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Improving CNV Detection Performance Except for Software-Specific Problematic Regions (Hwang et al., Genes 2026)

Genes 17(1):105, published 2026-01-19; PMC12841491 full-text XML · Peer-reviewed

DOI: 10.3390/genes17010105

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Results

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Model or configurationMetricValueDatasetEvaluation
cn.MOPS v1.14.1, post-filter (Hwang et al. 2026)Count (exon level; reference CMA CNV exons in the evaluated set)2723 countKorea University clinical exomes with CMA reference CNVs (Hwang et al. 2026)cn.MOPS (post-filter) on 39 clinical exomes against CMA truth
cn.MOPS v1.14.1, post-filter (Hwang et al. 2026)False negatives (exon level)2282 countKorea University clinical exomes with CMA reference CNVs (Hwang et al. 2026)cn.MOPS (post-filter) on 39 clinical exomes against CMA truth
cn.MOPS v1.14.1, post-filter (Hwang et al. 2026)False positives (exon level)2628 countKorea University clinical exomes with CMA reference CNVs (Hwang et al. 2026)cn.MOPS (post-filter) on 39 clinical exomes against CMA truth
cn.MOPS v1.14.1, post-filter (Hwang et al. 2026)Precision (exon level)0.144 fractionKorea University clinical exomes with CMA reference CNVs (Hwang et al. 2026)cn.MOPS (post-filter) on 39 clinical exomes against CMA truth
cn.MOPS v1.14.1, post-filter (Hwang et al. 2026)Recall (exon level)0.162 fractionKorea University clinical exomes with CMA reference CNVs (Hwang et al. 2026)cn.MOPS (post-filter) on 39 clinical exomes against CMA truth
cn.MOPS v1.14.1, post-filter (Hwang et al. 2026)True positives (exon level)441 countKorea University clinical exomes with CMA reference CNVs (Hwang et al. 2026)cn.MOPS (post-filter) on 39 clinical exomes against CMA truth
cn.MOPS v1.14.1, pre-filter (Hwang et al. 2026)Count (exon level; reference CMA CNV exons in the evaluated set)2788 countKorea University clinical exomes with CMA reference CNVs (Hwang et al. 2026)cn.MOPS (pre-filter) on 39 clinical exomes against CMA truth
cn.MOPS v1.14.1, pre-filter (Hwang et al. 2026)False negatives (exon level)2314 countKorea University clinical exomes with CMA reference CNVs (Hwang et al. 2026)cn.MOPS (pre-filter) on 39 clinical exomes against CMA truth
cn.MOPS v1.14.1, pre-filter (Hwang et al. 2026)False positives (exon level)11,164 countKorea University clinical exomes with CMA reference CNVs (Hwang et al. 2026)cn.MOPS (pre-filter) on 39 clinical exomes against CMA truth
cn.MOPS v1.14.1, pre-filter (Hwang et al. 2026)Precision (exon level)0.041 fractionKorea University clinical exomes with CMA reference CNVs (Hwang et al. 2026)cn.MOPS (pre-filter) on 39 clinical exomes against CMA truth
cn.MOPS v1.14.1, pre-filter (Hwang et al. 2026)Recall (exon level)0.170 fractionKorea University clinical exomes with CMA reference CNVs (Hwang et al. 2026)cn.MOPS (pre-filter) on 39 clinical exomes against CMA truth
cn.MOPS v1.14.1, pre-filter (Hwang et al. 2026)True positives (exon level)474 countKorea University clinical exomes with CMA reference CNVs (Hwang et al. 2026)cn.MOPS (pre-filter) on 39 clinical exomes against CMA truth
CNVkit v0.9.7, post-filter (Hwang et al. 2026)Count (exon level; reference CMA CNV exons in the evaluated set)2710 countKorea University clinical exomes with CMA reference CNVs (Hwang et al. 2026)CNVkit (post-filter) on 39 clinical exomes against CMA truth
CNVkit v0.9.7, post-filter (Hwang et al. 2026)False negatives (exon level)866 countKorea University clinical exomes with CMA reference CNVs (Hwang et al. 2026)CNVkit (post-filter) on 39 clinical exomes against CMA truth
CNVkit v0.9.7, post-filter (Hwang et al. 2026)False positives (exon level)6578 countKorea University clinical exomes with CMA reference CNVs (Hwang et al. 2026)CNVkit (post-filter) on 39 clinical exomes against CMA truth
