Simulation of IoT-Based Temperature and Humidity Conditioning System in Screen House

Wirenda Sekar Ayu, Bowo Prasetyo
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Abstract

Nowadays, various problems have arisen in agricultural sector. One of which is the decline in productivity of farmers' crops up to 40% which is caused by non-optimal environmental conditions during the plant growth process. This is certainly a challenge for Indonesian farmers to be able to continue in supplying the country's needs for high quality agricultural products. The challenges faced by Indonesian farmers do not only come from the environmental conditions of plant growth, but the development of Industry 4.0 technology also plays an important role in the development of agricultural sector in Indonesia. In order to adapt to these technological changes, a solution is needed in the form of an integrated agricultural equipment with Industry 4.0 technologies such as the Internet of Things (IoT). One of which is creating an IoT-based control and monitoring system that will be applied to the screen house. In this research, an IoT-based temperature and humidity conditioning system was designed in the screen house. The system design is modeled and tested through simulation on Vensim software. Based on the simulation results of system design, the screen house internal temperature can be controlled or maintained in the optimal temperature range for tomato plant growth, which is 18–24oC with an offside value of ±0.5oC. The heating capacity or heating rate required in this system is 10oC/hour. The cooling capacity or cooling rate generated to compensate the influence of external temperature and heating effect on the screen house internal temperature is 1–1.8oC/hour. The heating and cooling rate values generated in this research are still need to be converted into fan and pump PWM values to be implemented in a fan- pad evaporative cooling system.
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基于物联网的纱房温湿度调节系统仿真
如今,农业部门出现了各种各样的问题。其中之一是在植物生长过程中,由于环境条件不理想,导致农民作物的生产力下降高达40%。这对印尼农民来说无疑是一个挑战,他们无法继续满足该国对高质量农产品的需求。印尼农民面临的挑战不仅来自植物生长的环境条件,工业4.0技术的发展也在印尼农业部门的发展中发挥着重要作用。为了适应这些技术变化,需要一种解决方案,即采用物联网(IoT)等工业4.0技术的综合农业设备。其中之一是创建一个基于物联网的控制和监控系统,该系统将应用于屏幕。本研究设计了一种基于物联网的纱房温湿度调节系统。在Vensim软件上对系统设计进行了建模和仿真测试。根据系统设计的仿真结果,可以控制或维持纱房内部温度在番茄植株生长的最佳温度范围内,即18 - 24℃,越位值为±0.5℃。本系统所需的加热容量或加热速率为10℃/小时。补偿外界温度和热效应对纱房内部温度影响的制冷量或冷却速率为1 ~ 1.8℃/h。在本研究中产生的加热和冷却速率值仍然需要转换为风扇和泵的PWM值,以便在风扇垫蒸发冷却系统中实现。
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