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PERFORMANCE
OF
COMPLETED
PROJECTS
STATUS REPORT
NUMBER 1
NIST SPECIAL PUBLICATION 950-1
Economic Assessment
Office
Advanced Technology Program
Gaithersburg, Maryland 20899
William F. Long
Business Performance Research Associates, Inc.
Bethesda, Maryland 20814
March 1999
CONTENTS
Acknowledgements
Executive Summary
Introduction
CHAPTER 1 - Overview of Completed Projects
Characteristics of the Projects
Timeline of Expected ATP Project
Activities and Impacts
Gains in Technical Knowledge
Dissemination of New Knowledge
Commercialization of the New Technology
Broad-Based Economic Benefits
CHAPTER 2 - Biotechnology
Aastrom Biosciences,
Inc.
Aphios Corporation
Molecular Simulations, Inc.
Thermo Trilogy Corporation
Tissue Engineering, Inc.
CHAPTER 3 - Chemicals and Chemical Processing
BioTraces, Inc.
CHAPTER 4 - Discrete Manufacturing
Auto Body Consortium (Joint
Venture)
HelpMate Robotics, Inc.
PreAmp Consortium (Joint Venture)
Saginaw Machine Systems, Inc.
CHAPTER 5 - Electronics
Accuwave Corporation
AstroPower, Inc.
Cree Research, Inc.
Cynosure, Inc.
Diamond Semiconductor Group, LLC
FSI International, Inc.
Galileo Corporation
Hampshire Instruments, Inc. (Joint Venture)
Illinois Superconductor Corporation
Light Age, Inc.
Lucent Technologies, Inc.
Multi-Film Venture (Joint Venture)
Nonvolatile Electronics, Inc.
Spire Corporation
Thomas Electronics, Inc.
CHAPTER 6 - Energy and Environment
American Superconductor Corporation
Armstrong World Industries, Inc.
E.I. duPont de Nemours & Company
Michigan Molecular Institute
CHAPTER 7 - Information, Computers, and Communications
Communication Intelligence Corporation #1
Communication Intelligence Corporation #2
Engineering Animation, Inc.
ETOM Technologies, Inc.
Mathematical Technologies, Inc.
Torrent Systems, Inc.
CHAPTER 8 - Materials
AlliedSignal, Inc.
Geltech Incorporated
IBM Corporation
APPENDICES
Appendix A: Development of New
Knowledge and Early Commercial Products and Processes
Appendix B: Terminated Projects
END NOTES
End Notes
Click here for PDF version of report.
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EXECUTIVE
SUMMARY
| Innovations
that reduce the costs and improve the outcomes of medical
care, improve the clarity of wireless communications, and
enhance the quality of manufactured products are among the
many significant achievements supported by the Advanced Technology
Program (ATP). |
The First Group of Completed
ATP Projects
This review
of the first group of completed projects suggests that billions
of dollars are likely to flow into the U.S. economy, greatly exceeding
the ATP's investment. Thus, the ATP appears to be on track in fulfilling
its mission to stimulate economic growth by helping American companies
and their research partners overcome significant technical challenges
to produce economically valuable new technologies. The details are
contained in this report.
Background
During the period
1990 through 1998, the ATP - the nation's civilian technology program
charged with improving the competitiveness of U.S. businesses -
announced 431 multi-year research project awards as a result of
39 merit-based, peer-review competitions. These projects cost a
total of approximately $2.8 billion, of which industry committed
slightly more than half, and the ATP the remainder.
More than 1,000
participants are involved in the single-applicant and joint venture
projects. For-profit companies, universities, non-profit laboratories,
and federal laboratories serve as formal and informal partners and
subcontractors.
ATP-funded projects
are characterized by ambitious scientific and technological goals
with strong potential to accelerate the development of technologies
that offer substantial economic returns to the United States. The
benefits to the nation are expected to extend well beyond the direct
benefits to the ATP award recipients. The ATP is administered by
the National Institute of Standards and Technology (NIST), which
is part of the Department of Commerce's Technology Administration.
Report Objective, Scope
and Approach
Policy makers
and other observers are keenly interested in how ATP-funded research
projects are turning out, what technologies have been developed
thus far, whether these technologies have yet been embodied in commercial
products and processes, and the impact that ATP-funded research
has made on the U.S. economy. By the end of March 1997, 38 of all
research projects then announced had been completed and 12 others
had been terminated.
This report
- which is just one element of the ATP's evaluation program - provides
an assessment of the status of these projects. It contains a general
analysis of the 38 projects as a group, touching on important technology
and commercialization issues by looking at several across-the-board
factors. It also provides a snapshot of each of the 38 completed
projects, describing the context in which it unfolded, noting major
accomplishments as of mid-1998, and highlighting the future outlook
for continued progress. The 12 terminated projects are treated in
Appendix B.
It is important
to note that this set of completed projects constitutes only a portion
of ATP's portfolio, and that it is not a representative sample but
simply the first group to be completed at the time the report was
initiated. Because the technology development efforts are for the
most part still works in progress, this report is not expected to
be the last word on their accomplishments. It remains the task of
future studies to provide a more comprehensive assessment of their
long-run impacts.
