The National
Science Foundation's Tokyo Regional Office periodically reports
on develop-ments in Japan that are related to the Foundation's
mission. It also provides occasional re-ports on developments
in other East Asian countries. These reports are intended to provide
information for the use of NSF program officers and policy makers;
they are not statements of NSF policy.
This
memorandum is based on a report prepared by Dr. Sara B. Nerlove, a Program
Manager with the National Science Foundation's Small Business Innovation
Program, and Dr. George J. O'Neill, a consultant on International Technology
Transfer and Innovation Policy residing in Kingsport, TN.
Nerlove and O'Neill visited Japan from March 29 through April 28, 1999.
Their visits were made possible by Senior Invitational Fellowships
awarded by the Japanese Science and Technology Agency.
Mr. Toshihiko Watanabe of the National Institute of Science and
Technology Policy (NISTEP) served as their host scientist.
Inquiries
should be addressed to Dr. Nerlove: snerlove@nsf.gov.
Contents
I.
Introduction.....................................................................................................
pg. 2
II.
Definitions of Selected Terms.................................................................................
3
III.
Comparison of Selected Policies to Support High Risk Innovation
Research at Small and Medium Enterprises.......................................................
3
A.
Universities............................................................................................
3
B. Venture Capital......................................................................................
4
C. Technology............................................................................................
6
D. Human Capital.....................................................................................
10
IV.
Comparison of U.S.-Japan Small Business
Innovation Research Programs............ 13
V.
Conclusions.........................................................................................................
20
A.
Financial...............................................................................................
20
B.
Technology...........................................................................................
20
C.
Human Capital......................................................................................
21
VI.
Suggestions.........................................................................................................
21
Japanese
Policies to Support High-Risk Innovation Research at Small and Medium
Enterprises: a Comparison with the United States
I.
INTRODUCTION
The year 1945 saw the end of W.W. II in the Pacific and a Japan that was completely devastated. At that time, the world had dismissed Japan as an economic graveyard. However, within forty years, the Japanese economy not only had “risen from the dead” to reach its pre-war level of output, but it had reached unparalleled heights in record time. By the mid-1980’s, the “Bubble Economy,” as it was dubbed, was internationally hailed as the economic role model of the 21st century. Unfortunately for Japan, Asia and the global economy, the “Bubble” had burst by the 50th anniversary of the end of W.W. II. Plummeting real estate and stock market prices, major banks burdened with enormous bad debts, and flagship corporations undergoing painful downsizing were part of this collapse.
Today, with so many of the major banks and large corporations struggling to remain profitable and with an aging population to support, Japan’s economy still faces a severe crisis. In an effort to help revitalize the world’s #2 ranked economy, the national government is turning to policymakers for ideas to promote and sustain the growth of small and medium enterprises (SMEs). In 1995, the National Diet passed a new Science and Technology (S&T) Law that was followed in 1996 by the Cabinet resolution known as the Science and Technology Basic Plan. These legislative initiatives were intended to boost government spending on R&D to 17 trillion yen over the five year-period 1996-2000, launch new and improved S&T policies, and change many government regulations that affect SMEs. One of the main objectives of the Japanese national economic policy is to increase Japan’s capability to produce a substantial and sustainable community of entrepreneurs who will create new technologies based on breakthrough research and to bring them to market. This thrust is in marked contrast to what brought the Japanese economy to such great prosperity in the 1980s; that is, improvement upon imported technologies via the manufacturing processes.
The research objective of our short-term Science and Technology Agency Fellowship was to compare key U.S. and Japanese government policies to support SME projects requiring high-risk innovation-based (HRIB) research that have reasonable possibilities for a high return-on-investment (ROI). However, the 29 days of research efforts in Tokyo and six prefectures in Kyushu, Kansai, Kanto and Tohoku enabled us to get only a “snapshot-in-time” of highlights of the implementation of some of these policies.
This
report of our “snapshot” compares key policies initiated by the Japanese
national government in the past 3-4 years addressing the roles that the
universities, venture capital, and technology play in HRIB research at SMEs with
those of the U.S. Federal government. Also,
the report will discuss more recent policies that intend to fill the gaps found
in the support of the SME innovation process, i.e., development of human capital
and Japan’s version of the U.S. Small Business Innovation Research Program.
II.
DEFINITIONS OF SELECTED TERMS
Small
and Medium Enterprises (SMEs)
The U.S. definition of SMEs used in this report is based on eligibility for the Small Business Innovation Research (SBIR) Program.[1] SMEs, referred to in the United States as small businesses or small business concerns, are enterprises with 1-500 employees, organized for profit, greater than or equal to 51% U.S.-owned and operated, with the principal place of business in the United States. The Japanese definition of SMEs has two defining features: number of employees and capitalization. The numbers for the three sectors of the economy are as follows: manufacturing, </= 300 employees and </=100,000,000 yen; wholesalers, </=100 employees and </= 30,000,000 yen; retailers and service, </=50 employees and </=10,000,000 yen.[2] [NB: as of June 1, 2000, the yen-to-dollar exchange rate was approximately 105 yen/$.]
Entrepreneur
Recently, the role of an entrepreneur was described as
central to the success of capitalism and further described as a process of
creative destruction.[3]
Thus, an up-to-date definition of an entrepreneur could be as follows:
a person who takes advantage of an economic opportunity, usually with
little regard for the consequences.
High-Risk,
Innovation-Based (HRIB) Research
To
the U.S. government, HRIB research means research requiring a scientific or
technological breakthrough to solve problems that present major barriers to the
successful implementation and marketing of an innovative concept.
Ideally, the concept should be “new to the world” with a good
potential of generating a high return on investment (ROI).
Furthermore, the risk/benefit ratio of the concept is too high to attract
sufficient funding from the private sector, such as banks or venture
capitalists.
III.
COMPARISON OF SELECTED POLICIES TO SUPPORT HIGH-RISK INNOVATION RESEARCH
AT SMALL AND MEDIUM ENTERPRISES
A.
UNIVERSITIES
National
Legal
and regulatory barriers that discourage academia-industry cooperation in Japan
are gradually being removed. For
instance, professors are now allowed to consult for industry, although they are
not given any release time to do so; and despite some controversy when it comes
to implementation, professors can now own their own businesses.
Discussions are underway to consider changing the faculty tenure system
to be more like the system in the United States.
Of particular note is the growing interest in possible ways to reduce the
control that the central government exercises in managing the universities’
financial matters. [NB: National
universities are slated to attain the status of Independent Administrative
Agencies with substantial autonomy from the Ministry of Education and Science on
April 1, 2003, as part of a major reorganization of the Japanese Government,
most of which will go into effect on January 1, 2001.
