Research archive

Hit a 95 mph baseball? Scientists pinpoint how we see it coming

Hit a 95 mph baseball? Scientists pinpoint how we see it coming May 8, 2013:

How does San Francisco Giants slugger Pablo Sandoval swat a 95 mph fastball, or tennis icon Venus Williams see the oncoming ball, let alone return her sister Serena’s 120 mph serves? For the first time, vision scientists at UC Berkeley have pinpointed how the brain tracks fast-moving objects.

Research News Brief

Research News Brief April 23, 2013:

Nearly half of Chinese manufacturing firms are audited either by foreign or domestic customers, but a large percentage of their workers still work more unpaid overtime than legally allowed, says a new study by UC Berkeley economists Jeff Perloff and Guojun He.

Enlisting Android phones to find black holes

Enlisting Android phones to find black holes March 27, 2013:

Wired writer Daniela Hernandez profiles UC Berkeley’s David Anderson, creator of the BOINC platform that runs SETI@home and other crowd-sourced projects, and efforts to capture the computing power of smart phones. Anderson is now testing software on the Android phone that would allow anyone to plug into Einstein@home, another crowd-sourced project, to search for black holes.

Planck mission updates age and content of universe

Planck mission updates age and content of universe March 21, 2013:

The European Space Agency’s Planck satellite, supported in part by NASA, has obtained the most precise picture yet of the temperature of the early universe, from which they’ve updated the age of the universe and the proportions of normal and dark matter and dark energy. At a Mar. 21 NASA press conference, UC Berkeley physicist Martin White called the Planck data “stunning.”

Computer simulations reveal clues to cell interaction

Computer simulations reveal clues to cell interaction March 21, 2013:

Scientists have developed a computer model of integrin, a protein that helps cells interact with their surroundings. The virtual integrin snippet is about the same length and behaves in similar ways to its biological counterpart. The result is a new way to explore how the protein connects a cell’s inner and outer environments.