TruPath Genome achieves high-resolution detection of SNVs and indels alongside long-range phasing for CNVs and structural variant (SV) refinement and facilitates telomere-to-telomere assemblies and pangenome development, advancing the understanding of genome biology at an unprecedented scale.
Abstract
A single genomic assay that delivers complete information across variant classes remains an aspirational goal. Currently, researchers and clinicians rely on an inefficient, expensive combination of short-read sequencing for single-nucleotide variants (SNVs) and small indels, comparative genomic hybridization (CGH) arrays for copy number variants (CNVs), and optical mapping and long-read sequencing for complex rearrangements, limiting the full potential of genomic discovery. To address these issues, TruPath Genome provides a one-test-for-all solution. By combining PCR-free whole-genome sequencing (WGS) with proximity-mapped read technology, it achieves high-resolution detection of SNVs and indels alongside long-range phasing for CNVs and structural variant (SV) refinement. We applied TruPath Genome on six clinical samples that were previously resolved by conventional methods. Across the cohort, TruPath Genome delivered coverage and variant-calling performance comparable to conventional WGS while achieving superior long-range phasing and enabling precise breakpoint resolution for clinically relevant structural events. This highlights TruPath Genome’s potential to consolidate genomic testing pipelines, accelerate diagnosis, and expand access to advanced genomic insights. Furthermore, its ultra-long-range data facilitates telomere-to-telomere assemblies and pangenome development, advancing our understanding of genome biology at an unprecedented scale.
This Primer outlines the computational foundations of long-read whole-genome analysis in human genomics, spanning read processing, mapping, de novo assembly, multi-class variant detection, haplotype phasing, repeat analysis and epigenetic profiling, and highlights key analytical trade-offs between mapping-based and ass...
Xin-Chang Zheng, P. Sanio, Rui-Bang Luo et al.· Nature Reviews Methods Prime...· 0 citations
This work describes the full spectrum of genetic variation and shows that while 99% of the variants between any two genomes are single base-pair substitutions, 88% of the euchromatic variant base pairs are SVs, including insertions, deletions, duplications, and inversions.
J. Lin, J. Gustafson, J. Wertz et al.· medRxiv· 1 citation
The Genome in a Bottle (GIAB) Consortium’s HG002 v5.0q benchmark set is presented, a more comprehensive variant benchmark derived from a fully phased, highly curated, and accurate diploid assembly of HG002 to provide confident small- and structural-variant calls across previously inaccessible regions.
Nathan D. Olson, Nathan Dwarshuis, Nancy F. Hansen et al.· bioRxiv· 1 citation
This review elucidates the impact of LRS across isolate genomics, metagenomics, and multi-omics domains and indicates that LRS is increasingly becoming the method of choice for isolate genomics and metagenomics.
Xing Rao, Yu-He Gu, Gabriella et al.· GigaScience· 0 citations
Background Next-generation sequencing (NGS) is vital for tracking viral evolution during outbreaks. Oxford Nanopore Technologies (ONT) offers long-read, cost-effective sequencing, but accurate sub-consensus variant detection remains challenging. LoFreq, a widely used caller for sub-consensus variant calling in haploid...
Xavier Zair, Andreas Wilm, Miles C. Benton et al.· PLoS ONE· 0 citations