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Special Report: War, Terrorism, and National Security Shape Bush R&D Budget in FY 2004; Civilian R&D Funding Flat

MAY 01, 2003
Nondefense physical sciences run a distant second to big increases in weapons development and homeland security in the administration’s budget, and Congress is wondering what happened to money it authorized for NSF.

DOI: 10.1063/1.1583531

When the Bush administration unveiled its budget proposal last year, its first stated priority was “defeating terrorism abroad,” and the second was “protecting the homeland.” Accordingly, money flowed to the Department of Defense and to programs that would eventually become part of the newly forming Department of Homeland Security. All agencies, including those that supported science, were directed to shape their funding based on national security, an Office of Management and Budget official said bluntly.

Now, with the war in Iraq coming on the heels of the war in Afghanistan and the more general war on terrorism, national security has gained even more importance in the administration’s FY 2004 budget proposal. Even without including the tens of billions of dollars that will be needed to cover the cost of the Iraqi war, the FY 2004 budget proposal-including the federal R&D budget—remains steeped in war and national security concerns. Indeed, a budget resolution passed by the House of Representatives in March carried the stark title: “The Fiscal Year 2004 Wartime Budget Resolution.”

Overall, the FY 2004 budget calls for a record-setting $122.4 billion in federal R&D spending, up 4.4% from FY 2003’s record R&D budget. But the wartime nature of the budget becomes apparent by noting where the increases are aimed. Defense R&D, at $62.8 billion, would total more than 50% of the entire federal R&D budget. According to an American Association for the Advancement of Science (AAAS) analysis, the DOD share “would surpass cold war funding levels at $62.8 billion [up 7.1%], with the entire increase for the development costs of new weapons and missile defense systems.” Basic and applied research funding in DOD would actually decline significantly.

At the Department of Energy (DOE), defense R&D would increase 8.6% to $4.2 billion, primarily in funding for the National Nuclear Security Administration (NNSA). The new Department of Homeland Security (DHS), with a proposed budget of $36.2 billion, would have an R&D budget of $1 billion. Much of that research money would go to the newly created Homeland Security Advanced Research Projects Agency (HSARPA), modeled on DOD’s DARPA.

National Science Foundation R&D Programs

  FY 2002 actual FY 2003 estimate FY 2004 request FY 2003–04 percent change
  (millions of dollars) a
NSF total 4774 5310 5481 3.2
NSF R&D 3526 3927 4035 2.8
Research and related activities (R&RA)        
Mathematical and physical sciences (MPS)        
Mathematical sciences 152 178 202 13.1
Astronomical sciences 166 171 183 7.0
Physics 196 205 218 6.1
Chemistry 163 221 182 −17.7
Materials research 219 233 246 5.8
Multidisciplinary activities 25 27 31 16.8
Total MPS 920 1035 1061 2.6
Geosciences (GEO)        
Atmospheric sciences        
Atmospheric sciences research support 126 145 151 4.1
National Center for Atmospheric Research 76 74 79 6.7
Total atmospheric sciences 202 219 230 5.0
Earth sciences 126 152 144 -4.9
Ocean sciences 281 316 314 -0.7
Total GEO 610 687 688 0.1
Engineering 471 531 537 1.1
Biological sciences 510 571 562 -1.6
Computer and information science and engineering (CISE)        
Computer-communications research 70 77 76 -1.5
Information and intelligent systems 52 56 52 -5.7
Experimental and integrative activities 63 68 58 -15.5
Advanced networking infrastructure and research 70 75 68 -9.3
Advanced computational infrastructure and research 87 94 93 -1.3
Information technology research 174 209 218 4.2
Cyberinfrastructure 0 0 20
Total CISE 515 579 584 1.0
US polar programs        
Polar research 231 251 262 4.5
Antarctic logistical support 70 69 68 -0.6
Total polar programs 301 319 330 3.4
Social, behavioral, and economic sciences 184 191 212 10.9
Integrative activities 106 147 132 -9.9
Total R&RA 3612 4058 4106 1.1
Major research equipment and facilities b 139 149 202 36.2
Education and human resources c 894 903 938 3.9
Salaries and expenses 170 193 226 17.2
Inspector general 7 9 9 -4.6

Figures are rounded to the nearest million. Changes calculated from unrounded figures.

Funding would continue for Atacama Large Millimeter Array ($51 million); EarthScope geophysical instrument array ($45 million); High-performance Instrumented Airborne Platform for Environmental Research ($26 million); IceCube ($60 million); Network for Earthquake Engineering Simulation ($8 million); National Ecological Observatory Network ($12 million); and South Pole Station Modernization ($1 million).

Includes flat funding for the Math and Science Partnership ($200 million) and the Experimental Program to Stimulate Competitive Research ($75 million). Elementary, secondary, and informal education would decrease 8% to $194 million; undergraduate education would increase 4.8% to $142 million; and graduate education would increase 22% to $157 million.

National Science Foundation R&D Programs

NSF total

4774

5310

5481

3.2

NSF R&D

3526

3927

4035

2.8

Research and related activities (R&RA)

Mathematical and physical sciences (MPS)

Mathematical sciences

152

178

202

13.1

Astronomical sciences

166

171

183

7.0

Physics

196

205

218

6.1

Chemistry

163

221

182

−17.7

Materials research

219

233

246

5.8

Multidisciplinary activities

25

27

31

16.8

Total MPS

920

1035

1061

2.6

Geosciences (GEO)

Atmospheric sciences

Atmospheric sciences research support

126

145

151

4.1

National Center for Atmospheric Research

76

74

79

6.7

Total atmospheric sciences

202

219

230

5.0

Earth sciences

126

152

144

-4.9

Ocean sciences

281

316

314

-0.7

Total GEO

610

687

688

0.1

Engineering

471

531

537

1.1

Biological sciences

510

571

562

-1.6

Computer and information science and engineering (CISE)

Computer-communications research

70

77

76

-1.5

Information and intelligent systems

52

56

52

-5.7

Experimental and integrative activities

63

68

58

-15.5

Advanced networking infrastructure and research

70

75

68

-9.3

Advanced computational infrastructure and research

87

94

93

-1.3

Information technology research

174

209

218

4.2

Cyberinfrastructure

0

0

20

Total CISE

515

579

584

1.0

US polar programs

Polar research

231

251

262

4.5

Antarctic logistical support

70

69

68

-0.6

Total polar programs

301

319

330

3.4

Social, behavioral, and economic sciences

184

191

212

10.9

Integrative activities

106

147

132

-9.9

Total R&RA

3612

4058

4106

1.1

Major research equipment and facilities b

139

149

202

36.2

Education and human resources c

894

903

938

3.9

Salaries and expenses

170

193

226

17.2

Inspector general

7

9

9

-4.6

Figures are rounded to the nearest million. Changes calculated from unrounded figures.

Funding would continue for Atacama Large Millimeter Array ($51 million); EarthScope geophysical instrument array ($45 million); High-performance Instrumented Airborne Platform for Environmental Research ($26 million); IceCube ($60 million); Network for Earthquake Engineering Simulation ($8 million); National Ecological Observatory Network ($12 million); and South Pole Station Modernization ($1 million).

Includes flat funding for the Math and Science Partnership ($200 million) and the Experimental Program to Stimulate Competitive Research ($75 million). Elementary, secondary, and informal education would decrease 8% to $194 million; undergraduate education would increase 4.8% to $142 million; and graduate education would increase 22% to $157 million.

