Systematic assessment of structural variant annotation tools for genomic interpretation

Structural variants (SVs) over 50 base pairs play a significant role in phenotypic diversity and are associated with various diseases, but their analysis is complex and resource-intensive. Numerous computational tools have been developed for SV prioritization, yet their effectiveness in biomedicine remains unclear. Here we benchmarked eight widely used SV prioritization tools, categorized into knowledge-driven (AnnotSV, ClassifyCNV) and data-driven (CADD-SV, dbCNV, StrVCTVRE, SVScore, TADA, XCNV) groups in accordance with the ACMG guidelines. We assessed their accuracy, robustness, and usability across diverse genomic contexts, biological mechanisms and computational efficiency using seven carefully curated independent datasets. Our results revealed that both groups of methods exhibit comparable effectiveness in predicting SV pathogenicity, although performance varies among tools, emphasizing the importance of selecting the appropriate tool based on specific research purposes. Furthermore, we pinpointed the potential improvement of expanding these tools for future applications. Our benchmarking framework provides a crucial evaluation method for SV analysis tools, offering practical guidance for biomedical research and facilitating the advancement of better genomic research tools.

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Publication Details

Journal
Life Science Alliance
Published
2024-12-10
DOI
https://doi.org/10.26508/lsa.202402949
Citations
4
Primary Topic
Genomics and Rare Diseases
Type
article
Field-Weighted Citation Impact
2.20

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article

Systematic assessment of structural variant annotation tools for genomic interpretation

Fei Leng, Lei Gu, Chanjuan Hao, Xuanshi Liu et al.
4 citations
Life Science Alliance
Genomics and Rare Diseases
2.20
article

Systematic assessment of structural variant annotation tools for genomic interpretation

Fei Leng, Lei Gu, Chanjuan Hao, Xuanshi Liu, Wenjian Xu, Wei Li, Peng Zhang
article en
4 citations

Abstract

Structural variants (SVs) over 50 base pairs play a significant role in phenotypic diversity and are associated with various diseases, but their analysis is complex and resource-intensive. Numerous computational tools have been developed for SV prioritization, yet their effectiveness in biomedicine remains unclear. Here we benchmarked eight widely used SV prioritization tools, categorized into knowledge-driven (AnnotSV, ClassifyCNV) and data-driven (CADD-SV, dbCNV, StrVCTVRE, SVScore, TADA, XCNV) groups in accordance with the ACMG guidelines. We assessed their accuracy, robustness, and usability across diverse genomic contexts, biological mechanisms and computational efficiency using seven carefully curated independent datasets. Our results revealed that both groups of methods exhibit comparable effectiveness in predicting SV pathogenicity, although performance varies among tools, emphasizing the importance of selecting the appropriate tool based on specific research purposes. Furthermore, we pinpointed the potential improvement of expanding these tools for future applications. Our benchmarking framework provides a crucial evaluation method for SV analysis tools, offering practical guidance for biomedical research and facilitating the advancement of better genomic research tools.

Life Science AllianceVol. 8(3)
Capital Medical University (CN), Center for Children (US), Max Planck Institute for Heart and Lung Research (DE), Beijing Children’s Hospital (CN)
National Natural Science Foundation of China, Ministry of Science and Technology of the People's Republic of China, National Outstanding Youth Science Fund Project of National Natural Science Foundation of China
Openalex Percentile: Top 11%
Genomics and Rare Diseases
2.20
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