This document summarizes a project on a weather monitoring system using Arduino. The system uses various sensors like a DHT11 temperature and humidity sensor to measure weather parameters. It has a block diagram showing the Arduino board connected to sensors and an LCD display. The system operates by collecting data from the connected sensors and displaying it in real-time on the LCD screen. It has advantages like providing real-time data and alerts. Potential applications include environmental monitoring, agriculture, and outdoor recreation. In conclusion, the system provides an effective way to record local weather readings to help farmers.
This document describes a weather monitoring system using an Arduino microcontroller. The system uses sensors to measure various meteorological parameters like temperature, humidity, and atmospheric pressure. It then transmits the sensor data to an LCD display or to a computer for storage and analysis. Setting up the system involves connecting the sensors to the Arduino, writing a program to collect and process the sensor data, and configuring a display or storage device. Once built, the weather monitoring system can monitor conditions in real-time or analyze trends over time. It can also trigger alerts when specific weather thresholds are reached.
IRJET- Smart Weather Monitoring and Real Time Alert System using IoTIRJET Journal
This document proposes a smart weather monitoring system using IoT that measures various weather parameters like temperature, humidity, wind speed, etc. using sensors. The sensors send real-time data to a web page for access from anywhere. An app also sends alerts about sudden weather changes. While existing systems have limitations like high costs, maintenance needs and delayed warnings, the proposed system is compact, portable, and cheaper due to its solar power and sensor costs. It analyzes sensor data using an API and Raspberry Pi to predict weather accurately. This smart monitoring system could benefit various industries.
Village agriculture is very important in Bangladesh. In emerging nations like our own, agriculture has a significant impact on national GDP. Basically, because of our current circumstances, the monsoons, which are agriculture's primary source of water, are insufficient. The irrigation system is used in agriculture as a solution to this issue. In this technique, the agricultural field will receive water depending on the type of soil. In agriculture, there are two factors to consider: the soil's moisture content and its fertility. There are already a variety of irrigation options available to lessen the demand for rain. An electrical power on/off schedule controls this kind of method. The use of IOT to create a smart irrigation system is covered in this article. Our method uses hydropumps to regulate multiple pumps at once, which saves time and energy. This system will have a significant impact on the national economy if we implement it.
IRJET- Advanced Guiding Tool for the Selection of CropsIRJET Journal
This document describes an advanced guiding tool to help farmers select appropriate crops. It uses sensors to monitor soil characteristics and environmental conditions. The sensor data is sent to a Node MCU microcontroller and stored in the cloud. Farmers can access this historical data using wireless devices to determine which crops are best suited for their land based on the soil and climate conditions. This system improves upon previous agriculture monitoring systems by not only monitoring crop growth but also collecting and storing sensor data in the cloud. This stored data can then be used to advise farmers on optimal crop selection.
Policing of the Environment by using an Integrated systemIRJET Journal
The document describes a system for monitoring environmental conditions using sensors and the Internet of Things (IoT). The system uses sensors to measure temperature, humidity, atmospheric pressure, light intensity, and noise levels. The sensor data is sent to an Arduino microcontroller and displayed on an LCD screen. It is also sent via WiFi to the cloud using an ESP8266 module and made available online. The system allows continuous, remote monitoring of environmental parameters to police or assess the environment.
Crop Prediction using IoT & Machine Learning AlgorithmIRJET Journal
This document describes a proposed system for crop prediction using IoT sensors and machine learning algorithms. Soil moisture, temperature, humidity, light, and rainfall data would be collected from sensors and sent to a server using an Arduino, NodeMCU, and IoT technology. The data would be stored in a MongoDB database and analyzed using machine learning algorithms like decision trees and random forests. The models would be trained to predict the optimal crop to plant based on the environmental conditions. A GUI would display the predicted crop recommendations to farmers based on real-time sensor readings or historical area data, helping farmers increase crop yields through informed decision making. The system aims to improve agricultural output and profits using IoT, machine learning, and predictive analytics
Review on microcontroller based monitoring system for agricultureIRJET Journal
This document describes a microcontroller-based monitoring system for agriculture. It consists of sensors to measure soil moisture, temperature, and humidity. The sensor readings are sent to a microcontroller and displayed on an LCD. They are also transmitted wirelessly to a computer. If the soil moisture exceeds a threshold, the computer will activate a relay to turn on a water pump, thereby automatically irrigating the field. The system aims to remotely monitor environmental conditions and automate irrigation to improve crop yields in a low-cost and simple way.
