In a new book, The Deep Hot Biosphere, Cornell professor emeritus of astronomy Thomas Gold argues that subterranean bacteria started the whole evolutionary process, and that there's no looming energy shortage because oil reserves are far greater than predicted.
Jupiter's intricate, swirling ring system is formed by dust kicked up as interplanetary meteoroids smash into the giant planet's four, small inner moons, according to scientists studying data from NASA's Galileo spacecraft. Images sent by Galileo also reveal that the outermost ring is actually two rings, one embedded within the other.
Hydrogen, as any materials scientist will tell you, is a tough nut to crack. It is the simplest of the atoms, but in its molecular, or solid state it is incredibly complex. The long-sought goal of turning the element into a metal, it has been predicted, would require pressure close to that found at the center of the Earth.
It doesn't have a brain or a heart, and its walk is a little like the scarecrow's, but a little headless, armless, trunkless two-legged robot, developed at Cornell University, can walk, wobble, hobble, limp, stride and stagger. But it can't stand still in any position without falling over. (April 7, 1998)
Cornell will be one of 15 universities participating in a new project to support women studying science and engineering. Called "MentorNet," the project will use the Internet and electronic mail to connect female engineering, science and math students.
The world's smallest guitar — carved out of crystalline silicon and no larger than a single cell — has been made at Cornell University to demonstrate a new technology that could have a variety of uses in fiber optics, displays, sensors and electronics.
Three advanced technologies are about to expand the horizons of health care, speakers at the 12th annual Cornell Biotechnology Symposium, "Frontiers in Biomedicine," will predict on Oct. 15 from 9 a.m. to 12:05 p.m. in the ground floor conference room of the Biotechnology Building at Cornell.
Cornell materials scientists have come up with a novel technique that could vastly improve the performance and yield of silicon microelectronic and optical devices, which are used in semiconductor integrated circuits that power everything from computers to telephones.