1.00 |
Fundamental Plasma Physics |
1.01 |
01.01 Measurement and diagnostic techniques |
1.02 |
01.02 Analytical and computational techniques |
1.03 |
01.03 Pure-ion and pure-electron plasma |
1.04 |
01.04 Anti-matter plasma |
1.05 |
01.05 Partially ionized and neutral-dominated plasma |
1.06 |
01.06 Strongly coupled plasma |
1.07 |
01.07 Waves, oscillations, and instabilities |
1.08 |
01.08 Turbulence and transport |
1.09 |
01.09 Magnetic reconnection |
1.10 |
01.10 Dynamics, complexity, and self-organization |
1.11 |
01.11 Elementary and atomic processes |
1.12 |
01.12 Dusty plasma and multiphase media |
1.13 |
01.13 Plasma sheath |
1.14 |
01.14 Shock wave and discontinuity |
1.15 |
01.15 Plasma production, sources, and heating |
1.16 |
01.16 Machine learning and data science techniques in fundamental plasma physics |
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2.00 |
Space plasma (within heliosphere) |
2.01 |
02.01 Measurement, diagnostic techniques, and space missions |
2.02 |
02.02 Analytical and computational techniques |
2.03 |
02.03 Planetary atmospheres and ionospheres |
2.04 |
02.04 Planetary magnetospheres |
2.05 |
02.05 Solar physics |
2.06 |
02.06 Inner Heliosphere |
2.07 |
02.07 Outer Heliosphere |
2.08 |
02.08 Turbulence and instabilities in space plasmas |
2.09 |
02.09 Shocks, magnetic reconnection, and particle acceleration in space plasmas |
2.10 |
02.10 Machine learning and data science techniques in space plasmas |
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3.00 |
Astrophysical plasma (beyond heliosphere) |
3.01 |
03.01 Laboratory Plasma Astrophysics |
3.02 |
03.02 Computational Techniques in Plasma Astrophysics |
3.03 |
03.03 Interstellar and Intergalactic Medium |
3.04 |
03.04 Stars, Stellar Atmospheres, and Stellar Winds |
3.05 |
03.05 Accretion Flows, Magnetospheres, and Outflows of Compact Objects |
3.06 |
03.06 Cosmic Explosions, Compact-Object Mergers, and Multi-Messenger Astrophysics |
3.07 |
03.07 Cosmic ray acceleration and propagation |
3.08 |
03.08 Astrophysical turbulence and dynamos |
3.09 |
03.09 Astrophysical shocks, magnetic reconnection, and nonthermal particle acceleration |
3.10 |
03.10 Machine learning and data science techniques in astrophysical plasmas |
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4.00 |
Low-temperature plasma science, engineering, technology, and applications |
4.01 |
04.01 Measurement and diagnostic techniques |
4.02 |
04.02 Analytical and computational techniques |
4.03 |
04.03 Sustainability, catalysis, and combustion |
4.04 |
04.04 Processing and synthesis of materials |
4.05 |
04.05 Plasma propulsion |
4.06 |
04.06 Health, medicine, and bio-agent destruction |
4.07 |
04.07 Generation, stability, and control |
4.08 |
04.08 Plasma-surface interactions and interfacial plasmas |
4.09 |
04.09 Thermal plasmas |
4.10 |
04.10 Machine learning and data science techniques in low temperature plasma science |
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5.00 |
Particle acceleration, beams and relativistic plasmas |
5.01 |
05.01 Measurement and diagnostic techniques |
5.02 |
05.02 Analytical and computational techniques |
5.03 |
05.03 Relativistic high-energy-density physics |
5.04 |
05.04 Beam-plasma wakefield accelerators |
5.05 |
05.05 Laser-plasma wakefield or direct laser accelerators |
5.06 |
05.06 Laser-plasma ion accelerators |
5.07 |
05.07 Intense laser-driven x-ray sources |
5.08 |
05.08 Coherent radiation or secondary particle sources |
5.09 |
05.09 High field physics |
5.10 |
05.10 Machine learning and data science techniques in plasma acceleration, beams and relativistic plamas |
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6.00 |
Magnetic confinement |
6.01 |
06.01 Measurement and diagnostic techniques |
6.02 |
06.02 Analytical and computational techniques |