Civilian R&D flat

In general, civilian R&D pays the price for the increases in national security R&D. Nondefense R&D would increase by only 1.2%, to $55 billion, in the administration’s budget proposal. The National Institutes of Health (NIH), which completed a five-year doubling of its budget last year, would see a 2.7% increase this year. But as comparatively small as that is, the rest of the nondefense R&D budget is tiny enough that, if the NIH portion is removed, overall federal nondefense R&D would decline by 0.1%.

While the cost of war and national security will dominate the budget debate for the next several months, other significant issues—the large and growing budget deficits, the weak economy, and the loss of the space shuttle Columbia—will also influence how much money is available for R&D and where that money goes. In presenting the FY 2004 budget proposal to the House Committee on Science, Office of Science and Technology Policy Director John Marburger said it represented “some extraordinary new vistas of science with the potential to revolutionize our understanding and our capabilities. We cannot fund everything we’d like, but we will fund those exciting and high-priority initiatives that keep this dream of discovery alive.”

Several committee members responded with concern about the lack of funding for basic research and, in particular, the flat funding proposed for DOE’s Office of Science. Both Democratic and Republican members of the committee have strongly supported increases in science funding for the past few budget cycles, and Judy Biggert (R-Ill.) noted that “scientific research may not be as politically popular as health care and education, but it is as important to progress in these two areas as it is to ensuring America’s economic, energy, and national security.” Biggert has introduced a bill to increase proposed funding for the Office of Science from $3.3 billion in the Bush proposal to $3.6 billion.

Democrats not happy

The Democrats on the science committee were critical of the Bush R&D spending proposal, stating in their annual “views and estimates” report on R&D funding that the administration’s request is “inadequate” and “irresponsible.” The report, whose lead author is ranking committee Democrat Rep. Ralph Hall (Tex.) notes that DOE’s civilian research programs and several agencies, including NIST and the National Oceanic and Atmospheric Administration (NOAA), face R&D cuts under the Bush proposal.

Citing the needs for more national security research, more investment in the physical sciences, and more funding at NASA because of the Columbia disaster, the Democrats called for an 8% to 10% increase in R&D funding in FY 2004. Without that level of funding, the report concluded, “it seems impossible to do the things we know we need to do in R&D.”

Department of Energy R&D Programs

  FY 2002 actual FY 2003 estimate FY 2004 request FY 2003–04 percent change
  (millions of dollars) a
DOE total 21 317 22 064 23 375 5.9
DOE R&D 8 078 8 205 8 535 4.0
Science R&D programs        
High-energy physics (HEP) total 697 725 738 1.8
Proton accelerator-based physics 388 388 399 3.0
Research 72 74 73 −2.1
University research b 44 46 45 −1.8
National laboratory research c 27 27 26 −2.8
University service accounts 1 1 1 0.0
Facilities 316 314 327 4.2
Tevatron operations and improvements 242 233 248 6.3
Large Hadron Collider project and support 54 67 64 −3.7
AGS operations 6 0 0 0.0
Other facilities 14 14 14 5.7
Electron accelerator-based physics 148 150 159 6.2
Research 30 33 34 1.7
University research d 20 23 23 1.0
National laboratory research e 10 10 10 3.5
Facilities (B-factory operation and improvement) 118 117 126 7.4
Non-accelerator physics 39 37 43 14.9
University research 10 11 12 5.5
National laboratory Research f 14 13 12 −8.5
Theoretical physics 43 42 42 −0.6
Advanced technology R&D (accelerators and detectors) 68 87 81 −6.6
Construction 11 20 13 −37.8
Nuclear physics total 351 382 389 2.0
Medium-energy nuclear physics 111 124 124 0.5
Research 31 38 37 −3.3
University research (includes 35 universities) 16 16 15 −0.9
National laboratory research (includes ANL, BNL, LANL, and TJNAF) 15 17 16 −6.6
Other research 0 5 5 0.0
Operations 81 86 88 2.0
Heavy-ion nuclear physics 151 168 168 −0.1
Research 30 36 35 −3.5
University research (includes 26 universities) 12 12 12 3.9
National laboratory research (includes BNL, LANL, LBNL, LLNL, and ORNL) 19 21 19 −11.0
Other research 0 3 4 18.6
Operations (primarily RHIC) 121 132 133 0.8
Low-energy nuclear physics 63 66 69 4.7
Research 40 42 46 9.6
University research (includes 32 universities) 17 18 18 4.1
National laboratory research (includes ANL, BNL, LANL, LBNL, LLNL, and ORNL) 20 20 23 16.0
Other research 3 5 5 3.4
Operations (ATLAS and HRIBF facilities) 22 24 23 −4.0
Nuclear theory 25 25 28 14.2
Fusion energy sciences total 241 257 257 0.0
Science 134 143 145 1.5
Tokamak experimental research 45 49 46 −4.7
Alternative concept experimental research 52 51 52 2.5
Fusion theory 28 28 29 3.3
General plasma science 8 9 11 22.0
Small business research 0 6 7 3.6
Facility operations g 71 79 88 11.5
Enabling R&D 36 36 25 −31.0
Basic energy sciences (BES) total 980 1023 1009 −1.0
Materials sciences 500 548 568 3.7
Chemical sciences, geosciences, and energy biosciences (CGEB) 200 220 221 0.4
National user facilities operations (funding is contained in the materials sciences and CGEB budgets)        
Advanced Light Source, LBNL 38 40 41 3.4
Advanced Photon Source, ANL 89 91 95 3.5
National Synchrotron Light Source, BNL 35 36 37 3.8
Stanford Synchrotron Radiation Laboratory 22 23 26 16.4
High Flux Isotope Reactor, ORNL 39 37 38 4.1
Radiochemical Engineering Development Center, ORNL 7 7 7 7 0.0
Intense Pulse Neutron Source, ANL 16 17 17 1.1
Manuel Lujan Jr Neutron Scattering Center, LANL 9 1 0 10 6.1
Spallation Neutron Source, ORNL 15 14 18 27.4
Combustion Research Facility 5 6 6 2.8
Construction h 279 252 220 −12.6
Adjustment 0 4 0 −100.0
Advanced scientific computing research (ASCR) total 150 172 173 1.2
Mathematical information and computational sciences 147 169 170 1.2
Laboratory technology resources 3 3 3 0.0
Biological and environmental research total 554 527 500 −5.1
Energy research analyses 1 1 0 −100.0
Small business innovation research 100 0 0 0.0
Energy supply R&D total 262 309 376 21.9
Renewable energy resources 219 240 250 4.3
Nuclear energy 42 69 127 82.8
Fossil energy R&D 446 483 411 −14.9
Energy conservation 434 427 442 3.6
Atomic energy defense activities total 3761 3849 4180 8.8
National Nuclear Security Administration (NNSA) R&D total 3569 3732 4084 9.4
Weapons activities R&D total 2769 2922 3256 11.4
Stockpile R&D 313 467 433 −7.3
Science campaigns 257 255 270 5.5
Advanced simulation and computing 704 704 751 6.6
Inertial confinement fusion 507 504 467 −7.4
National Ignition Facility 245 214 150 −29.9
All other weapons R&D 989 991 1336 34.8
Nonproliferation and verification 195 192 196 1.7
Naval reactors 605 617 632 2.4
Other atomic energy defense activities 31 27 28 5.1
Environmental management 160 91 68 −25.3
Radioactive waste management 60 62 59 −5.4

AGS, Alternating Gradient Synchrotron. ANL, Argonne National Laboratory. BNL, Brookhaven National Laboratory. LANL, Los Alamos National Laboratory. LBNL, Lawrence Berkeley National Laboratory. LLNL, Lawrence Livermore National Laboratory. ORNL, Oak Ridge National Laboratory. RHIC, Relativistic Heavy Ion Collider. TJNAF, Thomas Jefferson National Accelerator Facility.