This document describes a weather monitoring system using an Arduino microcontroller. The system uses sensors to measure various meteorological parameters like temperature, humidity, and atmospheric pressure. It then transmits the sensor data to an LCD display or to a computer for storage and analysis. Setting up the system involves connecting the sensors to the Arduino, writing a program to collect and process the sensor data, and configuring a display or storage device. Once built, the weather monitoring system can monitor conditions in real-time or analyze trends over time. It can also trigger alerts when specific weather thresholds are reached.
IRJET- Smart Weather Monitoring and Real Time Alert System using IoTIRJET Journal
This document proposes a smart weather monitoring system using IoT that measures various weather parameters like temperature, humidity, wind speed, etc. using sensors. The sensors send real-time data to a web page for access from anywhere. An app also sends alerts about sudden weather changes. While existing systems have limitations like high costs, maintenance needs and delayed warnings, the proposed system is compact, portable, and cheaper due to its solar power and sensor costs. It analyzes sensor data using an API and Raspberry Pi to predict weather accurately. This smart monitoring system could benefit various industries.
Village agriculture is very important in Bangladesh. In emerging nations like our own, agriculture has a significant impact on national GDP. Basically, because of our current circumstances, the monsoons, which are agriculture's primary source of water, are insufficient. The irrigation system is used in agriculture as a solution to this issue. In this technique, the agricultural field will receive water depending on the type of soil. In agriculture, there are two factors to consider: the soil's moisture content and its fertility. There are already a variety of irrigation options available to lessen the demand for rain. An electrical power on/off schedule controls this kind of method. The use of IOT to create a smart irrigation system is covered in this article. Our method uses hydropumps to regulate multiple pumps at once, which saves time and energy. This system will have a significant impact on the national economy if we implement it.
IRJET- Advanced Guiding Tool for the Selection of CropsIRJET Journal
This document describes an advanced guiding tool to help farmers select appropriate crops. It uses sensors to monitor soil characteristics and environmental conditions. The sensor data is sent to a Node MCU microcontroller and stored in the cloud. Farmers can access this historical data using wireless devices to determine which crops are best suited for their land based on the soil and climate conditions. This system improves upon previous agriculture monitoring systems by not only monitoring crop growth but also collecting and storing sensor data in the cloud. This stored data can then be used to advise farmers on optimal crop selection.
Policing of the Environment by using an Integrated systemIRJET Journal
The document describes a system for monitoring environmental conditions using sensors and the Internet of Things (IoT). The system uses sensors to measure temperature, humidity, atmospheric pressure, light intensity, and noise levels. The sensor data is sent to an Arduino microcontroller and displayed on an LCD screen. It is also sent via WiFi to the cloud using an ESP8266 module and made available online. The system allows continuous, remote monitoring of environmental parameters to police or assess the environment.
Crop Prediction using IoT & Machine Learning AlgorithmIRJET Journal
This document describes a proposed system for crop prediction using IoT sensors and machine learning algorithms. Soil moisture, temperature, humidity, light, and rainfall data would be collected from sensors and sent to a server using an Arduino, NodeMCU, and IoT technology. The data would be stored in a MongoDB database and analyzed using machine learning algorithms like decision trees and random forests. The models would be trained to predict the optimal crop to plant based on the environmental conditions. A GUI would display the predicted crop recommendations to farmers based on real-time sensor readings or historical area data, helping farmers increase crop yields through informed decision making. The system aims to improve agricultural output and profits using IoT, machine learning, and predictive analytics
Review on microcontroller based monitoring system for agricultureIRJET Journal
This document describes a microcontroller-based monitoring system for agriculture. It consists of sensors to measure soil moisture, temperature, and humidity. The sensor readings are sent to a microcontroller and displayed on an LCD. They are also transmitted wirelessly to a computer. If the soil moisture exceeds a threshold, the computer will activate a relay to turn on a water pump, thereby automatically irrigating the field. The system aims to remotely monitor environmental conditions and automate irrigation to improve crop yields in a low-cost and simple way.
IRJET- A Nobel Report on Smart Irrigation System using IoTIRJET Journal
This document presents a smart irrigation system using IoT (Internet of Things) technology. The system uses wireless sensor networks to monitor farm conditions like soil moisture, temperature, and humidity. Sensors embedded in a hardware pack collect this data and send it via IoT to an AGRO-TECH software application. Based on readings from the soil moisture sensor, the software can automatically activate sprinklers as needed to efficiently irrigate crops while conserving water. It also allows farmers to remotely monitor their farms from anywhere using a mobile app. The system aims to help farmers overcome challenges like water shortage and optimize farm management.
