Potential use of thermonuclear (i.e., fusion product) driven kinetic instabilities to heat the background plasma has long been recognized. Considerable research on velocity space micro-instabilities exists. Most work to date has focused upon the basic physics criteria for and characteristics of particular micro-instabilities. Kinetic instabilities resulting in spatial transport of fusion products have also received some attention, but the effects on reactor concepts and performance remain uncertain. We have developed an engineering model which scopes the effect of a velocity space relaxation of fast alphas on a quasi-linear time scale. This model includes the additional heating to background plasma ions under the assumptions of: ion damping...
In this work we provide the first explanation for observations made in 1997 on the Joint European To...
Contains report on one research project.U.S. Atomic Energy Commission (Contract AT(30-1)-3980
The hot-ion-mode of operation [1] has long been thought to offer optimized performance for long-puls...
An engineering model is described which scopes the effect of a velocity space relaxation of fast alp...
Future fusion reactors will rely on fusion product heating of the plasma for ignited (or near-ignite...
The velocity-space distribution of alpha particles born in fusion devices is subject to modification...
Much is known about the behavior of energetic ions in tokamak devices but much remains to be underst...
The exploitation of magnetically confined fusion plasmas as a sustainable and clean energy source is...
Alpha particles with energies on the order of megaelectronvolts will be the main source of plasma he...
Megaelectron volt (MeV) alpha particles will be the main source of plasma heating in magnetic confin...
Modelling of microturbulence-driven transport of energetic ions in an ITER steady-state scenario is ...
Effects of the spatial chanelling (SC) of the energy of fusion-produced alpha particles - the spatia...
The high-energy alpha particle population in an ignited D-T fusion plasma may cause thermonuclear w...
The observation that fast ions stabilize ion-temperature-gradient-driven microturbulence has profoun...
In this work we provide the first explanation for observations made in 1997 on the Joint European To...
Contains report on one research project.U.S. Atomic Energy Commission (Contract AT(30-1)-3980
The hot-ion-mode of operation [1] has long been thought to offer optimized performance for long-puls...
An engineering model is described which scopes the effect of a velocity space relaxation of fast alp...
Future fusion reactors will rely on fusion product heating of the plasma for ignited (or near-ignite...
The velocity-space distribution of alpha particles born in fusion devices is subject to modification...
Much is known about the behavior of energetic ions in tokamak devices but much remains to be underst...
The exploitation of magnetically confined fusion plasmas as a sustainable and clean energy source is...
Alpha particles with energies on the order of megaelectronvolts will be the main source of plasma he...
Megaelectron volt (MeV) alpha particles will be the main source of plasma heating in magnetic confin...
Modelling of microturbulence-driven transport of energetic ions in an ITER steady-state scenario is ...
Effects of the spatial chanelling (SC) of the energy of fusion-produced alpha particles - the spatia...
The high-energy alpha particle population in an ignited D-T fusion plasma may cause thermonuclear w...
The observation that fast ions stabilize ion-temperature-gradient-driven microturbulence has profoun...
In this work we provide the first explanation for observations made in 1997 on the Joint European To...
Contains report on one research project.U.S. Atomic Energy Commission (Contract AT(30-1)-3980
The hot-ion-mode of operation [1] has long been thought to offer optimized performance for long-puls...