Discipline: Genome Engineering
113 Results for 'Genome Engineering'
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Technologies 6
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SomaCode: Getting cell therapies where they need to go
The Problem Cell therapies, which involve using whole, living cells to treat disease, have been heralded as a next-generation treatment paradigm for a wide variety of illnesses and conditions. However, diseases are very complex, and therapeutic cells need to be able to demonstrate equally complex behaviors in order to effectively treat them. Among the largest... -
CogniXense: Target-Agnostic Drug Repurposing in Record Time
The problem There are more than 7,000 known rare genetic diseases that collectively afflict more patients in the United States than diabetes, but only 5% of these diseases have any effective treatment. A major driver of this lack of therapies is that about 75% of rare genetic diseases cause cognitive and behavioral impairment, which are... -
Synthetic AAV Capsids for Advanced Gene Therapy
The protein shell (capsid) of Adeno-associated viruses (AAV) are presently the most promising delivery vehicles for various in vivo gene therapies. AAVs are non-pathogenic and, through past engineering efforts, have become safe due to their inability to integrate into and damage the genome of target cells. Rather, the delivered DNA containing a therapeutic gene of... -
Gene Drives
Since the 1940s, researchers have thought of using gene drives to eradicate populations of pests and disease vectors, and to reduce or eliminate invasive species that wreak havoc on natural ecosystems. The idea of a gene drive stems from nature itself, where in sexually reproducing organisms a certain version of a gene is preferentially passed... -
Bioplastics
Humans have produced roughly 8,300 million metric tons of plastic since the 1950s, the vast majority of which has been thrown out as waste. Only about 9% of that plastic waste has been recycled and 12% has been incinerated, leaving 79% of it to accumulate on our land and oceans, harming the environment, the food... -
MAGE: Multiplex Automated Genomic Engineering
Developed at the Wyss Institute, the multiplex automated genome engineering (MAGE) technology harnesses the natural principles of evolution to do all the heavy lifting of genome design and automates these steps to dramatically shorten the time scale required to produce microbes with specialized functionalities for manufacturing, sensing and therapeutic applications. Genome engineering has a wide...
News 87
Multimedia 20
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Video/AnimationCogniXense: Speeding Up Treatments for Rare DiseasesAt the Wyss Institute, we are tackling Rett syndrome, a rare disease that affects 1 out of 9,000 children, by developing a scalable model for neurodevelopmental and cognitive diseases. This model can test drugs to see which will improve memory, learning, and behavior, with the end goal of finding effective therapies. Credit: Wyss Institute at... -
Video/AnimationAAV Capsid EngineeringWyss researchers have created a high-throughput platform to generate an Adeno-associated virus 2 (AAV2) library containing 200,000 variants, each carrying a distinct mutation in the virus capsid protein. Their analysis identified capsid changes that enhanced “homing” potential to specific organs in mice and virus viability, as well as a new protein hidden in the capsid-encoding... -
Video/AnimationEngineered Cross-feeding in Bacterial ConsortiaThrough engineered amino acid cross-feeding, researchers at the Wyss Institute and Harvard Medical School modified multiple bacterial strains to reverse antagonistic interactions and develop symbiotic relationships, resulting in a more balanced consortium and paving the way for future bacteria-based therapeutics. Credit: Wyss Institute at Harvard University -
Video/AnimationSelf-regenerating bacterial hydrogels as intestinal wound patchesThis animation explains how self-regenerating bacterial hydrogels could be used as adhesive patches to help intestinal wounds heal. Credit: Wyss Institute at Harvard University. -
Video/AnimationLight-driven fine chemical production in yeast biohybridsWyss Institute Core Faculty member Neel Joshi explains the concept of yeast biohybrids and how they can be used to harvest energy from light to drive the production of fine chemicals. Credit: Wyss Institute at Harvard University -
Video/AnimationTEDx Beacon Street Salon: Reversing Human AgingWyss Institute Core Faculty member George Church, Ph.D., was the opening speaker at the TEDx Beacon Street saloon event hosted at the Franklin Park Zoo. He presented from inside the tapir cage! Talk summary: Animals can be an extremely useful resource in prolonging human lives and promoting general health. For example, there are organs in...