Tag Archives: Gene editing


In a recent Nature Communications article, Alex M. Vakulskas, Andrew P. Goodman, Paola S. Guerena, William L. Hsieh, Benjamin M. Lane, Joseph N. Blattman, John L. Rinn, and Silvana Konermann present an innovative approach to overcoming one of the biggest challenges in epigenome editing: efficient delivery.





The team developed RENDER (Robust ENveloped Delivery of Epigenome-editor Ribonucleoproteins), a platform that packages CRISPR-based epigenome editors into engineered virus-like particles (eVLPs). Unlike viral vectors or plasmid delivery, which can pose risks of integration and cytotoxicity, RENDER delivers the editors as transient ribonucleoproteins (RNPs), ensuring high specificity and reduced off-target effects.This system was tested across a range of cell types, including iPSC-derived neurons and primary human T cells, showing durable gene silencing from a single treatment.





Remarkably, when applied to neurons carrying the MAPT V337M mutation, RENDER reduced Tau protein expression by more than 60% — a proof-of-concept with implications for treating neurodegenerative diseases.The ability to deliver programmable epigenome editors safely, transiently, and effectively represents a leap forward for gene regulation therapies. With continued optimization, this platform could accelerate progress in epigenetic drug development and broaden research applications. Click here for further reading.





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After years of stalled progress, the fight against antibiotic resistance is gaining momentum. Scientists are now exploring new ways to treat infections without relying solely on traditional antibiotics, a major shift that could reshape how we manage bacterial diseases worldwide.






Thanks to support from organizations like CARB-X and GARDP, researchers are pushing forward alternatives that were once considered too risky or radical. These include therapies like bacteriophages (viruses that infect bacteria), enzymes called lysins that break down bacterial walls, and even treatments that adjust the body’s natural microbiome.






Some scientists are testing immune-based approaches and CRISPR technology to target bacteria more precisely. These ideas are still early in development, but the growing investment and interest show a renewed belief that we don’t have to stay trapped in the old cycle of resistance.
The hope is that these innovative treatments, along with better diagnostic tools and smarter trial designs, could one day offer safer, more sustainable ways to fight deadly infections, especially as antibiotic resistance continues to rise.






This shift marks a new chapter in global health, where innovation may finally help turn the tide against superbugs.
Learn more here.







Yale researchers have developed an advanced CRISPR-Cas9 gene-editing system that enables simultaneous modifications across multiple genes, a breakthrough that could transform disease research and treatment development.





Unlike traditional CRISPR methods, which target single genes at a time, this new approach allows scientists to study complex genetic interactions in diseases such as cancer, autoimmune disorders, and neurological conditions.





Using sophisticated mouse models, the research team demonstrated how this enhanced CRISPR system could map genetic pathways and identify potential therapeutic targets more effectively. The ability to edit multiple genes at once provides a deeper understanding of how different mutations contribute to disease, paving the way for more precise gene-based treatments. This advancement is expected to accelerate the development of personalized medicine and improve therapies for conditions with complex genetic underpinnings.





Funded by the National Institutes of Health and the U.S. Department of Defense, this research represents a significant leap forward in biotechnology. By expanding the capabilities of CRISPR, Yale scientists have created a tool that could revolutionize genetic research, offering hope for new treatments in fields ranging from oncology to regenerative medicine.





Learn more about this research: https://www.sciencedaily.com/releases/2025/03/250320145239.htm