rewirebio.iobenchmarks
Configuration

AnnotSV (Zhang et al. 2026)

Configuration of AnnotSV: version v3.5.2; ACMG rule-based scoring; run from GitHub or the official web interface per the original instructions; input CNV coordinates lifted from hg19 to hg38.

3 evaluations · 13 results

Overview

An explanatory profile has not yet been reviewed for this record.

Consult the linked sources for architecture or protocol details. Missing evidence is not evidence of a missing capability.

Evaluations and results

3 evaluations · 13 results. Different protocols are not a single leaderboard.

Dataset: Expert-classified ACMG CNV benchmark (Zhang et al. 2026, 3,031 CNVs)

Sorted by Recall (per-class recall for reference class benign (benign and likely benign merged), three-category scheme; printed as 'Accuracy') (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 configurationProtocol and datasetRecall (per-class recall for reference class benign (benign and likely benign merged), three-category scheme; printed as 'Accuracy')Recall (per-class recall for reference class pathogenic (pathogenic and likely pathogenic merged), three-category scheme; printed as 'Accuracy')Recall (per-class recall for reference class variant of uncertain significance, three-category scheme; printed as 'Accuracy')Accuracy (ACMG five-category classification; averaging across classes not stated)F1 (ACMG five-category classification; averaging across classes not stated)False positive rate (ACMG five-category classification; averaging across classes not stated)MCC (ACMG five-category classification; averaging across classes not stated)Precision (ACMG five-category classification; averaging across classes not stated)Recall (ACMG five-category classification; averaging across classes not stated)Specificity (ACMG five-category classification; averaging across classes not stated)
AnnotSV (Zhang et al. 2026)EvaluationThree-category CNV classification, per-class agreement on deletions (Zhang et al. Table 4, DEL)75.2% (best in column)95.2% (best in column)42.9%Not reportedNot reportedNot reportedNot reportedNot reportedNot reportedNot reported
AnnotSV (Zhang et al. 2026)EvaluationThree-category CNV classification, per-class agreement on duplications (Zhang et al. Table 4, DUP)49.3%86.4%67.5% (best in column)Not reportedNot reportedNot reportedNot reportedNot reportedNot reportedNot reported
AnnotSV (Zhang et al. 2026)EvaluationACMG five-category CNV pathogenicity classification against expert labels (Zhang et al. Table 3)Not reportedNot reportedNot reported60.2%38.1%11.2%0.4340%43.5%88.8%
All 13 result rows with coverage, uncertainty and sources
Filter evaluations

Applied filters: All linked evaluations

Exact evaluated configurations and original reported results
Tested configurationProtocol and datasetFindingEvidence and details
Configuration: AnnotSV (Zhang et al. 2026)Protocol: ACMG five-category CNV pathogenicity classification against expert labels (Zhang et al. Table 3)
Dataset: Expert-classified ACMG CNV benchmark (Zhang et al. 2026, 3,031 CNVs)
60.2% Accuracy (ACMG five-category classification; averaging across classes not stated)
percent · higher

Uncertainty: Not reported by the source

Coverage: Not reported scored / Not reported eligible

Independent external evaluation · Source checked
Methods, coverage and source

AnnotSV on the expert-classified ACMG CNV benchmark (five category)

cnv-20261011-zhang2026-protocol-five-category

Aggregation: Not reported

Can automated copy number variation pathogenicity prediction tools replace manual review under the ACMG framework? A clinical validation (Zhang, Zhang and Chen, Global Medical Genetics 2026) · Table 3, row 'AnnotSV', column 'Accuracy (%)'
Configuration: AnnotSV (Zhang et al. 2026)Protocol: ACMG five-category CNV pathogenicity classification against expert labels (Zhang et al. Table 3)
Dataset: Expert-classified ACMG CNV benchmark (Zhang et al. 2026, 3,031 CNVs)
38.1% F1 (ACMG five-category classification; averaging across classes not stated)
percent · higher

