Uses first-principles modeling (Density Functional Theory and Non-equilibrium Green's Functions) to connect atomic-level physics with macroscopic transport:
Calculates electronic structure with DFT to reveal material behavior at the atomic scale.
Applies NEGF to study electrical and thermal conductivity under non-equilibrium conditions, bridging quantum to continuum scales.
Spin-based Quantum Materials
Advances the modeling and development of spin-based materials for thermoelectric, quantum computing, communication, and sensing applications:
Investigates spintronic systems where electron spin, rather than charge, is used to store and transfer information.
Designs devices that harness spin properties for energy conversion, quantum information processing, and advanced sensing.
Applies computational materials discovery to identify and optimize single-photon emitting and absorbing materials.
Metal-Organic Framework Materials
Examines transport and electrochemical properties of MOF-based systems:
Investigates how metal-organic frameworks, composed of metal ions and organic linkers, enable ion and molecule transport.
Studies their electrochemical behavior for potential use in batteries, supercapacitors, and gas storage technologies.
Microwave Induced Plasma Chemistries
Uses microwave energy to drive novel metallurgical processes:
Explores plasma-assisted refining and purification of metals, with applications such as e-waste recycling.
Develops models for thermionic energy conversion devices:
Analyzes devices that convert heat directly into electricity through thermionic emission.
Advances methods for determining complex dielectric properties of heterogeneous material mixtures:
Applies multiphysics modeling to create digital twins of dielectric test systems, enabling accurate prediction of permittivity and permeability as a function of temperature.
Materials in Extreme Environments
Models the long-term performance of high-temperature materials:
Uses physics-based models to predict creep-fatigue behavior under high stress and temperature.
Supports the design of durable materials for aerospace, power generation, and other demanding applications.
Studies materials for geothermal systems:
Examines performance under high temperature and corrosive conditions typical of geothermal environments.
Seeks to improve efficiency and lifespan of geothermal power technologies.
Explores new battery architectures for high-energy environments:
Focuses on materials for energy conversion at elevated temperatures, with emphasis on performance modeling and degradation mechanisms.
Multiphysics Finite Element Analysis
Develops and applies advanced multiphysics simulation tools:
Integrates coupled phenomena such as thermal, structural, radio frequency, and chemical processes into unified FEA frameworks.
Applies these tools to address complex engineering challenges, guiding the design and optimization of materials and systems across industries.