The single cell is considered the basic unit of biology, and the pursuit of understanding how
heterogeneous populations of cells can functionally coexist in tissues, organisms, microbial …

Single-cell analysis heralds a new era that allows “omics” analysis, notably genomics,
transcriptomics, epigenomics and proteomics at the single-cell level. It enables the …

The progression of next generation sequencing is continuously changing the landscape of
genomic, transcriptomic, and epigenomic studies. Particularly, advances in single cell …

The ability to capture alterations in the genome or transcriptome by next‐generation
sequencing has provided critical insight into molecular changes and programs underlying …

Single-cell sequencing technologies can be used to detect the genome, transcriptome and
other multi-omics of single cells. They can show the differences and evolutionary …

The application of next-generation sequencing in cancer genomics allowed for a better
understanding of the genetics and pathogenesis of cancer. Single-cell genomics is a …

Intensively developed in the last few years, single-cell sequencing technologies now
present numerous advantages over traditional sequencing methods for solving the problems …

Single cell sequencing (SCS) has become a new approach to study biological
heterogeneity. The advancement in technologies for single cell isolation, amplification of …

Over the past decade, genomic analyses of single cells—the fundamental units of life—have
become possible. Single-cell DNA sequencing has shed light on biological questions that …

The unabated progress in next-generation sequencing technologies is fostering a wave of
new genomics, epigenomics, transcriptomics and proteomics technologies. These …