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04/05/1999

Alice Huang Receives Achievement Award

Sue McHugh
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03/17/1999

Caltech discovers genetic process for controlling plant characteristics

Robert Tindol

Caltech biologists have harnessed a gene communication network that controls the size and shape of a flowering land plant. The discovery is a fundamental advancement in understanding the processes that make plants what they are. The knowledge could also lead to greater control over certain characteristics of plants such as fruit size and stem durability.

09/25/1998

Caltech neuroscience ranked No. 1 in impact

The California Institute of Technology has been recognized as the No. 1 institution in the nation for the impact of its neuroscience research. The results are reported in the September/October issue of Science Watch.?
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09/16/1998

Caltech gets $2 million from HHMI for undergraduate biological sciences

Robert Tindol
The Howard Hughes Medical Institute has awarded $2 million to the California Institute of Technology for support of undergraduate programs in the biological sciences.?
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09/15/1998

Caltech Launches Major Bioscience Initiative with $18 Million Donation from Eli Broad

Robert Tindol

Eli Broad, one of Southern California's most prominent civic and business leaders, has teamed with the California Institute of Technology to create a center for the biological sciences which will drive technological and scientific innovation and solidify Southern California's role as a leader in the biotechnology industry.

08/28/1998

Mechanism of cell suicide determined by Caltech, MIT researchers

Robert Tindol

Biologists at MIT and Caltech have uncovered the chemical details of a mechanism that cells use to commit suicide. The work appears in the August 28 issue of the journal Science. Mechanism of cell suicide determined by Caltech, MIT researchers

07/30/1998

New Study Shows How Axons Find Their Way Home

Like a commuter trying to get to work during rush hour, a growing axon must thread its way through a throng of other axons that are headed in many different directions in the developing brain. Axons are the wire-like extensions of nerve cells that carry electrical signals from one place to another in the brain, and during development they must navigate across long distances (many centimeters) to reach their correct address within the brain. If the axon gets lost, brain circuits cannot form normally and, like the commuter showing up at the wrong office, the axon may not be able to do its job. So how do axons find their way? A report published in the July 24th issue of the journal Science by Drs. Susan Catalano and Carla Shatz of the University of California at Berkeley sheds light on how axons home in on their correct targets. New Study Shows How Axons Find Their Way Home July 1998 98
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