Development of a Global Toroidal Gyrokinetic Vlasov Code with New Real Space Field Solver

This work introduces a new full-f toroidal gyrokinetic (GK) Vlasov simulation code that uses a real space field solver. This solver enables us to compute the gyro-averaging operators in real space to allow proper treatment of finite Larmor radius (FLR) effects without requiring any particular hypoth...

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Veröffentlicht in:Plasma and Fusion Research 2015/04/16, Vol.10, pp.3403042-3403042
Hauptverfasser: OBREJAN, Kevin, IMADERA, Kenji, LI, Ji-Quan, KISHIMOTO, Yasuaki
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IMADERA, Kenji
LI, Ji-Quan
KISHIMOTO, Yasuaki
description This work introduces a new full-f toroidal gyrokinetic (GK) Vlasov simulation code that uses a real space field solver. This solver enables us to compute the gyro-averaging operators in real space to allow proper treatment of finite Larmor radius (FLR) effects without requiring any particular hypothesis and in any magnetic field configuration (X-point, D-shaped etc). The code was well verified through benchmark tests such as toroidal Ion Temperature Gradient (ITG) instability and collisionless damping of zonal flow.
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subjects Computer simulation
field solver
finite Larmor radius effect
Flow stability
Gyrokinetics
Ion temperature
Larmor radius
Magnetic field configurations
Temperature gradients
Vlasov simulation
Zonal flow (meteorology)
title Development of a Global Toroidal Gyrokinetic Vlasov Code with New Real Space Field Solver
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