Introductory Chapter: An Insight into Fascinating Potential of Magnesium

S. Tekumalla, M. Gupta
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引用次数: 3

Abstract

The name, magnesium (Mg), was derived from an ancient city in Greece called “Magnesia”where magnesium carbonate was first discovered. It was first isolated in its elemental form by English chemist Sir Humphry Davy in 1808 [1]. In the earth’s crust, magnesium is the sixth most abundant element and occurs in over 60 different minerals with at least 20% of Mg within them. Most commercially important of these minerals include dolomite, magnesite, brucite, and carnallite. Principally, magnesium is extracted from its minerals using a thermal reduction process [2]. Magnesium is also the third most abundant metal ion in seawater. Despite magnesium being only 0.13% of seawater, seawater remains an almost inexhaustible source for its extraction. Magnesium is extracted from seawater or brine using the electrolytic process of magnesium chloride [2]. Of the two extraction processes, the thermal reduction process is known to yield a higher purity of 99.99%, while the electrolysis process can achieve purity limited to 99.8%. Until the 1990s, the USA and Canada dominated the production of magnesium; however, the industrial revolution in China in the late 1990s turned the tables for magnesium production due to its lower operational (energy and labor) costs. It is estimated that 85% of the global magnesium production is currently done by China, and most of the remainder is produced by Russia, Turkey, Spain, Austria, etc. [3].
导论章:对镁的迷人潜力的洞察
镁(Mg)这个名字来源于希腊一个名叫“Magnesia”的古城,在那里碳酸镁首次被发现。1808年,英国化学家汉弗莱·戴维爵士(Sir Humphry Davy)首次以元素形式分离出它[1]。在地壳中,镁是含量第六丰富的元素,存在于60多种不同的矿物质中,其中至少含有20%的镁。这些矿物中最具商业价值的有白云石、菱镁矿、水镁石和光卤石。镁主要是通过热还原过程从矿物质中提取的[2]。镁也是海水中含量第三高的金属离子。尽管镁只占海水的0.13%,但海水仍然是提取镁的取之不尽的资源。镁是从海水或卤水中采用氯化镁电解工艺提取的[2]。在两种提取工艺中,已知热还原工艺的纯度较高,达到99.99%,而电解工艺的纯度限制在99.8%。直到20世纪90年代,镁的生产一直由美国和加拿大主导;然而,20世纪90年代末中国的工业革命扭转了镁生产的局面,因为它的运营(能源和劳动力)成本较低。据估计,目前全球85%的镁产量由中国完成,其余大部分由俄罗斯、土耳其、西班牙、奥地利等国生产[3]。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
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