DIII-D
Tokamak
Associated Organizations:
Publications
Multi-diagnostic characterization of neutrals in the confined region of DIII-D using interpretive DEGAS2 simulations
Nuclear Fusion, 2026
Optical diagnostic design for measuring the radiation front with a mid-leg pumped divertor on DIII-D
Fusion Engineering and Design, 2026
Radial phase variation and energy flow of Alfvén gap modes
Nuclear Fusion, 2026
Fast-ion enhanced modeling of neoclassical tearing modes at NSTX and DIII-D
Plasma Physics and Controlled Fusion, 2026
Non-dimensional confinement scaling in similar negative triangularity plasmas on the DIII-D and TCV tokamaks
Nuclear Fusion, 2026
Integration of X-point radiator divertor operation with high beta hybrid core plasmas in DIII-D
Nuclear Fusion, 2026
SOLPS-ITER modeling of a dedicated divertor for negative triangularity operation on DIII-D
Fusion Engineering and Design, 2026
Achievement of a high-density, high-confinement, and high-beta tokamak plasma regime in DIII-D, and implications for a lower-current path for ITER and FPP
Nuclear Fusion, 2026
Understanding carbon sourcing and transport originating from the helicon antenna surfaces during high-power helicon discharge in DIII-D Tokamak
Nuclear Fusion, 2026
Multi-field turbulence and transport barrier measurements and validation of predictive codes for high-performance, negative triangularity ELM-free DIII-D plasmas
See all 48 publications →
Nuclear Fusion, 2026
DIII-D is a DOE owned Office of Science national user facility, operated by General Atomics. Its goal is to close out critical plasma research gaps on the path to fusion energy and enable fusion commercialization agenda by partnering with private industry, academia and national laboratories,
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Low Temperature Superconductor (LTS) Magnets
