Litcius/Paper detail

Intensified Continuous Flow Process for the Scalable Production of Bio‐Based Glycerol Carbonate**

Claire Muzyka, Sébastien Renson, Bruno Grignard, Christophe Detrembleur, Jean‐Christophe M. Monbaliu

2024Angewandte Chemie International Edition28 citationsDOIOpen Access PDF

Abstract

Abstract A subtle combination of fundamental and applied organic chemistry toward process intensification is demonstrated for the large‐scale production of bio‐based glycerol carbonate under flow conditions. The direct carbonation of bio‐based glycidol with CO 2 is successfully carried out under intensified flow conditions, with Barton's base as a potent homogeneous organocatalyst. Process metrics for the CO 2 coupling step (for the upstream production, output: 3.6 kg day −1 , Space Time Yield (STY): 2.7 kg h −1 L −1 , Environmental factor (E‐factor): 4.7) outclass previous reports. High conversion and selectivity are achieved in less than 30 s of residence time at pilot scale with a stoichiometric amount of CO 2 . Supporting DFT computations reveal the unique features of the mechanism in presence of Brønsted bases.

Topics & Concepts

CarbonateGlycerolProduction (economics)Continuous flowProcess engineeringProcess (computing)Flow (mathematics)ScalabilityPulp and paper industryEnvironmental scienceContinuous productionBiochemical engineeringPetroleum engineeringChemistryComputer scienceEnvironmental engineeringGeologyEngineeringMechanicsOrganic chemistryEconomicsPhysicsMacroeconomicsDatabaseOperating systemCarbon dioxide utilization in catalysisCatalysis for Biomass ConversionChemistry and Chemical Engineering