Figures are rounded to the nearest million. Changes calculated from unrounded figures.

Consists of groups from more than 60 universities doing experiments at proton accelerator facilities. Most experiments are conducted at Fermilab’s Tevatron, while development of the physics program are for the Large Hadron Collider, and the HERA accelerator complex at DESY in Germany.

The national lab research program is being decreased to provide more support for high-priority Tevatron operations. Fermilab research ($8.5 million) includes data taking and analysis of the CDF, D-Zero, and MiniBooNE experiments, and commissioning of the MINOS detector. LBNL ($5.3 million) and BNL ($7.8 million) research focuses on CDF and D-Zero data analysis, and the ATLAS research and computing program. ANL ($4.5 million) will work on CDF data, ATLAS, and the Zeus experiment at HERA.

Consists of about 40 universities working at the BaBar experiment at the SLAC B-factory, and groups working at the Cornell Electron Storage Ring.

At SLAC ($7.1 million), research focuses on data taking from the BaBar detector. LBNL ($3 million) is also working with the BaBar detector, as are scientists at LLNL ($298 000).

Focused on the GLAST/LAT telescope (SLAC); analysis from the Sloan Digital Sky Survey (Fermilab); and research for the SNAP experiment proposal, and analysis of KamLAND data (LBNL).

FY 2004 request includes nearly $2 million for the US effort to rejoin the International Thermonuclear Experimental Reactor (ITER).

Includes nearly $125 million for the Spallation Neutron Source and nearly $85 million for nanoscale research centers at ORNL, LBNL, SNL, and LANL.

Department of Energy R&D Programs

DOE total

21 317

22 064

23 375

5.9

DOE R&D

8 078

8 205

8 535

4.0

Science R&D programs

High-energy physics (HEP) total

697

725

738

1.8

Proton accelerator-based physics

388

388

399

3.0

Research

72

74

73

−2.1

University research b

44

46

45

−1.8

National laboratory research c

27

27

26

−2.8

University service accounts

1

1

1

0.0

Facilities

316

314

327

4.2

Tevatron operations and improvements

242

233

248

6.3

Large Hadron Collider project and support

54

67

64

−3.7

AGS operations

6

0

0

0.0

Other facilities

14

14

14

5.7

Electron accelerator-based physics

148

150

159

6.2

Research

30

33

34

1.7

University research d

20

23

23

1.0

National laboratory research e

10

10

10

3.5

Facilities (B-factory operation and improvement)

118

117

126

7.4

Non-accelerator physics

39

37

43

14.9

University research

10

11

12

5.5

National laboratory Research f

14

13

12

−8.5

Theoretical physics

43

42

42

−0.6

Advanced technology R&D (accelerators and detectors)

68

87

81

−6.6

Construction

11

20

13

−37.8

Nuclear physics total

351

382

389

2.0

Medium-energy nuclear physics

111

124

124

0.5

Research

31

38

37

−3.3

University research (includes 35 universities)

16

16

15

−0.9

National laboratory research (includes ANL, BNL, LANL, and TJNAF)

15

17

16

−6.6

Other research

0

5

5

0.0

Operations

81

86

88

2.0

Heavy-ion nuclear physics

151

168

168

−0.1

Research

30

36

35

−3.5

University research (includes 26 universities)

12

12

12

3.9

National laboratory research (includes BNL, LANL, LBNL, LLNL, and ORNL)

19

21

19

−11.0

Other research

0

3

4

18.6

Operations (primarily RHIC)

121

132

133

0.8

Low-energy nuclear physics

63

66

69

4.7

Research

40

42

46

9.6

University research (includes 32 universities)

17

18

18

4.1

National laboratory research (includes ANL, BNL, LANL, LBNL, LLNL, and ORNL)

20

20

23

16.0

Other research

3

5

5

3.4

Operations (ATLAS and HRIBF facilities)

22

24

23

−4.0

Nuclear theory

25

25

28

14.2

Fusion energy sciences total

241

257

257

0.0

Science

134

143

145

1.5

Tokamak experimental research

45

49

46

−4.7

Alternative concept experimental research

52

51

52

2.5

Fusion theory

28

28

29

3.3

General plasma science

8

9

11

22.0

Small business research

0

6

7

3.6

Facility operations g

71

79

88

11.5

Enabling R&D

36

36

25

−31.0

Basic energy sciences (BES) total

980

1023

1009

−1.0

Materials sciences

500

548

568

3.7

Chemical sciences, geosciences, and energy biosciences (CGEB)

200

220

221

0.4

National user facilities operations (funding is contained in the materials sciences and CGEB budgets)

Advanced Light Source, LBNL

38

40

41

3.4

Advanced Photon Source, ANL

89

91

95

3.5

National Synchrotron Light Source, BNL

35

36

37

3.8

Stanford Synchrotron Radiation Laboratory

22

23

26

16.4

High Flux Isotope Reactor, ORNL

39

37

38

4.1

Radiochemical Engineering Development Center, ORNL 7

7

7

7

0.0

Intense Pulse Neutron Source, ANL

16

17

17

1.1

Manuel Lujan Jr Neutron Scattering Center, LANL

9

1 0

10

6.1

Spallation Neutron Source, ORNL

15

14

18

27.4

Combustion Research Facility

5

6

6

2.8

Construction h

279

252

220

−12.6

Adjustment

0

4

0

−100.0

Advanced scientific computing research (ASCR) total

150

172

173

1.2

Mathematical information and computational sciences

147

169

170

1.2

Laboratory technology resources

3

3

3

0.0

Biological and environmental research total

554

527

500

−5.1

Energy research analyses

1

1

0

−100.0

Small business innovation research

100

0

0

0.0

Energy supply R&D total

262

309

376

21.9

Renewable energy resources

219

240

250

4.3

Nuclear energy

42

69

127

82.8

Fossil energy R&D

446

483

411

−14.9

Energy conservation

434

427

442

3.6

Atomic energy defense activities total

3761

3849

4180

8.8

National Nuclear Security Administration (NNSA) R&D total

3569

3732

4084

9.4

Weapons activities R&D total

2769

2922

3256

11.4

Stockpile R&D

313

467

433

−7.3

Science campaigns

257

255

270

5.5

Advanced simulation and computing

704

704

751

6.6

Inertial confinement fusion

507

504

467

−7.4

National Ignition Facility

245

214

150

−29.9

All other weapons R&D

989

991

1336

34.8

Nonproliferation and verification

195

192

196

1.7

Naval reactors

605

617

632

2.4

Other atomic energy defense activities

31

27

28

5.1

Environmental management

160

91

68

−25.3

Radioactive waste management

60

62

59

−5.4

AGS, Alternating Gradient Synchrotron. ANL, Argonne National Laboratory. BNL, Brookhaven National Laboratory. LANL, Los Alamos National Laboratory. LBNL, Lawrence Berkeley National Laboratory. LLNL, Lawrence Livermore National Laboratory. ORNL, Oak Ridge National Laboratory. RHIC, Relativistic Heavy Ion Collider. TJNAF, Thomas Jefferson National Accelerator Facility.

Figures are rounded to the nearest million. Changes calculated from unrounded figures.

Consists of groups from more than 60 universities doing experiments at proton accelerator facilities. Most experiments are conducted at Fermilab’s Tevatron, while development of the physics program are for the Large Hadron Collider, and the HERA accelerator complex at DESY in Germany.

The national lab research program is being decreased to provide more support for high-priority Tevatron operations. Fermilab research ($8.5 million) includes data taking and analysis of the CDF, D-Zero, and MiniBooNE experiments, and commissioning of the MINOS detector. LBNL ($5.3 million) and BNL ($7.8 million) research focuses on CDF and D-Zero data analysis, and the ATLAS research and computing program. ANL ($4.5 million) will work on CDF data, ATLAS, and the Zeus experiment at HERA.

