西门子法副产物二氯硅烷生产硅烷:与三氯硅烷路线的比较研究

IF 11.9
Zi-Yi Chi, Peng-Bo Bai, Wen-De Xiao, Ming-Dong Zhou and Xue-Gang Li
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引用次数: 0

摘要

硅烷(SiH4)是半导体和可再生能源技术的关键电子特种气体,传统上是通过三氯硅烷(TCS)歧化生产的。本研究介绍了利用西门子工艺副产物二氯硅烷(DCS)的创新路线,并对反应精馏(RD)和固定床反应器(FBR)方法进行了比较分析。过程模拟表明,在给定TCS作为原料和相同硅烷输出的情况下,RD方法通过连续去除产物克服热力学平衡,将能耗降低到传统快堆系统的25%。当采用研发方法时,使用DCS作为原料的能耗可以减少到使用TCS时的35%或22%左右,这取决于主要副产品是四氯化硅(STC)还是TCS。这种改进源于DCS歧化的优越的热力学和动力学性质。最佳工艺配置取决于硅烷生产工艺是否与西门子工艺或基层设施集成。关键词:硅烷;二氯甲硅烷;反应蒸馏;歧化;过程模拟。
本文章由计算机程序翻译,如有差异,请以英文原文为准。

Silane production from the dichlorosilane by-product of the Siemens process: a comparative study with the trichlorosilane route

Silane production from the dichlorosilane by-product of the Siemens process: a comparative study with the trichlorosilane route

Silane (SiH4), a critical electronic specialty gas for semiconductor and renewable energy technologies, is conventionally produced via trichlorosilane (TCS) disproportionation. This study introduced an innovative route utilizing dichlorosilane (DCS), a by-product of the Siemens process, and comparative analysis was also conducted between the reactive distillation (RD) and fixed-bed reactor (FBR) approaches. Process simulations demonstrate that, given TCS as the feedstock and the same silane output, the RD approach reduces energy consumption to <25% of conventional FBR systems by overcoming thermodynamic equilibrium through continuous product removal. When employing the RD approach, the energy consumption using DCS as the feedstock can be reduced to approximately 35% or 22% of that when TCS is utilized, depending on whether the main by-product is silicon tetrachloride (STC) or TCS. This improvement stems from the superior thermodynamic and kinetic properties of DCS disproportionation. The optimal process configuration depends on whether the silane production process is integrated with the Siemens process or a grassroots facility.

Keywords: Silane; Dichlorosilane; Reactive distillation; Disproportionation; Process simulation.

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来源期刊
Industrial Chemistry & Materials
Industrial Chemistry & Materials chemistry, chemical engineering, functional materials, energy, etc.-
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期刊介绍: Industrial Chemistry & Materials (ICM) publishes significant innovative research and major technological breakthroughs in all aspects of industrial chemistry and materials, with a particular focus on the important innovation of low-carbon chemical industry, energy and functional materials. By bringing researchers, engineers, and policymakers into one place, research is inspired, challenges are solved and the applications of science and technology are accelerated. The global editorial and advisory board members are valued experts in the community. With their support, the rigorous editorial practices and dissemination ensures your research is accessible and discoverable on a global scale. Industrial Chemistry & Materials publishes: ● Communications ● Full papers ● Minireviews ● Reviews ● Perspectives ● Comments
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