3-D Geological Mapping of Rocks Potentially Suitable for Capturing Carbon Dioxide from the Atmosphere

Agterberg Fp
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Abstract

Rapid increase of the Anthropocene ambient air CO2 concentration value is the main cause of the 1.2 o C global temperature rise creating the recent adverse climate and weather changes. Promising new methods to capture CO2 from the air are being developed but remain too expensive for worldwide applications. Mantle-derived rocks, primarily basalts, peridotites and serpentinites are likely to play an important role in future CO2 reduction because of relatively rapid disintegration of minerals (including olivine and serpentine) in these rocks potentially resulting in widespread CO2 capture. Examples to be discussed include artificially enhanced carbonization of water emitted from ophiolites, and acid dissolution of serpentinites resulting in indirect mineral carbonation by optimizing temperature and pressure conditions. Reconstruction of a large cone-shaped body of serpentinite situated within the Mount Albert peridotite intrusion in Québec is presented as an example of the rôle 3-D geologic mapping can play in future CO2 reduction efforts.
可能适合从大气中捕获二氧化碳的岩石的三维地质测绘
人类世大气CO2浓度值的快速升高是全球气温上升1.2℃的主要原因,造成了近期不利的气候和天气变化。从空气中捕获二氧化碳的新方法正在开发中,但仍过于昂贵,无法在全球范围内应用。幔源岩,主要是玄武岩、橄榄岩和蛇纹岩,可能在未来的二氧化碳减少中发挥重要作用,因为这些岩石中的矿物(包括橄榄石和蛇纹岩)的相对快速分解可能导致广泛的二氧化碳捕获。要讨论的例子包括人工增强蛇绿岩排放的水的碳化,以及通过优化温度和压力条件导致蛇纹岩的酸溶解导致间接矿物碳化。本文介绍了在qusamubec的Mount Albert橄榄岩侵入体中重建的大型锥形蛇纹岩体,作为rôle三维地质填图在未来二氧化碳减排工作中发挥作用的一个例子。
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