Consists of about 40 universities working at the BaBar experiment at the SLAC B-factory, and groups working at the Cornell Electron Storage Ring.

At SLAC ($7.1 million), research focuses on data taking from the BaBar detector. LBNL ($3 million) is also working with the BaBar detector, as are scientists at LLNL ($298 000).

Focused on the GLAST/LAT telescope (SLAC); analysis from the Sloan Digital Sky Survey (Fermilab); and research for the SNAP experiment proposal, and analysis of KamLAND data (LBNL).

FY 2004 request includes nearly $2 million for the US effort to rejoin the International Thermonuclear Experimental Reactor (ITER).

Includes nearly $125 million for the Spallation Neutron Source and nearly $85 million for nanoscale research centers at ORNL, LBNL, SNL, and LANL.

So the stage is set for a summer of Congress pushing for more funding for basic and physical sciences while the administration, faced with mounting deficits and a desire for higher tax cuts, tries to hold the line on spending. The following agency highlights indicate some areas of contention.

National Science Foundation. At first glance, the NSF budget seems to have done reasonably well in the FY 2004 proposal. Bush recommends a 3.2% overall increase for the foundation, an increase of $171 million over the substantial (10.9%) increase Congress gave NSF in FY 2003. And within the 3.2% increase, physics would receive a 6.1% boost to $218 million from current funding of $205 million.

So why did Senate Appropriations Committee Chairman Christopher Bond (R-Mo.) and the committee’s ranking minority member Barbara Mikulski (D-Md.) use the words “paltry” and “disappointing” to describe the NSF proposal? Because the 3.2% increase would result in a total NSF budget of $5.5 billion, significantly less than the $6.4 billion authorized for FY 2004 in the NSF Authorization Act, signed by President Bush last December. The bill, widely supported in Congress, was intended to be the first step in a five-year plan to double NSF’s budget.

Marburger cited the 10.9% FY 2003 boost in NSF funding by Congress as a reason the FY 2004 proposal was scaled back from the authorized level, and he noted that the NSF increase would still be higher than that for most other R&D agencies. The NSF doubling bill signed by the president resulted in part from a report by the President’s Council of Advisors on Science and Technology (PCAST) that said funding for the physical sciences and engineering has not kept pace with that for the life sciences, particularly the large increases NIH has experienced in recent years.

“Given the record of recent years and with the newly enacted NSF Authorization Act, it is likely that Congress will again exceed President Bush’s request in FY 2004,” said Association of American Universities official Tobin Smith in his AAAS analysis of the NSF budget. The final resolution of the NSF budget debate is crucial to university-based researchers, Smith noted, because while NSF “represents less than 4% of the total federal budget for research and development, it supports roughly 50% of all non-medical basic research at colleges and universities.”

Under the proposal, funding would be $1.1 billion, an increase of 2.6%, for NSF’s mathematical and physical sciences directorate, which supports astronomical sciences, chemistry, materials research, mathematical sciences, physics, and multidisciplinary activities. The proposal says emphasis will be placed on particle and nuclear astrophysics, computational and information-intensive physics, quantum information science, biological physics, and advanced R&D toward next generation particle accelerators and gravitational wave detectors.

A new science and technology center focusing on biophotonics would be created under the proposal, and full funding would be available for continued operations of the Michigan State University National Superconducting Cyclotron Laboratory, and the Laser Interferometer Gravitational Wave Observatory (LIGO) in Louisiana and Washington State.

NSF also funds 29 materials research science and engineering centers throughout the US, and under the budget proposal, funding would increase 5.8%, from $233 million to $246 million. About $5 million of the increase would go to nanoscale science, which is one of the major focuses for the Bush administration. Indeed, NSF has about $249 million in its budget for projects related to nanoscale science and engineering.

Other priority areas for NSF are information technology research ($218 million), in which the foundation leads a multiagency initiative; mathematical sciences ($202 million), with programs intended to create closer connections between research and education; biocomplexity and the environment ($100 million), which would integrate research in ecological, social, and physical Earth systems; human and social dynamics ($24 million), which would integrate information from biology, engineering, information technology, and cognitive science; and Workforce for the 21st Century ($9 million), which is intended to create a scientifically literate workforce.

Department of Energy. Except for the flood of money flowing to DOD, the administration’s emphasis on national security is nowhere more evident than at DOE. The department would see R&D funding increase by 4% to $8.5 billion under the FY 2004 budget, but the entire increase would go to DOE’s defense activities. Funding for the Office of Science, which oversees all 10 of the national laboratories and programs in high-energy physics, nuclear physics, fusion research, and advanced computing, would remain flat for the fourth year in a row at $3.3 billion. Within that budget, there is shifting and relabeling of money to keep some programs going.

A $64 million boost in nanoscale science funding, for example, would come largely from a planned decrease in construction costs of the Spallation Neutron Source (SNS). About $12 million for the much-publicized US effort to rejoin the International Thermonuclear Experimental Reactor (ITER) would come mostly by redesignating money already in the Office of Science’s burning plasma program.

Overall, DOE’s civilian research programs remain essentially frozen at FY 2003 levels and just 0.9% above FY 2002 levels. The largest of DOE’s science R&D accounts is basic energy sciences, which would receive $1 billion, a reduction of 1.4% from the FY 2003 levels. However, since much of the reduction would come from the end of SNS construction money, chemical, geosciences, and energy biosciences would remain at the FY 2003 level. Materials sciences would increase by 3.7%.

High-energy physics would receive a 1.8% increase from $725 million to $738 million. About half of the increase would go to enhance operations of Fermilab programs, and to the B-factory at SLAC.

Nuclear physics would receive a 2% increase to $389 million. Last year’s increase was 8.8%, aimed primarily at increasing utilization of the Brookhaven Relativistic Heavy Ion Collider and the Thomas Jefferson National Accelerator Facility.

Fusion energy sciences would remain flat at $257 million. Office of Science Director Raymond Orbach has spent much of the last year campaigning to rejoin ITER, and he achieved success early this year when President Bush announced that the US would once again become a partner in the international project. The US left ITER several years ago because of high costs, which have since been cut in half. Orbach has said repeatedly that participation in ITER might allow the first commercial power generated by fusion to be available in about 35 years. Although he got presidential approval to rejoin ITER, Orbach didn’t get new money to pay for it, which resulted in reshuffling the existing burning plasma budget. Orbach told a congressional committee in March that although the current ITER spending was “very modest,” it is expected to increase significantly in FY 2006. Eventually, the US expects to pay about $100 million a year to participate in the project.

Biological and environmental research, the third largest science division at DOE, would receive a 5.1% cut to $500 million. But in a complicated process of cutting congressional earmarks and restoring base program funding, the division actually does reasonably well.

