Realtime monitoring for groundwater level and local climate based on universal communication system

Abstract

The groundwater level and weather patterns and climate conditions are several of the very significant factors which influence the quality of livelihood and the other activity of the tropical peatland environment. The current method of groundwater level and meteorological information aggregate build the use of certain expensive weather station devices, prominent to a lack of vast monitoring suitable to cost barriers and disturbance in some countries. In this research, we have developed and implemented a hardware module based on an Arduino microcontroller and mobile communication, which measures the groundwater level and meteorological data, including air temperature, air humidity, and soil temperature, and humidity, rainfall in peatland area. The data groundwater level is received by a specially developed application interface running on an Internet of Things (IoT) connected through a Global Mobile System (GSM) communication. In this work, our proposed system is a model system that can able to generate alerts based on the real-time groundwater level and data weather as potential peat fire in Indonesia. It provides online and data real-time monitoring. In this works, we have resulted in a system to monitor the groundwater level and data weather alert, condition mapping, and warn the people from its disastrous effects.

Predicting the Planting Time of Bird's Eye Chili Based on Environmental Conditions Using Internet of Things (IoT) and Neural Network Method

“…Sensor Network Deployment: Multiple sensors, strategically positioned within the Tabasco pepper cultivation area, will continuously collect data on environmental factors such as temperature, humidity, rainfall, sunlight duration, and groundwater usage [12]- [14]. This network of sensors will be meticulously calibrated and synchronized to ensure data accuracy.…”

Development of IOT-based low-cost MEMS pressure sensor for groundwater level monitoring

“…To overcome existing shortcomings, usage of the other types of sensors, such as fibre optic sensors [26][27][28][29], ultrasonic sensors [16,17,30,31] and microelectromechanical system (MEMS) pressure sensors [32,33], is feasible. Each type has its strengths and weaknesses, and the choice ultimately depends on several factors such as accuracy, sensitivity, operating conditions, power consumption, and cost considerations.…”