A major study has been undertaken to gain a better understanding of thousands of mutations in the BRCA1 gene - a key gene in breast and ovarian cancers.
CRISPR technology now allows genes and molecular pathways to be examined with greater definition. We look at how knockout cell lines, either together with gene rescue and replication of disease mutations or as an independent cell model, can be used to validate your research and extend your findings
See from a real example how Horizon's reference standards can be used to validate a new NGS assay technology.
Top ten recommendations to validate your NGS assay.
Revealing the role of E3 ubiquitin ligases in DNA damage repair. One of the diverse new uses for the HAP1 cell line, one that has begun to draw significant attention, is in the field of DNA damage repair. A recent paper from Minoru Takata's group highlights this important application of this relatively new tool.
Essential genes are defined as genes that are critical for the survival of an organism. These are considered to be genes that are absolutely required for the cell to grown, proliferate and survive. Deletion of an essential gene from a cell eventually leads to the death of this cell or a severe proliferation defect. As a consequence, it is impossible to generate cells with a knock-out or deletion of essential genes.
Cancer fusion genes are hybrid genes that produce abnormal proteins believed to catalyze further cancer growth and increase invasiveness. Here we highlight novel research using CRISPR gene editing to specifically target cancer fusion genes, which could offer many potential therapeutic applications.
A look at how a new method dubbed SHERLOCK adapts CRISPR-based technology to a diagnostic platform to allow mutation detections in DNA and RNA.
This blog explores how a selection of HAP1 knockout cell lines were used to confirm the involvement of DDR pathways in compounds mode of action, demonstrating opportunities for the exploitation of synthetic lethal interactions.