See Tokyo Report Memorandum RM99-11, dated October 7, 1999.]
Whereas
in the national universities in Japan, there are no schools of management, it is
frequently the case that the major research universities in the United States
have well established, prestigious schools of management with strong programs
granting master’s degrees (MBAs) and doctoral degrees in business
administration.
Plans
are in progress to combine the Ministry of Education, Science, Sports, and
Culture (Monbusho) with the Science and Technology Agency (STA) to form a
Ministry of Education, Science, and Technology, effective on January 1, 2001
(See Tokyo Report RM99-11). This
merger is expected to have implications for the academia-industry relationship,
but the specifics of these implications are as yet unclear.
Private
In
contrast to the national universities, universities established as private
universities have taken the lead in Japan in establishing entrepreneur programs.
Among these are Doshisha University (Kyoto), Hosei University (Tokyo),
Keio University (Tokyo), Kochi University of Technology (Kochi-Osaka-Tokyo),
Ritsumeikan University (Kyoto), Sanno University (Tokyo), and Waseda University
(Tokyo). It is said that currently
about 50 universities (about 90 percent of these are private) offer some sort of
lectures related to entrepreneurship, whereas three years ago there were only a
few.[4]
In Japan, private universities appear to be better suited to help support growth
of HRIB research at SMEs than are the national universities.
For example, the private schools require the faculty to have more of an
entrepreneurial spirit because they have tenure policies similar to those of the
United States; and junior faculty members, unlike their counterparts at national
universities, cannot rely on research funding from senior professors.
Furthermore, faculty at private universities seem to have considerable
freedom to “learn the ways of business” as consultants and as members of top
management, including becoming the president and CEO or a board member of a
company.
B.
VENTURE CAPITAL
In
the United States, venture capital is a dynamic investment mechanism for the
commercialization of new ideas. Organizations
supplying venture capital funds play a more hands-on role than in Japan.
Market entry and growth opportunities are identified; assistance is
provided for navigating legal issues, including intellectual property
protection; strategies are developed at all levels; technological and management
expertise are provided; and additional management skills and capital resources
are attracted.[5]
Furthermore, while overall, Japan’s
investments in R&D slightly exceed those of the United States relative to
the size of its economy[6], venture and pre-venture
investments are limited. This
limited investment is reflected in the annual rate at which new companies are
created, initial public offerings (IPOs) are made on national and regional
exchanges, and in the aggregate value of these companies.
By comparison, in 1997, there were more than
500 independent venture capital funds (IVCFs)
in the United States that were providing approximately $7 billion to $10 billion
per year,[7]
and these figures are rising. As of
December 31, 1998, the number of IVCFs had grown to 547 with investments of a
record $4.3 billion during the first quarter of 1999, a 41% increase over the
first quarter of 1998.[8]
(See 1st quarter venture capital investments by state, Appendix C.)
In Japan, there were 123 (1995) dedicated capital venture funds.
Most of these were subsidiaries of large companies.[9]
[10]
[11]
Also, in contrast to Japan, in the United States the largest pool of
assets available for venture capital investment is from pension funds,
retirement savings, and large 401K-type savings instruments.
Another source of venture support for American
SMEs are wealthy individuals known as “angels,” who invest in start-up and
early stage companies. The Small
Business Administration (SBA) estimates that 250,000 angels invest about $20
billion annually in 30,000+ SMEs.[12]
Greater details on angel investments are hard
to confirm because most angels wish to protect their anonymity.
It is our understanding that law in Japan does not permit angel support,
which in the United States is a vital source of early stage investment.
Another source of capital, especially for HRIB
research, is the U.S. government via the U.S. SBIR Program.
That source of capital has been in place as a Federal program since 1982.
Thus, in this case, government could be considered a source of venture
capital. (See Section
IV, Small Business Innovation Research (SBIR) Program, below.)
For more information on SBA’s facilitation
of angel investment in SMEs, see the SBA’s World Wide Web online listing
service of entrepreneurs and investors called Angel Capital Electronic Network
(ACE-net) (http://www.sba.gov).
This service-for-a-fee (up to $450, for up to one year, paid by the
entrepreneurs as well as by the angels) provides a list of entrepreneurial
companies and information about their technologies that serves as a database for
potential angels. Information on
investors is not provided online so that their identity is protected.
The investors are all accredited and like the entrepreneurs must have a
password to participate. If the
prospective angel identifies a match, the angel can then contact the firm.
The Japanese national government is
encouraging funding mechanisms for new venture businesses.
For example, four years ago the government-owned Development Bank of
Japan (DBJ) started a Department for Venture Business.
The national government has mandated the DBJ to target 20 million yen as
matching funds to finance 50% of the cost over 5 years for a venture business
project. Our research results
indicate that the projects are small by bank standards (1-2 million yen).
It is too early to determine whether this approach to venture capitalism
will be successful. Apparently
there are no other systems in Japanese banking to provide money-at-risk.
The United States does not have a direct counterpart to DBJ support of
venture business.
During discussion with DBJ officials, we
learned that other potential sources of money-at-risk are 1) initial public
offerings (IPOs)--but the stock market is considered too immature compared to
that of the United States--and 2) the pension system--but it is owned by the
government, which has low-risk investment policies, rather than by the private
sector as it is in the United States.
During our visit to Osaka, we learned that the
Prefecture of Osaka is trying to play the role of a venture capitalist.
In 1990, the Foundation for Osaka Research Enterprise Companies (FORECS)
was established and today offers limited funding for high risk R&D SMEs.
It also facilitates the creation of R&D-oriented SMEs by indirect and
direct investment as well as financial guarantees to entrepreneurial start-ups
and early stage R&D-oriented enterprises.
C.
TECHNOLOGY
Conventional
wisdom suggests that the country that consistently invests in modern
infrastructure and equipment and in high impact R&D projects will produce a
strong and viable economy. If that
is so, then Japan should be well positioned to recover from the current economic
crisis. Our research results
indicate that Japan, acting in large part on the initiatives stemming from the
S&T Law (1995) and the S&T Basic Plan (1996), has made rapid and
substantial progress in building the ultra-modern infrastructure, acquiring
state of the art equipment, and in providing sufficient funding to support high
impact R&D projects.
Throughout our visits to the prefectures, we saw examples of recently
constructed and superbly equipped “Science Cities,” prefectural/municipal
industrial research institutes (Kosetsushi) or “Technopolises”.
