Aug 2026· Georgetown Medical Review· 0 citations· 25 references
TL;DR
A review of studies in which the creation of a CRISPR-Cas9 animal model has been used to find genetic drivers and develop therapies across 4 CVD domains shows the vast range of gene editing applications and the value of models that parallel human genetic pathophysiology for specific disease processes.
Abstract
Cardiovascular disease (CVD) causes more deaths, more years of life lost, and more years lived with disability than any other major category of disease worldwide. Gene editing technologies, including the CRISPR-Cas9 system and its offshoots, are increasingly applied in CVD animal research models to identify genetic drivers of disease processes and to develop and test targeted therapeutics. To explore the potential impact and limitations of using animal models for these applications, this review examines studies in which the creation of a CRISPR-Cas9 animal model has been used to find genetic drivers and develop therapies. Studies were identified using OVID Medline, searching the past 10 years of the primary literature across 4 CVD domains: congenital heart disease, hypertrophic cardiomyopathy, heart failure, and atherosclerosis. The studies illustrate the vast range of gene editing applications and the value of models that parallel human genetic pathophysiology for specific disease processes. Besides furthering anatomical, clinical, and natural historical understanding of CVD pathologies and providing biological substrates in the development of screening and diagnostic tools, animal models support foundational stages in the development of genetic therapeutics, from gene target identification to discovery and development of gene-editing therapy mechanisms and delivery vehicles, through conducting therapeutic trials to assess the risk-benefit ratio.
Genome editing is a paradigm-shifting development within the field of cardiology that promises a long-term genetic remedy, yet further optimization and development within genome editing and its guidelines will be important for making such a paradigm shift successful.
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The success of CRISPR-Cas9 in monogenic diseases represents the prelude to precision medicine, whereas conquering complex diseases will require systematic leaps in target discovery, delivery technology, and safety profiles.
CRISPR has emerged as a next-generation gene-editing tool with the potential to target the molecular pathways associated with ageing and related disorders. It functions through RNA-guided Cas nucleases, directing DNA cleavage and utilizing the native DNA repair machinery for genetic manipulations. Advances in CRISPR te...
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This review evaluates the potential of CRISPR-based editing as a therapeutic strategy for monogenic NDDs and evaluates the limitations that must be addressed before its widespread application in human patients.
Julia Mulles· American Journal of Student...· 0 citations
CRISPR has progressed from an experimental genome-engineering technology to a clinically relevant therapeutic platform, although its future impact will depend on the ability to combine molecular precision and durable therapeutic benefit with rigorous safety assessment, responsible governance, and equitable access acros...
Gabriel Alejandro Ortega Moreno, Gerardo Amaya Villagran, A. González et al.· International science journa...· 0 citations
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