AGRICULTURE ENVIRONMENT MONITORING SYSTEM USING ANDROIDIRJET Journal
This document describes an agriculture environment monitoring system using Android that measures temperature, moisture, and other parameters to help farmers. The system includes soil moisture sensors, a temperature sensor, humidity sensor, and ultrasonic sensor to measure water levels. An Arduino board collects data from the sensors. If the soil moisture is low, a water motor will automatically turn on. Farmers can monitor parameters in real-time using a mobile Android application. The system aims to help with remote monitoring, water conservation, and increasing crop yields for Indian agriculture.
Nowadays, weather consider the important component in many domains so, these domains use weather station to measure the parameters of weather through embedded sensors and view the measurements by using monitoring system which allow the user to make analysis about an obtained data of the weather Our work based on usage of weather station to measure certain parameters which effect on our telescope (mirror) which responsible for orbs vision in the space, and view the measurements through monitoring system to make analysis about these measurements to control closing and opening operations of shutter of the building and telescope
( mirror)in this building . These operations can operate by building expert system by using EXsys corvid software program and that system like human expertise through usage of knowledge base and inference engine .
Smart real time embedded arduino based data acquisition systemeSAT Journals
Abstract In this paper, an effort has been made to design and develop a smart real time embedded Arduino based data logger for indoor and outdoor environment. The present work has been concentrated to environmental parameters such as temperature, humidity and solar insolation. The data logger is proposed to be developed with the use of Arduino Uno based on ATmega328. The Arduino Microcontroller board is used which has inbuilt ADC and other peripheral circuitry necessary for operation. The physical parameter is sensed by the sensors and is converted into analog signal. This analog signal is fed to the Arduino board ADC pins which is then converted in to an equivalent digital quantity and is further processed in the microcontroller. The raw digital signal or processed signal out of microcontroller may be displayed on the LCD display or it’s saved in a database or even at the same time this data is sent to computer through the USB serial port. The serial port data is then accessed and is imported in Microsoft excel for computation and graphical representation. Key Words: Arduino Uno, ATmega328, DHT 11, Solar cell, LCD etc.
Climate data can provide a great deal of information about the atmospheric environment that impacts almost all aspects of human endeavour. This module explains the importance of climate data, its storage, security, applications and other aspects, in a nutshell.
Weather Reporting System Using Internet Of ThingsIRJET Journal
This document describes a proposed Internet of Things (IoT)-based weather reporting system that allows for real-time detection, recording, and display of weather factors like temperature, humidity, and rainfall. The system uses sensors to collect weather data, which is stored securely in the cloud and made accessible to the public. It analyzes location-specific weather data to assess trends and insights. The system executes operations based on current weather conditions and sensor readings, and displays data through an ESP8266 serial output to facilitate user interaction. This research presents a valuable contribution to weather forecasting and monitoring to support decision-making across sectors reliant on weather information.
IRJET- Soil, Water and Air Quality Monitoring System using IoTIRJET Journal
This document summarizes a research paper on developing a soil, water, and air quality monitoring system using IoT technologies. Sensors are used to measure various parameters of soil, water, and air quality, including pH, moisture, temperature, turbidity, and nutrients. The sensor data is sent to a Raspberry Pi controller and then uploaded to the cloud. If measurements are abnormal, an alert message is sent. The system aims to help farmers and users monitor natural resource quality and make informed decisions. Future work could include using machine learning to analyze trends and make crop recommendations based on sensor readings.
IoT based Digital Agriculture Monitoring System and Their Impact on Optimal U...Journal For Research
Although precision agriculture has been adopted in few countries, the greenhouse based modern agriculture industry in India still needs to be modernized with the involvement of technology for better production and cost control. In this paper we proposed a multifunction model for smart agriculture based on IoT. Due to variable atmospheric circumstances these conditions sometimes may vary from place to place in large farmhouse, which makes very difficult to maintain the uniform condition at all the places in the farmhouse manually. Soil and environment properties are sensed and periodically sent to cloud network through IoT. Analysis on cloud data is done for water requirement, total production and maintaining uniform environment conditions throughout greenhouse farm. Proposed model is beneficial for increase in agricultural production and for cost control and real time monitoring of farm.
