Subsequently, a selection of research papers are listed where GTPack was applied. In case *your paper* is not shown yet and you would like to have it added please contact us.

##### Symmetry analysis of odd- and even-frequency superconducting gap symmetries for time-reversal symmetric interactions

*R. M. Geilhufe, A. V. Balatsky, Phys. Rev. B 97, 024507 (2018)*

*Odd-frequency superconductivity describes a class of superconducting states where the superconducting gap is an odd function in relative time and Matsubara frequency. We present a group theoretical analysis based on the linearized gap equation in terms of Shubnikov groups of the second kind. By discussing systems with spin-orbit coupling and an interaction kernel which is symmetric under the reversal of relative time, we show that both even- and odd-frequency gaps are allowed to occur. Specific examples are discussed for the square lattice, the octahedral lattice, and the tetragonal lattice.** For irreducible representations that are even under the reversal of relative time the common combinations of s- and d-wave spin singlet and p-wave spin triplet gaps are **revealed, irreducible representations that are odd under reversal of relative time give rise to s- and d-wave spin triplet and p-wave spin singlet gaps. Furthermore, we discuss the construction of a generalized Ginzburg-Landau theory in terms of the associated irreducible representations. The result complements the established classification of superconducting states of matter.*

##### Three-dimensional organic Dirac-line materials due to nonsymmorphic symmetry: A data mining approach

*R. M. Geilhufe, et al., Phys. Rev. B 95, 041103(R) (2018)*

A data mining study of electronic Kohn-Sham band structures was performed to identify Dirac materials within the Organic Materials Database. Out of that, the three-dimensional organic crystal 5,6-bis(trifluoromethyl)-2-methoxy-1H-1,3-diazepine was found to host different Dirac-line nodes within the band structure. From a group theoretical analysis, it is possible to distinguish between Dirac-line nodes occurring due to twofold degenerate energy levels protected by the monoclinic crystalline symmetry and twofold degenerate accidental crossings protected by the topology of the electronic band structure. The obtained results can be generalized to all materials having the space group P21/c (No. 14) by introducing three distinct topological classes.

### Full list of publications referring to GTPack

- R. M. Geilhufe and A. V. Balatsky,
*Symmetry analysis of odd- and even-frequency superconducting gap symmetries for time-reversal symmetric interactions,*Phys. Rev. B,024507 (2018)**97**,

>> take a look - R. M. Geilhufe, A. Bouhon, S. S. Borysov, and A. V. Balatsky,
*Three-dimensional organic Dirac-line materials due to nonsymmorphic symmetry: A data mining approach*, Phys. Rev. B.,**95**, 041103(R), 2017

>> take a look