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Experimental research on ethanol-chemistry decomposition routes in a microwave plasma torch for hydrogen production

机译:微波等离子体炬制氢中乙醇化学分解路线的实验研究

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The study of ethanol decomposition process to produce hydrogen using an argon microwave plasma sustained by a Torche a Injection Axiale sur Guide d'Ondes opened to the atmosphere is presented. Different species in the discharge as well as by-products were detected depending on the amounts of both argon and ethanol flows used to sustain the discharge, which were related to the relative influence of air from the atmosphere surrounding the discharge. Furthermore, plasma gas temperature value was found to have a noticeable influence on ethanol decomposition chemistry; giving place to two different ethanol decomposition routes: (i) for higher temperatures (>4500 K), ethanol decomposition produced H-2, CO and carbon powder, whereas, (ii) at lower gas temperature (<4500 K), ethanol was mainly decomposed forming H-2, H2O and CO with CO2. These results indicate that the complete ethanol decomposition by means of a microwave plasma sustained with high gas temperatures results in the production of hydrogen through a clean and simple process. (C) 2015 Elsevier B.V. All rights reserved.
机译:提出了使用氩气微波等离子体对乙醇分解过程生产氢气的方法,该等离子体由向大气开放的Torche a Injection Axiale射流维持。根据用于维持放电的氩气和乙醇流的量,检测到放电中的不同种类以及副产物,这与放电周围环境中空气的相对影响有关。此外,发现等离子气体温度值对乙醇分解化学有显着影响。给出了两种不同的乙醇分解途径:(i)在较高温度(> 4500 K)下,乙醇分解产生H-2,CO和碳粉,而(ii)在较低气体温度下(<4500 K),乙醇为主要分解为H-2,H2O和CO。这些结果表明通过在高气体温度下维持的微波等离子体的乙醇的完全分解导致通过清洁和简单的过程产生氢。 (C)2015 Elsevier B.V.保留所有权利。

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