Uncertainty: Not reported by the source

Coverage: Not reported scored / Not reported eligible

Independent external evaluation · Source checked
Methods, coverage and source

AnnotSV on the expert-classified ACMG CNV benchmark (five category)

cnv-20261011-zhang2026-protocol-five-category

Aggregation: Not reported

Can automated copy number variation pathogenicity prediction tools replace manual review under the ACMG framework? A clinical validation (Zhang, Zhang and Chen, Global Medical Genetics 2026) · Table 3, row 'AnnotSV', column 'F1(%)'
Configuration: AnnotSV (Zhang et al. 2026)Protocol: ACMG five-category CNV pathogenicity classification against expert labels (Zhang et al. Table 3)
Dataset: Expert-classified ACMG CNV benchmark (Zhang et al. 2026, 3,031 CNVs)
11.2% False positive rate (ACMG five-category classification; averaging across classes not stated)
percent · lower

Uncertainty: Not reported by the source

Coverage: Not reported scored / Not reported eligible

Independent external evaluation · Source checked
Methods, coverage and source

AnnotSV on the expert-classified ACMG CNV benchmark (five category)

cnv-20261011-zhang2026-protocol-five-category

Aggregation: Not reported

Can automated copy number variation pathogenicity prediction tools replace manual review under the ACMG framework? A clinical validation (Zhang, Zhang and Chen, Global Medical Genetics 2026) · Table 3, row 'AnnotSV', column 'FPR*(%)'
Configuration: AnnotSV (Zhang et al. 2026)Protocol: ACMG five-category CNV pathogenicity classification against expert labels (Zhang et al. Table 3)
Dataset: Expert-classified ACMG CNV benchmark (Zhang et al. 2026, 3,031 CNVs)
0.43 MCC (ACMG five-category classification; averaging across classes not stated)
unitless · higher

Uncertainty: Not reported by the source

Coverage: Not reported scored / Not reported eligible

Independent external evaluation · Source checked
Methods, coverage and source

AnnotSV on the expert-classified ACMG CNV benchmark (five category)

cnv-20261011-zhang2026-protocol-five-category

Aggregation: Not reported

Can automated copy number variation pathogenicity prediction tools replace manual review under the ACMG framework? A clinical validation (Zhang, Zhang and Chen, Global Medical Genetics 2026) · Table 3, row 'AnnotSV', column 'MCC*'
Configuration: AnnotSV (Zhang et al. 2026)Protocol: ACMG five-category CNV pathogenicity classification against expert labels (Zhang et al. Table 3)
Dataset: Expert-classified ACMG CNV benchmark (Zhang et al. 2026, 3,031 CNVs)
40% Precision (ACMG five-category classification; averaging across classes not stated)
percent · higher

Uncertainty: Not reported by the source

Coverage: Not reported scored / Not reported eligible

Independent external evaluation · Source checked
Methods, coverage and source

AnnotSV on the expert-classified ACMG CNV benchmark (five category)

cnv-20261011-zhang2026-protocol-five-category

Aggregation: Not reported

Can automated copy number variation pathogenicity prediction tools replace manual review under the ACMG framework? A clinical validation (Zhang, Zhang and Chen, Global Medical Genetics 2026) · Table 3, row 'AnnotSV', column 'PPV*(%)'
Configuration: AnnotSV (Zhang et al. 2026)Protocol: ACMG five-category CNV pathogenicity classification against expert labels (Zhang et al. Table 3)
Dataset: Expert-classified ACMG CNV benchmark (Zhang et al. 2026, 3,031 CNVs)
43.5% Recall (ACMG five-category classification; averaging across classes not stated)
percent · higher

Uncertainty: Not reported by the source

Coverage: Not reported scored / Not reported eligible

Independent external evaluation · Source checked
Methods, coverage and source

AnnotSV on the expert-classified ACMG CNV benchmark (five category)

cnv-20261011-zhang2026-protocol-five-category

Aggregation: Not reported

Can automated copy number variation pathogenicity prediction tools replace manual review under the ACMG framework? A clinical validation (Zhang, Zhang and Chen, Global Medical Genetics 2026) · Table 3, row 'AnnotSV', column 'Sensitivity (%)'
Configuration: AnnotSV (Zhang et al. 2026)Protocol: ACMG five-category CNV pathogenicity classification against expert labels (Zhang et al. Table 3)
Dataset: Expert-classified ACMG CNV benchmark (Zhang et al. 2026, 3,031 CNVs)
88.8% Specificity (ACMG five-category classification; averaging across classes not stated)
percent · higher

