Scientific Reports · 2017 · 134 citations · 48 references
Life SciencesInfectious DiseasesMolecular BiologyGenome EditingMolecular VirologyVirologyAntiretroviral TherapyAntiviral TherapyCrispr-cas SystemsTherapeutic Genome EditingViral Immune EvasionCrispr-cas Genome EditingCrispr-cas9 Genome EditingEscapePrecise Genome EditingViral Escape MutationsViral Genome EditingViral Replication ControlViral Replication Kinetics
HIV presents one of the highest evolutionary rates ever detected and combination antiretroviral therapy is needed to overcome the plasticity of the virus population and control viral replication. Conventional treatments lack the ability to clear the latent reservoir, which remains the major obstacle towards a cure. Novel strategies, such as CRISPR/Cas9 gRNA-based genome-editing, can permanently disrupt the HIV genome. However, HIV genome-editing may accelerate viral escape, questioning the feasibility of the approach. Here, we demonstrate that CRISPR/Cas9 targeting of single HIV loci, only partially inhibits HIV replication and facilitates rapid viral escape at the target site. A combinatorial approach of two strong gRNAs targeting different regions of the HIV genome can completely abrogate viral replication and prevent viral escape. Our data shows that the accelerating effect of gene-editing on viral escape can be overcome and as such gene-editing may provide a future alternative for control of HIV-infection.
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MEGA6: Molecular Evolutionary Genetics Analysis Version 6.0
Koichiro Tamura, Glen Stecher, Daniel S. Peterson et al. · Molecular Biology and Evolution · 2013 · 47.9K citations · Full text
RNA-Guided Human Genome Engineering via Cas9
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Rapid and simple method for purification of nucleic acids
René Boom, C. J. A. Sol, M M Salimans et al. · Journal of Clinical Microbiology · 1990 · 5.3K citations · Full text