Biodiesel Transesterification: Catalyst Kinetics & Glycerol Separation
Interactive 3D biodiesel reactor: watch triglyceride oil molecules step through the transesterification pathway to methyl esters (FAME) as catalyst loading, temperature and methanol:oil ratio set the reaction rate and equilibrium yield, then see biodiesel and glycerol separate by density.
This simulator renders a batch of vegetable-oil triglyceride molecules reacting with methanol under a base catalyst, exactly as an industrial biodiesel reactor does. Each particle steps through the real three-stage transesterification pathway — triglyceride to diglyceride to monoglyceride to glycerol — releasing one methyl-ester (FAME, biodiesel) molecule at every step. Catalyst loading and reaction temperature set the step rate through the Arrhenius equation, while the methanol-to-oil molar ratio sets how far the reversible reaction can push toward completion before stalling at equilibrium. As FAME and glycerol accumulate, they separate into two visible layers by density — light biodiesel floating on top, dense glycerol settling below — mirroring the gravity-settling step used to purify real biodiesel after the reaction finishes.
Watch triglyceride oil molecules step through the real transesterification pathway to methyl esters (biodiesel) as catalyst loading, temperature and methanol:oil ratio set the reaction rate and equilibrium yield, then see biodiesel and glycerol separate by density.
3D · Three.js / WebGL renderer · 60 FPS target · runs fully client-side, no install