Develops image analysis methods (registration, machine learning, etc.) for detection, staging and treatment evaluation of patient cardiovascular disease, and develops cryo-imaging methods for preclinical research in cancer and stem cells.

Develops next-generation implantable device technologies to restore human function by interfacing with the nervous system, and point-of-care monitoring platforms for personalized healthcare.

Develops computational neuro-informatics methods to analyze imaging for characterizing physiological, molecular and pathological phenotypes to predict patient outcome and evaluate response to treatment.

Develops advanced control engineering solutions for renewable energy, wind turbines, power systems, water treatment plants, radio telescopes, spacecraft and industrial applications.

Pursues an integrated science and engineering program by utilizing emerging carbon nanotechnology to develop new materials, devices and systems.

Advances fundamental fire science (e.g. microgravity combustion, solid pyrolysis) and studies the fire behaviors in unique conditions (e.g. aircraft, spacecraft, forest fire). CFD Mission

Studies fuel cells, composite material science, biopolymers and nanotechnology.

Develops novel electrochemical processes to deposit, fabricate and manipulate materials that have applications in energy storage, nano-electronics and electro-metallurgy.

Trains newcomers on the fundamentals of wholesale electricity and futures markets, and develops the first electricity market simulator aimed at pedagogical use.

Develops nanoscale devices for computing building blocks using emerging semiconductors, as well as silicon carbide materials, hardware for harsh environments, and biomedical, photonic and quantum technologies.

Researches alloy surface engineering, plated metallization, metal-oxide interfaces and materials for fuel cells, photovoltaics, and nanotechnology

Develops neural protheses that limit urinary tract dysfunction by restoring the spine's bladder control

Uses theory, simulation and experimentation to study physical phenomena in polymeric systems

Mission: Develop human interfaces to improve function after neurological injury.

Studies and engineers technologies to restore functional movement to people with disabilities.

Studies electrochemical and optical sensing of cellular constructs, including single cells, 3D model tissue and clinical diagnostics.

Seeks to improve deep brain stimulation (DBS) for the treatment of movement disorders and provide technology for the application of DBS to new clinical arenas

Studies strategies for thermoset recycling and development of high performance materials.

Nonlinear control, dynamic systems with time-delay, homogeneous systems theory, stochastic stability and stochastic control, robust and adaptive control, nonlinear observers and estimation, control of nonholonomic or underactuated mechanical systems, renewable energy, power systems and smart grids.

Aims to promote a multi-hazard resilient modern society by protecting critical infrastructure from both natural and technological hazards.

Advances MRI imaging with a technique that is up to 16x faster for the real-time visualisation of cardiac and abdominal movement in 3D.

Focuses on research in mobile health, wearable sensor technologies, deep learning on mobile platforms and the Internet of Things.

Studies diagnosis of musculoskeletal conditions and develops of functional tissue replacements for musculoskeletal repair.

Explores stimulation and recording devices, and systems and techniques for advanced interfaces with neural tissue for novel prosthetics, neuromodulation devices and their clinical implementation.