EPFL professor’s passion for sustainable flying and expertise in machine learning and computer vision drives innovation in green aviation design and beyond.
Explore the transformative leap from traditional to smart grids, their integration with AI, IoT, and renewable energy, and their future in energy efficiency.
In this episode, we discuss how MIT researchers cracked the code for affordable, sustainable, and scalable hydrogen production using commonly found materials and a secret alloy!
Research Facility 2.0 (RF 2.0) is an EU-funded research project aimed at making the operation of particle accelerators and other large-scale facilities more resource-efficient.
To transition away from fossil fuels and towards renewables – which are intermittent by nature – we’ll need to rework our entire system of power storage, transmission and distribution.
Whether sustainably produced hydrogen needs to be 100 percent green is currently under debate. Using the production of ammonia and artificial fertiliser as examples, researchers have calculated that "nearly sustainable" hydrogen would be better in the end.
Whether for the development of a self-sufficient energy system in Namibia, for wastewater treatment in Norway or for seawater desalination in drought regions – for complex water treatment processes, plant engineers around the world rely on filter media made of wire mesh.