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Scaling-up the Calcium-Looping Process for CO2 Capture and Energy Storage

Authors

ORTIZ DOMÍNGUEZ, CARLOS, Valverde Millán, José Manuel , Chacartegui, Ricardo , Perez Maqueda, Luis A. , Gimenez Gavarrel, Pau

External publication

No

Means

KONA Powder Part. J.

Scope

Article

Nature

Científica

JCR Quartile

SJR Quartile

JCR Impact

3.919

SJR Impact

0.475

Publication date

11/01/2021

ISI

000702827000004

Scopus Id

2-s2.0-85098602932

Abstract

The Calcium-Looping (CaL) process has emerged in the last years as a promising technology to face two key challenges within the future energy scenario: energy storage in renewable energy-based plants and CO2 capture from fossil fuel combustion. Based on the multicycle calcination-carbonation reaction of CaCO3 for both thermochemical energy storage and post-combustion CO2 capture applications, the operating conditions for each application may involve remarkably different characteristics regarding kinetics, heat transfer and material multicycle activity performance. The novelty and urgency of developing these applications demand an important effort to overcome serious issues, most of them related to gas-solids reactions and material handling. This work reviews the latest results from international research projects including a critical assessment of the technology needed to scale up the process. A set of equipment and methods already proved as well as those requiring further demonstration are discussed. An emphasis is put on critical equipment such as gas-solids reactors for both calcination and carbonation, power block integration, gas and solids conveying systems and auxiliary equipment for both energy storage and CO2 capture CaL applications. © 2021 The Authors.

Keywords

Auxiliary equipment; Calcination; Calcite; Calcium; Calcium carbonate; Carbon dioxide; Combustion; Fossil fuels; Fuel storage; Heat transfer performance; Heating equipment; Reaction kinetics; Carbonation reactions; Critical assessment; Fossil fuel combustion; Gas-solids reaction; International researches; Operating condition; Renewable energies; Thermochemical energy storage; Energy storage

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