OAK A271 FINAL REPORT FOR THE DIII-D RADIATIVE DIVERTOR PROJECT. The Radiative Divertor Project originated in 1993 when the DIII-D Five Year Plan for the period 1994--1998 was prepared. The Project Information Sheet described the objective of the project as ''to demonstrate dispersal of divertor power by a factor of then with sufficient diagnostics and modeling to extend the results to ITER and TPX''. Key divertor components identified were: (1) Carbon-carbon and graphite armor tiles; (2) The divertor structure providing a gas baffle and cooling; and (3) The divertor cryopumps to pump fuel and impurities
A major challenge facing the design and operation of next-step high-power steady-state fusion device...
DIII-D currently operates with a single- or double-null open divertor and graphite walls. Active par...
Enhanced radiative losses with accompanying divertor heat flux reductions have been achieved on DIII...
A new divertor configuration is being developed for the DIII-D tokamak. This divertor will operate i...
New divertor hardware is being designed and fabricated for the Radiative Divertor modification of th...
The Radiative Divertor Program of DIII-D is in its final phase with the installation of the cryopump...
Phase 1A of the Radiative Divertor Program (RDP) is now installed in the DIII-D tokamak located at G...
The Radiative Divertor is a major modification to the divertor of DIII-D and is being designed and f...
The divertor of the DIII-D tokamak is being modified to operate as a slot type, dissipative divertor...
The DIII-D tokamak research program is managed by General Atomics (GA) for the US Department of Ener...
The DIII-D tokamak research program is carried out by General Atomics for the U.S. Department of Ene...
The first divertor was installed in the JET machine between 1992 and 1994 and was operated with carb...
A new double-null, slotted divertor configuration will be installed for the DIII-D Radiative Diverto...
The DIII-D program focuses on developing fusion physics in an integrated program of tokamak concept ...
In this paper we present an overview of the results and conclusions of our most recent divertor phys...
A major challenge facing the design and operation of next-step high-power steady-state fusion device...
DIII-D currently operates with a single- or double-null open divertor and graphite walls. Active par...
Enhanced radiative losses with accompanying divertor heat flux reductions have been achieved on DIII...
A new divertor configuration is being developed for the DIII-D tokamak. This divertor will operate i...
New divertor hardware is being designed and fabricated for the Radiative Divertor modification of th...
The Radiative Divertor Program of DIII-D is in its final phase with the installation of the cryopump...
Phase 1A of the Radiative Divertor Program (RDP) is now installed in the DIII-D tokamak located at G...
The Radiative Divertor is a major modification to the divertor of DIII-D and is being designed and f...
The divertor of the DIII-D tokamak is being modified to operate as a slot type, dissipative divertor...
The DIII-D tokamak research program is managed by General Atomics (GA) for the US Department of Ener...
The DIII-D tokamak research program is carried out by General Atomics for the U.S. Department of Ene...
The first divertor was installed in the JET machine between 1992 and 1994 and was operated with carb...
A new double-null, slotted divertor configuration will be installed for the DIII-D Radiative Diverto...
The DIII-D program focuses on developing fusion physics in an integrated program of tokamak concept ...
In this paper we present an overview of the results and conclusions of our most recent divertor phys...
A major challenge facing the design and operation of next-step high-power steady-state fusion device...
DIII-D currently operates with a single- or double-null open divertor and graphite walls. Active par...
Enhanced radiative losses with accompanying divertor heat flux reductions have been achieved on DIII...