Electric and electromagnetic fields can promote far-from-equilibrium chemical reactions,
phase transformations, and microstructural evolution. On the one hand, both direct electric …

High entropy oxides (HEOs) have multi-cation disordered chemical structure that makes it
suitable as anode for battery applications.(Mg 0.2 Ti 0.2 Zn 0.2 Cu 0.2 Fe 0.2) 3 O 4 has …

A workflow is presented for performing pair distribution function (PDF) analysis of defected
materials using structures generated from atomistic simulations. A large collection of …

Electromagnetic (EM) fields, specifically microwave radiation (MWR), can significantly
influence the synthesis of ceramic oxide materials and promote rapid, low-temperature …

Microwave radiation (MWR), a type of electromagnetic excitation source, reduces the
synthesis temperature and processing time for chemical reactions compared to traditional …

Electromagnetic (EM) field exposure during materials synthesis offers the opportunity to
engineer novel atomic structures and modify reaction kinetics beyond the capabilities of …

Electromagnetic (EM) fields can significantly alter ceramic synthesis, inducing rapid, low-
temperature crystallization and phase transitions not observed via conventional routes. Due …

With the development of machine learning (ML) algorithms and hardware, the application of
ML methods and data-driven approaches are gaining popularity in the field of materials …

Pair distribution function (PDF) is a total scattering technique for determining the local
structure of nanoscaled materials. In this thesis, we combine atomistic simulations and …

This thesis aims to improve the understanding of electromagnetic (EM) field–material
interactions, with the end goal of introducing frequency as an experimental variable during …