FLIP: A method for adaptively zoned, particle-in-cell calculations of fluid flows in two dimensions
Journal of Computational Physics
Towards a more accurate flux corrected transport algorithm
Journal of Computational Physics
The ringing instability in particle-in-cell calculations of low-speed flow
Journal of Computational Physics
Computer simulation using particles
Computer simulation using particles
Numerical methods for two-dimensional analysis of electrical breakdown in a non-uniform gap
Journal of Computational Physics
On particle-grid interpolation and calculating chemistry in particle-in-cell methods
Journal of Computational Physics
Finite element method for conservation equations in electrical gas discharge areas
Journal of Computational Physics
Dynamic and selective control of the number of particles in kinetic plasma simulations
Journal of Computational Physics
Journal of Computational Physics
Long time-step particle pushing in drift approximation without orbit averaging
Journal of Computational Physics
An improved finite-element flux-corrected transport algorithm
Journal of Computational Physics
Particle-in-cell simulation of electrical gas discharges
Journal of Computational Physics
Plasma Physics Via Computer
A new method for coalescing particles in PIC codes
Journal of Computational Physics
Function series theory of time scales
Computers & Mathematics with Applications
Density models for streamer discharges: Beyond cylindrical symmetry and homogeneous media
Journal of Computational Physics
Sheath governing equations in computational weakly-ionized plasmadynamics
Journal of Computational Physics
Hi-index | 31.49 |
A efficient PIC technique has been implemented to study the development of electrical discharges during long periods of time. Special motivation is provided by electrical pulsations that develop in very short times but whose repetition period is much longer. The method exploits the existence of different time scales in the electrical discharge to implement a long time-step particle pushing technique both at particle and at mesh levels. The development of a train of hundreds of Trichel pulses, which is a prohibitively long computation with a conventional PIC, has been used to test the validity of the method.