多蒸汽压缩机,提高性能和节省成本的真空膜蒸馏

Suhaib M. Alawad , Osman Shamet , Dahiru Lawal , Atia E. Khalifa
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引用次数: 0

摘要

本文研究了多级真空膜蒸馏(MSVMD)系统与多个机械蒸汽压缩机(MVCs)集成的性能,以提高能量回收和提高成本效益。对六种不同的VMD配置进行了综合分析,以评估关键性能指标,包括系统生产率、比能耗(SEC)和产水成本。此外,通过详细的参数研究,考察了进料温度、真空压力和压缩机效率等操作参数的影响。结果表明,在进料温度为90°C时,将10个MVC集成到VMD系统中可以实现1045 L/h的最大淡水产量,与单个MVC系统相比,增加了297 %。记录的最低SEC为78 kWh/m³ ,使用6个mvc,压缩机效率为90% %,最低产水成本为6.3美元/m³ 。然而,进一步的分析表明,虽然增加mvc的数量可以提高生产率和能源效率,但由于压缩机的初始成本较高,它也增加了资本投资。运行成本主要取决于电力消耗,而由于额外的维修要求,维护成本随着压缩机数量的增加而上升。一项成本效益分析表明,超过10个mvc,生产率的边际收益被成本上升所抵消,这表明了节能与经济可行性之间的最佳平衡。该研究为MVCs与VMD相结合的经济和运营权衡提供了有价值的见解,为大规模海水淡化和水处理应用提供了可行的途径。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Multiple vapor compressors for enhanced performance and cost savings in vacuum membrane distillation
This study investigates the performance of a multistage vacuum membrane distillation (MSVMD) system integrated with multiple mechanical vapor compressors (MVCs) to enhance energy recovery and improve cost-effectiveness. A comprehensive analysis is conducted to evaluate key performance indicators, including system productivity, specific energy consumption (SEC), and water production cost, across six different VMD configurations. Additionally, the effects of operational parameters such as feed temperature, vacuum pressure, and compressor efficiency are examined through a detailed parametric study. Results indicate that integrating 10 MVCs with the VMD system achieves a maximum freshwater production of 1045 L/h, representing a 297 % increase compared to a system with a single MVC at a feed temperature of 90°C. The lowest SEC recorded is 78 kWh/m³ , attained using 6 MVCs with a compressor efficiency of 90 %, leading to a minimum water production cost of 6.3 $/m³ . However, further analysis reveals that while increasing the number of MVCs enhances productivity and energy efficiency, it also raises capital investment due to the high initial cost of compressors. The operating cost primarily depends on electricity consumption, while maintenance costs escalate with the number of compressors due to additional servicing requirements. A cost-benefit analysis suggests that beyond 10 MVCs, the marginal gains in productivity are offset by rising costs, indicating an optimal balance between energy savings and economic feasibility. This study provides valuable insights into the economic and operational trade-offs of integrating MVCs with VMD, offering a viable pathway for large-scale desalination and water treatment applications.
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