Hydroponics Reservoir Temperature Monitoring and Controlling System under Greenhouse Condition (original) (raw)

Monitoring System of Hydroponic Using Solar Energy

Journal of Electronic Voltage and Application, 2021

This project aims to develop a solar powered hydroponic monitoring system. Hydroponic system is a plantation system that uses water as the medium instead of soil. The solar energy acts as the main source and a supply for the Arduino Uno, a microcontroller to control all the sensors, collecting the data and display the data to users. The sensors used were DS18B20 temperature sensor, propylene float water level sensor and pH sensor. These sensors will monitor those elements and helping the users in hydroponics system. An Arduino Ide software was used to develop a coding for the monitoring system. The value of temperature, water level and pH has been measured and collected to be analyzed. For conclusion, this project is successful in that the data collected satisfied the objective and from the result, it shows the effectiveness of solar powered hydroponic monitoring system.

Design and development of control and monitoring hydroponic system

The global agriculture system faces significant challenges in meeting the growing demand for food production, particularly given projections that the world's population will reach 70% by 2050. Hydroponic farming is an increasingly popular technique in this field, offering a promising solution to these challenges. This paper will present the improvement of the current traditional hydroponic method by providing a system that can be used to monitor and control the important element in order to help the plant grow up smoothly. This proposed system is quite efficient and user-friendly that can be used by anyone. This is a combination of a traditional hydroponic system, an automatic control system and a smartphone. The primary objective is to develop a smart system capable of monitoring and controlling potential hydrogen (pH) levels, a key factor that affects hydroponic plant growth. Ultimately, this paper offers an alternative approach to address the challenges of the existing agricultural system and promote the production of clean, disease-free, and healthy food for a better future.

Development and Application Embedded Systems and Wireless Network of Sensors to Control of Hydroponic Greenhouses

A network of hardwired conventional sensors have been used traditionally for sensing, monitoring and control of the climate in greenhouses and fertigation of the crop. However, in recent years due to the introduction of new cultivation methods, e.g. hydroponics, the number of required sensors in greenhouse installations has increased drastically and their associated monitoring and control has become complex. In addition, the extensive wiring of the sensor network has increased the requirements for system maintenance and measurement errors. The development and application of wireless embedded sensors for monitoring and control of hydroponic systems can result in reduction of measurement errors, easy expansion of the sensor network system, reduction in the cost of system installation and its maintenance and safe data transfer. In addition, the use of embedded computer systems and appropriate software can provide flexibility and reliability in measuring and controlling the parameters o...

Automatic Water Control System and Environment Sensors in a Greenhouse

Water, 2022

Iraqi greenhouses require an active microcontroller system to ensure a suitable microclimate for crop production. At the same time, reliable and timely Water Consumption Rate (WCR) forecasts provide an essential means to reduce the amount of water loss and maintain the environmental conditions inside the greenhouses. The Arduino micro-controller system is tested to determine its effectiveness in controlling the WCR, Temperature (T), Relative Humidity (RH), and Irrigation Time (IT) levels and improving plant growth rates. The Arduino micro-controller system measurements are compared with the traditional methods to determine the quality of the work of the new control system. The development of mathematical models relies on T, RH, and IT indicators. Based on the results, the new system proves to reliably identify the amount of WCR, IT, T, and RH necessary for plant growth. A t-test for the values from the Arduino microcontroller system and traditional devices for both conditions show n...

Automation of Hydroponic System

Hydroponics is a technique to grow the plant without use of the soil. This paper presents an efficient hydroponic system which has been automated to monitor plant living conditions and adjust plant pH and temperature to maintain optimal nutrient uptake by plant root systems. The microcontroller will act as the brain to the system and it will poll the sensors for information about the nutrient solution. If the solution is not within the range, the microcontroller will initiate the steps to correct the pH and temperature of solution.

Automated Hydroponics System

International Journal for Research in Applied Science & Engineering Technology (IJRASET), 2023

The purpose of this study was to control the factors that are responsible for plants growth in hydroponics systems and automate them to reduce the human effort with less space and electricity. In this paper we used a combination of two methods: Deep water culture and Nutrient film technique for the system. In this method plants will have continuous nutrient supply. We used a linear regression method to control EC and pH of the system and the microcontroller will send signals to the system to adjust them to desired value with the help of dozers by taking average EC and pH values.

Smart Hydroponic Greenhouse (Sensing, Monitoring and Control) Prototype Based on Arduino and IOT

International Journal of Plant & Soil Science, 2021

Aims: Sensing, monitoring and control the micro-climate measurements and environmental conditions of greenhouse prototype to create a smart hydroponic greenhouse for maximizing the food production as well as minimizing the ecological footprint under the climate change impacts, Coved 19 crisis, and natural resources shortages. Study Design: Factorial with 3 replicates. Place and Duration of Study: Central Laboratory for Agriculture Climate (CLAC), Agriculture Research Center, Egypt during 2020. Methodology: Two systems of hydroponic culture, nutrient film technique (NFT) and deep flow technique (DFT) that cultivated by lettuce plants were established under greenhouse (polycarbonate) prototype (0.8 * 1.2 * 0.6 m) designed with artificial grown light and cooling system. Based on Arduino Mega 2560 that programmed via the Arduino IDE program, different sensors and actuators were used to establishing the smart greenhouse. Internet of things (IoT) via Node MCU ESP 8266 that programmed to transmitted the data every 30 min. to the internet web google platform (Firebase) for presenting the real-time records and hosting the data. Vegetative characteristics; yield parameters and N, P, and K contents of lettuce plants were measured. Results: the smart greenhouse worked according to the programming of Arduino Mega and Node

Design and implementation automation system for hydroponic vegetable cultivation

International Conference on Agriculture and Applied Science, 2021

This research is about the design of an automation system by using microcontrollertechnology. The automation system defined in this research is the automation in the irrigationand fertilization process that has been designed by the needs for hydroponic vegetablecultivation, in an attempt to help hydroponic farmers and the community in controlling andcaring for vegetables automatically. The research stages are initiated from analyzing the needsof system development, continued by designing hardware and software, and implementingautomation systems for the last stage. The developed automation system consists of 1 module,1 sensor, Arduino Uno, and 2 relays and pumps. The RTC module is utilized to adjust thefertilizer scheduling time, while the utilization of a water level sensor is aimed to detect thewater level in hydroponic vegetable installations. Arduino Uno is utilized as a microcontrollerto process all data generated from the automation system. The data sent by the two sensors then...

Development of an Electronic Controller for Lettuce Production in Greenhouses

JOURNAL OF NEOTROPICAL AGRICULTURE, 2020

The objective of this study was to develop an electronic controller for microclimate control in greenhouses, as well as to verify if the automated control system affects the productivity of two varieties of lettuce “Lactuca sativa”. The control system was developed based on the Atmega 2560 and compatible transducers. An experimental field analysis was carried out over a production cycle for two lettuce varieties. The experimental results showed that the designed equipment worked according to the implemented programming algorithm. However, the ventilation, nebulization and shading actuators did not control environmental variables, due to under sizing. The irrigation process was correctly controlled throughout the experimental period. The electronic controller promoted increase in the productivity of lettuce varieties. There was increase of 28% in total fresh weight; 10% in stem diameter; 7 and 8% in height gain and average diameter, respectively.