Development of IoT-Based Real-Time Monitoring System and LFA to Improve the Efficiency and Performance of Wastewater Treatment Plant in Udayana University Hospital

Pujianiki Ni Nyoman, I. N. S. Parwata, I. M. Antara, Kurihara Kazumi, Akhmad Rivai
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Abstract

Indonesia is one of the countries infected by the Coronavirus Disease 2019 (COVID-19) pandemic, which is caused by acute respiratory syndrome virus 2 (SARS-CoV-2). At the end of March 2020, the provincial government of Bali appointed Udayana University Hospital to handle COVID-19 patients because the province has experienced an increase in the number of positive cases. In September 2020, COVID-19 cases in Bali increased by more than 100%, resulting in a higher volume and content of hazardous liquid waste. Furthermore, hazardous liquid waste is the residue of activities that contain substances that can pollute and damage the environment and health, necessitating more efforts in managing the processing of hazardous wastewater produced by the hospital. Based on the background above, this study developed and applied an Internet of Things (IoT) based monitoring system to the Wastewater Treatment Plant (WWTP) in Udayana University Hospital. In principle, the IoT system can be used as a real-time monitoring tool and minimizes direct contact activities of officers’ WWTP sites. Moreover, the Liquid Film Aerator (LFA) was applied to improve the efficiency of WWTP. The developed IoT system successfully monitors pH, DO, and real-time temperature, and the monitoring results were presented in a web-based user interface. The result shows better power usage efficiency than conventional aeration. Furthermore, conventional aeration with a root blower requires 619.8 watts to produce 1 mg/L of DO, while LFA only requires 273.2 watts. The developed systems can be applied to other hospitals or similar wastewater plants that handle COVID-19 cases.
开发基于物联网的实时监控系统和LFA,提高乌达亚那大学医院污水处理厂的效率和性能
印度尼西亚是由急性呼吸综合征病毒2型(SARS-CoV-2)引起的2019冠状病毒病(COVID-19)大流行感染的国家之一。2020年3月底,巴厘岛省政府任命乌达亚纳大学医院处理新冠肺炎患者,因为该省的阳性病例数量有所增加。2020年9月,巴厘岛的COVID-19病例增加了100%以上,导致危险液体废物的数量和含量增加。此外,危险液体废物是含有可能污染和损害环境和健康的物质的活动的残留物,因此需要在管理医院产生的危险废水的处理方面作出更多努力。基于以上背景,本研究开发了一套基于物联网(IoT)的监测系统,并将其应用于乌达亚那大学医院污水处理厂(WWTP)。原则上,物联网系统可以用作实时监控工具,并最大限度地减少军官的污水处理厂站点的直接接触活动。此外,还采用液膜曝气器(LFA)提高了污水处理厂的处理效率。开发的物联网系统成功监测pH、DO和实时温度,并将监测结果显示在基于web的用户界面中。结果表明,与常规曝气相比,该工艺的电能利用效率更高。此外,传统的根式鼓风机曝气产生1mg /L的DO需要619.8瓦,而LFA只需要273.2瓦。开发的系统可以应用于处理COVID-19病例的其他医院或类似的污水处理厂。
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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