CNVkit v0.9.7, post-filter (Hwang et al. 2026)Precision (exon level)0.219 fractionKorea University clinical exomes with CMA reference CNVs (Hwang et al. 2026)CNVkit (post-filter) on 39 clinical exomes against CMA truth
CNVkit v0.9.7, post-filter (Hwang et al. 2026)Recall (exon level)0.680 fractionKorea University clinical exomes with CMA reference CNVs (Hwang et al. 2026)CNVkit (post-filter) on 39 clinical exomes against CMA truth
CNVkit v0.9.7, post-filter (Hwang et al. 2026)True positives (exon level)1844 countKorea University clinical exomes with CMA reference CNVs (Hwang et al. 2026)CNVkit (post-filter) on 39 clinical exomes against CMA truth
CNVkit v0.9.7, pre-filter (Hwang et al. 2026)Count (exon level; reference CMA CNV exons in the evaluated set)2788 countKorea University clinical exomes with CMA reference CNVs (Hwang et al. 2026)CNVkit (pre-filter) on 39 clinical exomes against CMA truth
CNVkit v0.9.7, pre-filter (Hwang et al. 2026)False negatives (exon level)941 countKorea University clinical exomes with CMA reference CNVs (Hwang et al. 2026)CNVkit (pre-filter) on 39 clinical exomes against CMA truth
CNVkit v0.9.7, pre-filter (Hwang et al. 2026)False positives (exon level)17,340 countKorea University clinical exomes with CMA reference CNVs (Hwang et al. 2026)CNVkit (pre-filter) on 39 clinical exomes against CMA truth
CNVkit v0.9.7, pre-filter (Hwang et al. 2026)Precision (exon level)0.096 fractionKorea University clinical exomes with CMA reference CNVs (Hwang et al. 2026)CNVkit (pre-filter) on 39 clinical exomes against CMA truth
CNVkit v0.9.7, pre-filter (Hwang et al. 2026)Recall (exon level)0.662 fractionKorea University clinical exomes with CMA reference CNVs (Hwang et al. 2026)CNVkit (pre-filter) on 39 clinical exomes against CMA truth
CNVkit v0.9.7, pre-filter (Hwang et al. 2026)True positives (exon level)1847 countKorea University clinical exomes with CMA reference CNVs (Hwang et al. 2026)CNVkit (pre-filter) on 39 clinical exomes against CMA truth
CoNIFER v0.2.2, post-filter (Hwang et al. 2026)Count (exon level; reference CMA CNV exons in the evaluated set)2713 countKorea University clinical exomes with CMA reference CNVs (Hwang et al. 2026)CoNIFER (post-filter) on 39 clinical exomes against CMA truth
CoNIFER v0.2.2, post-filter (Hwang et al. 2026)False negatives (exon level)620 countKorea University clinical exomes with CMA reference CNVs (Hwang et al. 2026)CoNIFER (post-filter) on 39 clinical exomes against CMA truth
CoNIFER v0.2.2, post-filter (Hwang et al. 2026)False positives (exon level)6288 countKorea University clinical exomes with CMA reference CNVs (Hwang et al. 2026)CoNIFER (post-filter) on 39 clinical exomes against CMA truth
CoNIFER v0.2.2, post-filter (Hwang et al. 2026)Precision (exon level)0.250 fractionKorea University clinical exomes with CMA reference CNVs (Hwang et al. 2026)CoNIFER (post-filter) on 39 clinical exomes against CMA truth
CoNIFER v0.2.2, post-filter (Hwang et al. 2026)Recall (exon level)0.771 fractionKorea University clinical exomes with CMA reference CNVs (Hwang et al. 2026)CoNIFER (post-filter) on 39 clinical exomes against CMA truth
CoNIFER v0.2.2, post-filter (Hwang et al. 2026)True positives (exon level)2093 countKorea University clinical exomes with CMA reference CNVs (Hwang et al. 2026)CoNIFER (post-filter) on 39 clinical exomes against CMA truth
CoNIFER v0.2.2, pre-filter (Hwang et al. 2026)Count (exon level; reference CMA CNV exons in the evaluated set)2788 countKorea University clinical exomes with CMA reference CNVs (Hwang et al. 2026)CoNIFER (pre-filter) on 39 clinical exomes against CMA truth
