Alumna Linda G. Griffith is a professor of biological and mechanical engineering at M.I.T., and its director of the Center for Gynepathology Research. “I don’t want to make endometriosis a women’s issue,” she said in 2014. “I want to make it an M.I.T. issue.” Photo credit Ilana Panich-Linsman for The New York Times.
Tiffany Chen, a UC Berkeley chemical engineering student, loads a sample into the AMBR 250 device as part of UC Berkeley’s “Advanced Bioprocess Engineering Laboratory” class, which introduces advanced concepts of bioprocessing to chemical engineering students, at Berkeley Lab’s...
It’s 2021 and regular THC isn’t going to cut it for the budding weed industry. Neither will CBD. Instead, a host of startups are betting that weed consumers will be clamoring for something that nature alone can’t provide.
In Berkeley, California, the startup Demetrix, is preparing to manufacture “metric tons” of...
David Schaffer, Hertz Fellow, gene therapy researcher, and The Hubbard Howe Jr. Distinguished Professor of Biochemical Engineering at UC Berkeley says he “plays Darwin” in his Berkeley lab, using high throughput genetic sequencing technology to test over a billion genetic samples for the desired biological activity.
Guided by CRISPR pioneer Jennifer Doudna, a formidable entrepreneur in her own right, C&EN profiled 15 women working in the Chemical industry in academics and startups in C&EN's 2020 Trailblazers. Four of them are affiliated with UC Berkeley's College of Chemistry. They have collectively launched more than 30 start-ups aimed at developing treatments for rare diseases, building better batteries, and more. They’re chemical scientists at the top of their game. They’re role models building and mentoring teams. And yes, they’re badasses. They live by the motto “Nobody ever got anywhere by listening to no.”
In a paper published earlier this year in the journal Nature, scientists explain the process in which they are using yeasts to manufacture cannabis compounds. These test tube shenanigans are being conducted more as a way for scientists to gain a better understanding of THC and CBD rather than a means for bypassing the cannabis plant in one’s quest for buzz or therapeutic benefits.
By Ron Leuty – Staff Reporter, San Francisco Business Times
The company, called 4D Molecular Therapeutics Inc., doesn't expect to put its first three experimental single-shot cures for a range of diseases into clinical trials until next year. Yet it already has key partnerships with well-known drug makers Roche, AstraZeneca plc and gene therapy pioneer uniQure NV. Founders David Schaffer, The Hubbard Howe Jr. Distinguished Professor of Biochemical Engineering, and Dr. David Kirn have worked on so-called "viral vectors" — the protein shells ridden by viruses to skip through the body — since before the company was formed in 2013. In gene therapy, those vehicles are engineered to remove the disease-triggering part of a virus and used instead to carry correct versions of genes to replace mutated genes.
Jay Keasling, Professor, Department of Chemical & Biomolecular Engineering and JBEI’s Chief Executive Officer, was featured in NHK World’s interview program “Direct Talk”. Keasling, a pioneer of synthetic biology, talks about the impact that this interdisciplinary technology can have in people’s lives as well as addresses its safety concerns.
UCSF Department of Radiology & Biomedical Imaging press release
A research team from UCSF, UC Berkeley and 3D Printer Carbon, Inc. have created a drug sponge to absorb excess chemotherapy medication. The sponge is being designed so that after the chemotherapy has gone through the tumor, the part that hasn't treated the tumor could bind to the device, absorbing the excess dose like a "drug sponge." At the end of the procedure, the device is removed from the body, preventing the spread of toxicity throughout the body. "
UC Berkeley synthetic biologists have engineered brewer’s yeast to produce marijuana’s main ingredients—mind-altering THC and non-psychoactive CBD—as well as novel cannabinoids not found in the plant itself. Medical research on the more than 100 other chemicals in marijuana has been difficult, because the chemicals occur in tiny quantities, making them hard to extract from the plant. Inexpensive, purer sources—like yeast—could make such studies easier.