Whole-genome disassembly

Commentary Whole-genome disassembly

T race to sequence the human genome has garnered a level of popular attention unprecedented for a scientific endeavor. This fascination has partly been caused of course by the importance of the goal; but it also reflects the Olympian nature of the contest, which opposed two capable teams with sharply contrasting cultures (public and private), personalities, and strategies. Titanic struggles bei...

Whole ‐ genome

The discovery of Hordeum spontaneum C. Koch, a wild ancestor of cultivated barley, in Morocco in 1978 led to the proposal of a multicentric origin for this crop, as an alternative to the widely accepted theory of a single centre of domestication in the Fertile Crescent. Since this discovery, we have tested this hypothesis using the most advanced genetic techniques available at the time, from CM...

Whole Genome Sequencing: An Efficient Approach in Food Safety Management System

Whole exome and whole genome sequencing.

PURPOSE OF REVIEW The purpose of this review is to describe the new DNA sequencing technologies referred to as next-generation sequencing (NGS). These new methods are becoming central to research in human disease and are starting to be used in routine clinical care. RECENT FINDINGS Advances in instrumentation have dramatically reduced the cost of DNA sequencing. An individual's entire genome ...

O-38: Concurrent Whole-Genome Haplotyping and Copy-Number Profiling of Single Cells

Background Methods for haplotyping and DNA copynumber typing of single cells are paramount for studying genomic heterogeneity and enabling genetic diagnosis. Before analyzing the DNA of a single cell by microarray or next-generation sequencing, a whole-genome amplification (WGA) process is required, but it substantially distorts the frequency and composition of the cell’s alleles. As a conseque...