Imaginary phonon modes signify dynamical instability in materials and present a critical challenge in computational materials science and drug development.
This article provides a comprehensive guide for researchers and computational scientists on optimizing k-point grid settings for phonon calculations in metallic systems.
Accurate phonon frequency calculations are essential for predicting material properties and vibrational spectra but are critically dependent on achieving a fully converged geometry optimization.
This article provides a comprehensive guide for researchers and scientists on identifying, understanding, and resolving the common yet challenging issue of imaginary phonon frequencies in VASP calculations.
This guide provides a systematic approach for researchers and computational materials scientists to diagnose and resolve the common issue of negative (imaginary) phonon frequencies in Quantum ESPRESSO ph.x calculations.
Understanding and accurately calculating phonon contributions to thermal conductivity is paramount for designing next-generation nanostructured materials for thermoelectrics, electronics, and biomedical applications.
This article provides a comprehensive guide to performing first-principles phonon calculations using the open-source Phonopy code, a cornerstone tool in computational materials science.
This article provides a comprehensive guide to optimizing step size and convergence parameters in phonon dispersion calculations, a critical step for obtaining accurate vibrational properties of materials.
This article provides a comprehensive exploration of Supercell Lattice Dynamics (SCLD) for investigating phonon properties in materials with vacancy defects.
This article explores the critical, yet often overlooked, connection between the mathematical concept of negative frequencies and the physical mechanisms driving structural phase transitions in materials.