HomeChemistry & MaterialsBiodiesel Transesterification: Catalyst Kinetics & Glycerol Separation

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.

Chemistry & Materials3DModerate60 FPS📱 Mobile-adapted⇄ 2D version
biodiesel-transesterification-catalysis-yield ↗ Open standalone

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.

⚙ Under the hood

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.

biodieseltransesterificationcatalysisreaction kineticschemical engineeringArrhenius equation

3D · Three.js / WebGL renderer · 60 FPS target · runs fully client-side, no install

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