This document discusses how data loggers are used to collect weather data for forecasting. It describes how data loggers can acquire data from various sensors like temperature, humidity, wind speed, and rainfall sensors. The data is stored digitally and downloaded to computers for detailed analysis. This automated process avoids human error and allows constant collection of weather measurements. Various sensors are then described, such as temperature sensors that produce digital signals, wind speed sensors that count revolutions, and rainfall detectors that record bucket tips. The collected data is used along with satellite images and weather balloons to improve weather forecasting.
IRJET- Smart Agriculture System based on IoTIRJET Journal
This document proposes a smart agriculture system based on IoT. The key features include:
1. A smart GPS-based remote controlled robot that can perform tasks like weeding, spraying, moisture detection, and pest/animal deterrence.
2. An intelligent irrigation system with smart control based on real-time soil moisture data.
3. A smart warehouse management system that monitors temperature, humidity, and detects theft.
Sensors, WiFi/ZigBee modules, cameras, and actuators connected to microcontrollers and Raspberry Pi will automate and control these systems remotely through a mobile or web application. The goal is to modernize agriculture using automation and IoT technologies.
IRJET- Wireless Weather Monitoring System using Adruino DUE and GSM Techn...IRJET Journal
This document describes the design of a wireless weather monitoring system using an Arduino Due microcontroller and GSM module. Sensors are used to measure various weather parameters like temperature, humidity, wind speed, etc. The sensor data is sent wirelessly to users' phones via the GSM module. The system aims to provide reliable and low-cost weather monitoring to applications like agriculture and meteorology. It allows remote monitoring of weather conditions and stores data for future weather prediction. The system was tested successfully by calling the GSM module and receiving a text with the current sensor readings.
IRJET- Arduino Based Weather Monitoring SystemIRJET Journal
This document describes an Arduino-based weather monitoring system that was developed to automatically collect weather data including temperature, humidity, and light intensity. The system uses sensors connected to an Arduino microcontroller to measure these variables over time. The sensor readings are stored in a file and can be displayed graphically to analyze weather patterns. The system was designed to forecast weather without human error by sensing key factors that determine weather conditions. It was found to successfully collect weather data through experiments and demonstrate weather patterns through generated graphs.
Operation of Sensor Nodes for Smart Farming and Data Networking using Wireles...IRJET Journal
This document describes a proposed system for smart farming using wireless sensor networks. Key points:
- Sensor nodes would be deployed to monitor environmental parameters like temperature, humidity, and soil moisture.
- The sensor data would be transmitted wirelessly via technologies like Zigbee to a coordinator node.
- The coordinator node would convert the data to WiFi and send it to a web server where users could access it remotely via an online portal or mobile app.
- The system aims to automate irrigation and other farm operations based on sensor readings to optimize crop growth. This would reduce labor needs and allow remote monitoring of field conditions.
SMART AGRICULTURE – AUTOMATIC IRRIGATION USING IOT AND GSMIRJET Journal
This document describes a smart agriculture system that uses IoT technology and a GSM module to automatically irrigate crops. Sensors monitor soil moisture levels, humidity, and rainfall and send the data via an Arduino board and GSM module to farmers' phones. Farmers can also control irrigation by sending commands via call or text to turn a motor and relay on or off. The system aims to optimize water usage, reduce labor costs, and increase crop yields using low-cost, product-based technology without internet dependence.
Nowadays, air and water quality monitoring in real time faces challenges because of global warming, limited water resources and growing population.
Air quality can be measured using a special sensor called Gas sensor
Water level is measured using ultrasonic sensor,
DHT11 sensor measures the humidness, hotness and coldness of the environment.
Air quality and water level monitoring system is advised.
Technologies such as
Infra-red
Bluetooth
GSM
Which are developed in recent years goes to show the very fact that improvements are in fact possible.
These improvements have eased our life and the way air quality and water level monitoring and notification is subject of growing interest.
Seasonable IOT Based Dehydration System for Agri Products.IRJET Journal
This document presents a seasonable IoT-based dehydration system for agricultural products. The system uses an ESP32 controller, temperature sensor, fan, heating coil and tray to remove moisture from grains and preserve them. It aims to help farmers get proper value for their crops by controlling moisture levels. The system is automated and can be monitored remotely using an app. It circulates heated air over crops on trays to dry them in an energy efficient manner while avoiding spoilage. Key features include IoT connectivity, temperature control and automated operation to help farmers during rainy seasons.
