Carbon Sequestration Reaction Using Magnesium Silicate – A Quantum Molecular Dynamics Study
POSTER
Abstract
With rising greenhouse gas emissions, sustainable energy technologies have become crucial now more than ever. Carbon dioxide being the most important of all greenhouse gases. It was proposed by Seifritz in 1990 [1] that carbon dioxide could be sequestered by silicate minerals resulting in the formation of carbonates. In this study, using quantum molecular dynamics, we show the dynamics of MgCO3 formation by reaction of hydrated carbon dioxide (H2CO3) with MgSiO3. In addition to the carbonate of magnesium the reaction also produces water and the formation of Si-O-Si bonds. With the available technology today, it is feasible to dig up large quantities of Silicates from the Earth’s surface making this a very efficient method of carbon sequestration.
[1] W Seifritz, CO2 Disposal by Means of Silicates, Nature 345, 486 (1990).
[1] W Seifritz, CO2 Disposal by Means of Silicates, Nature 345, 486 (1990).
* This Research was supported by the U.S. Department of Energy, Office of Basic Energy Sciences, Division of Materials Sciences and Engineering, Neutron Scattering and Instrumentation Sciences program under Award DE‐SC0023146.
Presenters
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Nitish Baradwaj
University of Southern California
Authors
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Nitish Baradwaj
University of Southern California
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Ken-ichi Nomurra
University of Southern California, Univ of Southern California
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Aiichiro Nakano
University of Southern California
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Rajiv K Kalia
University of Southern California, Univ of Southern California
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Priya Vashishta
University of Southern California