History Of Mission Bay
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UCSF and the Biotechnology Revolution
More than two decades ago, UCSF professor
of biochemistry Herbert Boyer and venture capitalist Richard
Swanson combined their talents to produce the nation’s first drug
company based upon gene-splicing techniques developed by Boyer
and Stanford colleague Stanley Cohen.
The success of this venture
in mass-producing medically important proteins stimulated the
growth of a wide-branching network of enterprises that make up
today's burgeoning biotechnology industry, which was valued at
$83 billion in 1997. The nation's nearly 1,000 biotechnology
companies now have 118,000 employees and collectively account for
nearly $11 billion in annual sales.
In the San Francisco Bay Area
alone, publicly owned biotechnology companies employ more than
19,000 people. Many of these companies concentrate on health care
products, that range from cancer vaccines and AIDS drugs to
blood-clot busters for stroke and heart attack victims.
An economic engine
At least 60 California
biotechnology companies — including two of the largest,
Genentech and Chiron — have been successfully launched by UCSF
faculty, alumni or by their scientific inventions. These
companies employ more than 13,000 people. In addition, scientists
from these companies have spun off many additional start-ups.
Even when they do not result
in the creation of new private
enterprises, UCSF researchers' life-saving discoveries are
transferred from university laboratories to the public as soon as
possible through patenting and licensing to commercial companies.
These companies then develop new products that better meet human
health care needs.
Indeed, basic UCSF discoveries have,
after commercial research and development, resulted in the
creation of 250 new products to improve human health. Examples
include:
- Better MRI technology for detecting and
monitoring disease
- A new generation of gene-based
diagnostic tests for cancer
- Molecules that serve as
efficient vehicles for delivering genes or gene-inhibiting
genetic material into the cell nucleus, used to develop gene and
"antisense" therapies.
Moreover, during the 1997 fiscal
year UCSF researchers led all UC campuses in the number of
inventions, totaling 153, disclosed to University licensing
offices. Not surprisingly, UCSF leads all UC campuses in the
amount of royalty income brought to the University from
inventions by researchers. In terms of revenue, eight of the top
25 most successful UC inventions, including recombinant growth
hormone, insulin, hepatitis B vaccine, and artificial surfactant
for infant respiratory distress syndrome, are based on UCSF
discoveries.
While the reconfiguration of genes to mass produce protein-based drugs
remains a rapidly growing enterprise, genetic engineering is not
the only realm in which UCSF discoveries and inventions are being
applied in the development of better treatments and health care
products. Here are some of the areas in which UCSF researchers are working to improve
the health of all.
Genomics and bioinformatics
The explosion of data on genetic codes has spawned a whole new field,
called genomics, which is aimed at improving ways of gaining
additional useful knowledge from genetic data. Bioinformatics,
the development of computer-based strategies to design new drugs
and to manage information (such as medical records, or
pharmaceutical regimens), also is growing rapidly. UCSF faculty
and alumni have been among the leaders of new companies
exploiting these technologies. Such companies include, Oacis
Healthcare Systems, First DataBank and Lexical Technology.
Drug delivery
UCSF discoveries on how to improve
the delivery of drugs to disease targets have resulted in
patented inventions and companies such as Cell Genysis and Insite
Vision. Examples include the development of liposomes —
microscopic sacs that can safely transport drugs within the body
— and inhibitors that can prevent the metabolic breakdown in the
gut of drugs taken orally, thus enabling more medicine to get to
its target tissue.
Medical devices
UCSF inventions that have led to important products include catheters
that permit less invasive techniques to better treat heart rhythm
disorders and cochlear implants to recover speech perception in
the hearing impaired.
Learning disorders
Fundamental research in neurobiology has led to a
computer-based treatment for a specific language-learning
disorder that affects about 10 percent of children. These
children have difficulty making reliable distinctions in normal
speech sounds that change rapidly, and the training program helps
the children rapidly build a basic foundation of language
skills.
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