
Explore five popular e-fuels produced from renewable energy and carbon capture, their power-to-X pathway, conversion losses, and carbon-reduction potential, with a view toward future cost parity by 2050.
Outlines EU binding targets for aviation fuel, including 1.7% by 2030 and 35% e-kerosene by 2050, and highlights shipping’s shift to ammonia as a dominant green fuel by 2050.
The world cannot electrify its way to net zero. Aviation, deep-sea shipping, heavy industry, and gas infrastructure cannot run on batteries at the scale the global economy demands. For these sectors — responsible for over a third of all CO₂ emissions — synthetic e-fuels are not a distant possibility. They are already being mandated, financed, and built.
This course gives you the complete, data-driven picture of the e-fuels landscape. You will explore all five major synthetic fuel types — e-kerosene, e-ammonia, e-methanol, e-methane, and e-diesel — examining who needs them, who will produce them, and what the 2050 market genuinely looks like when you read the IEA, IRENA, and ICAO evidence critically rather than at face value.
Unlike technical engineering courses, this course is built for professionals who need to understand, analyse, and act on the e-fuels transition — whether you work in sustainability, aviation, maritime, energy, finance, or policy. No engineering background is required.
You will learn to separate e-fuels from biofuels and fossil synfuels, decode the real mandates driving demand — ReFuelEU, CORSIA, IMO GHG Strategy — identify which regions are winning the production race, and understand what this transition means for developing countries holding the feedstocks and renewable energy potential the world urgently needs.
The race to replace fossil fuels has already started. This course puts you ahead of it.