This document proposes a weather station using Internet of Things (IoT) that allows users to access real-time weather data anywhere. The weather station will collect data like temperature, humidity, and pressure from sensors using a NodeMCU microcontroller with a built-in WiFi module. The data will be sent to a local server and made available for users to view on their devices. The project aims to provide a way for users to monitor weather conditions and plan activities by getting timely alerts and forecasts. It will follow a Rapid Application Development methodology and include entity relationship and data flow diagrams in the design.
This document proposes a weather station using Internet of Things (IoT) that allows users to access real-time weather data anywhere. The weather station will collect data like temperature, humidity, and pressure from sensors using a NodeMCU microcontroller with a built-in WiFi module. The data will be sent to a local server and made available for users to view on their devices. The project aims to provide a way for users to monitor weather conditions and plan activities by getting timely alerts and forecasts.
Real-time monitoring system for weather and air pollutant measurement with HT...journalBEEI
This system summarizes the development of a real-time monitoring system for weather and air pollutant measurement with an HTML-based user interface application. The system includes sensors to measure weather parameters like wind, rain, temperature, and humidity, as well as air pollutants. A microcontroller collects and transmits the sensor data to a cloud database in real-time. A web application then displays the data for users. Field testing showed the sensors accurately measured various weather and pollution levels over a day. The HTML interface provided an informative display of the real-time environmental information.
This document discusses real-time operating systems (RTOS). It defines an RTOS and describes its key characteristics of scheduling execution in a timely manner, managing system resources, and providing a consistent foundation for application code. The document outlines the typical components of an RTOS kernel including the scheduler, objects like tasks and semaphores, and services like interrupt management. It provides details on scheduling algorithms, context switching, dispatcher, task states, semaphore types, message queues, pipes, interrupt handling and priorities.
The document discusses a bionic eye, which is an experimental device intended to restore vision for blind individuals. It consists of a digital camera, microchip, and retinal implant. The camera transmits signals to the microchip implanted in the eye, which converts the signals into electrical impulses to stimulate retinal cells. These impulses are interpreted as images by the brain. While expensive, a bionic eye may help treat total vision loss and has advantages of being easily implanted with low power needs. However, repairing damage can be difficult and the high cost is still a disadvantage.
IRJET- A Nobel Report on Smart Irrigation System using IoTIRJET Journal
This document presents a smart irrigation system using IoT (Internet of Things) technology. The system uses wireless sensor networks to monitor farm conditions like soil moisture, temperature, and humidity. Sensors embedded in a hardware pack collect this data and send it via IoT to an AGRO-TECH software application. Based on readings from the soil moisture sensor, the software can automatically activate sprinklers as needed to efficiently irrigate crops while conserving water. It also allows farmers to remotely monitor their farms from anywhere using a mobile app. The system aims to help farmers overcome challenges like water shortage and optimize farm management.
AGRICULTURE ENVIRONMENT MONITORING SYSTEM USING ANDROIDIRJET Journal
This document describes an agriculture environment monitoring system using Android that measures temperature, moisture, and other parameters to help farmers. The system includes soil moisture sensors, a temperature sensor, humidity sensor, and ultrasonic sensor to measure water levels. An Arduino board collects data from the sensors. If the soil moisture is low, a water motor will automatically turn on. Farmers can monitor parameters in real-time using a mobile Android application. The system aims to help with remote monitoring, water conservation, and increasing crop yields for Indian agriculture.
Nowadays, weather consider the important component in many domains so, these domains use weather station to measure the parameters of weather through embedded sensors and view the measurements by using monitoring system which allow the user to make analysis about an obtained data of the weather Our work based on usage of weather station to measure certain parameters which effect on our telescope (mirror) which responsible for orbs vision in the space, and view the measurements through monitoring system to make analysis about these measurements to control closing and opening operations of shutter of the building and telescope
( mirror)in this building . These operations can operate by building expert system by using EXsys corvid software program and that system like human expertise through usage of knowledge base and inference engine .
Smart real time embedded arduino based data acquisition systemeSAT Journals
Abstract In this paper, an effort has been made to design and develop a smart real time embedded Arduino based data logger for indoor and outdoor environment. The present work has been concentrated to environmental parameters such as temperature, humidity and solar insolation. The data logger is proposed to be developed with the use of Arduino Uno based on ATmega328. The Arduino Microcontroller board is used which has inbuilt ADC and other peripheral circuitry necessary for operation. The physical parameter is sensed by the sensors and is converted into analog signal. This analog signal is fed to the Arduino board ADC pins which is then converted in to an equivalent digital quantity and is further processed in the microcontroller. The raw digital signal or processed signal out of microcontroller may be displayed on the LCD display or it’s saved in a database or even at the same time this data is sent to computer through the USB serial port. The serial port data is then accessed and is imported in Microsoft excel for computation and graphical representation. Key Words: Arduino Uno, ATmega328, DHT 11, Solar cell, LCD etc.
