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Texas is at the center of the impending nanotechnology revolution.
Four of the twenty-one Texas universities (Rice University
and the Universities of Texas in Austin, Arlington and Dallas)
involved with nanotechnology research programs have already
developed nanotechnology-specific research centers. Additionally,
Texas A&M has been awarded a NASA contract to lead a team
of six Texas universities to study next generation, nanotechnology
materials for aerospace. Texas also boasts thirty commercial
businesses developing products and services from nanotechnology
research. Two of these moved to Texas in 2001 to be nearer
to sources of this science. These efforts have helped Texas
create the critical mass necessary to spring ahead of competing
programs and establish a regional nanotechnology economy that
can leverage our petrochemical, telecommunications, semiconductor
and healthcare industries.
The Foundation has
a directory of early-stage nanotechnology companies in Texas.
These companies are generally research-based. Most are
still development stage although several are shipping products.
All fit a strict definition of nano. Also included
in the directory is a list of the larger, established companies
that have a Texas presence that are involved with nanotechnology.
To obtain a copy, become an NFT
member and make a $29 donation to the foundation.
Commercialization of research is already occurring in Texas
and elsewhere. Carbon Nanotechnologies, Inc. now produces
the strongest man-made substance in existence, carbon nanotubes,
which can be used in electronic devices, composite materials,
and other applications. C Sixty is developing new materials
to treat illnesses, and NanoSpectra is developing "gold beads"
that have a wide range of use from healthcare to industrial
coatings. Furthermore, while other companies are talking about
assembling materials through chemistry, Zyvex is already working
on tools to assist in mechanically assembling parts so small
that 100 of them could fit into the width of a hair.
In healthy economic regions of the U.S., competitiveness and
innovation are concentrated in clusters of interrelated industries
according to the Council on Competitiveness in their study
on the foundations of economic competitiveness. These clusters
are a result of many variables including historical development
patterns. Successful regions leverage their unique economic
resources (geography, climate, population, research centers,
companies and government organizations) to build specialized
clusters. Although companies and individuals create a large
number of innovations, universities and research centers can
institutionalize entrepreneurship and help ensure a steady
flow of new companies and their associated economic growth.
“. . . preliminary
estimates by the Hitachi Research Institute place the market
. . . for nanotechnology [for Japan] at 27 trillion yen
[over $200 billion] in 2010.”
Hitachi Research institute according to Environmental,
Science & Technology
Bureau Japan Federation of Economic Organizations
Texas already has
many early advantages in building a nanotechnology cluster.
The Texas Medical Center in Houston is the largest medical
complex in the world and is second to Boston in total research
spending. Further the University of Texas Southwestern Medical
School in Dallas is the only medical school in the world where
four Nobel Laureates are actively involved in research. The
center of the world's telecommunications industry is in Richardson,
a Dallas suburb, known as Telecom Corridor. Houston is the
energy capital of the world, and the largest petrochemical
complex in the world is on the Gulf Coast next to Houston.
The Dallas and Austin regions are focal points for the semiconductor
industry in Texas. More silicon wafers are produced in Texas
than in any other U.S. state except California. Finally, the
Johnson Space Center supports research in many fields that
are complementary to the fields of research being pursued
at Texas universities.
NFT will leverage the existing nanotechnology research from
21 institutions along with the state's existing industrial clusters
to expand upon the state's early advantage. The "Silicon Valley
of the 21st Century" would stretch from Dallas to Austin to Houston
and build upon four industries that exist today -- healthcare,
computers and telecommunications, semiconductors, and chemicals.
"The
real locus of innovation is at the regional level. . . . Commercialization
of basic research is a difficult but important ingredient
for generating entrepreneurship. . . . Universities and specialized
research centers are the driving force behind innovation in
nearly every region. . . . Successful regions leverage unique
assets to build specialized clusters. . . . Building strong
regional economies takes decades."
- "Clusters of Innovation: Regional Foundations of U.S. Competitiveness" Council
on Competitiveness
These changes will be evolutionary in some cases,
and disruptive in others. Where Texas does not embrace the technology
in the case of disruptive changes, our industry is at substantial
risk. |