Next Generation Sequencing Innovations
Next-generation
sequencing (NGS) technologies using DNA, RNA, or
methylation sequencing have impacted enormously on the life sciences. NGS is the choice for large-scale genomic and transcriptomic
sequencing because of the high-throughput production and outputs of
sequencing data in the gigabase range per instrument run and the lower cost compared to the traditional Sanger first-generation
sequencing method. The vast amounts of data generated by NGS have broadened our understanding of structural and functional
genomics through the concepts of “omics” ranging from basic
genomics to integrated systeomics, providing new insight into the workings and meaning of genetic conservation and diversity of living things. NGS today is more than ever about how different organisms use genetic
information and
molecular biology to survive and reproduce with and without mutations, disease, and diversity within their population networks and changing environments. In this chapter, the advances, applications, and challenges of NGS are reviewed starting with a
history of first-generation
sequencing followed by the major NGS platforms, the
bioinformatics issues confronting NGS data storage and analysis, and the impacts made in the fields of genetics, biology, agriculture, and medicine in the brave, new world of ”omics.” With the development of next-generation
sequencing (NGS) technologies, DNA
sequencing has been increasingly utilized in clinical practice. Our goal was to investigate the impact of genomic evaluation on treatment decisions for heavily pretreated patients with metastatic cancer. We analyzed metastatic
cancer patients from a single institution whose cancers had progressed after all available standard-of-care therapies and whose
tumors underwent next-generation
sequencing analysis. We determined the percentage of patients who received any therapy directed by the test, and its efficacy.
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