Climate data can provide a great deal of information about the atmospheric environment that impacts almost all aspects of human endeavour. This module explains the importance of climate data, its storage, security, applications and other aspects, in a nutshell.
Weather Reporting System Using Internet Of ThingsIRJET Journal
This document describes a proposed Internet of Things (IoT)-based weather reporting system that allows for real-time detection, recording, and display of weather factors like temperature, humidity, and rainfall. The system uses sensors to collect weather data, which is stored securely in the cloud and made accessible to the public. It analyzes location-specific weather data to assess trends and insights. The system executes operations based on current weather conditions and sensor readings, and displays data through an ESP8266 serial output to facilitate user interaction. This research presents a valuable contribution to weather forecasting and monitoring to support decision-making across sectors reliant on weather information.
IRJET- Soil, Water and Air Quality Monitoring System using IoTIRJET Journal
This document summarizes a research paper on developing a soil, water, and air quality monitoring system using IoT technologies. Sensors are used to measure various parameters of soil, water, and air quality, including pH, moisture, temperature, turbidity, and nutrients. The sensor data is sent to a Raspberry Pi controller and then uploaded to the cloud. If measurements are abnormal, an alert message is sent. The system aims to help farmers and users monitor natural resource quality and make informed decisions. Future work could include using machine learning to analyze trends and make crop recommendations based on sensor readings.
IoT based Digital Agriculture Monitoring System and Their Impact on Optimal U...Journal For Research
Although precision agriculture has been adopted in few countries, the greenhouse based modern agriculture industry in India still needs to be modernized with the involvement of technology for better production and cost control. In this paper we proposed a multifunction model for smart agriculture based on IoT. Due to variable atmospheric circumstances these conditions sometimes may vary from place to place in large farmhouse, which makes very difficult to maintain the uniform condition at all the places in the farmhouse manually. Soil and environment properties are sensed and periodically sent to cloud network through IoT. Analysis on cloud data is done for water requirement, total production and maintaining uniform environment conditions throughout greenhouse farm. Proposed model is beneficial for increase in agricultural production and for cost control and real time monitoring of farm.
This document discusses how data loggers are used to collect weather data for forecasting. It describes how data loggers can acquire data from various sensors like temperature, humidity, wind speed, and rainfall sensors. The data is stored digitally and downloaded to computers for detailed analysis. This automated process avoids human error and allows constant collection of weather measurements. Various sensors are then described, such as temperature sensors that produce digital signals, wind speed sensors that count revolutions, and rainfall detectors that record bucket tips. The collected data is used along with satellite images and weather balloons to improve weather forecasting.
IRJET- Smart Agriculture System based on IoTIRJET Journal
This document proposes a smart agriculture system based on IoT. The key features include:
1. A smart GPS-based remote controlled robot that can perform tasks like weeding, spraying, moisture detection, and pest/animal deterrence.
2. An intelligent irrigation system with smart control based on real-time soil moisture data.
3. A smart warehouse management system that monitors temperature, humidity, and detects theft.
Sensors, WiFi/ZigBee modules, cameras, and actuators connected to microcontrollers and Raspberry Pi will automate and control these systems remotely through a mobile or web application. The goal is to modernize agriculture using automation and IoT technologies.
IRJET- Wireless Weather Monitoring System using Adruino DUE and GSM Techn...IRJET Journal
This document describes the design of a wireless weather monitoring system using an Arduino Due microcontroller and GSM module. Sensors are used to measure various weather parameters like temperature, humidity, wind speed, etc. The sensor data is sent wirelessly to users' phones via the GSM module. The system aims to provide reliable and low-cost weather monitoring to applications like agriculture and meteorology. It allows remote monitoring of weather conditions and stores data for future weather prediction. The system was tested successfully by calling the GSM module and receiving a text with the current sensor readings.
IRJET- Arduino Based Weather Monitoring SystemIRJET Journal
This document describes an Arduino-based weather monitoring system that was developed to automatically collect weather data including temperature, humidity, and light intensity. The system uses sensors connected to an Arduino microcontroller to measure these variables over time. The sensor readings are stored in a file and can be displayed graphically to analyze weather patterns. The system was designed to forecast weather without human error by sensing key factors that determine weather conditions. It was found to successfully collect weather data through experiments and demonstrate weather patterns through generated graphs.
