Molten salts-modified MgO-based adsorbents for intermediate-temperature CO2 capture: A review

Abstract

Smart adsorbents for CO 2 capture: Making strong adsorption sites respond to visible light SCIENCE CHINA Materials A flexible metal-organic framework with double interpenetration for highly selective CO 2 capture at room temperature SCIENCE CHINA Chemistry 59, 965 (2016); Preparation and kinetic analysis of Li 4 SiO 4 sorbents with different silicon sources for high temperature CO 2 capture

Thermochemical Energy Storage using LiNO3‐Doped Mg(OH)2: A Dehydration Study

“…[44] Thes alt additive provides better ion mobility within the reaction interface,w hich helps to relax the mechanical stresses,a nd therefore the coarserM gO particles are formed. Thep roposed explanation resembles the dissolution-crystallization mechanism for MgO-based CO 2 sorbents promoted by alkali metal nitrates, [45] althoughi no ur study we consider decomposition rather than sorption.…”

A facile Solvent/Nonsolvent Preparation of Sintering‐Resistant MgO/CaO Composites for High‐Temperature CO2 Capture

“…The main reason for this decrease is the addition of MgO, which is inert for CO 2 capture at such a high temperature. [29] In spite of this initial gap, the cyclic stability for CO 2 uptake was improved by the addition of MgO, who has a high Tammann temperature (T Tammann = 1290°C) and surpass the sintering of CaO. Particularly, Mg/Ca-0.2, Mg/Ca-0.3, and Mg/Ca-0.4 exhibited remarkably improved cycling stability compared with CaAc 2 À CaO.…”

Analysis of CO2 utilization into synthesis gas based on solar thermochemical CH4-reforming

“…In recent years, several strategies including technical-scientific and political communities have been developed to control the accumulation of the atmospheric CO 2 . Among the growing effort s developed, CO 2 Capture and Storage (CCS) technology is considered as an effective and sustainable option to mitigate greenhouse gas (CO 2 ) emissions from human activities [2][3][4] . The CCS can reduce the global warming potential (GWP) from power plants by 63 %-82% [4] .…”