Uncertainty: Not reported by the source

Coverage: Not reported scored / Not reported eligible

Independent external evaluation · Source checked
Methods, coverage and source

AnnotSV on the expert-classified ACMG CNV benchmark (five category)

cnv-20261011-zhang2026-protocol-five-category

Aggregation: Not reported

Can automated copy number variation pathogenicity prediction tools replace manual review under the ACMG framework? A clinical validation (Zhang, Zhang and Chen, Global Medical Genetics 2026) · Table 3, row 'AnnotSV', column 'Specificity (%)'
Configuration: AnnotSV (Zhang et al. 2026)Protocol: Three-category CNV classification, per-class agreement on deletions (Zhang et al. Table 4, DEL)
Dataset: Expert-classified ACMG CNV benchmark (Zhang et al. 2026, 3,031 CNVs)
75.2% Recall (per-class recall for reference class benign (benign and likely benign merged), three-category scheme; printed as 'Accuracy')
percent · higher

Uncertainty: Not reported by the source

Coverage: Not reported scored / Not reported eligible

Independent external evaluation · Source checked
Methods, coverage and source

AnnotSV on the expert-classified ACMG CNV benchmark (three category deletions)

cnv-20261011-zhang2026-protocol-three-category-deletions

Aggregation: Not reported

Can automated copy number variation pathogenicity prediction tools replace manual review under the ACMG framework? A clinical validation (Zhang, Zhang and Chen, Global Medical Genetics 2026) · Table 4, block 'DEL', row 'B', column 'AnnotSV (%)'
Configuration: AnnotSV (Zhang et al. 2026)Protocol: Three-category CNV classification, per-class agreement on deletions (Zhang et al. Table 4, DEL)
Dataset: Expert-classified ACMG CNV benchmark (Zhang et al. 2026, 3,031 CNVs)
95.2% Recall (per-class recall for reference class pathogenic (pathogenic and likely pathogenic merged), three-category scheme; printed as 'Accuracy')
percent · higher

Uncertainty: Not reported by the source

Coverage: Not reported scored / Not reported eligible

Independent external evaluation · Source checked
Methods, coverage and source

AnnotSV on the expert-classified ACMG CNV benchmark (three category deletions)

cnv-20261011-zhang2026-protocol-three-category-deletions

Aggregation: Not reported

Can automated copy number variation pathogenicity prediction tools replace manual review under the ACMG framework? A clinical validation (Zhang, Zhang and Chen, Global Medical Genetics 2026) · Table 4, block 'DEL', row 'P', column 'AnnotSV (%)'
Configuration: AnnotSV (Zhang et al. 2026)Protocol: Three-category CNV classification, per-class agreement on deletions (Zhang et al. Table 4, DEL)
Dataset: Expert-classified ACMG CNV benchmark (Zhang et al. 2026, 3,031 CNVs)
42.9% Recall (per-class recall for reference class variant of uncertain significance, three-category scheme; printed as 'Accuracy')
percent · higher

Uncertainty: Not reported by the source

Coverage: Not reported scored / Not reported eligible

Independent external evaluation · Source checked
Methods, coverage and source

AnnotSV on the expert-classified ACMG CNV benchmark (three category deletions)

cnv-20261011-zhang2026-protocol-three-category-deletions

Aggregation: Not reported

Can automated copy number variation pathogenicity prediction tools replace manual review under the ACMG framework? A clinical validation (Zhang, Zhang and Chen, Global Medical Genetics 2026) · Table 4, block 'DEL', row 'VUS', column 'AnnotSV (%)'
Configuration: AnnotSV (Zhang et al. 2026)Protocol: Three-category CNV classification, per-class agreement on duplications (Zhang et al. Table 4, DUP)
Dataset: Expert-classified ACMG CNV benchmark (Zhang et al. 2026, 3,031 CNVs)
49.3% Recall (per-class recall for reference class benign (benign and likely benign merged), three-category scheme; printed as 'Accuracy')
percent · higher