These outstanding facilities and capabilities and the availability of
trained S&T staff are well suited to support large, high-risk, high-impact
R&D projects with the potential for broad national and international impact.
They are also intended to attract medium-sized, joint R&D projects
with regional impact. These latter
projects are cooperative efforts of local government, industry, and university
participants. However, these
facilities and equipment along with the high quality R&D staff were often
well beyond what is needed and could be afforded by entrepreneurial SMEs.
Of
special note is the effort by Hyogo prefecture to recover its economic viability
after the devastation of the 1995 Hanshin-Awaji earthquake.
This quake left 6000 people dead and Kobe City, the prefecture’s
largest city and Japan’s largest seaport, in ruins.
To help accomplish this goal, the New Industry Research Organization (NIRO)
was formed in March 1997. One of
NIRO’s novel functions is to identify intellectual property (IP) from
universities and corporations as sources of technology for new SMEs. NIRO then proceeds to promote technology transfer.
Specifically, this “…means assisting small- and medium-sized
enterprises to develop new products, increase productivity through
commercialization planning and proposals, and to create specific, individual
enterprises based on the research results of NIRO's own laboratories, and the
patents, technologies, and know-how held by major corporations, domestic and
overseas universities, and individual research institutions."[13]
Some
of the activities at NIRO include the following:
à
NIRO Research Institute – In-house laboratory programs
in bioscience, disaster prevention systems, new materials, transportation and
freight systems, etc.
à
Advanced training and entrepreneurial programs to help
new start-ups.
à
Joint Research Projects--with Japanese and international
government, industry and university participants.
à
Technology Transfer Center – program to transfer basic
technologies and patents owned by major corporations and universities to SMEs
and venture enterprises
à
Product Development Assistant Center – a new program to
provide SMEs with sophisticated equipment to develop product and process
concepts.
As was mentioned earlier, the Japanese government is trying to facilitate
the nation’s economic recovery by increasing support for the growth of SMEs.
However, because of the unique nature of SMEs, the type of support that
is offered must take into consideration the highly diverse and rapidly changing
needs of SMEs. Typically, an
R&D project proposal from a SME is relatively high risk and a potentially
high regional impact. To help meet
this need, many of the government-supported facilities mentioned above have
“incubators” for SMEs.
Comparison of Japanese and U.S. Incubators for Entrepreneurs
For the
purposes of this report, we consider an incubator to be a facility that provides
rental offices, rental research rooms and shared services at a low fee,
consultation services for management and business planning and marketing, and
financial support for 1) persons who are trying to establish a business
(start-up entrepreneurs), 2) recently established corporations, and 3) small-
and medium-sized corporations that are attempting to advance into new fields.[14]
Based on what
we saw during our visits to incubators in Kumamoto, Hyogo,
The Japanese incubator managers are relatively inexperienced.
The facilities vary from modern, spacious laboratories of a Kosetsushi
(Osaka) to simple “boxes” (Hamamatsu).
Management is proving difficult because of the entrepreneurs’ diverse and changing needs.
There appears to be a severe shortage of start-up entrepreneurs in Japan to take advantage of the incubator facilities. In some cases the current tenants were scheduled to exit the incubator because of the expiration of the allowed tenure of three years; but there were no new tenants in line to occupy these spaces.
In the United States, incubators are primarily intended for start-up
entrepreneurs who want to commercialize high-tech, high-risk-of-failure,
innovative concepts. However, we
observed that most Japanese incubator tenants were either spin-offs with strong,
nurturing links to a large parent corporation or established SMEs who wanted to
advance into new fields. While we
considered several occupants to be high-tech businesses with innovative ideas,
most did not appear to be at a high risk of failure.
Another
difference noted was that the managers of the Japanese incubators seemed to
function mainly as landlords. Usually
they offered rental space at below market rental prices, and those associated
with science and technology parks provided access to some supporting technology,
e.g., databases and special equipment.
By way of
comparison, in the United States, some managers of incubators will provide a
full range of services to support a start-up entrepreneur.
For example, the Business/Technology Center (B/TC) at Virginia Tech
University in Blacksburg, Virginia offers
à
Strategic planning: R&D, pricing, materials
à
Financing: raising capital, accounting
à
Legal: assistance
for intellectual property and regulatory matters
à
Production:
process planning, quality management
à
Personnel: hiring, training
The costs of
these B/TC services to an entrepreneur are based on the state of development of
the company and the type of assistance provided.
Recently,
Japanese policymakers have introduced the concept of Regional Science Promoter (RSP)
Program to help address the need for some of these services.
In this program, which is active in 20 prefectures, an individual is
designated as the New Technology Coordinator (NTC) whose role is to coordinate
the fulfillment of the S&T needs of the prefecture.[15]
The coordinator
in the RSP Program in Hamamatsu in Shizuoka prefecture illustrates how a NTC
functions in Japan. The NTC aims to
upgrade technologies of SMEs and to give incentives to R&D-type, start-up
enterprises. To help accomplish
these goals, the NTC provides a relatively comprehensive “Technical Support
System” (TSS) that is based on the defined technology and manufacturing
strengths of the prefecture. Thus,
TSS provides consultation in
à
Technical –
Chemistry, robotics, metals and advanced materials.
à
Management –
Analysis of company needs, engineering, and plant and
Currently, TSS consultation is being
considered for expansion to include assistance in
human capital development, e.g., marketing, accounting, business planning, and
personnel training.
For examples of
U.S. counterparts of RSP programs, it is appropriate to mention the BT/C Center
at Virginia Tech, see above, and California’s “Goldstrike Partnership: A
Network of Strategic Private/Public Partnerships.” Goldstrike is considered to be California’s premier
organization established to accelerate the creation and introduction of new
technology-based products and services to the global market place.
Comparison
of Japan and U.S. Technology Licensing Offices (TLOs)[16]
In an effort to
develop valuable university scientific and engineering discoveries that could
contribute to society, the concept of the Technology Licensing Office (TLO) was
established by 1998 legislation as a joint effort of MITI (Ministry of
International Trade and Industry) and Monbusho (Ministry of Education and
Science). MITI is the funding
agency (20 million yen/year/TLO) and Monbusho is the approving agency.
The TLO authorizes the university to establish offices to patent and
license university inventions that do not belong to the central government.
[17]
We called on the TLO then located at the University of Tokyo and visited
Professors Katsuya Tamai and Robert Kneller.[18]
We learned that this TLO is a company, half non-profit and half
for-profit, and it is one of the four that are currently government-approved.[19]
In Japan, unlike in the United States, the basic principle is that
university inventors retain all rights to their inventions.
