Renewable Energy Based Green House Environment Monitoring System Using IOT

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Abstract

In greenhouses, plants like flowers and vegetables are grown. Daytime sunshine heats the soil, plants and structure itself inside greenhouses. Many farmers struggle to generate respectable income from greenhouse crops as a result of their failure to manage two essential factors that influence plant development and productivity. Temperatures in greenhouses shouldn’t drop unless certain circumstances apply. The effects of high humidity include crop transpiration, water vapour condensation on various greenhouse surfaces and water evaporation from moist soil. These issues are addressed by the monitoring and management system for greenhouses. This study shows how to develop and use a variety of sensors for monitoring and controlling the greenhouse environment. The temperature and humidity sensors, soil moisture sensor, Node-MCU module and water pump are all part of this greenhouse control system, which is run by an Atmega328 microprocessor. The utilization of solar panels ensures constant power supply. Temperature and humidity in the atmosphere are measured through a DH11 sensor. The pumps turn on as the soil moisture sensor detects a reduction in the soil’s water content. Monitoring and managing the system will be simple in this manner. The IOT module (ESP8266) receives data pertaining to these parameters at the same time. Regardless of any threshold mismatch identified, the data is delivered at regular intervals to IOT. The ESP8266 Node-Microcontroller, the DHT11 sensor, a solar panel and a soil moisture sensor are all used in this project. The Wi-Fi module built inside the microcontroller transmits the data to cloud database of the BLYNK app.
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基于可再生能源的物联网温室环境监测系统
在温室里,像花和蔬菜这样的植物被种植。白天的阳光加热温室内的土壤、植物和结构本身。许多农民难以从温室作物中获得可观的收入,因为他们未能管理好影响植物发育和生产力的两个基本因素。除非在特定情况下,温室里的温度不应该下降。高湿的影响包括作物蒸腾作用、各种温室表面的水汽凝结和潮湿土壤的水分蒸发。温室监测管理系统解决了这些问题。本研究展示了如何开发和使用各种传感器来监测和控制温室环境。该温室控制系统由Atmega328微处理器控制,由温湿度传感器、土壤湿度传感器、Node-MCU模块和水泵组成。太阳能电池板的使用保证了持续的电力供应。通过DH11传感器测量大气中的温度和湿度。当土壤湿度传感器检测到土壤含水量减少时,水泵就会启动。通过这种方式,系统的监控和管理将变得简单。物联网模块(ESP8266)同时接收与这些参数相关的数据。无论识别出任何阈值不匹配,数据都会定期发送到物联网。本课题采用ESP8266节点微控制器、DHT11传感器、太阳能电池板和土壤湿度传感器。微控制器内置的Wi-Fi模块将数据传输到BLYNK应用程序的云数据库。
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