6.03 |
06.03 Research in support of ITER burning plasma physics |
6.04 |
06.04 Long pulse and steady-state tokamak physics |
6.05 |
06.05 Magnetohydrodynamics and stability |
6.06 |
06.06 Heating and current drive |
6.07 |
06.07 Turbulence and transport |
6.08 |
06.08 Energetic particles |
6.09 |
06.09 Disruptions and runaway electrons: modeling, avoidance, detection and mitigation |
6.10 |
06.10 Particle and power handling, divertor physics and plasma-material interactions |
6.11 |
06.11 Edge and pedestal physics |
6.12 |
06.12 Active control |
6.13 |
06.13 Conventional tokamaks: DIII-D, JET, TCV, AUG, HL-2A |
6.14 |
06.14 Superconducting tokamaks: WEST, EAST, KSTAR |
6.15 |
06.15 High field tokamaks: SPARC, C-Mod and others |
6.16 |
06.16 Low-aspect ratio tokamaks: PEGASUS, NSTX-U and MAST-U |
6.17 |
06.17 Other tokamaks: HBT-EP, J-TEXT, QUEST |
6.18 |
06.18 Stellarators and helical systems: W7-X, LHD, HSX CTH and others |
6.19 |
06.19 Self-organized configurations: FRCs, RFPs, Spheromak, Pinches |
6.20 |
06.20 Whole device modeling |
6.21 |
06.21 Reactor technologies: measurements and diagnostics |
6.22 |
06.22 Reactor technologies: analytical and computational |
6.23 |
06.23 Machine learning and data science techniques in magnetically confined plasmas |
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7.00 |
Inertial confinement |
7.01 |
07.01 Measurement and diagnostic techniques |
7.02 |
07.02 Analytical and computational techniques |
7.03 |
07.03 Laser-plasma instabilities |
7.04 |
07.04 Z-pinch, X-pinch, exploding wire plasma, and dense plasma focus |
7.05 |
07.05 Hohlraum and x-ray cavity physics |
7.06 |
07.06 Compression and burn |
7.07 |
07.07 Hydrodynamic instability |
7.08 |
07.08 Alternate ICF concepts and drivers |
7.09 |
07.09 Fast ignition and shock ignition |
7.10 |
07.10 Heavy-ion fusion science and ion-driven targets |
7.11 |
07.11 Magneto-inertial fusion |
7.12 |
07.12 Machine learning and data science techniques in inertially confined plasmas |
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8.00 |
High-energy-density science |
8.01 |
08.01 Measurement and diagnostic techniques |
8.02 |
08.02 Analytical and computational techniques |
8.03 |
08.03 High-energy-density hydrodynamics |
8.04 |
08.04 Magnetized high-energy-density plasma |
8.05 |
08.05 Warm dense matter |
8.06 |
08.06 Nonlinear optics of plasma |
8.07 |
08.07 Short-pulse laser-on-plasma interactions |
8.08 |
08.08 High-Z, multiply ionized atomic physics |
8.09 |
08.09 Equations of state |
8.10 |
08.10 HEDP laboratory astrophysics |
8.11 |
08.11 Machine learning and data science techniques in high energy density science |
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9.00 |
Science Education, Public Engagement and DEI Efforts |
9.01 |
Science Education and Public Engagement in plasma science/engineering |
9.02 |
Engaging the public with plasma science and engineering |
9.03 |
DEIA efforts in the plasma science/engineering community |
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10.00 |
Undergraduate or high school research |
10.01 |
10.01 High-school research |
10.02 |
10.02 Undergraduate research |
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11.00 |
Mini-Conferences |
11.01 |
11.01 Gatekeeper Workshop 2: Eliminating barriers to entry for plasma physics |
11.02 |
11.02 The Stellarator Path to an FPP – a Public & Private Endeavor |
11.03 |
11.03 Interrelationship Between Experiments in Laboratory and Space Plasmas (ELASP) |
11.04 |
11.04 Recent Advances in Magnetized Turbulence from the Lab to Space |
11.05 |
11.05 Plasma and quantum information sciences |
11.06 |
11.06 Collisionless and Weakly Collisional Shocks in Laboratory and Space Plasmas |
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12.00 |
Supplemental |