5524澳门24小时线路 next-generation sequencing (NGS) technology uses clonal amplification and sequencing by synthesis (SBS) chemistry to enable rapid, accurate sequencing. The process simultaneously identifies DNA bases while incorporating them into a nucleic acid chain. Each base emits a unique fluorescent signal as it is added to the growing strand, which is used to determine the order of the DNA sequence.
NGS technology can be used to sequence the DNA from any organism, providing valuable information in response to almost any biological question. A highly scalable technology, DNA sequencing can be applied to small, targeted regions or the entire genome through a variety of methods, enabling researchers to investigate and better understand health and disease.
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Whole-genome sequencing is the most comprehensive method for analyzing the genome. Rapidly dropping sequencing costs and the ability to obtain valuable information about the entire genetic code make this method a powerful research tool.
With targeted resequencing, a subset of genes or regions of the genome are isolated and sequenced, allowing scientists to focus time, expenses, and analysis on specific areas of interest.
Leveraging the power of NGS, both genome-wide analysis and targeted approaches can provide researchers with insight into DNA methylation patterns at a single nucleotide level.
By combining chromatin immunoprecipitation (ChIP) assays and sequencing, ChIP sequencing (ChIP-Seq) is a powerful method to identify genome-wide DNA binding sites for transcription factors and other proteins.
Our versatile library prep portfolio allows you to examine small, targeted regions or the entire genome. We've innovated in PCR-free and on-bead fragmentation technology, offering time savings, flexibility, and increased sequencing data performance.Learn More About DNA Library Prep
This collection of peer-reviewed publications contains pros and cons, schematic protocol diagrams, and related references for various DNA sequencing methods.Read Review (PDF)
A key question driving interdisciplinary life science research is how to extract biological meaning from a wealth of genome-scale data. Scientists discuss integrated multiomic approaches that are uncovering “hidden” biological insights.View Webinar
Metagenomic sequencing of non-human DNA and RNA from human microbiome samples can rapidly and precisely identify the etiology of infections. Dr. Lauge Farnaes explains how machine learning, well-curated databases, and other tools can help labs.View Webinar
NGS-based sequencing methods allow cancer researchers to detect rare somatic variants, perform tumor-normal comparisons, and analyze circulating DNA fragments. Learn more about cancer sequencing.
Sequencing- and array-based genotyping technologies can provide insight into the functional consequences of genetic variation. Learn more about genotyping.
Cell-free DNA (cfDNA) are short fragments of DNA released into the bloodstream. cfDNA from a maternal blood sample can be used to screen for common chromosomal conditions in the fetus. Learn more about cell-free DNA technology.
Analysis of microbial species using DNA sequencing can inform environmental metagenomics studies, infectious disease surveillance, molecular epidemiology, and more. Learn more about microbial sequencing methods.