The Energy Efficient Computing, Communications & Sensing coalition focuses on cutting the energy needed for each task computers and networks perform in our increasingly digitalized world.
Our next generation battery solutions are based on advanced concepts for lithium ion, sodium ion, solid state, and flow batteries. Our expertise covers materials science and power electronics to improve energy density, safety, lifecycle, and charge/discharge rates, as well as sustainable manufacturing approaches relevant at industrial scale.
The Resilient & Intelligent Energy Systems (RIES) programme performs research that enables a resilient, self-organising, and inclusive energy system that meets the demands of its producers, prosumers, and consumers.
From novel solar cell materials to infrastructure-integrated solutions, UT's expertise in materials science, nanotechnology, physics and optics, applied engineering, computer science and AI, and societal embedding is driving critical innovations for the continued adoption of photovoltaics.
Expertise in electrochemistry and catalysis, digital twins, cryogenics, systems engineering, geophysics and earth observation, societal adoption, and many more interdisciplinary areas are brought together in HyUT to explore where H2 can best be deployed to decarbonize society.
At UT we focus on sustainable sources of heat, as well as storage, reuse, and systems integration for residential and industrial heat. Heat remains one of society's biggest challenges to become fossil free, but with an equally big impact when solved.