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Article
October 2003
Air Force Technology Programs Need Steady Funding, Support
by Susan Rietze
Air Force science and technology budgets are slightly on the rise, but the
funding still is not adequate to satisfy current demands and emerging requirements,
said a panel of researchers.
A report by the National Research Council, entitled, “Effectiveness of
Air Force Science and Technology Program Changes,” points out that Air
Force science and technology programs are under-financed, lack a competent workforce
and demand better visibility in order to keep funding and interest levels high.
U.S. involvement in Operations Enduring Freedom and Iraqi Freedom prompted
funding cuts in the areas of science, technology, research, development, testing
and engineering. Both readiness and modernization priorities compete with science
and technology for both resources and advocacy.
Constant reallocation of funds undermines science and technology projects,
which need consistent funding to project future requirements and anticipate
the needs for new technologies.
In the past, Air Force allocation for science and technology dollars has fluctuated,
from an average of $2.1 billion a year during the 1980s to an average of $1.3
billion during the 1990s. Further, an unstable budget profile over the past
20 years makes program planning and execution virtually impossible, said the
NRC study.
The 2002 Air Force science and technology budget was about $1.66 billion. This
is half of what is considered ideal to support the service’s anticipated
short- and long-term goals.
The council identified six long-term objectives: finding and tracking, command
and control, controlled effects, rapid air and space response, effective air
and space persistence.
Among the short-term goals are: target location, identification and tracking;
command, control, communications, computers, intelligence (C4I); precision attack,
space control, access to space, aircraft survivability and countermeasures,
sustaining aging systems and air expeditionary force support.
Programs in applied research and advanced technology development constitute
over 50 percent of the total science and technology budget. Of the $1.66 billion,
$243.5 million is allocated for propulsion technology, $195 million for military
satellite communications, $162.7 million for sensors, $123 million for air vehicles
and $121.9 million for manufacturing.
Adding to the financial woes of Air Force science and technology programs,
the National Aeronautics and Space Administration cut back its support of Air
Force aeronautics by more than 40 percent in the last five years. The Air Force
depends on the advances in information, nano-technology and biological sciences,
historically gained in partnership with NASA.
Workforce
The council also expressed concern that the Air Force science and technology
workforce cannot compete with the corporate market when it comes to recruiting
personnel. Young scientists and engineers opt for the higher wages, better facilities
and immediate employment offered in the private sector, as opposed to the long
military approval process.
This has been a continuing problem for 15 years and will only worsen, said
the study. The panel recommended that the Defense Department relax personnel
policies, allowing laboratory directors more flexibility to shape their own
workforce, as well as reconsidering requirements for civilian and military training
programs.
The science, technology and engineering workforce needs a fresh new cadre of
professionals who can inject innovation into the Air Force, the study said.
It is also important for the Air Force to appoint mid- and senior-level officers
in science and technology positions, who can effectively advocate for their
programs.
The work of so-called “applied technology councils” could help
enhance the visibility of science and technology throughout the Air Force.
Applied technology councils assist in the transition of technology from the
research centers to appropriate weapon systems. There are five different ATCs
within the Air Force—Air Combat Command, Air Mobility Command, Air Force
Special Operations Command, Air Force Space Command and Air Force Material Command.
Future Capabilities
The Air Force, specifically, should boost investments in unmanned aircraft,
small munitions, directed energy weapons, micro-satellites and the Joint Battlespace
Infosphere information grid, said Donald C. Daniel, research professor with
the Center for Technology and National Security Policy at the National Defense
University. Daniel authored a paper titled, “The Air Force: Science, Technology
and Transformation.”
Building a flight-worthy unmanned vehicle is no longer a significant challenge,
according to Daniel. “However, building a fleet of such vehicles that
can operate within the context of a modern airborne strike package certainly
is.”
The Air Force is committed to internal carriage of munitions for all emerging
aircraft (F/A-22, F-35 and UCAV), Daniel noted. “A key challenge is keeping
aircraft size/weight to a minimum, as there is a direct relationship between
size/weight and cost,” he said.
“Small munitions are essential for achieving minimum size and accomplishing
the mission with high-performance aircraft. Small munitions also result in more
individual weapons available per aircraft per sortie.”
The small diameter bomb is the first of the small munitions that will be available.
Additional small munitions technologies being developed also will lead to miniaturized
air-launched missiles suitable for internal carriage in platforms similar to
those for the small diameter bomb, Daniel explained. These munitions may be
as small as 30 inches long and 8 inches in diameter. “Small munitions
of this type may be particularly attractive for attacking mobile, time-critical
targets.”
Directed-energy weapons of interest fall into two categories: high-energy lasers
and high-power microwaves. Of the two, the research into high-energy lasers
is more mature and approaching application.
Another form of directed energy that is being weaponized is “active denial.”
This technology features a high-power millimeter wave device being developed
for non-lethal applications. In addition, other future high-power microwave
devices may have potential use from UCAV platforms, Daniel said.
Microsatellites (those weighing less than 100 kilograms) have the potential
to transform military space activities and missions, he said. The potential
benefits are multiple and include significantly lower cost to orbit, enhanced
tactical flexibility for battlefield commanders and reduced vulnerability.
These small satellites could eventually replace larger ones that perform well-established
missions (such as global positioning), and they will enable new missions in
logistics, space control and multi-mission satellite clusters, according to
Daniel.
The Joint Battlespace Infosphere is an information technology effort aimed
at presenting effective battlefield data to decision makers at multiple levels.
This involves a globally interoperable approach that aggregates, integrates,
fuses and disseminates relevant information, Daniel said.
JBI can be envisioned as a federation of multiple servers, resting on a global
grid and forming a virtual information space that all users and systems can
easily tap (using open-standard protocols) to exchange information, he added.
“JBI should be thought of as a framework of information science and technology,
not a specific product.”
Susan Rietze is a cadet at the U.S. Air Force Academy, in Colorado Springs,
Colorado.
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