Uncertainty: Not reported by the source

Coverage: Not reported scored / Not reported eligible

Independent external evaluation · Source checked
Methods, coverage and source

AnnotSV on the expert-classified ACMG CNV benchmark (three category duplications)

cnv-20261011-zhang2026-protocol-three-category-duplications

Aggregation: Not reported

Can automated copy number variation pathogenicity prediction tools replace manual review under the ACMG framework? A clinical validation (Zhang, Zhang and Chen, Global Medical Genetics 2026) · Table 4, block 'DUP', row 'B', column 'AnnotSV (%)'
Configuration: AnnotSV (Zhang et al. 2026)Protocol: Three-category CNV classification, per-class agreement on duplications (Zhang et al. Table 4, DUP)
Dataset: Expert-classified ACMG CNV benchmark (Zhang et al. 2026, 3,031 CNVs)
86.4% Recall (per-class recall for reference class pathogenic (pathogenic and likely pathogenic merged), three-category scheme; printed as 'Accuracy')
percent · higher

Uncertainty: Not reported by the source

Coverage: Not reported scored / Not reported eligible

Independent external evaluation · Source checked
Methods, coverage and source

AnnotSV on the expert-classified ACMG CNV benchmark (three category duplications)

cnv-20261011-zhang2026-protocol-three-category-duplications

Aggregation: Not reported

Can automated copy number variation pathogenicity prediction tools replace manual review under the ACMG framework? A clinical validation (Zhang, Zhang and Chen, Global Medical Genetics 2026) · Table 4, block 'DUP', row 'P', column 'AnnotSV (%)'
Configuration: AnnotSV (Zhang et al. 2026)Protocol: Three-category CNV classification, per-class agreement on duplications (Zhang et al. Table 4, DUP)
Dataset: Expert-classified ACMG CNV benchmark (Zhang et al. 2026, 3,031 CNVs)
67.5% Recall (per-class recall for reference class variant of uncertain significance, three-category scheme; printed as 'Accuracy')
percent · higher

Uncertainty: Not reported by the source

Coverage: Not reported scored / Not reported eligible

Independent external evaluation · Source checked
Methods, coverage and source

AnnotSV on the expert-classified ACMG CNV benchmark (three category duplications)

cnv-20261011-zhang2026-protocol-three-category-duplications

Aggregation: Not reported

Can automated copy number variation pathogenicity prediction tools replace manual review under the ACMG framework? A clinical validation (Zhang, Zhang and Chen, Global Medical Genetics 2026) · Table 4, block 'DUP', row 'VUS', column 'AnnotSV (%)'

Source checking is not independent reproduction. Release 2026-11-02-a7f03c9e55a5.

Use this configuration

How it works, versions and access

Additional methodological details, versions and access terms have not yet been extracted into a structured profile for this configuration. Consult the linked sources and evaluation records below.

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.

0 evidence rows matching the loaded filters

Claims, original sources and review scope · Release 2026-11-02-a7f03c9e55a5
Property and statementOriginal source and locationReview and provenance

No evidence rows match these filters. Choose another scope or clear the search.

Sources and history

Release 2026-11-02-a7f03c9e55a5 · Record review: source checked

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

Stable ID: cnv-20261011-zhang2026-config-annotsv

areas
dna-genomes
contexts
clinical_research
method types
conventional_pipeline
reported name
AnnotSV
foundation model eligible
false
parameters
ACMG rule-based scoring; run from GitHub or the official web interface per the original instructions; input CNV coordinates lifted from hg19 to hg38
access reuse
Obtained from GitHub or the official web interface (Methods 'Model operation and results collection')
source locator
Table 1; Methods 'Model operation and results collection'
version
v3.5.2
provenance note
AnnotSV as run by Zhang et al. 2026.
Related records

Suggest a correction