NASA R&D Programs

  FY 2002 actual FY 2003 estimate FY 2004 request FY 2003–04 percent change
  (millions of dollars) a
NASA total b 14 892 15 000 15 469 3.1
NASA R&D c 10 244 10 999 11 025 0.2
R&D programs        
Science, aeronautics, and exploration (SAE) d 6 577 7 015 7 661  
    [7 101]   [7.8]
Space science 2 901 3 414 4 007  
    [3468]   [15.5]
Solar System exploration 639 976 1 359  
    [1046]   [29.9]
Mercury surface space environment, geochemistry and ranging (Messenger) 97 68 43 −37.5
Deep Impact comet mission 91 59 22 −63.2
Dawn asteroid mission 1 36 126 246.3
Small projects e 2 1 0 −100.0
Operations f 120 311 310 −0.2
Research 227 255 322 26.3
Technology and advanced concepts g 82 246 550 123.6
Mars exploration h 457 496 570  
    [551]   [3.4]
Astronomical search for origins 650 698 877  
    [799]   [9.7]
Hubble Space Telescope 256 228 239 4.6
Stratospheric Observatory for Infrared Astronomy (SOFIA) 38 47 55 16.6
Space Infrared Telescope Facility (SIRTF) 132 80 78 −0.8
Kepler 4 26 51 100.3
Operations i 9 10 25 153.6
Research 116 146 199 36.3
Technology and advanced concepts j 182 284 411 44.8
Structure and evolution of the universe 350 331 432  
    [398]   [8.5]
Gravity Probe B 54 29 15 −49.4
Gamma-Ray Large Area Space Telescope (GLAST) 21 69 116 67.1
Swift Gamma-Ray Burst Explorer 67 34 6 −81.4
Small development projects k 57 22 58 159.3
Operations l 6 11 10 −3.7
Research m 132 154 187 21.1
Technology and advanced concepts n 13 22 61 183.2
Sun-Earth connections 413 544 770  
    [674]   [14.2]
Solar Terrestrial Relations Observatory (STEREO) 59 74 99 33.6
Solar Dynamics Observatory (SDO) 9 27 66 148.8
Small development projects o 33 20 55 173.8
Operations p 37 44 57 31.7
Research 141 124 178 43.4
Technology and advanced concepts q 131 256 314 22.8
Biological and physical research r 828 842 973  
    [913]   [6.5]
Earth science 1592 1628 1552  
    [1610]   [-3.5]
Earth system science 1241 1249 1477  
    [1529]   [-3.4]
Development s 666 333 279 −16.2
Operations t 48 248 322 30.0
Research u 339 357 523 46.4
Technology and advanced concepts 72 65 79 21.3
Earth science applications 95 62 75  
    [81]   [-7.4]
Institutional support 256 318 0 −100.0
Aeronautics technology 1031 986 959  
    [949]   [1.0]
Education programs 227 144 170  
    [160]   [6.2]
Space flight capabilities 8291 7960 7782  
    [7875]   [-1.1]
Space flight 6773 6131 6110  
    [6107]   [0.0]
International Space Station 1721 1492 1707  
    [1851]   [-7.7]
Space Shuttle 3270 3208 3968  
    [3786]   [4.8]
Space flight support 601 239 434  
    [471]   [-7.8]
Institutional support 1192 0 −100.0
Aerospace technology (Crosscutting technologies) v 1518 1829 1672  
    [1768]   [-5.4]

Figures are rounded to the nearest million. Changes calculated from unrounded figures.

NASA’s FY 2004 budget reflects the restructuring of funding into two new appropriation accounts: Science, Aeronautics and Exploration (SAE); and Space Flight Capabilities (SAC). NASA also changed to a full-cost accounting budget format that, for the first time, includes the cost of personnel, facilities, and support within each budget item. NASA included FY 2003 full-cost budget numbers for major programs, and those figures are listed in square brackets. Percent change figures are based on the full-cost budget numbers when possible. NASA will convert its entire budget to full-cost accounting by October. Budget analysts for the American Association for the Advancement of Science noted that, because of the changes in the FY 2004 budget process, a true comparison to FY 2003 is not possible.

R&D numbers are from analysis by the American Association for the Advancement of Science.

Formerly Science, Aeronautics and Technology (SAT).

The small projects program funds “highly focused, relatively inexpensive missions,” NASA says. The current project is Rosetta, an international collaboration to study the origin of comets and the Solar System. Rosetta received nearly $40 million funding prior to FY 2002.

Operations is funding for operational missions and the Deep Space Mission System that provides communications with the missions. Missions included in the funding are: Stardust, Genesis, Messenger, Deep Impact, and Cassini.

This is funding for the development of advanced techlnologies needed for specific science missions. NASA is currently funding the in-space propulsion program to develop alternative, more efficient space propulsion systems; Project Prometheus, to develop nuclear-energy-based propulsion systems; and optical communications technology to significantly increase data flow from space missions.

The Mars program includes funding for the Mars Global Surveyor, the 2001 Mars Odyssey, the 2003 Mars Exploration Rovers, Mars Express, and five future Mars missions.

Operations funding currently supports the Hubble Space Telescope, the Far Ultraviolet Spectroscopic Explorer (FUSE), as well as SIRTF, SOFIA, and Kepler.

The advanced concepts funding includes money for the James Webb Space Telescope, the Space Interferometry Mission, and the ground-based Keck Interferometer, and other, smaller projects.

Small development projects funding includes money for six planned projects: Herschel, an infrared telescope; Planck, which will make all-sky measurements of the cosmic microwave background; Astro-E2, a Japanese-led x-ray astronomy mission; GALEX, an ultraviolet imaging and spectroscopic survey mission; CHIPS, which will study the interstellar gas around the Solar System; and SPIDER, which will map the cosmic web of hot gas that spans the universe.

Includes operating funds for the Chandra X-ray Observatory, the Rossi X-ray Timing Explorer, and six other missions.

Includes analysis of data from ongoing missions and NASA’s research program that carries instruments aloft on high-altitude balloons.

Includes funding for development of the Laser Interferometer Space Antenna (LISA and Constellation-X x-ray telescope systems.

Includes funding for SOLAR-B, a Japanese-led sun-synchronous low-Earth orbit spacecraft; the Coupled Ion Neutral Dynamics Investigation (CINDI) project; TWINS magnetosphere spacecraft; and AIM, a project to study polar mesospheric clouds.

Funding to support 14 operational missions, including Voyager, SOHO, TRACE, and TIMED.

Includes funding for the Magnetosphere Multiscale mission, the Solar Dynamics Observatory, and the Geospace Ionosphere/Thermosphere Mapper.

Includes biological and physical sciences research, and commercial research support.

Includes the launches in FY 2004 of the AURA, CloudSat, and CALIPSO satellites to observe the Earth. The Earth Observing System Data and Information Systemt (EODIS) Science Development, which was funded at $74 million in FY 2003, would receive $98 million in the FY 2004 budget.

Includes funding for the Total Ozone Mapping Spectrometer (TOMS); the Upper Atmosphere Research Satellite (UARS); The Tropical Rainfall Measuring Mission (TRMM); Earth Radiation Budget Satellite (ERBS); Topex; and EOS.

Research funding supports analysis, by more than 1200 outside scientists, of data from NASA Earth observing missions. Much of the work involves developing advanced computer modeling of Earth systems.

Includes orbital space plane development costs and other new technology initiatives.