Overview of Completed
Projects
The 38 completed
projects were carried out by 34 single applicants - mostly small
companies - and 4 joint venture teams. The 55 participants came
from 21 states. The projects addressed technical challenges in 7
key industrial sectors: 15 projects involved research in electronics,
6 in computing, information, and communications, 5 in biotechnology,
4 in energy and environment, 4 in manufacturing, 3 in materials,
and 1 in chemicals and chemical processing.
The median duration
of these projects was 3 years. The ATP contributed a total of $64.6
million to the 38 projects, accounting for slightly less than half
of the total costs of the projects, and project participants contributed
$65.7 million. The ATP contributed another $9.4 million to the 12
projects that were terminated before completion, bringing the total
ATP spending on these 50 projects to $74.0 million.
Projected Broad-Based
Economic Benefits
Although it
is beyond the scope of this status report to calculate the economic
returns from each individual project, an "investment portfolio"
approach can be used to evaluate ATP's investment across the group
of funded projects, much as an investor in stocks and bonds might
do.
Other economic
studies have already projected future returns from three of the
completed projects, as follows: from the Auto
Body Consortium "2mm" project -- at least $3 billion from quality
improvements in U.S.-produced automobiles and associated market
share gains; and from two medical technologies still in clinical
trials (Aastrom Biosciences' stem cell
production system and Tissue Engineering's
prosthesis material) a projected return of several billions of dollars.
Based on these
figures, the estimated economic benefits to the nation resulting
from just these three projects would exceed the ATP's costs for
all 38 completed projects as well as the 12 terminated projects
- indeed, the estimated benefits would exceed the total costs of
all projects funded to date by the ATP. Further-more, the returns
could be much higher, given the considerable evidence that some
of the other projects will also provide substantial economic benefits
to the nation.
New Technologies; Early
Products and Processes
The research
conducted in the 38 completed projects produced a number of scientific
discoveries, contributed to the U.S. knowledge base, and produced
a number of breakthrough technologies. Although the full benefits
of the technical achievements of the ATP projects will not be realized
until more time has passed, allowing for their wider diffusion,
the creation of technical knowledge and its diffusion to date represent
critical first steps in realizing real-world benefits for the nation.
For 24 of the
projects the new technologies have already been incorporated in
new or improved commercial products or processes through the commercialization
efforts of the companies. These products and processes include applications
envisioned in the original proposals submitted to the ATP as well
as unanticipated early spin-offs which exploit opportunities arising
in the serendipitous process of discovery. Early revenue generation
is important, particularly to small companies which must keep a
close eye on cash flow for solvency. This early commercialization
of the new technologies represents another critical step in the
delivery of practical national benefits.
A few examples,
illustrative of the technology development and commercialization
achievements to date, are given below.
| Technology
Development and Commercialization Examples
Engineering
Animation, Inc., in Ames, Iowa, developed core algorithms
to enable the creation of three-dimensional images from
sets of two-dimensional cross-sectional images of human
body parts, and to provide animation for selected organs.
After an initial failure to commercialize a high-cost system
that incorporated the technology, the company adapted the
technology for three CD-ROMs and two print publications
in 1995, and has more recently created CD-ROMs that are
bundled with medical books and sold as a package.
The
company is now active in a multiplicity of applications
featuring three-dimensional animations which utilize computer
visualization and computational dynamics, in sectors as
diverse as medical education, manufacturing design, and
entertainment. The company started receiving outside recognition
for its technical progress in 1994, while it was working
on the ATP project. Since the project ended in 1995, it
has experienced outstanding growth as its technology has
been applied to more and more fields, and it has been recently
recognized by Individual Investor, Business Week,
and Forbes ASAP magazines as one of the best technology
companies in the country.
Illinois
Superconductor, in Mount Prospect, Illinois, developed
new processes for fabricating thick-film, high-temperature
superconducting (HTS) materials and demonstrated their use
in wireless communications. By finding a way to make HTS
coatings on inexpensive substrates, the company overcame
the substantial difficulties involved in making the large,
geometrically complex components needed to handle the radio
frequency spectrum.
Superconducting
components lower costs and improve services by extending
the range of signal transmission, increasing receiver sensitivity,
and improving frequency stability, thereby extending the
range of base stations and reducing the numbers of base
stations needed. The new technologies have been incorporated
into commercial products that are already being used in
12 cities.
The
Auto Body Consortium, a Michigan-based
joint venture ù a group of small- and medium-sized
auto tooling and engineering service suppliers, two universities
and two auto manufacturers ù solved an assortment
of long-standing problems on assembly lines by developing
new measurement and process control technologies that cut
dimensional variation in auto body assembly down to a world-class
standard of two millimeters and below. A tighter fit results
in higher-quality vehicles and reduced costs.
