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3D Modeling of a Catalyst Layer with Transport Pores for Fischer‐Tropsch Synthesis
Liquid‐filled pores of Fischer‐Tropsch catalyst lead to slow diffusion of the reactants and can cause internal transport limitations leading to a significant decrease of selectivity and productivity. As an approach to overcome these limitations, transport pores can be added to provide an additional pathway for mass transport. In this work, a 3D isothermal model was developed, which takes the effect of concentration gradients within the transport pores into account. A comparison with a 1D model showed, that a description by a 3D model is necessary for transport pores with diameters larger than 10 µm.
3D Modeling of a Catalyst Layer with Transport Pores for Fischer‐Tropsch Synthesis
Liquid‐filled pores of Fischer‐Tropsch catalyst lead to slow diffusion of the reactants and can cause internal transport limitations leading to a significant decrease of selectivity and productivity. As an approach to overcome these limitations, transport pores can be added to provide an additional pathway for mass transport. In this work, a 3D isothermal model was developed, which takes the effect of concentration gradients within the transport pores into account. A comparison with a 1D model showed, that a description by a 3D model is necessary for transport pores with diameters larger than 10 µm.
3D Modeling of a Catalyst Layer with Transport Pores for Fischer‐Tropsch Synthesis
Bufe, Alexander (author) / Klee, Matthias (author) / Wehinger, Gregor (author) / Turek, Thomas (author) / Brenner, Gunther (author)
Chemie Ingenieur Technik ; 89 ; 1385-1390
2017-10-01
6 pages
Article (Journal)
Electronic Resource
English
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