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The Industrial Context
The paucity of S&T funding in
the last decade has eroded traditional Air Force technology
strengths like electronic warfare. At the same time, industry
basic research has shrunk dramatically, with a much shorter
time horizon than 20-30 years ago. The Air Force's aim, as one
planner said recently, should be to "maintain a
technological lead of 5-10 years" over potential
adversaries, but the Air Force "can't rely
dominantly" on industry for basic research.
"Alarming"53
DoD reductions in 6.1, 6.2 and 6.3 funding are being made
based on the apparently invalid premise that industry will
pick up the difference. As Gen. Lawrence A. Skantze has noted,
DoD was the "dominant" user of U.S. industrial
technology 25 years ago and on the "leading edge" of
avionics and software development. "That has totally
changed. DoD is now a minor user, and today the avionics and
software state-of-the-art is the most dynamic and dominant
technology development in the industrial world."54
The commercial space market has
also grown about 50% since 1988, with increased associated
R&D into, for example, microminiaturized components and
new data compression techniques. There definitely are
potential military benefits here in the area of avionics and
navigation. OSD maintains that DoD "absolutely" has
to start "depending more" on industry so that the
military can "focus more on those things that industry is
not going to do."55
But defense industry leaders point out that the market drives
industry towards research only in areas where it sees a
profitable market. If the military has voiced a requirement,
research is likely; without a clear need—indicating a future
market—such research is unlikely.
For its part, the Air Force
clearly needs to push those unique technologies that are not
being funded internally by industry. This situation has not
changed since the 1980s, when it was pointed out that the
defense technology base was becoming "largely inseparable
from" the national technology base.56
The Aerospace Industries Association reports that DoD now
accounts for only 29% of aerospace industrial sales, down from
53% in 1988.57
Since 1989, the government role in RDT&E has been
receding, and R&D has more and more become an
industry-financed program—"up about 50%"—with
"spin-on"58
benefits accruing to the government. In 1977, industry
invested $1 for each $4 in federal funding. Today this is $1
to $2. The federal contribution to industry R&D has held
steady since 1994 at about $20 billion, but the overall
portion has dropped to about 17% of total investment. Overall
U.S. R&D, as a percentage of gross domestic product, is at
about at the same level as it was in 1983.59
Government reliance on industrial
R&D is not without risks. The Committee for National
Security found that industries were devoting 80-90% of their
R&D resources to short-term product development and
process improvement. "We are thus seeing a gap in the
innovation system, in funding for mid- and long-range R&D,
which threatens to dry up the wells of new technology.
Pressure to realize near-term returns is aggravating, in
particular, the gap in R&D in the 5- to 7-year time
frame."60
Business now looks for return on
investment in as little as 6-12 months.61
Industry also considers defense-related R&D to be highly
unstable, excessively complex, and characterized by high risk,
restricted cash flow and low financial return.62
Whereas, over the last few years, particularly because of
widespread mergers and the resulting economics, industry has
adopted an R&D philosophy that is "relatively
short-term" (less than 10-15 years), DoD needs to
concentrate on "long-term," "unique"
research. Industry views the DoD as a customer but no
longer as the customer. It will not undertake unique
military-related R&D unless funded, because the resulting
technology is "different" from civilian needs:
tolerances and precision requirements are higher, the market
is too small, and funding is too erratic.63
There are, however, strong
arguments for government risk-sharing with industry. In fact,
industry's response to shared funding seems to be positive:
AFRL reports that its government-industry programs are very
active and that industry is proposing more funding for
projects than is required. Today's industry chorus is
"show me the money": the military must at least
share R&D costs.
The investment of such "seed
money" is a tremendous enabler leading to technology
beneficial to the Air Force, the government, and the nation.
In some technical areas—communications, information
technology, microelectronics—such funding is no longer
needed. But in other areas—like propulsion, space
engineering, directed energy, nuclear power, and
stealth—industry still depends on the DoD to fund
exploratory S&T. Additional areas where the Air Force
needs to continue funding vital interests are large system
integration and information protection, both of which are
fundamental to development of the future military "system
of systems" called for in Joint Vision 2010.
Since industry is extremely
market focused, technology development may be at risk if the
government pulls out of research altogether. For example, the
Boeing Company's recent decision to withdraw from research on
the High Speed Civil Transport was dictated by what Boeing
perceived as the lack of a customer, and it preceded the
withdrawal of NASA from the same research after Congress
canceled its funding. All work on this crucial technology was
thus suspended.
"If government fails to
support advances in pre-commercial technologies, at least on a
cost-shared basis, it is very likely that they will not get
developed."64
Meanwhile, the industry asserts that, "right at the same
time when DoD is divesting itself of all of its applied
research, so is NASA and so is FAA."65
And no one is looking at the "big picture"—the
national research and development investment in aerospace.