Inventors now, however, have the option of relying on TLOs to manage
their inventions. The university
researchers and others can buy TLO shares, but most of the revenues are
anticipated to go to the inventor as personal income and to be reinvested in the
university’s department. Most
shareowners realistically expect little personal gain from their investment.
By way of
comparison, at most U.S. universities, Technology Transfer Offices (TTOs), which
have a technology licensing function, are part of the university.
Some universities, however, have spun off private corporations, e.g.,
University of Chicago (ARCH, AR stands for Argonne National Laboratories and CH
stands for the University of Chicago; taken together ARCH stands for the bridge
between institutional research and the real world) and University of Wisconsin
(Wisconsin Alumni Research Foundation (WARF)).
Under the Bayh-Dole law of 1980, universities rather than the Federal
government can take title to work supported by the Federal government.
The university must compensate the inventors.
Currently, this amount ranges from 15% to 50% of the revenues from any
technology transfer. The inventor
can also be a paid consultant to help develop the technology for the company
that buys the technology.
Some of the
more successful TTOs, such as those at Stanford University and MIT, where a
rigorous selection process limits which technologies are patented, will license
about 50% of their patents. For a
comprehensive survey and statistics on university patents filed, patents issued,
disclosures, revenues, etc., issued by the Association of University Technology
Managers, see AUTM Licensing Survey which
can be ordered from the website,
www.autm.net.
D. HUMAN CAPITAL
From
an American viewpoint, a national or state government that provides an
attractive mix of institutional supports such as funding, modern infrastructure
and equipment, and relief from legal and regulatory burdens will be most helpful
to startups of SMEs. However, the
innovation of high-risk, potentially high-ROI technology requires one very
important ingredient that no government can supply: the entrepreneur, the
risk-taker, i.e., human capital.
According
to Thurow,[20]
the entrepreneur is crucial to the success of a capitalist system.
In this system, the new destroys the old and entrepreneurs are the change
agents of capitalism. Thurow points out that it is too easy for society to stamp
out entrepreneurship. In order to
nurture and grow a steady supply of entrepreneurs, the nation’s social system
must allow them the freedom to destroy the old.
“Societies, Thurow says, “that aren’t willing to break with the
past aren’t willing to let entrepreneurs come into existence.”[21]
Thus,
if Japan is to succeed as a capitalist country, Japanese society must allow for
“creative destruction of the old.” Such
destruction, of course, introduces a very high potential for societal misery and
turmoil. “This is heartless
capitalism!” according to what an internationally successful Japanese
entrepreneur told us during our visit to Shizuoka. His hands-on experience with American-style entrepreneurship
in California’s Silicon Valley indicates that it is quite alien to the
Japanese way of life.
We
found little evidence of the existence of “Heartless Capitalism” during our
prefectural tours. For example, we
met the entrepreneurs of three successful information technology (IT) SMEs of
the type found in Silicon Valley. All
of these enterprises had grown steadily over a period of 7-15 years and now
employ 60 to 120 people. Of special
note was the very low turnover of employees compared to that in American
counterpart businesses. In the case
of the largest SME, it had turnover <2%/year while its five-year old
subsidiary in Silicon Valley had lost 16 of the original 20 employees. One of the Japanese-based salesmen told us that, “When I
telephone our people in the United States, I have no idea who will answer the
phone from one day to the next!”
On
the other hand, these examples of job security are typical of the old-style of
doing business in Japan. However,
in the future, these “old” businesses will be expected to be entrepreneurial
seed beds that will generate “spin-offs” formed by employees quitting to
start their own enterprises.
When
considering industries other than IT, the prospects for a large increase in the
entrepreneur population to help Japan’s economy to recover soon are not
encouraging either. A study by
Teikoku Data Bank across all industries, a private credit rating company, showed
that some 75 venture companies went bankrupt in 1998 compared to 58 in 1997.
Unfortunately, the rate of such failures is expected to increase in the
coming years and this problem is further compounded because the rate of
formation of new venture companies is lower, 3.6%, than that for those shutting
down, 3.8%.[22]
When compared to the U.S. rates for formation and shut-down, 14% and 12%,
respectively, these data present a discouraging view of Japan’s potential to
stimulate and grow innovative SMEs in the short term.
The
picture for the long term is also not very bright.
The problems that Japan faces in its efforts to build a strong,
sustainable community of entrepreneurs are likely to remain well into the 21st
century. According to the Global
Entrepreneurship Monitor (GEM) report[23],
Japan ranks low along with Germany and France, among G7 nations--Canada, France,
Germany, Italy, Japan, U.K., U.S.--for “entrepreneurship through enterprise
creation.” These countries have
too many structural and cultural anomalies that are barriers to potential
entrepreneurs. Thus, the authors
conclude, “In such countries, it may take decades of sustained changes in many
national, cultural, political, and economic institutions if they are to join the
‘elite’ of entrepreneurial economies.”
If the experts
who prepared the GEM report are correct, Japanese policymakers have a difficult
task ahead in the coming decades because they must find ways to make
entrepreneurial activity “an integral and accepted feature of economic and
personal life.” Despite these problems, we saw very encouraging signs that
policymakers are aware of what social and government institutions need changing
and how these changes might be accomplished.
Initiatives are underway to educate, train, and encourage young people in
the entrepreneurial spirit and way of life.
For example,
there is a growing interest in possible policy initiatives for the following
areas that will directly and positively impact the long-term supply of
entrepreneurs:
à
Integrating
business start-up skills into specific education and vocational training
programs.
à
Substantially
increasing the investment in undergraduate and graduate school programs related
to business and entrepreneurship.
à
Development of an
individual’s capacity to recognize and pursue new opportunities for business.
à
Encouragement of
government officials and opinion leaders to promote entrepreneurship throughout
society.
In the area of
entrepreneurial education and training of students, there is a very innovative
program underway in some of the national universities.
Comparison
of Japanese and U.S. Means of Instilling the Venture Spirit in Students
Since
1995, a plan has been in place in Japan to establish Venture Business
Laboratories (VBLs) at graduate departments in 30 national universities.
(See Tokyo Report Memorandum RM96-24, dated September 19, 1996.)
The purpose of these VBLs is to instill in graduate students the spirit
of venture business. Monbusho and, in some cases, private industry provide funding
to the VBL that then uses it to support the professor, who is the head of the
lab. Each VBL has its own research
project. The professor and his
students work on a problem, aiming for achievements in venture business topics.
