Hydrogen production from bioethanol
Ethanol steam reforming, competing reactions, catalyst selection and membrane separation, with a careful look at heat demand and carbon accounting.
Read the guideUnderstand the science. Follow the process.
Explore the engineering behind hydrogen production, separation and electrochemical power.
Follow the energy carrier from production to use.
02Understand the electrochemistry behind electrical power.
03See how reaction and separation work together.
04Compare reforming and electrochemical routes.
05Connect separation methods to a usable gas specification.
A PEM fuel cell has two current paths, a selective electrolyte and a demanding water balance. Understand what happens inside the cell, and what changes at system level.
7 min read · With referencesRead the explanationEthanol steam reforming, competing reactions, catalyst selection and membrane separation, with a careful look at heat demand and carbon accounting.
Read the guideCompare pressure swing adsorption and hydrogen-selective membranes by purity, recovery, product pressure, pretreatment and system economics.
Read the guideWhy PEM fuel cells need contaminant-specific limits, how trace gases affect performance, and what a useful hydrogen quality specification includes.
Read the guideThe European FluidCELL project studied bioethanol reforming, hydrogen-selective membranes and fuel-cell micro-CHP. The project is closed. This independent publication preserves its research context and explains the underlying technologies.