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首页> 外文期刊>Chemical Engineering Science >Pre-reforming of higher hydrocarbons contained associated gas using a pressurized reactor with a Ni-19.5-Ru-0.05/CGO catalyst
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Pre-reforming of higher hydrocarbons contained associated gas using a pressurized reactor with a Ni-19.5-Ru-0.05/CGO catalyst

机译:使用加压反应器含有氢化物反应器的较高烃的预重量含有Ni-19.5-ru-0.05 /cgγ催化剂的相关气体

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摘要

In this paper, we investigated the use of Ni-19.5-Ru-0.05/CGO as catalysts for associated gas pre-reforming to convert higher hydrocarbon and obtain higher methane content. To increase the content of methane, we perform catalytic pre-reforming experiments at 8 bars. Ni-Ru/CGO fully converted the C-2-C-5 hydrocarbons at 500 degrees C. However, the conversion of C-2-C-5 hydrocarbons decreased from 100% to 80% as the SCR decreased from 3.0 to 1.0. Catalytic degradation occurred at temperatures below 300 degrees C. Comparing the commercial pre-reforming catalyst (C11PR, produced by Stid-Chemie) with Ni-Ru/CGO catalysts, Ni-Ru/CGO outperformed C11PR under the same conditions. We performed long-term tests with Ni-Ru/CGO. Each long-term test lasted over 900 h. Initially, the methane yield was approximately 60%, and the higher hydrocarbons were fully converted. After 900 h, the methane yield was approximately 55%, and dramatically reaching to 50% at 920 h. Simultaneously, the C-2-C-5 hydrocarbon yield increased to approximately 8%. After the long-term test, we analyzed the tested catalysts and determined that catalytic degradation occurred due to carbon deposition on the catalyst surface. (C) 2017 Elsevier Ltd. All rights reserved.
机译:在本文中,我们研究了使用Ni-19.5-Ru-0.05 /CμAS作为催化剂的催化剂,用于相关的气体预重量,以转化更高的烃并获得更高的甲烷含量。为了增加甲烷的含量,我们在8巴中进行催化预重量实验。 Ni-Ru / Cge完全转化为500℃的C-2-C-5烃。然而,C-2-C-5烃的转化从100%降低到80%,因为SCR从3.0降至1.0。催化降解在低于300℃的温度下发生。比较与Ni-Ru / Cgo催化剂的商业预重量催化剂(C11Pr,由STID-Chemie制备的C11PR),Ni-Ru /Cgγ在相同条件下表现优于C11pr。我们用Ni-Ru / Cgo进行了长期测试。每个长期测试持续超过900小时。最初,甲烷产率约为60%,较高的烃完全转化。在900小时后,甲烷产率约为55%,在920小时下显着达到50%。同时,C-2-C-5烃产率升高至约8%。在长期试验之后,我们分析了测试的催化剂并确定由于催化剂表面上的碳沉积而发生催化降解。 (c)2017 Elsevier Ltd.保留所有权利。

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