TensorSymmetry: a package to get symmetry-adapted tensors disentangling spin-orbit coupling effect and establishing analytical relationship with magnetic order
Year: 2025
Type: article
Abstract: The symmetry-constrained response tensors on transport, optical, and electromagnetic effects are of central importance in condensed matter physics because they can guide experimental detections and verify theoretical calculations. These tensors encompass various forms, including polar, axial, i -type (time-reversal even), and c -type (time-reversal odd) matrixes. The commonly used magnetic groups, however, fail to describe the phenomena without the spin-orbit coupling (SOC) effect and cannot build the analytical relationship between magnetic orders with response tensors in magnetic materials. Developing approaches on these two aspects is quite demanding for theory and experiment. In this paper, we use the magnetic group, spin group, and extrinsic parameter method comprehensively to investigate the symmetry-constrained response tensors, then implement the above method in a platform called "TensorSymmetry". With the package, we can get the response tensors disentangling the effect free of SOC and establish the analytical relationship with magnetic order, which provides useful guidance for theoretical and experimental investigation for magnetic materials. Program Summary Program title: TensorSymmetry CPC Library link to program files : https://doi.org/10.17632/8gj9h6pxwk.1 Developer’s repository link : https://github.com/Ruichun/TensorSymmetryPackage Licensing provisions: GNU General Public Licence 3.0 Programming language: Wolfram Mathematica External routines/libraries used: None Nature of problem: To determine the symmetry-adapted tensors in magnetic materials, which can reflect the SOC effect, and establish the analytical relationship with magnetic order. Solution method: Comprehensively using the magnetic groups, spin groups, and the extrinsic parameter method.
Source: Computer Physics Communications
Language: English
Subfield: Condensed Matter Physics
Field: Physics and Astronomy
Domain: Physical Sciences
Open Access status: hybrid
Estimated APC paid: $4,160
Awards: G2992652401, G3717380463, G8497522250
OpenAlex ID: W4414366404