NASA R&D Programs

NASA total b

14 892

15 000

15 469

3.1

NASA R&D c

10 244

10 999

11 025

0.2

R&D programs

Science, aeronautics, and exploration (SAE) d

6 577

7 015

7 661

[7 101]

[7.8]

Space science

2 901

3 414

4 007

[3468]

[15.5]

Solar System exploration

639

976

1 359

[1046]

[29.9]

Mercury surface space environment, geochemistry and ranging (Messenger)

97

68

43

−37.5

Deep Impact comet mission

91

59

22

−63.2

Dawn asteroid mission

1

36

126

246.3

Small projects e

2

1

0

−100.0

Operations f

120

311

310

−0.2

Research

227

255

322

26.3

Technology and advanced concepts g

82

246

550

123.6

Mars exploration h

457

496

570

[551]

[3.4]

Astronomical search for origins

650

698

877

[799]

[9.7]

Hubble Space Telescope

256

228

239

4.6

Stratospheric Observatory for Infrared Astronomy (SOFIA)

38

47

55

16.6

Space Infrared Telescope Facility (SIRTF)

132

80

78

−0.8

Kepler

4

26

51

100.3

Operations i

9

10

25

153.6

Research

116

146

199

36.3

Technology and advanced concepts j

182

284

411

44.8

Structure and evolution of the universe

350

331

432

[398]

[8.5]

Gravity Probe B

54

29

15

−49.4

Gamma-Ray Large Area Space Telescope (GLAST)

21

69

116

67.1

Swift Gamma-Ray Burst Explorer

67

34

6

−81.4

Small development projects k

57

22

58

159.3

Operations l

6

11

10

−3.7

Research m

132

154

187

21.1

Technology and advanced concepts n

13

22

61

183.2

Sun-Earth connections

413

544

770

[674]

[14.2]

Solar Terrestrial Relations Observatory (STEREO)

59

74

99

33.6

Solar Dynamics Observatory (SDO)

9

27

66

148.8

Small development projects o

33

20

55

173.8

Operations p

37

44

57

31.7

Research

141

124

178

43.4

Technology and advanced concepts q

131

256

314

22.8

Biological and physical research r

828

842

973

[913]

[6.5]

Earth science

1592

1628

1552

[1610]

[-3.5]

Earth system science

1241

1249

1477

[1529]

[-3.4]

Development s

666

333

279

−16.2

Operations t

48

248

322

30.0

Research u

339

357

523

46.4

Technology and advanced concepts

72

65

79

21.3

Earth science applications

95

62

75

[81]

[-7.4]

Institutional support

256

318

0

−100.0

Aeronautics technology

1031

986

959

[949]

[1.0]

Education programs

227

144

170

[160]

[6.2]

Space flight capabilities

8291

7960

7782

[7875]

[-1.1]

Space flight

6773

6131

6110

[6107]

[0.0]

International Space Station

1721

1492

1707

[1851]

[-7.7]

Space Shuttle

3270

3208

3968

[3786]

[4.8]

Space flight support

601

239

434

[471]

[-7.8]

Institutional support

1192

0

−100.0

Aerospace technology (Crosscutting technologies) v

1518

1829

1672

[1768]

[-5.4]

Figures are rounded to the nearest million. Changes calculated from unrounded figures.

NASA’s FY 2004 budget reflects the restructuring of funding into two new appropriation accounts: Science, Aeronautics and Exploration (SAE); and Space Flight Capabilities (SAC). NASA also changed to a full-cost accounting budget format that, for the first time, includes the cost of personnel, facilities, and support within each budget item. NASA included FY 2003 full-cost budget numbers for major programs, and those figures are listed in square brackets. Percent change figures are based on the full-cost budget numbers when possible. NASA will convert its entire budget to full-cost accounting by October. Budget analysts for the American Association for the Advancement of Science noted that, because of the changes in the FY 2004 budget process, a true comparison to FY 2003 is not possible.

R&D numbers are from analysis by the American Association for the Advancement of Science.

Formerly Science, Aeronautics and Technology (SAT).

The small projects program funds “highly focused, relatively inexpensive missions,” NASA says. The current project is Rosetta, an international collaboration to study the origin of comets and the Solar System. Rosetta received nearly $40 million funding prior to FY 2002.

Operations is funding for operational missions and the Deep Space Mission System that provides communications with the missions. Missions included in the funding are: Stardust, Genesis, Messenger, Deep Impact, and Cassini.

This is funding for the development of advanced techlnologies needed for specific science missions. NASA is currently funding the in-space propulsion program to develop alternative, more efficient space propulsion systems; Project Prometheus, to develop nuclear-energy-based propulsion systems; and optical communications technology to significantly increase data flow from space missions.

The Mars program includes funding for the Mars Global Surveyor, the 2001 Mars Odyssey, the 2003 Mars Exploration Rovers, Mars Express, and five future Mars missions.

Operations funding currently supports the Hubble Space Telescope, the Far Ultraviolet Spectroscopic Explorer (FUSE), as well as SIRTF, SOFIA, and Kepler.

The advanced concepts funding includes money for the James Webb Space Telescope, the Space Interferometry Mission, and the ground-based Keck Interferometer, and other, smaller projects.

Small development projects funding includes money for six planned projects: Herschel, an infrared telescope; Planck, which will make all-sky measurements of the cosmic microwave background; Astro-E2, a Japanese-led x-ray astronomy mission; GALEX, an ultraviolet imaging and spectroscopic survey mission; CHIPS, which will study the interstellar gas around the Solar System; and SPIDER, which will map the cosmic web of hot gas that spans the universe.

Includes operating funds for the Chandra X-ray Observatory, the Rossi X-ray Timing Explorer, and six other missions.

Includes analysis of data from ongoing missions and NASA’s research program that carries instruments aloft on high-altitude balloons.

Includes funding for development of the Laser Interferometer Space Antenna (LISA and Constellation-X x-ray telescope systems.

Includes funding for SOLAR-B, a Japanese-led sun-synchronous low-Earth orbit spacecraft; the Coupled Ion Neutral Dynamics Investigation (CINDI) project; TWINS magnetosphere spacecraft; and AIM, a project to study polar mesospheric clouds.

Funding to support 14 operational missions, including Voyager, SOHO, TRACE, and TIMED.

Includes funding for the Magnetosphere Multiscale mission, the Solar Dynamics Observatory, and the Geospace Ionosphere/Thermosphere Mapper.

Includes biological and physical sciences research, and commercial research support.

Includes the launches in FY 2004 of the AURA, CloudSat, and CALIPSO satellites to observe the Earth. The Earth Observing System Data and Information Systemt (EODIS) Science Development, which was funded at $74 million in FY 2003, would receive $98 million in the FY 2004 budget.

Includes funding for the Total Ozone Mapping Spectrometer (TOMS); the Upper Atmosphere Research Satellite (UARS); The Tropical Rainfall Measuring Mission (TRMM); Earth Radiation Budget Satellite (ERBS); Topex; and EOS.

Research funding supports analysis, by more than 1200 outside scientists, of data from NASA Earth observing missions. Much of the work involves developing advanced computer modeling of Earth systems.

Includes orbital space plane development costs and other new technology initiatives.

For the second year in a row, the big winner at DOE is the NNSA, with its budget recommended to increase 9.4% from $3.7 billion to more than $4 billion. Stockpile stewardship, which received a whopping 49.2% increase from Congress in FY 2003, would decline 7.3% to $433 million in FY 2004. Advanced simulation and computing, used to do three-dimensional modeling of nuclear weapons detonations, would receive a 6.6% increase, while the National Ignition Facility funding would drop, as expected, by nearly 30% as construction moves closer to completion.

NASA. The FY 2004 budget sees a continuation of belt tightening at the space agency, with the $15.5 billion budget request representing a 3.1% overall increase from FY 2003. However, the destruction of the Columbia on 1 February put the entire FY 2004 NASA budget in doubt. Nearly $6.6 billion of NASA’s annual budget is directly affected by the loss.

The mood in Washington was captured by the House Science Committee’s Rep. Hall when he said “we need to determine the impact of the Columbia accident on NASA’s budget and programs,” and whether NASA should delay funding research into future manned spacecraft designs until the US increases the survivability of the shuttle. The accident has already cost NASA $100 million to recover Columbia’s debris, and the cost of safety reviews and upgrades for the remaining shuttle fleet remains unknown. Delays caused by grounding the shuttles are also expected to affect NASA’s space science budget.

