna-splicing-20261011-fortier2026-protocol-barbosa-deep-intronic
version
Primary source as retrieved 2026-10-11
comparison
dataset version: As assembled by Fortier et al. 2026; split: Whole set; population: 242 pathogenic intronic variants more than 10 bp from the nearest splice site with experimental evidence of aberrant splicing (RT-PCR, cDNA sequencing, RNA-seq or minigene), 194 causing pseudoexon activation; 242 matched common gnomAD v2.1 intronic negatives (AF > 1%) from the same genes, absent from ClinVar; inputs: Variant with genomic sequence context (VCF); adaptation: threshold optimised per algorithm for balanced accuracy on this dataset; metric implementation: Sensitivity, specificity, F1 = 2TP/(2TP+FP+FN), balanced accuracy = mean of sensitivity and specificity (Equations 1 to 4); aggregation: Whole dataset; budget: Not reported; protocol id: rna-splicing-20261011-fortier2026-protocol-barbosa-deep-intronic
source locator
Table 4 row 'SpliceAI'
missing metadata
comparison.budget: reason: unreported
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