The Role of Chirality and Helicity between d- and l-Valine Optical Lattices

Abstract

Abstract:With the aim to investigate the role of chirality and helicity between D-and L-valine crystal lattices under Debye temperature 2-20 K, magnetic field dependence of zero-field and 1, 3 and 5 Tesla on the heat capacity were measured. The heat capacities of D-and L-valine crystals were plotted as C p vs. T, C p vs. lnT, C p /T 3 vs. T in the measured temperature. The four C p /T 3 vs. T curves show a split between D-and L-valine from 2 K to 12 K (T << Θ D ) which is due to the strength of magnetic fields. It is absent from 12 K to 20 K, which indicates the Schottky anomaly. The Bose-Einstein peak of the (e-p) condensation temperature is 11.20, 11.32, 11.44, 11.46 K for D-valine, and 11.49, 11.59, 11.73, 11.70 K for L-valine, respectively. This finding leads to a zero-field splitting of a broad maximum associated with the Schottky anomaly below the temperature of 12 K which is demonstrated by (e-p) Bose-Einstein condensation through the hydrogen of peptide bond in the alpha helix at zero momentum space onto D-and L-valine optical lattices.

Synthesis, Crystal Growth, and Transport Properties of van der Waals Tetrel Pnictide GeAs2

“…In recent years, binary tetrel pnictides have shown to be promising candidates for a variety of energy applications, including batteries, field-effect transistors, photovoltaics, and thermoelectrics. [1][2][3][4][5][6][7][8][9][10][11][12] The versatility in applications stem from the fact that many of these materials have 2D layered structures, resulting in anisotropic properties. For example, the resistivity of GeAs differed by more than two orders of magnitude when measured perpendicular to or parallel to the layers.…”