Nature Chemical BiologyBiochemistryPeer-reviewed journal article
De novo design of potent CRISPR-Cas13 inhibitors
Cyntia TaveneauiD, Her Xiang ChaiiD, Jovita D’SilvaiD, Rebecca S. BamertiD, Honglin CheniD, Brooke K. HayesiD, Roland W. CalvertiD, Jacob PurcelliD, Daniel J. CurweniD, Fabian MunderiD, Lisandra L. MartiniD, Jeremy J. BarriD, Joseph RosenbluhiD, Mohamed FarehiD, Rhys GrinteriD, Gavin J. KnottiD
Abstract
CRISPR-Cas systems are transformative tools for gene editing which can be tuned or controlled by anti-CRISPRs (Acrs) - phage derived inhibitors that regulate CRISPR-Cas activity. However, Acrs that are capable of inhibiting biotechnologically relevant CRISPR systems are relatively rare and challenging to discover. To overcome this limitation, we describe a highly successful, rapid, and generalisable approach that leverages de novo protein design to develop new-to-nature proteins for controlling CRISPR-Cas activity. Using CRISPR-Cas13 as a representative example, we demonstrate that AI-designed anti-CRISPRs (AIcrs) are capable of highly potent and specific inhibition of CRISPR-Cas13 proteins. We present a comprehensive workflow for design validation and demonstrate AIcrs functionality in controlling CRISPR-Cas13 activity in bacteria. The ability to design bespoke inhibitors of Cas effectors will contribute to the ongoing development of CRISPR-Cas tools in diverse applications across research, medicine, agriculture, and microbiology.
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- FWCI
- 15.45
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- top 1%
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