One of the major goals is to send creative-minded people imbued with the
“entrepreneurial spirit” into society.
At
the Tokyo Institute of Technology, we called on two VBLs.
Working in one of these laboratories was the Virtual Environment Study
Group, a group within a broader focus on multimedia.
There the CAVE[24]
System, developed at the University of Illinois, had been installed.
Issues of image-based rendering were being pursued and work was being
done on a PC version of CAVE. The
other laboratory was focused on the Collaboration between Machinery and Humans
and included research on speed perception, particularly in relation to cars and
on noise. It seemed that the
Japanese students in these labs aspire to the traditional career pathway of
being an academic researcher/professor rather than becoming venture business
entrepreneurs. However, the VBL
experience will help them to develop an awareness, appreciation, and
understanding of applied research that in turn may later spawn entrepreneurial
projects. For the professors, the concepts of the VBL and the TLO have potential
to dovetail and reinforce each other.
In
the United States, there is no precise counterpart to the VBL.
In regard to instilling the venture spirit, part of what is driving
interest in relating university research to entrepreneurial opportunities is the
increasing trend that is widespread among graduate students in U.S. universities
to pursue non-academic options. In
this context, it is interesting to note what is taking place at Stanford
University.[25]
At Stanford, the number of graduate students pursuing non-academic
options has increased to more than 50% and continues to go up, whereas as
recently as 15 years ago, graduate students were almost all pursuing an academic
route. There is a veritable culture
of entrepreneurship on the campus. In
a number of fields, students write business plans as part of their courses, with
engineering (civil, electrical,
industrial) taking the lead. This
also occurs in computer science. Students
need to seek information about writing business plans outside of their classes,
using the school of business as one of their major resources. In addition, there is a powerful student organization at
Stanford called BASES (Business and Science Entrepreneurial Society).
The members hold seminars every week. (See the website, www.stanford.edu/group/BASES.)[26]
IV. COMPARISON
OF U.S.-JAPAN SMALL BUSINESS INNOVATION RESEARCH (SBIR) PROGRAMS
A
major new effort on the part of the Japanese national government to support the
SME innovation process is the Japan SBIR Program.
As of April 1, 1999, Japan has put into place an SBIR Program.[27]
Below, we compare some of the aspects of the Japan SBIR with the U.S.
SBIR. Our discussion should be read
bearing in mind the incipient status of our knowledge.
Moreover, the Japan SBIR Program is still in a very formative stage.
During the tenure of our fellowship, it had as yet not been implemented:
i.e., to our knowledge, no applications had been received and no awards had yet
been made. We have many questions
about the goals and the nature of the program that we did not have an
opportunity to ask. Moreover, it is
too soon for anyone to have the answers to many of our questions. While we know that to some extent the Japan SBIR has been
modeled after, and otherwise influenced by, the U.S. SBIR Program,[28]
we do not know ways that it was intentionally designed to be distinct from the
U.S. program. In the United States,
the program importantly encompasses elements A through D, in Section III, Comparison of
Selected Policies to Support High-Risk, Innovation Research at SMEs, above.
The
definition of an SME (generally referred to in the United States as a “small
business” or a “small business concern”) in the United States is not
concerned with any limits on capitalization. While the size of a U.S. SME may be 500 or fewer employees,
the majority of businesses applying for SBIR grants have fewer than 50
employees; indeed they have closer to 20-25 employees.
Brand new start-ups are an expected part of the applicant pool as implied
by the requirement of being a small business at “time of award.”
In
the United States, the program began as a Federally mandated program under the
Small Business Innovation Development Act of 1982.
Moreover, it was founded and operated as a pilot program at NSF for 5
years before the law was promulgated. Thus,
the SBIR program in the United States is an established program with more than
20 years of experience in implementing and developing the concept.
Over the duration, there has been a certain amount of development of a
community of SBIR applicants. In
the United States there has been ample opportunity to observe and take
appropriate steps to respond to patterns of participation in the program both at
the state level and the level of individual businesses.
The goals of the U.S. program as stated 10 years into the program in the
Small Business Research and Development Enhancement Act of 1992 are as follows:
A
number of studies have been done and are in process concerning the
commercialization rate of SBIR projects. For
example, the U.S. General Accounting Office (GAO) issued a report that found
that 35 percent of the 2090 Phase II awards made from 1984 through 1987 had
resulted in sales of products or processes.[29]
The Japan SBIR had its formal inception at the beginning of Japanese fiscal year 1999; i.e., on April 1, 1999. The Japan SBIR is intended to contribute to the general goal of promoting growth of SMEs by increasing the nation’s capability to create new and rapidly developing technologies based on breakthrough research and to bring these to market.
Participants
In
the United States, the current participants are 10 Federal agencies listed in
rank order according to the portion of the approximately $1.2 billion expended
during fiscal 1999 on SBIR. What defines mandatory participation is an extramural R&D
(i.e., research supported by the agency but not conducted by the agency) budget
of more than $100 million. Since
1997, the amount of the budget reserved exclusively for SBIR has been 2.5% of
the amount a given agency spends on external R&D.
In
Japan, the participants are as follows:
As
of the end of April 1999, 38 programs run by these four government agencies
participated.
In
the United States, the major participating agencies represent Defense, Health,
Space, Energy, and Science. In
Japan, there can be no participation of Defense because of the way Defense
funds—by procurement. Thus, even
if an innovative product was created, it is not considered that it is the result
of R&D. Space and Energy and a
number of other divisions that are part of STA are not participating.
Monbusho is not relevant at this time.
How education technology will be represented when Monbusho merges with
STA is not yet known.
Implementation
In
the case of the United States, the implementing organizations are the
participating agencies themselves. There
are no intermediate agents or institutional bodies; the link between small
business and the Federal agencies is direct.
In the case of Japan, New Energy and Industrial Technology Development
Organization (NEDO) is the implementing organization for MITI; Ministry of
Agriculture, Fishing and Forestry is the implementing organization for itself;
Telecommunications Organization is the implementing organization for MPT; and
Japan Science and Technology (JST) Corporation is the implementing organization
for STA.
Stand-Alone
Program vs. Integrated Program
In
the United States, the SBIR Program in each agency is a dedicated program.
As stated above, the contribution of each agency at present is 2.5%
annually of the amount the agency spends on external R&D.
The total amount for the Federal SBIR Program is approximately $1.2
billion for fiscal year 1999. In
Japan, the SBIR Program is built on many existing programs.