Operation of Sensor Nodes for Smart Farming and Data Networking using Wireles...IRJET Journal
This document describes a proposed system for smart farming using wireless sensor networks. Key points:
- Sensor nodes would be deployed to monitor environmental parameters like temperature, humidity, and soil moisture.
- The sensor data would be transmitted wirelessly via technologies like Zigbee to a coordinator node.
- The coordinator node would convert the data to WiFi and send it to a web server where users could access it remotely via an online portal or mobile app.
- The system aims to automate irrigation and other farm operations based on sensor readings to optimize crop growth. This would reduce labor needs and allow remote monitoring of field conditions.
SMART AGRICULTURE – AUTOMATIC IRRIGATION USING IOT AND GSMIRJET Journal
This document describes a smart agriculture system that uses IoT technology and a GSM module to automatically irrigate crops. Sensors monitor soil moisture levels, humidity, and rainfall and send the data via an Arduino board and GSM module to farmers' phones. Farmers can also control irrigation by sending commands via call or text to turn a motor and relay on or off. The system aims to optimize water usage, reduce labor costs, and increase crop yields using low-cost, product-based technology without internet dependence.
Nowadays, air and water quality monitoring in real time faces challenges because of global warming, limited water resources and growing population.
Air quality can be measured using a special sensor called Gas sensor
Water level is measured using ultrasonic sensor,
DHT11 sensor measures the humidness, hotness and coldness of the environment.
Air quality and water level monitoring system is advised.
Technologies such as
Infra-red
Bluetooth
GSM
Which are developed in recent years goes to show the very fact that improvements are in fact possible.
These improvements have eased our life and the way air quality and water level monitoring and notification is subject of growing interest.
Seasonable IOT Based Dehydration System for Agri Products.IRJET Journal
This document presents a seasonable IoT-based dehydration system for agricultural products. The system uses an ESP32 controller, temperature sensor, fan, heating coil and tray to remove moisture from grains and preserve them. It aims to help farmers get proper value for their crops by controlling moisture levels. The system is automated and can be monitored remotely using an app. It circulates heated air over crops on trays to dry them in an energy efficient manner while avoiding spoilage. Key features include IoT connectivity, temperature control and automated operation to help farmers during rainy seasons.
This document proposes a weather station using Internet of Things (IoT) that allows users to access real-time weather data anywhere. The weather station will collect data like temperature, humidity, and pressure from sensors using a NodeMCU microcontroller with a built-in WiFi module. The data will be sent to a local server and made available for users to view on their devices. The project aims to provide a way for users to monitor weather conditions and plan activities by getting timely alerts and forecasts. It will follow a Rapid Application Development methodology and include entity relationship and data flow diagrams in the design.
This document proposes a weather station using Internet of Things (IoT) that allows users to access real-time weather data anywhere. The weather station will collect data like temperature, humidity, and pressure from sensors using a NodeMCU microcontroller with a built-in WiFi module. The data will be sent to a local server and made available for users to view on their devices. The project aims to provide a way for users to monitor weather conditions and plan activities by getting timely alerts and forecasts.
Real-time monitoring system for weather and air pollutant measurement with HT...journalBEEI
This system summarizes the development of a real-time monitoring system for weather and air pollutant measurement with an HTML-based user interface application. The system includes sensors to measure weather parameters like wind, rain, temperature, and humidity, as well as air pollutants. A microcontroller collects and transmits the sensor data to a cloud database in real-time. A web application then displays the data for users. Field testing showed the sensors accurately measured various weather and pollution levels over a day. The HTML interface provided an informative display of the real-time environmental information.
This document discusses real-time operating systems (RTOS). It defines an RTOS and describes its key characteristics of scheduling execution in a timely manner, managing system resources, and providing a consistent foundation for application code. The document outlines the typical components of an RTOS kernel including the scheduler, objects like tasks and semaphores, and services like interrupt management. It provides details on scheduling algorithms, context switching, dispatcher, task states, semaphore types, message queues, pipes, interrupt handling and priorities.
The document discusses a bionic eye, which is an experimental device intended to restore vision for blind individuals. It consists of a digital camera, microchip, and retinal implant. The camera transmits signals to the microchip implanted in the eye, which converts the signals into electrical impulses to stimulate retinal cells. These impulses are interpreted as images by the brain. While expensive, a bionic eye may help treat total vision loss and has advantages of being easily implanted with low power needs. However, repairing damage can be difficult and the high cost is still a disadvantage.