CoNIFER v0.2.2, pre-filter (Hwang et al. 2026)False negatives (exon level)646 countKorea University clinical exomes with CMA reference CNVs (Hwang et al. 2026)CoNIFER (pre-filter) on 39 clinical exomes against CMA truth
CoNIFER v0.2.2, pre-filter (Hwang et al. 2026)False positives (exon level)6838 countKorea University clinical exomes with CMA reference CNVs (Hwang et al. 2026)CoNIFER (pre-filter) on 39 clinical exomes against CMA truth
CoNIFER v0.2.2, pre-filter (Hwang et al. 2026)Precision (exon level)0.239 fractionKorea University clinical exomes with CMA reference CNVs (Hwang et al. 2026)CoNIFER (pre-filter) on 39 clinical exomes against CMA truth
CoNIFER v0.2.2, pre-filter (Hwang et al. 2026)Recall (exon level)0.768 fractionKorea University clinical exomes with CMA reference CNVs (Hwang et al. 2026)CoNIFER (pre-filter) on 39 clinical exomes against CMA truth
CoNIFER v0.2.2, pre-filter (Hwang et al. 2026)True positives (exon level)2142 countKorea University clinical exomes with CMA reference CNVs (Hwang et al. 2026)CoNIFER (pre-filter) on 39 clinical exomes against CMA truth
ExomeDepth v1.1.15, post-filter (Hwang et al. 2026)Count (exon level; reference CMA CNV exons in the evaluated set)2124 countKorea University clinical exomes with CMA reference CNVs (Hwang et al. 2026)ExomeDepth (post-filter) on 39 clinical exomes against CMA truth
ExomeDepth v1.1.15, post-filter (Hwang et al. 2026)False negatives (exon level)207 countKorea University clinical exomes with CMA reference CNVs (Hwang et al. 2026)ExomeDepth (post-filter) on 39 clinical exomes against CMA truth
ExomeDepth v1.1.15, post-filter (Hwang et al. 2026)False positives (exon level)16,797 countKorea University clinical exomes with CMA reference CNVs (Hwang et al. 2026)ExomeDepth (post-filter) on 39 clinical exomes against CMA truth
ExomeDepth v1.1.15, post-filter (Hwang et al. 2026)Precision (exon level)0.102 fractionKorea University clinical exomes with CMA reference CNVs (Hwang et al. 2026)ExomeDepth (post-filter) on 39 clinical exomes against CMA truth
ExomeDepth v1.1.15, post-filter (Hwang et al. 2026)Recall (exon level)0.903 fractionKorea University clinical exomes with CMA reference CNVs (Hwang et al. 2026)ExomeDepth (post-filter) on 39 clinical exomes against CMA truth
ExomeDepth v1.1.15, post-filter (Hwang et al. 2026)True positives (exon level)1917 countKorea University clinical exomes with CMA reference CNVs (Hwang et al. 2026)ExomeDepth (post-filter) on 39 clinical exomes against CMA truth
ExomeDepth v1.1.15, pre-filter (Hwang et al. 2026)Count (exon level; reference CMA CNV exons in the evaluated set)2788 countKorea University clinical exomes with CMA reference CNVs (Hwang et al. 2026)ExomeDepth (pre-filter) on 39 clinical exomes against CMA truth
ExomeDepth v1.1.15, pre-filter (Hwang et al. 2026)False negatives (exon level)674 countKorea University clinical exomes with CMA reference CNVs (Hwang et al. 2026)ExomeDepth (pre-filter) on 39 clinical exomes against CMA truth
ExomeDepth v1.1.15, pre-filter (Hwang et al. 2026)False positives (exon level)83,135 countKorea University clinical exomes with CMA reference CNVs (Hwang et al. 2026)ExomeDepth (pre-filter) on 39 clinical exomes against CMA truth
ExomeDepth v1.1.15, pre-filter (Hwang et al. 2026)Precision (exon level)0.025 fractionKorea University clinical exomes with CMA reference CNVs (Hwang et al. 2026)ExomeDepth (pre-filter) on 39 clinical exomes against CMA truth
ExomeDepth v1.1.15, pre-filter (Hwang et al. 2026)Recall (exon level)0.758 fractionKorea University clinical exomes with CMA reference CNVs (Hwang et al. 2026)ExomeDepth (pre-filter) on 39 clinical exomes against CMA truth
ExomeDepth v1.1.15, pre-filter (Hwang et al. 2026)True positives (exon level)2114 countKorea University clinical exomes with CMA reference CNVs (Hwang et al. 2026)ExomeDepth (pre-filter) on 39 clinical exomes against CMA truth

