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If “Vector” sounds like a code name in
a James Bond movie, in fact Vector was once a vast, secret Siberian
biological
warfare facility. These days, however, scientists from Vector and DOE’s
Lawrence Berkeley National Laboratory
are working together under Initiatives for Proliferation Prevention, a
DOE program established to help keep former Soviet defense researchers
peacefully employed.
“Only five years ago Vector had 3,500 scientists,” says Tamas Torok, of Berkeley Lab’s Life Sciences Division. “Now they are down to 1,500. Luckily these are top staff, people you wouldn’t want to see working for any third party.” Torok, a member of the Center for Environmental Biotechnology headed by Jennie Hunter-Cevera, recently collaborated with Vector microbiologist V.E. Repin to search the Lake Baikal region for microorganisms with medical and biotechnological potential. The last leg of Torok’s travels took him by off-road van through snowy mountains to the “Saint’s Nose” peninsula on Baikal’s southeastern shore, dragging his laboratory with him in two ice chests. Torok gathered samples from hot springs as well as the cold, deep waters of the biggest, oldest lake in the world. When he returned to Berkeley, he had the specimens he went to Siberia for, plus an unexpected bonus. “For several years the International Baikal Drilling Project has been taking core samples from sediments in different parts of the lake,” Torok explains—sediments which fill a rift in the Earth’s crust more than five miles deep, preserving a record of climate change over millions of years. But none of the scientists involved in the drilling were microbiologists. “When we met, both parties saw an incredible opportunity. . . . I’ve got 47 samples from the 1998 drilling to work on right here at the Lab.” Torok hopes to find sponsorship to sample the project’s final season of drilling, which will begin this January. In the meantime, the Center for Environmental Biotechnology’s lab is chock full of microorganic treasures awaiting analysis. Submitted by Lawrence Berkeley
National
Laboratory
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Newberg, an astrophysicist at DOE’s Fermilab, has been a collaborator for six years helping build the Sloan Digital Sky Survey, a project to produce a three-dimensional model of one-quarter of the night sky over the next five years. SDSS uses a 2.5-meter optical telescope, a $6 million camera and 52 charge-coupled devices at Apache Point Observatory in New Mexico, with data handled at Fermilab. Still in its trial run after seeing first light on May 27, with its first collection of data representing about one percent of its ultimate effectiveness, SDSS is already achieving spectacular results. On December 7, the collaboration announced it had observed three new quasars—not just any quasars, but three of the four most distant quasars ever seen. Quasars appear to be the rarest and most distant objects seen in the universe. The more distant an object, the longer its light takes to reach us; in effect, we are looking back in time. “Quasars will allow us to study the large-scale structure of very early times in the universe,” Newberg explained. “We want to study a large population of them, and these results show that we will be able to find them very easily.” Newberg, who received her physics degree from Rensselaer Polytechnic Institute in 1987 and her Ph.D. from the University of California-Berkeley in 1992, shifted to astrophysics in graduate school with a summer job on the Automated Supernova Search at DOE’s Lawrence Berkeley Lab. “After working on Sloan for six years, it’s really neat to have data coming in,” Newberg said. “We’re still making improvements. The images will only be getting better.” Submitted by Fermi National Accelerator Laboratory |
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Volume 19, December 14,
1998
Rev:
-
http://www.ornl.gov