Focuses on first-principle modeling of materials using Density Functional Theory (DFT) and Non-equilibrium Green's Functions (NEGF):
Uses DFT to calculate the electronic structure of materials at the atomic level.
Applies NEGF to study the transport properties of materials under non-equilibrium conditions, aiding in understanding electrical and thermal conductivity at various scales.
Spin-based Quantum Materials
Involves modeling and device development of spin-based thermoelectric and quantum computing, communication, and sensing materials:
Models spintronic materials where electron spin, rather than charge, is used to store and transfer information.
Develops devices that leverage these properties for applications in energy conversion, quantum computing, and advanced sensing technologies.
Metal-Organic Framework Materials
Explores the transport and electrochemical properties of MOF-based materials:
Investigates how MOFs, which consist of metal ions coordinated to organic ligands, facilitate the movement of ions and molecules.
Studies their electrochemical behavior for potential applications in batteries, supercapacitors, and gas storage.
Microwave Induced Plasma Chemistries
Investigates the microwave refining metallurgical process:
Studies the use of microwave energy to induce plasmas, facilitating the refining and purification of metals.
Explores the efficiency and effectiveness of this method compared to traditional metallurgical processes.
Investigates modeling thermionic energy conversion devices:
Develops models for devices that convert heat directly into electrical energy using thermionic emission.
Analyzes how microwave-induced plasmas can enhance the efficiency of these devices.
Materials in Extreme Environments
Involves first-principle modeling of the creep-fatigue properties of high-temperature materials:
Uses fundamental physics-based models to predict how materials deform and fail under high-stress, high-temperature conditions over time.
Aims to improve the durability and performance of materials used in aerospace, power generation, and other high-temperature applications.
Examines the performance of materials for geothermal applications:
Studies materials used in geothermal energy systems, focusing on their ability to withstand extreme conditions such as high temperatures and corrosive environments.
Seeks to enhance the efficiency and lifespan of geothermal power plants.
Multiphysics Finite Element Analysis
Focuses on the development and application of multiphysics finite element analysis software:
Develops advanced FEA tools that integrate multiple physical phenomena (e.g., thermal, structural, radio frequency, chemistry) into a single simulation.
Applies these tools to solve complex engineering problems, improving the design and analysis of materials and systems in various industries.