Collaborative Tasks

Develop kinetic models predicting new fuel blend effects on combustion, enabling cleaner, more efficient device simulations.

Tailored exhaust-aftertreatment solutions unlock net-zero GHG emissions for sustainable fuels—from e-fuels and biofuels to green hydrogen and ammonia.

Advance understanding of fossil, bio, and e-fuel combustion to develop ultra-efficient, low-emission engines for hard-to-electrify sectors.

Advance understanding of fossil, bio, and e-fuel combustion to develop ultra-efficient, low-emission engines for power generation.

Investigate hydrogen and green vector fuels to develop optimal combustion technologies supporting a global shift from carbon fuels.

Advance scientific understanding of fuel jet formation and mixing to design efficient, low-carbon, clean combustion systems.

Support co-development of renewable fuels and engines for transport sectors, enabling flexible, net-zero, petroleum-compatible energy solutions.

Enhance understanding of solid fuel conversion to develop flexible, efficient, and cleaner combined heat and power solutions.

Advance understanding of soot formation, oxidation, and toxicity to predict and reduce emissions across diverse combustion systems.

Analyze technology, energy security, and emissions trade-offs to identify cost-effective, science-driven decarbonization strategies worldwide.