A novel laser heating technique has recently been applied to removing tritium from carbon tiles that had been exposed to deuterium-tritium (DT) plasmas in the Tokamak Test Fusion Reactor (TFTR). A continuous wave neodymium laser, of power up to 300 watts, was used to heat the surface of the tiles. The beam was focused to an intensity, typically 8 kW/cm{sup 2}, and rapidly scanned over the tile surface by galvanometer-driven scanning mirrors. Under the laser irradiation, the surface temperature increased dramatically, and temperatures up to 2,300 degrees C were recorded by an optical pyrometer. Tritium was released and circulated in a closed-loop system to an ionization chamber that measured the tritium concentration. Most of the tritium (up...
High heat flux interactions with plasma-facing components have been studied at microscopic scales. T...
Retention and desorption of hydrogenic species need to be accurately modeled to predict the tritium ...
The Princeton Plasma Physics Laboratory (PPPL) Engineering and Research Staff in collaboration with ...
A novel laser heating technique has recently been applied to removing tritium from carbon tiles that...
A novel method for tritium release has been demonstrated on codeposited layers on graphite and carbo...
Tritium issues will play a central role in the performance and operation of next-step deuterium-trit...
Tritium removal is a major unsolved development task for next-step devices with carbon plasma-facing...
Efficient techniques for rapid tritium removal will be necessary for ITER (International Thermonucle...
International audienceTreatments of plasma facing components (PFCs) are major issues for ITER operat...
Efficient techniques for rapid tritium removal will be necessary for ITER to meet its physics and en...
The retention of tritium (T) by carbon based deposits on tokamak surfaces is of increasing concern t...
The tritium profiles in a TFTR graphite tile exposed to D-D plasmas and in a JET graphite tile emplo...
International audienceIn this paper, in situ tritium measurements and control by laser techniques ar...
ITER operation might be limited by the tritium inventory that will be retained in carbon tiles and r...
An experiment has been performed to measure the effect of temperature on the outgassing rate of trit...
High heat flux interactions with plasma-facing components have been studied at microscopic scales. T...
Retention and desorption of hydrogenic species need to be accurately modeled to predict the tritium ...
The Princeton Plasma Physics Laboratory (PPPL) Engineering and Research Staff in collaboration with ...
A novel laser heating technique has recently been applied to removing tritium from carbon tiles that...
A novel method for tritium release has been demonstrated on codeposited layers on graphite and carbo...
Tritium issues will play a central role in the performance and operation of next-step deuterium-trit...
Tritium removal is a major unsolved development task for next-step devices with carbon plasma-facing...
Efficient techniques for rapid tritium removal will be necessary for ITER (International Thermonucle...
International audienceTreatments of plasma facing components (PFCs) are major issues for ITER operat...
Efficient techniques for rapid tritium removal will be necessary for ITER to meet its physics and en...
The retention of tritium (T) by carbon based deposits on tokamak surfaces is of increasing concern t...
The tritium profiles in a TFTR graphite tile exposed to D-D plasmas and in a JET graphite tile emplo...
International audienceIn this paper, in situ tritium measurements and control by laser techniques ar...
ITER operation might be limited by the tritium inventory that will be retained in carbon tiles and r...
An experiment has been performed to measure the effect of temperature on the outgassing rate of trit...
High heat flux interactions with plasma-facing components have been studied at microscopic scales. T...
Retention and desorption of hydrogenic species need to be accurately modeled to predict the tritium ...
The Princeton Plasma Physics Laboratory (PPPL) Engineering and Research Staff in collaboration with ...