Claims

Statements this source supports, each with where in the source it was checked.

  • Baseline: Select a copy-number variant detection and characterisation workflow: Baseline ExomeDepth, CNVnator, AnnotSV and ClassifyCNV (cnv-20261009-source-gabrielaite2021: Abstract and Results (callers compared and recommended); cnv-20261011-hwang2026-source-article: Abstract and Materials and Methods 2.3 (ExomeDepth among four WES callers); cnv-20261011-zhang2026-source-article: Methods (rule-based and machine-learning tool categories))
  • Evidence summary: Select a copy-number variant detection and characterisation workflow: Summary On HG002 deletions, DRAGEN 4.2 with SV-informed CNV calling found 87 to 100% of deletions in every size bin, with precision 0.99 to 1.00; this is the developers' own benchmark. CNVnator matched it above 10 kb but found only 26% of deletions of 1 to 5 kb and 51% of 5 to 10 kb. On NA12878, LUMPY, DELLY and Manta recovered 88 to 94% of known CNVs, but only 20 to 33% of their calls matched; Manta and CNVnator were used to build this truth set, which can favour them. The other callers recovered 1 to 43%. Hwang et al. (2026) compared four exome callers with chromosomal microarray CNVs in 39 clinical exomes, scoring deletion and duplication exons together: sensitivity and PPV were 0.758 and 0.025 for ExomeDepth, 0.662 and 0.096 for CNVkit, 0.768 and 0.239 for CoNIFER and 0.170 and 0.041 for cn.MOPS. The truth set keeps only array CNVs with at least ten probes that overlap exome baits, so any other exon call counts as a false positive. After the authors removed regions where each tool called CNVs in more than 10% of the same 180-exome cohort, ExomeDepth reached 0.903 and 0.102 on a smaller reference set of 2,124 exons (Table 4); this filter is the authors' own method. For characterisation, Zhang et al. (2026) ran five automated ACMG classifiers on 3,031 expert-classified CNVs: five-category accuracy, averaged across classes in a way the paper does not state, ranged from 48.76% (X-CNV) to 69.81% (MarCNV-ISV) (Table 3). With likely and definite classes merged, every tool recognised more pathogenic deletions than pathogenic duplications (AnnotSV 95.16% versus 86.39%) (Table 4). Two of the three authors developed dbCNV and the reference includes their own laboratory's cases, so the dbCNV results are author-reported. None of the comparisons shown reports duplication detection separately, none covers tumour samples or long reads, and none evaluates a foundation model. (amp-source-dragen-supplementary-tables: sheet 'S4 CNV benchmarking' rows 6-10; cnv-20261009-source-gabrielaite2021-table-s2: rows with sample GB-WGS-NA12878; cnv-20261011-hwang2026-source-article: Table 4; Methods 2.2 and 2.5; cnv-20261011-zhang2026-source-article: Tables 3 and 4)
  • Relevance of Exon-level CNV detection in clinical exomes against CMA truth, after removing tool-specific problematic regions (Hwang et al. Table 4, post-filter) to "Select a copy-number variant detection and characterisation workflow": Assessed by Exon-level CNV detection in clinical exomes against CMA truth, after removing tool-specific problematic regions (Hwang et al. Table 4, post-filter) (cnv-20261011-hwang2026-source-article: Table 4; Methods 2.2 to 2.5; Results 3.3)
  • Relevance of Exon-level CNV detection in clinical exomes against CMA truth, default calls (Hwang et al. Table 4, pre-filter) to "Select a copy-number variant detection and characterisation workflow": Assessed by Exon-level CNV detection in clinical exomes against CMA truth, default calls (Hwang et al. Table 4, pre-filter) (cnv-20261011-hwang2026-source-article: Table 4; Methods 2.2 to 2.5; Results 3.3)

