By Mary Gearing
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The crisis of antibiotic resistance is upon us, and the world is unprepared. Each year in the United States, two million people will be infected by antibiotic resistant bacteria. Even when researchers develop new antibiotics, the onset of resistance is swift, as few as five ...
This post was contributed by guest blogger Alan Wong. The complexity of biological systems can hinder our attempts to study and engineer them, but what if we had a simple tool that allowed us to rapidly decode the complexity? The CombiGEM-CRISPR technology was developed with the ...
This post was contributed by guest blogger Chris Richardson, a Postdoctoral Researcher in Jacob Corn’s lab. CRISPR-Cas9 (Cas9) is an RNA-guided nuclease that targets and cuts genomic DNA. The interplay between Cas9 (which causes the breaks) and host cell DNA repair factors ...
If you follow CRISPR research, you know all about using non-homologous end-joining (NHEJ) to make deletions or homology-directed repair (HDR) to create precise genome edits. But have you heard of another double-stranded break repair mechanism: MMEJ (microhomology-mediated ...
Updated Mar 26, 2020. At their most basic level, CRISPR/Cas9 genome editing systems use a non-specific endonuclease (Cas9 or closely related Cpf1) to cut the genome and a small RNA (gRNA) to guide this nuclease to a user-defined cut site. After reading this post, we hope you ...
Having seen CRISPR’s success in basic research, researchers are eager to apply it in a clinical setting. CRISPR is often used for animal germline modification, to repair or add in disease-causing mutations, but, until recently it hadn’t been used to treat disease postnatally. ...
As evidenced by all the CRISPR publications, press, and plasmids out there, it’s obvious that CRISPR is a ground-breaking technology that’s already had a huge impact on research and will be affecting our everyday lives very soon. Not only is CRISPR having effects on various ...
