Reduction Kinetics of a High Load Cu-based Pellet Suitable for Ca/Cu Chemical Loops

A Cu-loaded pellet presenting 60 wt % Cu has been synthesized via impregnation of an alumina support. The base material shows a relatively low surface area and EDX analysis revealed that CuO is well-distributed across the particles. Cylindrical pellets have been produced from the original impregnate...

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Veröffentlicht in:Industrial & engineering chemistry research 2013-01, Vol.52 (4), p.1481-1490
Hauptverfasser: García-Lario, Ana L, Martínez, Isabel, Murillo, Ramón, Grasa, Gemma, Fernández, J. Ramón, Abanades, J. Carlos
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container_end_page 1490
container_issue 4
container_start_page 1481
container_title Industrial & engineering chemistry research
container_volume 52
creator García-Lario, Ana L
Martínez, Isabel
Murillo, Ramón
Grasa, Gemma
Fernández, J. Ramón
Abanades, J. Carlos
description A Cu-loaded pellet presenting 60 wt % Cu has been synthesized via impregnation of an alumina support. The base material shows a relatively low surface area and EDX analysis revealed that CuO is well-distributed across the particles. Cylindrical pellets have been produced from the original impregnated particles in order to reduce the typical pressure drop that would occur operating in fixed bed reactors in a novel Ca/Cu chemical looping system for hydrogen production and/or power generation. The materials have been characterized, and their reactivity with CH4, CO, and H2 was determined. Regardless of the gas used, a full reduction of CuO occurs and the oxygen transport capacity of the material is not affected by the number of cycles. The kinetic parameters for the reduction reactions of CuO in this material were calculated and are consistent with the data presented in the literature. A shrinking core model at particle level fit the experimental results available for the pellet.
doi_str_mv 10.1021/ie3012598
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source ACS Publications
subjects ALUMINUM OXIDE
Carbon monoxide
Copper
COPPER OXIDE
KINETICS
MATHEMATICAL ANALYSIS
Mathematical models
MICA
PELLETS
Pressure drop
Reduction
Shrinking core model
title Reduction Kinetics of a High Load Cu-based Pellet Suitable for Ca/Cu Chemical Loops
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