Fuels made from carbon you already have
Alcohol-to-jet, Fischer-Tropsch e-fuels, transesterified biodiesel and energy-integrated bio-ethanol — atom-balanced chemistry, real chain-growth statistics and recovered latent heat, every one backed by a flowsheet you can open and run.
Process modules
Bio-ethanol dehydrated to ethylene, oligomerized to the jet carbon-number range and hydrogenated to a real synthetic paraffin.
Open process page →Captured CO₂ and green hydrogen shifted to syngas at real equilibrium, then grown into a hydrocarbon slate by Anderson-Schulz-Flory chain growth.
Open process page →Two-stage base-catalysed transesterification of vegetable oil, with the excess methanol flashed off and recovered.
Open process page →A dilute beer concentrated toward the azeotrope, with the stillage evaporator's vapour mechanically recompressed back into its own duty.
Open process page →A hydrophilic pervaporation membrane crossing the 89 mol% azeotrope that distillation cannot.
Open process page →Honest scope: the reaction steps in the alcohol-to-jet route are stoichiometric conversion models — this solver ships no ethanol-dehydration or oligomerization kinetics, and inventing a rate law would fabricate the number that decides the answer. The Fischer-Tropsch and rWGS steps in the e-fuels route are different: those are real chain-growth statistics and a real equilibrium solve. The HEFA hydrotreating route is deliberately absent — its example does not currently converge, so no page here claims it runs.