Nature Portfolio’s Post

CRISPR gene editing has made its way into every corner of modern biology, but there’s one place CRISPR can’t easily reach: mitochondria. Researchers have been looking for other ways to precisely edit the mitochondrial genome and the past few years have brought some success. Read the article: https://lnkd.in/eMtQXMTc

  • This image is an illustration that shows several researchers trying to break into a mitochondrion using various tools, like a hammer and scissors, to access the mitochondrial DNA.
Abraham Trueba

AI/ML/automation architect accelerating drug discovery. Berkeley Chemical Biology × Brandeis Bioinformatics. Ex-Moderna Vaccine QC. Building computational frameworks that cut FDA validation from years to months.

5h

Remarkable progress, but the clinical path is long. The key challenge isn't just delivery, but ensuring specificity in an organelle with a high mutation rate and minimal DNA repair. Off-target effects in mtDNA could be uniquely problematic.

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Omid Niazi

Research Assistant- Scientific & Technical staff Molecular Biologist | Cancer & Diabetes Research | interested in Signal Transduction, Gene Expression, and Translational Medicine.

13h

I think we’re at a “very promising” stage: the barrier (mitochondrial genome editing) that long held back therapies for mtDNA mutation disease is being breached. The advent of mitochondrial base editors is a big leap. If the field can solve delivery and specificity issues, the next decade could see real clinical applications for mitochondrial diseases that currently have very limited treatments.

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Not Physical way, Biochemical way preferred

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