After more than five years at UC Berkeley, I’ve finally completed my PhD! And just in time, my paper on a type of inflammasome—a cluster of proteins that’s part of the immune system—came out in the journal Science. I owe a lot to all my coauthors, but especially my co-first author, Jeannette Tenthorey. She was responsible for most of the biochemical work reported in the paper, while my job was to determine the structure of the inflammasome.

Here’s a video I made of the inflammasome structure described in the paper:

I also wrote an article for the Berkeley Science Review about what life was really like in my lab. Spoiler alert: I stayed up all night in a cold, dark basement with only an electron microscope and a rogue spider to keep me company.

“As night fell, astronomer Jean Jacques d’Ortous de Mairan watched a plant’s leaves, symmetrically arranged side-by-side on a stem, clamp shut. It was 1729, and he was studying the dramatic nocturnal movement of Mimosa pudica. Strangely, he found that the plant behaved the same way even when it wasn’t exposed to natural cycles of light and dark, making his observation the first known example of a circadian rhythm that didn’t depend on external stimuli. Circadian rhythms are biological cycles that repeat daily, matching one full rotation of Earth. After this discovery in a weedy creeper, the planet would rotate tens of thousands more times before scientists studying the daily habits of a household insect exposed the mechanics of the biological clock.”

To continue reading, click here! This article is a revamped version of one I previously wrote for the March for Science’s blog with a new focus on the 2017 Nobel Prize in Physiology or Medicine.

A mouse, soaking wet, is scooped up in the warm hands of a researcher. It has just paddled its way through a tub of water and climbed onto a platform, getting a welcome break from swimming. The researcher had trained it to associate the hidden resting spot with a nearby flickering light, and if this were any other mouse, the fact it could remember how to find the platform using visual cues would be a testament to the animal’s ability to learn. But it wasn’t a typical rodent: the mouse used to be blind.

Continue reading →

“Bottles of vibrantly colored chemicals line dimly lit shelves. On a bench below, a Bunsen burner flickers beneath a flask of deep red liquid, illuminating the face of a scientist perched on a stool nearby. The scientist swirls a glowing, neon blue liquid, scrawling observations in a notebook.

The movie ends. You return to reality. In our nonfiction world, the substances that decorate many laboratories—and the chemicals of everyday life—are most often colorless. The rare colorful materials are the paints on nature’s palette. Plants contain thousands of different chemicals, but it only takes a single substance—chlorophyll—to make a leaf green.”

Click to keep reading my latest feature for the Berkeley Science Review, Color by numbers, which explores the nanoscale phenomena that make our visual experience so vibrant. By delving into the fundamental science behind color — from quantum physics to evolutionary biology — as well as applications inspired by this science, such as solar cells and futuristic displays, I invite readers to take a new perspective on our colorful world.

Things may seem a bit slow lately, but many new articles are in the works!

On March 1^st, I was interviewed on the radio program The Graduates, so if you want to listen to me sound extremely awkward discussing my research and outreach activities, you can take a few minutes to listen to that. At the moment, I’m writing another feature for the Berkeley Science Review and several more posts for the Genes to Genomes blog, trudging along toward my doctorate . . . and planning my wedding, which is in less than a month. Now that I think of it, I need to get back to work!