Model
Formulate coupled physical mechanisms for realistic materials, geometries, and device conditions.
Work on high-performance computational models for coupled physical systems.
The lab is open to exceptional Ph.D. students and postdoctoral researchers interested in computation, electromagnetics, magnetism, materials, imaging, and device physics.
Prospective researchers
Develop methods that connect fundamental physics to realistic devices.
The lab works on computational techniques and analytical models for multiphysics problems. Current directions include coupled micromagnetic, electromagnetic, elastic, thermal, ferroelectric, and spintronic systems; coherent X-ray diffraction imaging; memory and recording devices; and neural-network-enhanced EEG recognition.
Outstanding prospective Ph.D. students and postdoctoral researchers are encouraged to contact Prof. Vitaliy Lomakin.
High-performance computational methods
Micromagnetics and spintronics
Electromagnetics and electrodynamics
Magnetoelastic and multiferroic systems
Coherent X-ray diffraction imaging
Magnetic and ferroelectric memories
Soft magnetic materials
EEG recognition and device control
Lab environment
Methods, physics, and applications in one research program.
Projects combine computational formulation, implementation on high-performance platforms, and studies of magnetic, optical, microwave, memory, imaging, and neural-interface systems.
Compute
Develop efficient methods and high-performance codes for demanding simulations and reconstruction tasks.
Analyze
Use computation to study switching, waves, stability, loss, imaging, and system-level behavior.