The
new technologies have been incorporated by suppliers in
assembly line equipment and put to use in 6 of 10 Chrysler
plants and 16 of 31 General Motors plants in the United
States and Canada. Net production costs have been reduced
by an estimated $10 to $25 per vehicle, translating into
millions of dollars of savings per year in plants now using
the new technologies. The project team has also published
a manual on the new technologies to help extend their use
throughout the supply chain and the aerospace, appliance,
metal furniture, and other industries that use automation
to assemble metal parts.
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Peer Recognition
of Technical Achievements
The technical
achievements of some of the completed projects were honored by outside
organizations, including trade associations and technical journals.
In 1996 alone, the following six awards were given:
- R&D
magazine - an R&D 100 award to American
Superconductor, Inc., in Westborough, Massachusetts, for its
development of CryoSaver current leads;
- Industry
Week magazine - one of 25 Technology of the Year Awards to
American Superconductor, Inc., for applications
of superconducting wire;
- Industry
Week magazine - one of 25 Technology of the Year Awards to
Engineering Animation, Inc., in Ames, Iowa,
for its interactive 3D visualization products used in the manufacturing
sector for product development;
- Discover
magazine - one of 36 finalists for Technology of the Year to HelpMate
Robotics, Inc., in Danbury, Connecticut, for the HelpMate
robot used in hospitals;
- Microwave
& RF magazine - one of the Top Products of 1996 to Illinois
Superconductor, Inc., in Mt. Prospect, Illinois, for cellular
phone site filters and superconducting ceramics;
- Computerworld
magazine - finalist for the Smithsonian Innovator Medal to Molecular
Simulations, Inc., in San Diego, California, for advances
in software to help scientists simulate and visualize complex
molecules.
Dissemination of New
Technical Knowledge
The new knowledge
and technologies are being disseminated widely to promote broader
application across the economy and further broad-based benefits.
Dissemination takes place in several ways. For instance, inventions
that are both novel and useful can be patented and licensed to others
for their use. Of the 38 completed projects, 15 have been granted
patents so far, and three projects produced at least 5 patents each.
For some projects, patent applications have been filed but the patent
has not yet been granted.
Products can
be reverse engineered to determine the technology embedded in them.
The substantial number of products thus far released to markets
will further the dissemination of new technical knowledge. Other
parties can not only use them but attempt to discover how they work
by observation and testing.
Knowledge has
also been shared through the numerous formal and informal arrangements
with partners, intermediate customers, and end users, and through
professional conferences and technical publications. Of the completed
projects, 27 involved the sharing of technical information with
a variety of collaborators: joint venture participants, subcontractors,
and informal partners. Of the completed projects, 16 led to publications
in technical and professional journals, and many awardees reported
multiple publications - more than 20 in several cases.
Small Company Growth
and Attraction of Capital
Besides the
sales of products and processes incorporating ATP-funded advances,
other signals also reveal that a company possesses valuable technology
and is probably on the path toward commercialization. These signals
include company growth and initial public offerings (IPOs) of stock.
Of the 27 small
single-applicant awardees, 22 experienced some growth in employment,
and 16 of these have at least doubled in size since the start of
the ATP project. One company reported a 19-fold increase in staff.
Of the 21 single-applicant awardees that were privately held at
the beginning of their ATP projects, five companies raised capital
for growth by conducting IPOs during the project, and a sixth did
so afterwards.
Why ATP?
The ATP either
made research and commercialization possible, or significantly accelerated
it, according to company interviews. For 32 completed projects,
21 would not have been undertaken at all without ATP funding, and
11 would have begun at a later date and proceeded at a slower pace.
(Personnel changes, severe company financial distress, or lack of
clarity in responses to interview questions made it impossible to
include six of the 38 projects in this tabulation.)
In addition,
ATP funding significantly accelerated the time-to-market for the
new technologies, according to the project participants. Of the
32 projects, 13 awardees said the ATP funding helped them raise
additional capital, and 23 said it boosted their ability to find
partners to pursue continued development and commercialization.
Examples of
company comments about the role of the ATP include:
- Torrent
Systems, Inc. - It is doubtful that the technology could have
been successfully developed at all; venture capital funding had
been sought but was unavailable.
- AlliedSignal,
Inc. - The company would have needed another five years to
reach this stage of development.
- Diamond
Semiconductor Group - The company would have been unable to
do the research or survive as a company; its only other alternative
then was to become part of a foreign company.
- Nonvolatile
Electronics - ATP funding enabled the project to be done,
prevented the company from failing, and improved the company's
ability to attract capital from other sources.
- FSI
International - The award enabled FSI to collaborate with
Massachusetts Institute of Technology researchers.
- Light
Age - The visibility generated by winning the ATP award helped
Light Age establish agreements with research partners and, coupled
with the success of the ATP project, enabled it to secure additional
funding from private investors.
- Thomas
Electronics - Without the ATP award, the company would have
struggled along with its conventional CRT technology and would
have stood virtually no chance of competing with other display-component
suppliers, all of which are foreign companies.
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Date created: March 1999
Last updated:
April 12, 2005
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