Models, benchmarks and other records

Methods (1)

Configurations (8)

Protocols (2)

Datasets (1)

Evaluations (8)

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Improving CNV Detection Performance Except for Software-Specific Problematic Regions (Hwang et al., Genes 2026)

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Improving CNV Detection Performance Except for Software-Specific Problematic Regions (Hwang et al., Genes 2026)

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Improving CNV Detection Performance Except for Software-Specific Problematic Regions (Hwang et al., Genes 2026)

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Improving CNV Detection Performance Except for Software-Specific Problematic Regions (Hwang et al., Genes 2026)

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  • Abstract gives ExomeDepth gains of 14.4% in sensitivity and 7.9% in PPV after filtering; Table 4 gives 0.758 to 0.903 (14.5 points) and 0.025 to 0.102 (7.7 points).
  • Results 3.3 says ExomeDepth PPV 'increased five-fold'; Table 4 gives 0.025 to 0.102, about four-fold.
  • Supplementary files (one zip) were not retrieved.
  • The Abstract says all tools improved after filtration; Table 4 gives cn.MOPS sensitivity falling from 0.170 to 0.162.
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Improving CNV Detection Performance Except for Software-Specific Problematic Regions (Hwang et al., Genes 2026)

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Improving CNV Detection Performance Except for Software-Specific Problematic Regions (Hwang et al., Genes 2026)

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Improving CNV Detection Performance Except for Software-Specific Problematic Regions (Hwang et al., Genes 2026)

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Improving CNV Detection Performance Except for Software-Specific Problematic Regions (Hwang et al., Genes 2026)

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Improving CNV Detection Performance Except for Software-Specific Problematic Regions (Hwang et al., Genes 2026)

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Genes 17(1):105, published 2026-01-19; PMC12841491 full-text XML
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Improving CNV Detection Performance Except for Software-Specific Problematic Regions (Hwang et al., Genes 2026)

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Stable ID: cnv-20261011-hwang2026-source-article

areas
dna-genomes
contexts
clinical_research
url
https://doi.org/10.3390/genes17010105
artifact url
https://www.ebi.ac.uk/europepmc/webservices/rest/PMC12841491/fullTextXML
version
Genes 17(1):105, published 2026-01-19; PMC12841491 full-text XML
retrieved at
2026-10-11T21:36:59Z
artifact sha256
ff82a186d0adcf319b603a1100427ec0f6ed95becf040b512d0aef5e515bdc5d
doi
10.3390/genes17010105
publication status
peer_reviewed
licence
CC-BY-4.0
media type
application/xml
limitations
Abstract gives ExomeDepth gains of 14.4% in sensitivity and 7.9% in PPV after filtering; Table 4 gives 0.758 to 0.903 (14.5 points) and 0.025 to 0.102 (7.7 points).; Results 3.3 says ExomeDepth PPV 'increased five-fold'; Table 4 gives 0.025 to 0.102, about four-fold.; Supplementary files (one zip) were not retrieved.; The Abstract says all tools improved after filtration; Table 4 gives cn.MOPS sensitivity falling from 0.170 to 0.162.
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