The Columbia accident is also causing significant longer-term changes in the operation of both the shuttle program and the International Space Station. There are no plans to build a replacement shuttle for Columbia, and the burden on the three remaining shuttles to service the space station means that nearly all the science missions will be cut from the shuttle program, according to Roy Bridges, director of the Kennedy Space Center.

With the shuttles grounded, the space station cannot maintain enough of a water supply to support the traditional three-member crews, so the number is being dropped to two. Two-member crews will spend most of their time maintaining the station, leaving no time to do science experiments.

The FY 2004 budget proposal includes almost $973 million for biological and physics research at NASA, a 6.5% increase over the FY 2003 budget. But with no science being done on the space station, it remains unclear how that part of the research budget will finally be allocated. The full impact of the Columbia disaster on the shuttle fleet, said Michael Kostelnik, deputy associate administrator for the space station and space shuttle program, will only become apparent in the FY 2005 budget. NASA intends to continue flying the shuttle in one form or another until 2020.

While the shuttle will remain the only heavy lift option for NASA, a new space vehicle called the Orbital Space Plane, designed to take crews to the space station, may be developed by 2010 from the agency’s billion-dollar Space Launch Initiative. Discussions are ongoing to determine if the DOD will fund part of the program.

Three of NASA’s major programs, space science, Earth science, and aeronautics, are not directly affected by the grounding of the shuttle fleet. Funding for aeronautics research would remain roughly static, and NASA’s commercial technology program would be terminated under the administration’s proposal. The Space Science program sees a 15.5% increase in its budget, including a 30% increase for exploration of the Solar System.

The budget proposal also includes three new programs: Project Prometheus for space nuclear power and propulsion systems, optical communications, and the Beyond Einstein initiative. Project Prometheus incorporates last year’s nuclear power initiative and a proposal for a $4 billion spacecraft, the Jupiter Icy Moons Orbiter (JIMO), which uses a nuclear-electric propulsion system.

The optical communication program will solve a bandwidth problem in communicating with distant spacecraft by taking advantage of what commercial industry and DOD have done in the field.

Department of Defense R&D Programs

  FY 2002 actual FY 2003 estimate FY 2004 request FY 2003–04 percent change
  (millions of dollars) a
DOD total R&D 49 877 58 646 62 821 7.1
Research, Development, Test, and Evaluation (RDT&E)  
Total basic research (6.1) 1350 1417 1309 −7.7
US Army        
In-house independent research 14 21 24 17.0
Defense research sciences 136 140 129 −8.3
University and industry research centers 72 83 85 1.8
Force health protection 0 0 10
University research initiatives b 0 0 95
Total US Army 221 244 343 40.4
US Navy        
In-house independent research 16 16 17 8.8
Defense research sciences 379 396 369 −7.0
University research initiatives b 0 0 71
Total US Navy 395 412 457 10.7
US Air Force        
Defense research sciences 222 218 205 −6.0
University research initiatives b 0 0 117
Total US Air Force 222 218 322 47.8
Defense agencies        
In-house independent research 2 2 0 −100.0
Defense research sciences 142 199 151 −24.1
University research initiatives b 278 263 0 −100.0
Government-industry cosponsorship of university research 9 9 0 −100.0
Force health protection 36 15 0 −100.0
Chemical and biological defense research 45 55 36 −34.6
Total defense agencies 512 542 187 −64.6
Applied research (6.2) c 4094 4289 3670 −14.4
Advanced technology development (6.3) 4430 5067 5253 3.7
Other RDT&E § 38 750 46 941 51 596 9.9
Total RDT&E 48 623 57 713 61 827 7.1

Figures are rounded to the nearest million. Changes calculated from unrounded figures.

Includes Defense Experimental Program to Stimulate Competitive Research (DEPSCoR), Historically Black Colleges and Universities (HBCU) scholarships, and the High Energy Research Laser initiative.

The Army would see its applied research funds decline 25.2%; the Navy, 33.5%; the Air Force, 8.6%; defensewide would see a decline of 14.4%.

Department of Defense R&D Programs

DOD total R&D

49 877

58 646

62 821

7.1

Research, Development, Test, and Evaluation (RDT&E)

Total basic research (6.1)

1350

1417

1309

−7.7

US Army

In-house independent research

14

21

24

17.0

Defense research sciences

136

140

129

−8.3

University and industry research centers

72

83

85

1.8

Force health protection

0

0

10

University research initiatives b

0

0

95

Total US Army

221

244

343

40.4

US Navy

In-house independent research

16

16

17

8.8

Defense research sciences

379

396

369

−7.0

University research initiatives b

0

0

71

Total US Navy

395

412

457

10.7

US Air Force

Defense research sciences

222

218

205

−6.0

University research initiatives b

0

0

117

Total US Air Force

222

218

322

47.8

Defense agencies

In-house independent research

2

2

0

−100.0

Defense research sciences

142

199

151

−24.1

University research initiatives b

278

263

0

−100.0

Government-industry cosponsorship of university research

9

9

0

−100.0

Force health protection

36

15

0

−100.0

Chemical and biological defense research

45

55

36

−34.6

Total defense agencies

512

542

187

−64.6

Applied research (6.2) c

4094

4289

3670

−14.4

Advanced technology development (6.3)

4430

5067

5253

3.7

Other RDT&E §

38 750

46 941

51 596

9.9

Total RDT&E

48 623

57 713

61 827

7.1

Figures are rounded to the nearest million. Changes calculated from unrounded figures.

Includes Defense Experimental Program to Stimulate Competitive Research (DEPSCoR), Historically Black Colleges and Universities (HBCU) scholarships, and the High Energy Research Laser initiative.

The Army would see its applied research funds decline 25.2%; the Navy, 33.5%; the Air Force, 8.6%; defensewide would see a decline of 14.4%.

The Beyond Einstein initiative provides funds for three key spacecraft programs: Constellation X, a group of x-ray telescopes that will simultaneously study the same object; the Laser Interferometer Space Antenna (LISA), three spacecraft that will study gravity waves; and the Dark Energy Probes, which will determine the amount of dark energy in the universe (see Physics Today April 2003, page 10 and page 53 ).

Earth science funding decreased by 3.5% as most of the major satellite programs—such as AURA, CloudSat, and CALIPSO—are ready for launch in 2004. New initiatives still await the findings of the review of the interagency US Global Change Research Program.

Perhaps the biggest change to NASA is one of the smallest in direct cost: the adoption of a strategic planning office and a new financial management system. Both will help NASA to implement its vision and mission, said NASA Director Sean O’Keefe, and clarify what money is being spent where, a problem that has plagued the agency for several years.

Department of Defense. With the global war on terrorism, as well as the related shooting wars in Afghanistan and Iraq, DOD would see its R&D budget grow to a record-setting $62.8 billion in FY 2004. That $4.2 billion, 7.1% increase would come on top of record-breaking increases of nearly $8.8 billion in FY 2003 and $7.1 billion in FY 2002.

National Oceanic and Atmospheric Administration R&D Programs

  FY 2002 actual FY 2003 estimate FY 2004 request FY 2003–04 percent change
  (millions of dollars) a
NOAA total 3263 3136 3326 6.0
NOAA R&D 677 684 675 −1.4
Oceanic and Atmospheric Research 321 340 332 −2.3
National Weather Service 22 28 20 −26.6
National Ocean Service 65 70 55 −21.6
National Marine Fisheries Services 163 164 161 −2.0
Other R&D b 105 82 106 29.6

Figures are rounded to the nearest million. Changes calculated from unrounded figures.

Includes R&D funds for climate research; weather and air quality research; ocean, coastal, and Great Lakes research; and information technology and education programs.