Without having any specific knowledge of the individual programs
involved, it is our understanding that the configuration of support for SMEs may
vary. In many of these programs,
support was theoretically already available to SMEs, but it may have been
difficult for SMEs to compete with large companies. In some programs, support may have been newly expanded to
include SMEs; and in others, some support may be exclusively for SMEs (and some
or all of those that fall in the latter category may be new programs).
There was a chart available to us in the Japanese language that covered
33 of the 38 programs. This chart showed the programs grouped by participating
agency with the target amount of annual R&D for these programs for each
participating agency based on the 1999 budget.
The target amounts for SMEs within these programs, however, were not
specified in the document.
Program
Coordination
In the United States, the Small Business Administration (SBA), a Federal agency funded by congressional appropriations, is the coordinating agency for the SBIR Program. The SBA has government-wide policy and oversight responsibility for the SBIR Program management and policy functions. SBA’s responsibilities under these programs include the following:
Because
of the flexibility in program design, participating agencies are given
considerable latitude in managing their respective SBIR Programs to effectively
meet their specific mission objectives. Thus, these agencies tend to view as particularly valuable
the major role that SBA plays as an advocate to the Congress for the SBIR
Program.
In Japan, MITI is the coordinating agency for the program and a number of the specific programs that are part of the Japan SBIR are MITI programs. In contrast to MITI, the SBA contains none of the standard SBIR Programs under its umbrella. There is, however, a brand new SBIR outreach program that SBA supports with its own funds[31]. In this program, the SBA has been authorized to provide up to $100,000 annually to eligible states for outreach to small businesses. Historically, firms that have been highly successful in securing awards under the SBIR Program are clustered in a relatively small number of states. Eligible states are those that underperform in capturing SBIR award resources. As defined, 23 states, Puerto Rico and the District of Columbia are eligible. For the most part, these are rural states facing barriers to successful competition in the SBIR Program. These barriers include lack of experience selling and performing R&D work from the Federal government [and/or the private sector], long distance separation from the Federal “customer”, absence of networking with peers, and inadequate infrastructure support (e.g., technical writing and contract/grant and intellectual property management)[32]. An amount of $1 million has been appropriated for this purpose. The legislation requires a 50 percent match by participating states. The eligible states must compete for these funds. The proposal must include a narrative five-year plan describing proposed services and assistance, including a comprehensive chart or list of local services and resources within the state; and it must indicate the state’s capacity to help small high technology businesses. It also must include documentation showing an understanding of the needs of the particular state’s small high technology business community. These are one-year awards, with the possibility of four additional years for a maximum of 5 years, subject to availability of funds. This program will provide vital resources to eligible states and help these states provide SBIR outreach to small high technology businesses. It provides important groundwork for a team approach to SBIR outreach that includes both Federal agency and state outreach personnel.
State
Participation
When
SBIR was slated to become a program at the Federal level, it was not anticipated
that the states would play an active role in the program.
Soon after its inception, however, state economic development departments
and science and technology programs began to promote the program and to assist
small businesses in proposal preparation.[33]
As set forth in the document, State
and Federal Perspectives on the SBIR Program,[34] states are playing an
active role in the program as reflected in the fact that all but two states have
some structured SBIR promotion or assistance effort underway (i.e., outreach,
technical support, or financial assistance) and that state SBIR services span
the full range of SBIR program activities—from initial awareness to
commercialization, with a heavy emphasis on outreach conferences and proposal
writing workshops and other proposal preparation assistance.
State SBIR programs, however, vary dramatically in organizational
structure, budget, and services. The
State Science and Technology Institute (SSTI) reported that Federal SBIR
managers view program outreach and commercialization as the most fruitful areas
of state-Federal cooperation.
In
the context of SBIR in Japan, the authors do not know how the national
government will relate to the prefectural governments.
Award
Conditions
In
the United States, the Federal support of SBIR Phases I and II[35]
requires neither matching funds nor any direct payback as part of the award
conditions. It is worth noting that
the U.S. definition of SME is silent on the matter of capitalization. The
picture of the assets and debts of U.S. small business concerns--while not
unimportant-- is not defining because, in the context of the U.S. SBIR Program,
the U.S. government aims to give money to qualified small business applicants
and not to expect any direct return on that investment.
The SME is required to be organized for profit and to be a majority
U.S.-owned firm with its principal activity occurring in the U.S.
In the United States SBIR model, the return on the Federal SBIR
investment is seen in sales, job creation, and the payment of taxes of
successful small business concerns. Each
agency’s program focuses on R&D that meets its needs and goals.
In the Japan SBIR, some agencies are not requiring matching funds.
It is anticipated at this time that in the majority of the Japan SBIR
programs, a modest amount of profits are to be paid back to the investor. That
is, in some manner, there is payback to the national government.
The support is not, however, regarded as a loan.
Review
Process
In
the United States, competition is a cornerstone of the SBIR Program.
The quality and the manner of conducting the review process are crucial
to the success of the SBIR Program. Moreover,
reviewer feedback contributes to making the program an important training ground
for entrepreneurs (as do the national and regional conferences which attract
prospective applicants as well as those who have received awards or rejections).
The review process in the U.S. SBIR varies by agency.
There are some agencies that conduct peer reviews (e.g., NSF,
Agriculture, and National Institutes of Health (NIH)).
These are evaluations performed by independent third parties.
There are other agencies that perform “line review” (e.g., Defense
and NASA). In these agencies, the
agency line management personnel generally perform proposal evaluations.
Some agencies use a panel process. Agencies
provide evaluation feedback in different ways.
Some debrief applicants over the phone.
In the case of NSF, evaluation feedback is written, verbatim, and
automatically provided to all applicants whether they are successful in
obtaining a grant or not. At NSF,
the external peer review is primarily conducted by using an onsite panel review
process. Each panel (4 to 12
experts) reviews a group of proposals (10 to 30 in number).
The panel places the proposals considered fundable in rank order and
makes recommendations to the SBIR Program on each proposal it has reviewed.
For each proposal, a minimum of three written reviews is produced in
addition to a summary of the panel discussion.
These documents are all provided to the applicant.
Identity of the reviewers is protected.
Confidentiality of the material in the proposals is protected.
We obtained only preliminary information about the review process in the Japan SBIR—indeed, much of it is in the planning stage. We did get some information that proposals will be reviewed by a committee of about 10 people from a pool of 100 experts. We were not able to ascertain how many proposals different programs are likely to yield, how many different review committees will need to be utilized, or what type of evaluation feedback will be provided. It was made clear that the confidentiality of the reviewers’ identity is to be maintained and also that the proposals will be in competition with each other. Although feedback is not a usual practice in Japan, a concerted effort is being made to arrange to provide feedback. The nature of this review process may vary by participating agency and/or specific SBIR Program within an agency.
