The Third-Generation Sequencing Challenge: Novel Insights for the Omic Sciences.
Carmela ScaranoIolanda VenerusoRosa Redenta De SimoneGennaro Di BonitoAngela SecondinoValeria DArgenioPublished in: Biomolecules (2024)
The understanding of the human genome has been greatly improved by the advent of next-generation sequencing technologies (NGS). Despite the undeniable advantages responsible for their widespread diffusion, these methods have some constraints, mainly related to short read length and the need for PCR amplification. As a consequence, long-read sequencers, called third-generation sequencing (TGS), have been developed, promising to overcome NGS. Starting from the first prototype, TGS has progressively ameliorated its chemistries by improving both read length and base-calling accuracy, as well as simultaneously reducing the costs/base. Based on these premises, TGS is showing its potential in many fields, including the analysis of difficult-to-sequence genomic regions, structural variations detection, RNA expression profiling, DNA methylation study, and metagenomic analyses. Protocol standardization and the development of easy-to-use pipelines for data analysis will enhance TGS use, also opening the way for their routine applications in diagnostic contexts.
Keyphrases
- data analysis
- genome wide
- dna methylation
- single molecule
- copy number
- single cell
- endothelial cells
- nucleic acid
- randomized controlled trial
- real time pcr
- gene expression
- label free
- clinical practice
- induced pluripotent stem cells
- antibiotic resistance genes
- loop mediated isothermal amplification
- quantum dots
- sensitive detection
- genome wide analysis