Christopher Smallwood

Christopher Smallwood is a Graduate Student in Physics at UC Berkeley. He is interested in the nexus between the basic research community and society at large. Originally from the Bavarian-themed tourist town of Leavenworth, WA (yes, real people actually do live there!), he graduated with an A.B. in Physics from Harvard College in 2005, taught fifth grade at Leo Elementary School in South Texas, and has been pursuing his Ph.D. in the Bay Area since the fall of 2007. Currently, he studies experimental condensed matter in the Lanzara Research Group at Lawrence Berkeley National Laboratory. His past research interests have included Bose-Einstein condensation, rubidium-based atomic clocks, hydrogen masers, lenses and mirrors, mayflies, mousetrap cars, toothpick bridges, fawn lilies, the slinky, Legos, vinegar and baking soda volcanoes, wolves, choo-choo trains, and the word "moon."

Introducing the Higgs Boson

The Bay Area has a big community of physicists involved with the Higgs boson project, and the Physics Department at UC Berkeley has scheduled a special seminar on the topic this coming Friday.

Climate Talks in Copenhagen: No Silver Bullet?

Between the aquarium of drowning-delegate sea-level rise protesters, the chicken flock of animal rights protesters, and the cocktail party of fur-coated protest protesters, there will certainly have been a lot to see these past two weeks in Copenhagen during the latest United Nations Framework Convention on Climate Change (UNFCCC).

Unlocking the Mysteries of Graphene

Researchers in Alex Zettl’s group at Berkeley have endeavored recently to isolate suspended membranes of graphene for study and image them at Lawrence Berkeley Lab’s TEAM 0.5, the world’s most powerful transmission electron microscope (TEM).

50 Years Later, Still Plenty of Room at the Bottom

50 years ago, eminent physicist Richard Feynman gave a gave a prophetic speech at Caltech entitled, "There's Plenty of Room at the Bottom." The speech described a rich world of possibilities that could arise if we only applied ourselves toward controlling matter on smaller and smaller scales.