University
participation
In
the United States, SBIR collaboration with universities is encouraged.
Although the Japanese are looking to the universities as the paramount
source of ideas for new technology, it is not clear how this resource will be
tapped within the context of the new Japan SBIR Program.
In the United States, there are many ways the relationship between universities and small business concerns can be reflected within the context of SBIR projects themselves:
V.
CONCLUSIONS
These
conclusions are based on the comparison of the Japanese national government’s
policies to support high-risk, innovation-based (HRIB) research at small and
medium enterprises (SMEs) to those of the U.S. Federal government policies in
the following key support areas:
A.
FINANCIAL
In
the United States, the SME that proposes a HRIB research project, has two
sources of financial support that are not available to most Japanese SMEs with
similar proposals: venture capital firms and wealthy individual angels.
However,
there are policies in place and under discussion now in Japan to increase
venture capital funding opportunities for SMEs.
It is not clear if U.S.-style angels can be introduced in a short period
of time as financial sources, without new legislation being introduced.
In
the United States, the Federal government acts as a venture or “pre-venture”
capitalist through the SBIR Program. In
Japan, we have seen instances of prefectural government organizations acting
similarly. As the Japan SBIR
Program develops, this may be an avenue for the government to increase venture
capital investment in SMEs.
B.
TECHNOLOGY
Intellectual Property (IP)
Japan’s
policies, which established Technology Licensing Organizations (TLOs) to obtain,
protect, and utilize the IP of university faculty and SMEs, are modeled after
the IP organizations at many U.S. universities.
In some prefectures, there are efforts in place to help local SMEs
identify, obtain, and protect IP that has a good opportunity for commercial
success from universities and large corporations.
The authors do not know of similar activities by Federal or state
governments in the United States.
Facilities & Equipment (F&E)
Both
countries have policies in place to provide excellent sources of F&E for
HRIB research projects. Japan in
particular has recently exceeded the amount the United States invests in more
modern, world-class, high tech F&E, e.g., Technopolis and Science City
sites, which are ideally suited for basic R&D projects.
An area of criticism and growing concern in the U.S. is the Federal
government’s declining support of basic R&D.
However,
when considering the F&E at major research universities, those of the United
States clearly have more modern facilities and are better equipped than many of
those in Japan’s national universities and efforts are underway to correct
this deficiency.
In
both countries, SMEs greatly benefit from ready access to adequate, low-cost
facilities of incubators. Many
U.S.-style incubators provide a host of services to help start-up innovators
with planning for budgeting, marketing, production, training, financing, etc.
In Japan, policymakers are trying to enable incubators to provide such
services.
C.
HUMAN CAPITAL
It is clear to
the authors that Japan’s policymakers are well aware of the crucial importance
that a large and sustainable entrepreneurial community plays in building a
diversified and strong economy. Furthermore,
they realize that there are no “quick fixes” that will overcome many
structural and cultural problems that hinder the widespread development of the
“entrepreneurial spirit”.
However, there
are efforts underway to cultivate the “entrepreneurial spirit” especially in
schools, colleges and universities where potential “risk-takers” are being
encouraged through training and hands-on experiences to start new SMEs.
VI. SUGGESTIONS
During our
discussions while visiting Japan and our subsequent research regarding Japan’s
efforts to establish a substantial and sustainable community of entrepreneurs,
several ideas emerged that might be helpful to policymakers who are trying to
achieve this goal. In this section,
we offer these ideas as suggestions for consideration:
Re: Human Capital
Development
--Encourage
women to be entrepreneurs.[36]
--Develop
entrepreneurs-in-training exchange programs with educational institutions and
SMEs
in
Ø
United States,
Canada and Israel (highest entrepreneurial activity)
Ø
China, India,
Russia (greatest potential for economic opportunities.)
--Develop focus on pre-university education. The children in Japan
show tremendous fascination with computers and gadgets, which makes high quality
computer software a potentially attractive learning tool.
There is some excellent educational software available that uses
technology well, inviting exploration and the expression of curiosity,
ingenuity, and creativity (e.g., Geometer’s
Sketchpad, has been translated into Japanese and is being distributed by
Yano Electric, an SME in Kobe[37])
Exchange science and technology policymakers with
the United States, Canada, Israel, China, India, and Russia.
Develop business and HRIB opportunities with
the United States, drawing on the pool of 376 extant local affiliations between
the United States and Japan and the pool of 37 American State Offices
Association members in Japan. (For
an inventory of these affiliations, see Appendices E.1, U.S.-Japan Local Affiliations and E.2,
American State Offices Association (ASOA) Membership Directory.)
Investigation of these ties, as appropriate for these purposes, could
be worthwhile for both countries, as a number of them could provide the basis
for a ready-made network of contacts.
Simplify and
unify support programs.
Identify
attractive but inadequately funded entrepreneurial projects for support by
investment and/or joint R&D from external government, university and
corporation sources.
Give science and
technology officials at the prefectural level greater autonomy to plan and use
funding to meet local needs
-- Consider modeling a competition for
support after the U.S. Small Business Administration's outreach competition for
states (e.g., MITI could hold a competition among the New Technology
Coordinators (NTCs) in the prefectures represented in the Research Science
Promoter (RSP) Program).
Establish
national conferences and other opportunities for networking of Japanese science
and technology organizations as well as international conferences.
Invest in the
support of entrepreneurial programs at private universities.
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[1] See, for example, National Science Foundation SBIR/STTR 1999 – Phase I Program Solicitation and Phase II Instructions, Section 2.15, Small Business Concern. (NSF 99-57).
[2] Akio Hayashi. 1999. Director, Technology Division, Small and Medium Enterprise Agency, Ministry of International Trade and Industry(MITI). Personal communication. (31 March)
[3]
Lester C.Thurow, 1999. Building
Wealth. The
Atlantic Monthly.(June), pp.57-69.
[4] Noby Maeda. 1999. Senior Research Fellow, National Institute of Science and Technology Policy (NISTEP) and Professor, Kochi University. Personal communication (15, 16 July 1999)
[5] Michael G. Snyder, 1997. Exploration of Venture Capital in Japan. Trends in Industrial Innovation: Industry Perspectives and Policy Implications. 1997 Sigma XI Forum Proceedings. (November 20-21) , Washington, D.C., pp. 213-227.
