Cellular barcoding is a technique in which individual cells are labeled with unique nucleic acid sequences, termed barcodes, so that they can be tracked through space and time. Cellular barcoding can be used to track millions of cells in parallel, and thus is an efficient approach for investigating heterogeneous populations of cells. Over the past 25 years, cellular barcoding has been used for fate mapping, lineage tracing and high-throughput screening, and has led to important insights into developmental biology and gene function. Driven by plummeting sequencing costs and the power of synthetic biology, barcoding is now expanding beyond traditional applications and into diverse fields such as neuroanatomy and the recording of cellular acti...
Abstract Background While pooled loss- and gain-of-function CRISPR screening approaches have become ...
Cellular barcoding is a relatively recent technique aimed at clonal analysis of a proliferating cell...
Reconstructing the development of lineage relationships and cell fate mapping has been a fundamental...
Cellular barcoding is a recently rediscovered tool to trace the clonal output of individual cells wi...
Cellular barcoding is a recently rediscovered tool to trace the clonal output of individual cells wi...
Cellular barcoding is a recently rediscovered tool to trace the clonal output of individual cells wi...
Cellular barcoding is a relatively simple method that allows quantitative assessment of the clonal d...
Cellular barcoding and other single-cell lineage-tracing strategies form experimental methodologies ...
Cellular barcoding and other single-cell lineage-tracing strategies form experimental methodologies...
Clonal analysis is important for many areas of hematopoietic stem cell research, including in vitro ...
SummaryCellular barcoding and other single-cell lineage-tracing strategies form experimental methodo...
Cell labeling and tracking methodologies can play an important role in experiments aimed at understa...
Multicellular systems develop from single cells through distinct lineages. However, current lineage-...
Heterogeneity is a ubiquitous feature of biological systems. A complete understanding of such system...
Abstract Background While pooled loss- and gain-of-function CRISPR screening approaches have become ...
Cellular barcoding is a relatively recent technique aimed at clonal analysis of a proliferating cell...
Reconstructing the development of lineage relationships and cell fate mapping has been a fundamental...
Cellular barcoding is a recently rediscovered tool to trace the clonal output of individual cells wi...
Cellular barcoding is a recently rediscovered tool to trace the clonal output of individual cells wi...
Cellular barcoding is a recently rediscovered tool to trace the clonal output of individual cells wi...
Cellular barcoding is a relatively simple method that allows quantitative assessment of the clonal d...
Cellular barcoding and other single-cell lineage-tracing strategies form experimental methodologies ...
Cellular barcoding and other single-cell lineage-tracing strategies form experimental methodologies...
Clonal analysis is important for many areas of hematopoietic stem cell research, including in vitro ...
SummaryCellular barcoding and other single-cell lineage-tracing strategies form experimental methodo...
Cell labeling and tracking methodologies can play an important role in experiments aimed at understa...
Multicellular systems develop from single cells through distinct lineages. However, current lineage-...
Heterogeneity is a ubiquitous feature of biological systems. A complete understanding of such system...
Abstract Background While pooled loss- and gain-of-function CRISPR screening approaches have become ...
Cellular barcoding is a relatively recent technique aimed at clonal analysis of a proliferating cell...
Reconstructing the development of lineage relationships and cell fate mapping has been a fundamental...