Formation and application of hydrogen in non-ferrous metallurgy

S. Stopić, B. Friedrich
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Abstract

Introduction/purpose: Hydrogen is the most abundant element in the universe (75 % by mass) and the lightest element (with a density of 0.00082 g/cm3 ) which consists of only one proton and one electron. Because of its presence in many different forms such as gaseous hydrogen, its plasma species, water, acid, alkaline, ammonia and hydrocarbons, it has various applications in different industrial disciplines. Methods: Different hydrometallurgical and pyrometallurgical methods are considered in order to point out many different processes such as formation of hydrogen, reduction of metallic oxides and chlorides, and electrochemical reactions such as hydrogen overvoltage and the spillover effect. Ultrasonic spray pyrolysis enables the formation of very fine aerosols which can be used for the production of metallic powders. Results: Hydrogen formation was observed during the dissolution of metallic alloys with hydrochloric acid. The reduction of metallic oxides and metallic chlorides by hydrogen leads to the formation of metallic powders. Metallic powders were collected by a new developed electrostatic precipitator. Conclusion: Hydrogen can be applied in different reduction processes for the production of metallic powders. Recycling processes can be used for the formation of hydrogen. A new research strategy for powder production is proposed combining recycling of the black mass of used Li-Ion batteries, ultrasonic spray pyrolysis, and hydrogen reduction.
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氢在有色冶金中的形成及应用
简介/用途:氢是宇宙中最丰富的元素(占质量的75%),也是最轻的元素(密度为0.00082 g/cm3),仅由一个质子和一个电子组成。由于它以许多不同的形式存在,如气态氢、等离子体、水、酸、碱、氨和碳氢化合物,它在不同的工业领域有各种应用。方法:考虑了不同的湿法冶金和火法冶金方法,以指出许多不同的过程,如氢的形成,金属氧化物和氯化物的还原,以及氢过电压和溢出效应等电化学反应。超声波喷雾热解能够形成非常细的气溶胶,可用于生产金属粉末。结果:金属合金在盐酸溶解过程中有生成氢的现象。氢对金属氧化物和金属氯化物的还原作用导致金属粉末的形成。采用新研制的静电除尘器对金属粉末进行了除尘。结论:氢可以应用于金属粉末生产的不同还原工艺。回收过程可用于氢气的形成。提出了将废旧锂离子电池黑质回收、超声波喷雾热解和氢还原相结合的粉末生产新研究策略。
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发文量
24
审稿时长
12 weeks
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