There are other "warning
signs" of a "real structural problem." Total
investment in aerospace R&D is now "less than
8%" of national R&D investment. The president of the
Aerospace Industries Association puts the structural issue
this way: "Can we live in a long-term competitive global
economy with only 8% of our national investment going into
aerospace?"66
To counter reductions in military
R&D budgets and keep industry involved, the DoD espouses a
Dual-action Technology Policy, recognizing that we
"can no longer afford two distinct industrial
bases." This process "allows our armed forces to
exploit the rapid rate of innovation of commercial industry to
meet defense needs."67
At the AFRL level, this philosophy is represented in programs
including dual use, Independent Research and Development (IR&D),
and Small Business Innovation Research (SBIR): "the
flagships" of Department of Defense research which
"everyone else benchmarks against" in
government-industry relations. AFRL manages these programs and
monitors areas where the Air Force should be doing research
and where industry research can be used.
- SBIR research concentrates on concepts leading to
products in 3 years or less: 9 months for a Phase 1 first
look and 2 more years in concept development if chances
look good. Ideas come from industry but respond to
military requirements.
- IR&D includes some 4,000 programs run by 100
companies—about 95% of the aerospace industry—totaling
some $2 billion. IR&D proposals are submitted
voluntarily to the Defense Technology Information Center,
where they are extensively researched against all U.S.
Government R&D, using 170 specific Air Force needs
centered on operational systems. IR&D is done by
industry with government funding, and this program allows
the military to ride along. Information is proprietary. As
General Skantze has pointed out recently, such a shift to
commercial technology "is critical," especially
in avionics, where the "capacity growth rate in both
memory and processor chips is 40% per year."68
He makes a good point. Other industrial R&D of
government interest totaled nearly $140 billion in FY
1998.
- The dual-use S&T program is congressionally
mandated, facilitated by the OSD Director of Defense
Research & Engineering (DDR&E) and funded jointly
by the services. This program has opened up Air Force
S&T to industry. Funding is 50% by industry, 25% by
the DoD Dual Use Science & Technology Program, and 25%
by USAF (usually AFRL). The military pays until a
technology matures (i.e., through 6.3), then leaves
industry to carry it to market. The military then benefits
by buying the products. If the technology is "too
risky," this military contribution will often get
industry "off the dime."69
This also prevents the military from having to reproduce
6.1-6.2 testing leading to a military product. The FY 2000
USAF contribution is $17.9 million, and it will continue
at the $19-20 million level through FY 2004. Duration and
funding levels are proposed by industry, not government,
so research can be tied to industry's return-on-investment
time limits. The dual-use S&T program seems to provide
a positive answer to the question: Will industry do
R&D for the military? Industry has to spend a dollar
for every military dollar spent. When DARPA recently went
out with $500 million in seed money, it received $6.8
billion in proposals—a 13:1 exchange. Another example of
this is "Warfighter-1," a commercial imaging
program 74.5% paid by Orbital Sciences Corp. and 25.5% by
AFRL. Hyperspectral images will ultimately be sold
commercially and also made available to the military.
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NASA R&D INVESTMENT |
| At the same time that Air Force research and
development investment has been dropping, so, too, has
R&D spending by NASA. Source: Aerospace Industries
Association. |
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Although some industries—like
information technology—are driven by their markets into new
areas of technology, the application of this research to
military needs may be limited. Special research may be
required for weapons systems, but, even in that case, future
support for the resulting military systems will be problematic
because of rapid generational turnover in the civilian
technology marketplace. Also, market-based research is
incremental, and does not provide the quantum leaps needed to
keep ahead in military weaponry.70
Additionally, knowledgeable Air
Force oversight is essential for such industrial research into
unique military applications. As the cadre of Air Force
officers involved has shrunk, this oversight has become less
comprehensive and informed, another consequence of the erosion
in the stature of R&D as an Air Force career opportunity.
To assure continued attention to its vital needs, the Air
Force should identify critical core technologies and develop
high-quality internal research capabilities to investigate
them.
Several critical technologies are
perceived as not being supported by industry, e.g., electronic
hardening, ballistic missile protection, munitions, detectors,
anti-chemical warfare (CW)/anti-biological warfare (BW)
agents. Other technologies of concern include engines,
avionics, precision-guided munitions, stores separation,
aeromechanics, computational fluid dynamics, stability and
control, aerodynamics, propulsion integration, analysis and
testing, air vehicle design synthesis, operational flight
software, manufacturing technology, and low observables
(stealth).71
The following chart illustrates the broad areas and where
research is expected to be funded:
| New Technologies |
Source of Development Funding |
| Information |
Industry |
| Precision targeting, strike |
Industry, DoD |
| Long-range strike |
DoD, USAF |
| Air and space survivability |
USAF, NRO |
| Stealth, counterstealth |
DoD, USAF |
| All-weather strike |
USAF |
| Noncooperative Identification Friend-or-Foe (IFF) |
USAF |
| Space operations vehicle |
Industry, USAF |
| Hypersonic projectiles |
USAF |
| Hyperspectral imaging |
Industry, USAF |
| Space-based laser |
USAF |
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