Ultrasensitive experiments on trapped antiprotons provide a window onto possible differences between matter and antimatter. Now they could also shed light on the identity of dark matter.
Three physicists wanted to calculate how neutrinos change. They ended up discovering an unexpected relationship between some of the most ubiquitous objects in math.
Anyone who has ever tried to move a big piece of furniture through a small door knows a few centimeters can mean the difference between success and failure.
On a cool September evening in a cornfield south of Chicago, dozens of telescopes turned skyward for one of the largest star parties in the Midwest. At the center, Fermilab astrophysicist Dan Hooper was describing something no telescope can see.
A day after the devastating March 11 earthquake and tsunami in Japan, with strong aftershocks still testing surviving buildings, Japanese residents and physicists were offering beds, food, and rides to stranded foreign physicists.
To the sound of a traditional German miners' song, the two tunnel builders were lifted up to a shrine on the wall directly above the giant tunnel boring machine. They gently placed a wooden statue of St. Barbara into the shrine.
Today, scientists at 22 synchrotron light sources are analyzing protein structures, and the worldwide Protein Data Bank contains the structures of more than 72,000 proteins.
Planning and designing the $900 million Long Baseline Neutrino Experiment takes more than a village. It takes a hives worth of scientists, engineers, technicians, accountants, and other specialists of every stripe.