A new OpenFOAM-based solver, reactPlasFoam, couples plasma kinetics with reacting-flow CFD and solves the electron Boltzmann equation at each cell, enabling simulations of streamer, spark, and ionic-wind modes in plasma-combustion systems.
AVIP: a low temperature plasma code
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abstract
A new unstructured, massively parallel code dedicated to low temperature plasmas, AVIP, is presented to simulate plasma discharges in interaction with combustion. The plasma species are modeled in a drift-diffusion formulation and the Poisson equation is solved consistently with the charged species. Plasma discharges introduce stiff source terms on the reactive Navier-Stokes equations and Riemann solvers, more robust than the schemes available in AVBP, have been implemented in AVIP and reported back in AVBP to solve the reactive Navier-Stokes equations. The validation of all the numerical schemes is carried out in this paper where numerous validation cases are presented for the plasma drift-diffusions equations and the reactive Navier-Stokes equations.
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A unified fluid model for nonthermal plasmas and reacting flows
A new OpenFOAM-based solver, reactPlasFoam, couples plasma kinetics with reacting-flow CFD and solves the electron Boltzmann equation at each cell, enabling simulations of streamer, spark, and ionic-wind modes in plasma-combustion systems.