Improving Process Design for Reaching Energy Efficiency, Environmentally Friendly, and Producing High Purity Methyl Chloride of Dehydrochlorination Process of Methanol and Hydrogen Chloride

Muhammad Nuzul Ramadhani, Faisal Adhi Darmawan, Fatimah Mauludiyah, Muhammad Rizal Aditya Nugraha
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Abstract

Methyl chloride, also known as chloromethane, plays a vital role in producing various industrial goods. The current demand for methyl chloride in Indonesia exceeds production levels, making the design of a methyl chloride plant essential. This research focuses on improving methyl chloride production economically and operationally by exploring plant design using simulations that emphasize energy efficiency and high purity. The objective of this research is to develop a process design for producing methyl chloride from methanol and hydrogen chloride, aiming for energy efficiency, an environmentally friendly factory, and high-purity methyl chloride products. The research employed an iterative simulation method to compare the basic and modified processes for methyl chloride production. The process involved constructing a simulation model using Aspen HYSYS, analyzing the simulation results using Aspen Energy Analyzer V12, and iteratively adjusting process parameters until achieving the desired performance or results. The research findings indicate that the methyl chloride modification process exhibits a lower energy requirement compared to the methyl chloride base process. Moreover, the modification process demonstrates minimal carbon emissions, establishing it as a sustainable and environmentally friendly design. Additionally, the methyl chloride produced in the modification process achieves a higher percentage of purity. In the initial process, the methyl chloride purity stood at 98.17%, while in the modified process, it saw an elevation to 99.35%. Considering these three aspects, the modification process is conclusively more efficient than the basic process system. Copyright © 2024 by Authors, Published by Universitas Diponegoro and BCREC Publishing Group. This is an open access article under the CC BY-SA License (https://creativecommons.org/licenses/by-sa/4.0).
改进工艺设计,实现甲醇和氯化氢脱氢氯化工艺的节能、环保和高纯度氯甲烷生产
氯甲烷又称氯甲烷,在生产各种工业产品中发挥着重要作用。目前,印度尼西亚对一氯甲烷的需求超过了生产水平,因此设计一氯甲烷工厂至关重要。本研究的重点是通过使用强调能源效率和高纯度的模拟来探索工厂设计,从而提高甲基氯化物生产的经济性和可操作性。本研究的目标是开发一种利用甲醇和氯化氢生产氯化甲烷的工艺设计,旨在提高能效、建设环保型工厂和生产高纯度的氯化甲烷产品。研究采用了迭代模拟法,对基本工艺和改进后的工艺进行比较。该过程包括使用 Aspen HYSYS 构建模拟模型,使用 Aspen Energy Analyzer V12 分析模拟结果,并反复调整工艺参数,直至达到预期性能或结果。研究结果表明,与氯甲烷基础工艺相比,氯甲烷改性工艺的能源需求更低。此外,改性工艺的碳排放量极低,是一种可持续的环保设计。此外,改性工艺生产的氯化甲烷纯度更高。在初始工艺中,氯化甲烷的纯度为 98.17%,而在改良工艺中,纯度提高到了 99.35%。从这三个方面来看,改良工艺确实比基本工艺系统更有效率。作者版权所有 © 2024 年,由 Diponegoro 大学和 BCREC 出版集团出版。本文采用 CC BY-SA 许可协议 (https://creativecommons.org/licenses/by-sa/4.0) 公开发表。
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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