[6]
National Science Foundation. 1999. Division of Science Resources Studies.
Jean M. Johnson, principal author. The
Science & Technology Resources of Japan:
A Comparison with the
United States. NSF 97-324. Arlington, VA: NSF.
[7]
Snyder, op cit.
[8] SSTI Weekly Digest for May 28, 1999. State Science and Technology Institute.
[9] We were unable to obtain dollar figures on the amount of investment by these capital venture funds.
[10] Snyder, op cit.
[11] Michael G. Snyder, 1999. Director, Pacific Rim Initiative, American Association for the Advancement of Science (AAAS). Personal communication. (9 June)
[12] Roland Tibbetts, 1998. An Analysis of the Distribution of SBIR Awards by State, 1983-1996. U.S. SBA, Office of Advocacy, January.
[13] Technologies across Categories, Scale and National Borders. 1998 (English Version). NIRO Newsletter, p.10.
[14]
J. Yoshizawa, T. Yamamoto, Y. Oyama, and K. Gonda, 1995.
Comparative Studies on S&T
Parks for Regional Innovation throughout the World.
NISTEP Report #38 (February).
[15] Profiles of New Technology Coordinators: Regional Science Promoter Program (RSP), N..D. Science and Technology Agency. Science and Technology Corporation. Kawaguchi City, Saitama Prefecture, Japan
[16] Our information about the U.S. side of the comparison is largely based on personal communication with Christopher T. Moulding, Assistant Director, Office of Technology Transfer, California Institute of Technology ( 27July 1999)
[17] Note that in 1996, less than 15% of inventions at National Universities were classified as National Inventions. Robert C. Kneller, 1999. Professor, Research Center for Advanced Science and Technology (RCAST), University of Tokyo. Personal Communication (5 April 1999).
[18] Robert Kneller, in press. “Intellectual Property Rights and University-Industry Technology Transfer in Japan.” To be published in Science and Public Policy and as a Chapter in Branscomb, Kodama, and Florida (eds.) Industrializing Knowledge: University–Industry Linkages in Japan and the United States. MIT Press: Cambridge, MA. (Kneller's paper also appears as Tokyo Report Memorandum RM99-09, dated September 21, 1999.)
[19] As of September 1999, eight TLO organizations have been government approved.
[20] Op cit., Lester C. Thurow.
[21] See Bill Spindle, 1999. Case Study: Corporate Truant Has Lesson in Risk-Taking for Hidebound Japan. Wall Street Journal. 2 July. A1, A6. for the story of Yoshito Hori, a former Sumitomo employee who was sent to Harvard Business School, and, thwarted in his effort to pursue his business idea in-house, quit Sumitomo and started a successful business school, Globis Corporation, which has now expanded into publishing, consulting, and venture capital. Economic woes are indeed beginning to change attitudes toward careers.
[22] Hiroto, Suzuki, 1999. Look Japan. April, pp. 4-11
[23] Paul D. Reynolds, Michael Hay, and S. Michael Camp, 1999. Global Entrepreneurship Monitor (GEM). Executive Report. http://www.EntreWorld.org/Bookstore/PDfs/RE+016.pdf.
[24] . The name of the virtual reality theater developed at the University of Illinois, CAVE, is both a recursive acronym (CAVE Automatic Virtual Environment) and a reference toThe Simile of the Cave found in Plato's Republic in which the philosopher discusses inferring reality (ideal forms) from projections (shadows) on the cave wall.
[25] Bear in mind that Stanford University is an institution that is clearly avant-garde in matters of technology transfer from the academic bench to the marketplace and true synergy between industry and academia. Stanford University is ensconced in Silicon Valley, a community of entrepreneurs where 1 in 25 people are millionaires, and it has provided research results and human capital that could be said to constitute the backbone of the high-tech firms of Silicon Valley.
[26] Haresh C. Shah, 1999. Director, RMS, Inc. and Professor of Civil Engineering, Stanford University. Personal Communication (June 25)
[27] The law mandating an SBIR Program was passed in 1998; some implementation began in February 1999—actually prior to the beginning of the fiscal year.
Hayashi, Akio. 1999. Director, Technology Division, Small and Medium Enterprise Agency, Ministry of International Trade and Industry (MITI). Personal communication. (31 March)
[28] Hayashi, Akio, ibid.
[29] U.S. General Accounting Office. 1989. Federal Research: Assessment of Small Business Innovation Research Programs. Washington: GAO, January, GAO/RCED-89-39.
[30]
Prepared Testimony of Mr. Daniel O.
Hill. 1999. U.S.
Small Business Administration. Delivered May 27.
http://www.house.gov/smbiz/hearings/106th/1999/990527/hill.htm.
[31] U.S. Small Business Administration 1999. Program Announcement to Provide Small Business Innovation (SBIR) and Small Business Technology Transfer (STTR) Program Outreach to Small High Technology Businesses. Office of Government Contracting and Minority Enterprise Development. SBAHO-99-R-0010
[32]
Prepared Testimony of Dr. Chris W.
Busch. 1999. SBIR Consultant. Delivered May 27.
http://www.house.gov/smbiz/hearings/106th/1999/990527/busch.htm.
[33] State and Federal Perspectives on the SBIR Program. 1999. State Science and Technology Institute (www.ssti.org). Prepared for the U.S. Innovation Partnership SBIR Task Force (March). Interviews were conducted at the 10 federal agencies participating in the federal SBIR program and with 51 individuals that manage state SBIR programs in 46 states.
[34] Ibid.
[35] The U.S. SBIR has a three-phase structure:
Phase I: Awards of up to $100,000 for six months for Feasibility Research
Phase II: Awards of up to $750,000 for up to two years for Research towards Prototype
Phase III: Product Development to Commercial Market, not supported by SBIR funds
[36] Reynolds, Hay, and Camp, op cit. GEM provides a robust framework within which national governments can evolve a set of effective policies for enhancing entrepreneurship.(pps. 3-4). See Proposition 5: “For most GEM countries, the greatest and most rapid gain in firm start-ups will be achieved by increasing the participation of women in the entrepreneurial process.”
[37] Takakazu Yano, President of Yano Electric, has a vision of technology-assisted education based largely on his commitment to quality education rather than on the ripeness of the present educational software marketplace. His personal convictions include the need to focus on a pedagogically richer set of goals than the goal of university placement. It is important to note that in summer of 2000, the international mathematics education community will focus on Japan at CME 9 (the International Congress of Mathematics Education) to be held in Tokyo.