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Recent advances in 3D printing for continuous flow chemistry

Mireia Benito Montaner, Stephen T. Hilton

2024Current Opinion in Green and Sustainable Chemistry15 citationsDOIOpen Access PDF

Abstract

Continuous flow processes have distinct advantages over batch chemistry when it comes to long-term sustainability in the chemical industry, and they are widely acknowledged as being a greener approach to synthesis. However, despite this, the high costs and complexity of current commercial systems act as barriers to entry in this key technology for new entrants, stymieing chemists transition to continuous flow. In this overview, we discuss how 3D printing has emerged as a transformative force for chemists seeking to move into continuous flow. Alongside the physical equipment and microreactors, recent reports on incorporation of catalysts into 3D-printed reactors offers great promise for recyclability and environmental sustainability and the combined convergence of 3D printing and catalysis represents a transformative shift towards environmentally conscious, efficient, and standardized chemical processes in continuous flow.

Topics & Concepts

MicroreactorContinuous flowFlow chemistryTransformative learning3D printingSustainabilityNanotechnologyReactor designIndustrial ecologyComputer scienceChemistryProcess engineeringBiochemical engineeringEngineeringMaterials scienceCatalysisMechanical engineeringSociologyEcologyNuclear engineeringPedagogyBiologyBiochemistryInnovative Microfluidic and Catalytic Techniques InnovationMicrofluidic and Capillary Electrophoresis ApplicationsNanomaterials for catalytic reactions
Recent advances in 3D printing for continuous flow chemistry | Litcius