June 2019 | H. Gota | Nuclear Fusion | Paper
TAE Technologies’ research is devoted to producing high temperature, stable, long-lived field-reversed configuration (FRC) plasmas by neutral-beam injection (NBI) and edge biasing/control.
Details
April 2019 | A.Necas | 2019 Sherwood Fusion Theory | Poster
TAE Technologies, Inc, has an active fusion plasma research program centered around the FRC (Field Reversed Configuration) magnetic topology and the existing C-2W (aka Norman) experiment.
Details
October 2018 | S. Dettrick | APS-DPP | Poster
Flexible control systems for all three of these actuators are available on the C-2W experiment, so we study their effects on FRC Equilibrium and Global Stability
Details
October 2018 | M. Onofri | APS-DPP | Poster
We study the effects of end shorting and electrostatic biasing in simulations of the C-2W Field Reversed Configuration experiment using the Q2D code.
Details
October 2018 | J. Romero | APS-DPP | Poster
Efficient neutral beam capture and retention requires maintenance of plasma axisymmetry to avoid stochastic diffusion losses.
Details
July 2018 | F. Tanaka (Nihon Univ.) | Plasma and Fusion Research | Paper
In order to investigate the collisional merging process of field-reversed configurations (FRCs), the FAT device has recently been upgraded to FAT-CM, consisting of two field-reversed theta-pinch (FRTP) formation sections and the confinement section.
Details
February 2018 | J.A. Romero | Nature Communications | Paper
Active control of field reversed configuration (FRC) devices requires a method to determine the flux surface geometry and dynamic properties of the plasma during both transient and steady-state conditions.
Details
October 2017 | Sean Dettrick | APS-DPP | Poster
TAE is working towards catalysing a community-wide collaboration to develop a Whole Device Model (WDM) of Compact Tori.
Details
August 2017 | C. K. Lau | Physics of Plasmas | Paper
Gyrokinetic simulations of C-2-like field-reversed configuration (FRC) find that electrostatic drift- waves are locally stable in the core. The stabilization mechanisms include finite Larmor radius effects, magnetic well (negative grad-B), and fast electron short circuit effects.
Details
December 2016 | L. Schmitz | Nature Communications | Paper
An economic magnetic fusion reactor favours a high ratio of plasma kinetic pressure to magnetic pressure in a well-confined, hot plasma with low thermal losses across the confining magnetic field.
Details