The quest for fusion power and understanding of plasma physics has resulted in planning, design, and construction of several major fusion power test facilities, based largely on magnetic and inertial confinement concepts. We have considered radiological design aspects of the Joint European Torus (JET), Livermore Mirror and Inertial Fusion projects, and Princeton Tokamak. Our analyses on radiological design criteria cover acceptable exposure levels at the site boundary, man-rem doses for plant personnel and population at large, based upon experience gained for the fission reactors, and on considerations of cost-benefit analyses
Superconducting magnets are believed to be necessary for fusion power reactors. High flux levels of ...
The physical properties of nuclear fusion reactions govern the fuel choice and the selection of the ...
Ignitor is a proposed compact high-magnetic field tokamak aimed at studying plasma burning conditio...
If fusion energy is to achieve its full potential for safety and environmental (S&E) advantages, the...
Recent technical progress in fusion research has been sufficient to encourage the development of con...
Radiation shielding requirements for fusion reactors present different problems than those for fissi...
The neutronics of a fusion reactor is crucial in the conceptual design of all in-vessel components a...
We have analyzed and compared five major inertial fusion energy (IFE) and two representative magneti...
Physical conditions for D-T fusion reactions in hot plasmas are reviewed, showing the difference bet...
Physical conditions for D-T fusion reactions in hot plasmas are reviewed, showing the difference bet...
A fusion reactor is a human dream aiming to realize a terrestrial sun. The ITER project has been run...
The fusion Engineering Test Facility (ETF) is being designed to provide for engineering testing capa...
Ignitor is a proposed compact high-magnetic field tokamak aimed at studying plasma burning condition...
This work aims at identifying common potential problems that future fusion devices will encounter fo...
The potential radiological impacts of the National Ignition Facility (NIF), a proposed facility for ...
Superconducting magnets are believed to be necessary for fusion power reactors. High flux levels of ...
The physical properties of nuclear fusion reactions govern the fuel choice and the selection of the ...
Ignitor is a proposed compact high-magnetic field tokamak aimed at studying plasma burning conditio...
If fusion energy is to achieve its full potential for safety and environmental (S&E) advantages, the...
Recent technical progress in fusion research has been sufficient to encourage the development of con...
Radiation shielding requirements for fusion reactors present different problems than those for fissi...
The neutronics of a fusion reactor is crucial in the conceptual design of all in-vessel components a...
We have analyzed and compared five major inertial fusion energy (IFE) and two representative magneti...
Physical conditions for D-T fusion reactions in hot plasmas are reviewed, showing the difference bet...
Physical conditions for D-T fusion reactions in hot plasmas are reviewed, showing the difference bet...
A fusion reactor is a human dream aiming to realize a terrestrial sun. The ITER project has been run...
The fusion Engineering Test Facility (ETF) is being designed to provide for engineering testing capa...
Ignitor is a proposed compact high-magnetic field tokamak aimed at studying plasma burning condition...
This work aims at identifying common potential problems that future fusion devices will encounter fo...
The potential radiological impacts of the National Ignition Facility (NIF), a proposed facility for ...
Superconducting magnets are believed to be necessary for fusion power reactors. High flux levels of ...
The physical properties of nuclear fusion reactions govern the fuel choice and the selection of the ...
Ignitor is a proposed compact high-magnetic field tokamak aimed at studying plasma burning conditio...