activity
20212023
most citedSelf-consistent simulation of resistive kink instabilities with runaway electrons

27 citations · 34 across the 5 of their papers we have counts for

collaborators

5 papers

physics.plasm-ph2023★ 1 cited

Flexible, integrated modeling of tokamak stability, transport, equilibrium, and pedestal physics

B. C. Lyons, J. McClenaghan, T. Slendebroek +15

The STEP (Stability, Transport, Equilibrium, and Pedestal) integrated-modeling tool has been developed in OMFIT to predict stable, tokamak equilibria self-consistently with core-tr…

physics.plasm-ph2023★ 6 cited

Elevating zero dimensional global scaling predictions to self-consistent theory-based simulations

Tim Slendebroek, Joseph McClenaghan, Orso Meneghini +5

We have developed an innovative workflow, STEP-0D, within the OMFIT integrated modelling framework. Through systematic validation against the International Tokamak Physics Activity…

physics.plasm-ph2022

Locked mode disruptions in DIII-D and application to ITER

H. Strauss, B. C. Lyons, M. Knolker

Disruptions are a serious problem in tokamaks, in which thermal and magnetic energy confinement is lost. This paper uses data from the DIII-D experiment, theory, and simulations to…

physics.plasm-ph2021

Modeling of carbon pellets disruption mitigation in an NSTX-U plasma

C. F. Clauser, S. C. Jardin, R. Raman +2

Single carbon pellet disruption mitigation simulations using M3D-C1 were conducted in an NSTX-U-like plasma to support the electromagnetic pellet injection concept (EPI). A carbon…

physics.plasm-ph2021★ 27 cited

Self-consistent simulation of resistive kink instabilities with runaway electrons

Chang Liu, Chen Zhao, Stephen C. Jardin +4

A new fluid model for runaway electron simulation based on fluid description is introduced and implemented in the magnetohydrodynamics code M3D-C1, which includes self-consistent i…