The present work deals with the design, manufacturing (by Laser Powder Bed Fusion), characterization, and catalytic activation (by a washcoating method) of Periodical Cellular Structures (POCS) 3D-printed in a cylindrical shape (Ø = 1cm, Length = 1.5 cm), in different materials (Al-, Cu-, Ni-alloys) and with various structural parameters (porosity, density, cell type and strut dimensions). The general aim is to intensify the ammonia synthesis throughout the development of structured catalysts with geometries that allow the integration with ammonia selective membranes in a membrane-based reactor to increase productivity at low temperatures (250-300°C) and pressure (20-25bar)
Catalyst structuring is a key technology in the chemical process intensification toolbox. By changin...
Polymer Electrolyte Membrane Fuel Cells (PEMFC) are arguably the most robust and integrated into var...
Modern catalysts for internal combustion engine applications are traditionally constituted by honeyc...
This work presents an example of the design and manufacture capabilities that 3D printing can introd...
Polyhedral open cell lattice catalyst substrates are proposed based on results of numerical simulati...
Aluminum periodic open cellular structures (POCS) of cylindrical shape (9 mm diameter and 4−25 mm le...
Additive manufacturing by 3D printing comprises a set of methods for production of 3D objects starti...
Additive manufacturing of catalyst and sorbent materials promises to unlock large design freedom in ...
Small-scale, intensified chemical reactors (i.e., process intensification) mediated by structured ca...
The morphology of heterogeneous catalysts can impact their performance. However, standard manufactur...
The presented work addresses the need for dedicated reactor concepts for highly sophisticated reacti...
3D printing of materials with active functional groups can provide customdesigned structures that pr...
In this work, we propose a novel methodology for the evaluation of the external mass transfer proper...
Catalyst structuring is a key technology in the chemical process intensification toolbox. By changin...
Polymer Electrolyte Membrane Fuel Cells (PEMFC) are arguably the most robust and integrated into var...
Modern catalysts for internal combustion engine applications are traditionally constituted by honeyc...
This work presents an example of the design and manufacture capabilities that 3D printing can introd...
Polyhedral open cell lattice catalyst substrates are proposed based on results of numerical simulati...
Aluminum periodic open cellular structures (POCS) of cylindrical shape (9 mm diameter and 4−25 mm le...
Additive manufacturing by 3D printing comprises a set of methods for production of 3D objects starti...
Additive manufacturing of catalyst and sorbent materials promises to unlock large design freedom in ...
Small-scale, intensified chemical reactors (i.e., process intensification) mediated by structured ca...
The morphology of heterogeneous catalysts can impact their performance. However, standard manufactur...
The presented work addresses the need for dedicated reactor concepts for highly sophisticated reacti...
3D printing of materials with active functional groups can provide customdesigned structures that pr...
In this work, we propose a novel methodology for the evaluation of the external mass transfer proper...
Catalyst structuring is a key technology in the chemical process intensification toolbox. By changin...
Polymer Electrolyte Membrane Fuel Cells (PEMFC) are arguably the most robust and integrated into var...
Modern catalysts for internal combustion engine applications are traditionally constituted by honeyc...