Citation:
Weyens, T., Sánchez, R., Huijsmans, G., Loarte, A., & García, L. (2017). PB3D: A new code for edge 3-D ideal linear peeling-ballooning stability. Journal of Computational Physics, 330, 997-1009
xmlui.dri2xhtml.METS-1.0.item-contributor-funder:
Ministerio de Economía y Competitividad (España)
Sponsor:
This research was sponsored in part by DGICYT (Dirección General de Investigaciones
Científicas y Tecnológicas) of Spain under Project No. ENE2015-68265
A new numerical code PB3D (Peeling-Ballooning in 3-D) is presented. It implements
and solves the intermediate-to-high-n ideal linear magnetohydrodynamic stability theory
extended to full edge 3-D magnetic toroidal configurations in previous work [1]. The
feA new numerical code PB3D (Peeling-Ballooning in 3-D) is presented. It implements
and solves the intermediate-to-high-n ideal linear magnetohydrodynamic stability theory
extended to full edge 3-D magnetic toroidal configurations in previous work [1]. The
features that make PB3D unique are the assumptions on the perturbation structure
through intermediate-to-high mode numbers n in general 3-D configurations, while
allowing for displacement of the plasma edge. This makes PB3D capable of very
e cient calculations of the full 3-D stability for the output of multiple equilibrium
codes. As first verification, it is checked that results from the stability code MISHKA [2],
which considers axisymmetric equilibrium configurations, are accurately reproduced,
and these are then successfully extended to 3-D configurations, through comparison
with COBRA [3], as well as using checks on physical consistency. The non-intuitive
3-D results presented serve as a tentative first proof of the capabilities of the code.[+][-]