October 2024 | S. Dettrick | APS DPP 2024 | Presentation
The C-2W experiment at TAE Technologies demonstrates steady-state field-reversed configurations with enhanced plasma stability and ion heating driven by neutral beams, supported by advanced modeling and diagnostics to optimize performance.
October 2024 | M. Nations | APS DPP 2024 | Poster
Experiments on C-2W demonstrate enhanced ion heating through beam-driven waves, where fast-ion energy is directly transferred to thermal ions via wave-particle interactions, resulting in sustained high ion temperatures and improved plasma performance.
October 2024 | J. MacFarlane | APS DPP 2024 | Poster
The upgraded helium line ratio spectroscopy system on C-2W aims to improve measurements in low-density regions, addressing challenges like gas jet divergence and enhancing diagnostics for better alignment with Thomson Scattering and interferometry data.
October 2024 | S. Dettrick | APS DPP 2024 | Poster
TAE Technologies reports advancements in plasma performance and stability for C-2W through optimized neutral beam injection, new diagnostic tools, and enhanced modeling frameworks, demonstrating improved ion heating, extended plasma lifetimes, and effective wall conditioning.
October 2024 | S. Vargas Giraldo | APS DPP 2024 | Poster
Wall conditioning techniques, including Glow Discharge Cleaning (GDC) and titanium arc deposition, have been essential in maintaining optimal vacuum conditions and reducing recovery time in the C-2W fusion device, supporting faster and more efficient plasma operations.
October 2024 | Y. Musthafa | APS DPP 2024 | Poster
TAE Technologies’ C-2W device sustains steady-state FRC plasmas using neutral beam injection, edge biasing, and real-time control, with Doppler-shift spectroscopy providing non-intrusive beam characterization to optimize energy capture and plasma performance.