College of Chemistry

New research reported from the lab of Markita Landry announces scientists could make genetically engineering any type of plant—in particular, gene editing with CRISPR-Cas9—simple and quick. To deliver a gene, the researchers grafted it onto a carbon nanotube, which is tiny enough to slip easily through a plant’s tough cell wall. To date, most genetic engineering of plants is done by firing genes into the tissue—a process known as biolistics—or delivering genes via bacteria. Both are successful only a small percentage of the time, which is a major limitation for scientists seeking to create disease - or drought-resistant crops or to engineer plants so they’re more easily converted to biofuels.

As alumna Emily Derbyshire was wrapping up her PhD in 2008 at UC Berkeley's College of Chemistry and considering where to do her postdoc, Derbyshire gravitated toward malaria. “It was a problem that was not getting a lot of attention at the time,” despite its large human impact, she says. That’s what led her to dissecting mosquito throats: the idea was to head off malaria when it first invades and transforms within a host’s liver cells, which the parasite needs to do in order to proliferate and move on to the next stage in its life cycle, infecting red blood cells.

Tiny, easy-to-produce particles, called quantum dots, may soon take the place of more expensive single crystal semiconductors in advanced electronics found in solar panels, camera sensors and medical imaging tools. Although quantum dots have begun to break into the consumer market – in the form of quantum dot TVs – they have been hampered by long-standing uncertainties about their quality. Now, a new measurement technique developed by researchers at Stanford University and UC Berkeley may finally dissolve those doubts.