Currently, DME is commercially produced through an indirect, two-step process involving the production of methanol and its subsequent dehydration. This process is energy intensive and requires substantial capital and infrastructure investments. CO2Fokus will demonstrate the viability of a single-step process involving the direct and continuous synthesis of DME from industrial CO2 and H2 in a more efficient way. The project will develop cutting-edge technology able to directly convert industrial CO2 into DME, a valuable gas extensively used in the chemical and energy sectors fostering an alternative to fossil fuel derived feedstock by: employing innovative 3D printed multichannel catalytic reactors with > 30 tubes, > 1500 N L/h CO2/H2 feed, > 30 % CO2 conversion optimising solid oxide electrolyser cells with a power consumption of ca. 3.5 kW in co-electrolysis mode and 50 % conversion. integrating and testing them in an industrial environment of large industrial CO2 point sources

CO2 utilisation focused on market relevant dimethyl ether production, via 3D printed reactor and solid oxide cell based technologies

G Bonura;
2019

Abstract

Currently, DME is commercially produced through an indirect, two-step process involving the production of methanol and its subsequent dehydration. This process is energy intensive and requires substantial capital and infrastructure investments. CO2Fokus will demonstrate the viability of a single-step process involving the direct and continuous synthesis of DME from industrial CO2 and H2 in a more efficient way. The project will develop cutting-edge technology able to directly convert industrial CO2 into DME, a valuable gas extensively used in the chemical and energy sectors fostering an alternative to fossil fuel derived feedstock by: employing innovative 3D printed multichannel catalytic reactors with > 30 tubes, > 1500 N L/h CO2/H2 feed, > 30 % CO2 conversion optimising solid oxide electrolyser cells with a power consumption of ca. 3.5 kW in co-electrolysis mode and 50 % conversion. integrating and testing them in an industrial environment of large industrial CO2 point sources
2019
Istituto di Tecnologie Avanzate per l'Energia - ITAE
CCU
CO2 hydrogenation
DME
3d reactor
SOFC
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Utilizza questo identificativo per citare o creare un link a questo documento: https://hdl.handle.net/20.500.14243/423922
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