Teitl: Computational study of zeolites as catalysts for the chemical conversion of lignin-derived compounds
Arianwyr
Engineering and Physical Sciences Research Council
Prif Ymchwiliwr
Nid oes unrhyw wrthrychau ar gael ar hyn o bryd
Cyd-Ymchwilwyr
Catlow, Richard
De Leeuw, Nora
Manylion y Prosiect
Dyddiad dechrau: 07.04.2014
Dyddiad gorffen: 30.03.2018
Crynodeb
The project is aimed at studying the availability of zeolites to act as catalysts in the chemical conversion of lignin-derived compounds. Lignin is one of the main components of the biomass together with cellulose and hemicellulose. However, its optimum use as fuel and/or source of more valuable chemicals is limited by its high degree of polymerization and oxygen content. Hence, effective catalytic methods are necessary to firstly depolymerize the lignin, and then process the resultant set of chemical building blocks.
The project focuses mainly on the aftermath of the depolymerisation, which means, the processing of the lignin-derived compounds using zeolites as catalysts. Zeolites gather several features that make this kind of material a good candidate: (i) environmentally friendly, (ii) possess a crystalline structure thermally stable, (iii) impose molecular size selectivity with their micropore system, (iv) additional electronic and acidic characteristics are introduced through chemical modifications, to just mention few examples. We consider that the computational chemistry tools applied on our theoretical models and powered by High Performance Computing Clusters, may help to understand the existing experimental data, and design new zeolite-based catalysts.
Setiau Data Cysylltiedig
- Mercury Exchange in Zeolites Na-A and Na-Y Studied by Classical Molecular Dynamics Simulations and Ion Exchange Experiments - data (2021)
- Molecular behaviour of phenol in zeolite Beta catalysts as a function of acid site presence: a quasielastic neutron scattering and molecular dynamics simulation study - data (2019)
- Nanostructured zeolite with brain-coral morphology and tailored acidity: A self-organized hierarchical porous material with MFI topology - data (2020)
- Quasielastic Neutron Scattering and Molecular Dynamics Simulation Study on the Molecular Behaviour of Catechol in Zeolite Beta - data (2020)