National Oceanic and Atmospheric Administration R&D Programs

NOAA total

3263

3136

3326

6.0

NOAA R&D

677

684

675

−1.4

Oceanic and Atmospheric Research

321

340

332

−2.3

National Weather Service

22

28

20

−26.6

National Ocean Service

65

70

55

−21.6

National Marine Fisheries Services

163

164

161

−2.0

Other R&D b

105

82

106

29.6

Figures are rounded to the nearest million. Changes calculated from unrounded figures.

Includes R&D funds for climate research; weather and air quality research; ocean, coastal, and Great Lakes research; and information technology and education programs.

National Institute of Standards and Technology R&D Programs

  FY 2002 actual FY 2003 estimate FY 2004 request FY 2003–04 percent change
  (millions of dollars) a
NIST total 685 708 497 −30.0
NIST R&D 503 527 410 −22.1
  Scientific and Technical Research and Services (STRS) R&D        
    Physics 33 33 47 45.0
    Electronics and electronics engineering 41 39 43 11.9
    Chemical science and technology 35 36 41 13.6
    Computer science and applied mathematics 50 44 50 14.3
    Manufacturing and engineering 20 19 22 11.9
    Materials science and engineering 58 60 66 10.4
    Building and fire research 20 17 23 35.6
    Technology assistance 4 4 4 11.9
    Research support and equipment b 19 57 34 −40.7
      Total STRS R&D 280 308 330 7.3
  Industrial Technology Services        
    Advanced technology program 159 153 10 −93.4
    Manufacturing extension program (non-R&D) 107 106 13 −88.1
Construction c 64 66 70 6.0

Figures are rounded to the nearest million. Changes calculated from unrounded figures.

Includes funding for new measurement and research equipment for NIST’s Advanced Measurement Laboratory, due to be completed in October 2003.

Includes funding for relocation and other expenses related to the Advanced Measurement Laboratory.

Department of Homeland Security R&D Programs

  FY 2002 actual FY 2003 estimate FY 2004 request FY 2003–04 percent change
  (millions of dollars) a
Border and transportation security 95 110 172 56.1
Emergency preparedness 0 0 0
Information analysis and infrastructure 5 15 5 −66.7
Science and technology 147 521 801 53.7
Coast Guard 19 23 23 0.0
Total DHS R&D 266 669 1001 49.6

Figures are rounded to the nearest million. Changes calculated from unrounded figures.

While the R&D budget is enormous and growing quickly, virtually all of the increases would go to the development of new weapons systems. Missile defense would increase 22% to $8.3 billion, and a new fighter jet project would get $4.4 billion, a 28% increase.

Although the development side of R&D is increasing dramatically, basic and applied research at DOD would decrease significantly in FY 2004. Basic research, known as “6.1,” would fall 7.7%, while applied research, called “6.2,” would drop 14.4%. Together the two science categories would decrease 12.7% to $5 billion, below the FY 2001 funding level. In recent congressional testimony, DOD officials said they would support an annual 3% increase benchmark for basic, applied, and advanced technology research, but that is not reflected in the FY 2004 request.

The Defense Advanced Research Projects Agency (DARPA) R&D funding would increase 9.8%, a $264 million increase to $3 billion. The agency intends to focus the increased funding on tactical technology, materials, aerospace systems, electronics, and sensor and guidance technologies.

Department of Homeland Security. The department, which began in March as a real, functioning entity, is a consolidation of 180 000 federal employees from nearly two dozen agencies. Most of its programs, including R&D, are transfers of programs from DOD, DOE, and the Departments of Agriculture and Transportation. In early April, Charles McQueary, a mechanical engineer and former president of General Dynamics, was sworn in as the undersecretary heading the Directorate for Science and Technology.

Under the FY 2004 budget proposal, McQueary would oversee 80%, or about $800 million, of the $1 billion DHS R&D portfolio. It is difficult to draw exact comparisons to past funding levels for programs that are being transferred into DHS, but a AAAS analysis concluded the R&D funding for the transferred programs would increase about 50% in FY 2004.

McQueary’s directorate would, according to the DHS proposal, distribute funding as follows: $137 million for development of radiological and nuclear countermeasures; $365 million for development of biological countermeasures; $65 million for chemical or explosive countermeasures; $90 million for threat and vulnerability assessments; $25 million for a standards program to develop, test, and evaluate criteria for homeland defense technologies; $55 million for conventional R&D missions; and $62 million to fund university research, as well as basic research into emerging threats. The directorate would also be home to HSARPA.

NIST and NOAA. R&D funding at NIST would decrease 22%, to $410 million from $527 million. Much of the decrease is due to another attempt by the administration to eliminate the Advanced Technology Program. The ATP, which funds selected high-risk technology projects in private industry, has been under assault by some congressional Republicans for years for “playing favorites” in the private sector. The program was zeroed out by the administration in FY 2002, but saved by congressional Democrats with $123 million. In FY 2003 the administration proposed $81 million and Congress gave ATP $153 million. In FY 2004, the administration is proposing $10 million, just enough to close the program.

NIST’s Science and Technology Research Services, which fund’s the institute’s laboratories in Maryland and Colorado, would receive a 7.3%, or $22 million, increase in R&D funding. About $10 million of that would go for homeland security R&D. The proposal also includes $7 million to equip and operate a new advanced measurement laboratory in Maryland.

NOAA would see a 6% increase to $3.3 billion in its overall budget, but R&D spending would be cut 1.4% from $684 million to $675 million in its FY 2004 budget. The cuts would come primarily from the National Ocean Service, the Office of Oceanic and Atmospheric Research, and the National Environmental Satellite, Data and Information Service.

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Where Bush’s R&D money would go. The Department of Defense remains the largest recipient of federal R&D money in the administration’s FY 2004 budget (up 7.1%, or $4.2 billion). Missile defense would increase 22% to $8.3 billion, and $4.4 billion would go to develop a new fighter jet. But basic (6.1) and applied (6.2) defense R&D money would actually fall 7.7% and 14.4% respectively. If the 2.7% proposed increase in the National Institutes of Health budget is taken out, non-defense R&D actually declines by 0.1%. Despite a congressional authorization bill that called for a $6.4 billion FY 2004 budget for the National Science Foundation, the administration has only requested $5.5 billion, a 3.2% increase. The Department of Energy, the major supporter of physical sciences, would receive a 4% increase in R&D money, but all of that would go toward the agency’s defense activities. Funding for DOE’s Office of Science would remain flat for the fourth year in a row. Of the multiagency initiatives, the major money would go to nanotechnology ($849 million, a 9.7% increase), and networking and information technology research and development.

($42.2 billion, a 5.9% increase)

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Winners and losers in Bush’s science funding. The war in Iraq, the war on terrorism, the weak economy, mammoth federal deficits, and the Columbia space shuttle disaster are all significant elements in the mural that serves as the backdrop for the administration’s FY 2004 science funding proposals. The request for total R&D funding sets a record at $122.5 billion, 4.4% above the FY 2003 record-setting amount. Of that amount, $1 billion goes to the newly-created Department of Homeland Security, and another $62.8 billion goes to the Department of Defense. While the DOD increase is very big, all of the increase goes into developmental R&D for new weapons systems. Basic and applied research at DOD actually fall in the budget proposal. The five-year budget-doubling plan for the National Institutes of Health is complete, and the new five-year doubling plan for the National Science Foundation has stalled a bit. The administration continues to wage war on congressional earmarks, money aimed by Congress at specific projects, often without regard for merit. Research earmarks totaled $1.4 billion in FY 2003 and will probably reach that level again in FY 2004.

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More about the Authors

Paul Guinnessy. pguinnes@aip.org

This Content Appeared In
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Volume 56, Number 5

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