This project presents a women's safety device using an Arduino, GPS, GSM, and other components. The device allows a woman in distress to send an alert by pressing a button, which will send her location via GPS to emergency contacts and authorities via text message. An LCD display and buzzer are also activated. The goal is to provide a discreet safety device that allows women to quickly alert others in an emergency situation.
This document summarizes a presentation about bionic eyes. It describes bionic eyes as experimental devices intended to restore vision for blind individuals. The bionic eye consists of a camera, microchip, transmitter and receiver. Images are captured by the camera, processed by the microchip and transmitted to a retinal implant. Electrodes on the implant stimulate retinal cells, sending signals to the brain where they are interpreted as vision. While expensive currently, bionic eyes could help treat total vision loss and have biocompatible materials, but repairing damage remains difficult. The technology is used currently in developed nations and it is hoped it can benefit more people globally.
This document presents information about ChatGPT, an AI chatbot created by OpenAI. It discusses what ChatGPT is, how it was developed by OpenAI, and how it works using large language models and feedback to continuously update its responses. The document also covers the advantages and disadvantages of ChatGPT, how it compares to Google, whether it could replace human jobs, and how to create an account to access ChatGPT's capabilities.
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1. Project on
WEATHER MONITORING SYSTEM
Presented by,
M.Karunya
19C61A0417
J.Geetha Sri
19C61A0409
T.Renuka Sai
19C61A0430
Guided by,
Mr.B.Ravi Kumar
MTech
Assistant Professor
DEPARTMENT OF ELECTRONICS AND COMMUNICATION
ENGINEERING
3. Abstract
A weather monitoring system using Arduino can be used to measure and record
various weather parameters such as temperature, humidity, pressure, wind speed
and direction, and precipitation. The system can be implemented using a variety of
sensors and devices such as temperature and humidity sensors, a barometric
pressure sensor, an anemometer and wind vane for measuring wind speed and
direction, and a rain gauge for measuring precipitation. The data collected by the
sensors can be logged and displayed on a display screen or computer, or it can be
transmitted wirelessly to a remote location for further analysis and storage. The
system can be used for a variety of purposes such as monitoring weather conditions
for agriculture, aviation, or emergency management, or for studying the impact of
weather on the environment.
4. Introduction
• Weather forecasting is the application of science and technology to predict the
state of the atmosphere for a given location.
• Human beings have attempted to predict the weather informally for millennium
and formally since the nineteenth century.
• Weather forecasts are made by collecting quantitative data about the current
state of the atmosphere on a given place and using scientific understanding of
atmospheric processes
• In this system we monitor the temperature and humidity using DHT11 sensor
and Arduino Uno
5. LITERATURE SURVEY
Arduino Based Weather Monitoring System by Jitendra Singh, Rehan
Mohammed, Mradul Kankaria, Roshan Panchal, Sachin Singh, Rahul
Sharma. They have presented an automated system for weather
monitoring which uses different sensors like DHT11, Light dependent
resistor and Rain sensor.
• These include providing weather forecasts for the public, helping
organizations make informed decisions about operations and
activities, and supporting research and development efforts in the
fields of meteorology and atmospheric science.
6. • There have been numerous studies and research articles published on the topic of
weather monitoring systems.
• Some key areas of focus in this literature include the design and implementation of
weather monitoring systems, the accuracy and reliability of the data collected by
these systems, and the various applications of weather monitoring systems in
different settings.
2/12/2024 6
9. Operation
• Connect the various sensors and devices to the Arduino board
according to the manufacturer’s instructions.
• Write and upload a program to the Arduino board using a computer
and a USB connection. The program should include the necessary
code to communicate with the sensors and devices and to collect and
process the data from them.
• Set up a display screen or computer to display the collected data.
This may involve connecting the Arduino board to the display device
using a USB or serial connection, or setting up a wireless connection
such as Bluetooth or Wi-Fi.
10. • Run the program on the Arduino board to start collecting and
processing the data from the sensors and devices. The collected
data can be displayed in real-time on the display screen or
computer, or it can be logged to a file for later analysis.
• Optionally, the collected data can be transmitted wirelessly to a
remote location for further analysis and storage. This may involve
setting up a wireless module such as a cellular modem or a Wi-Fi
module, and writing code to transmit the data over the wireless
connection.
11. • Periodically check and maintain the sensors and devices to ensure
that they are functioning properly and to replace any that have
failed.
• Optionally, the collected data can be used to trigger alerts or
notifications based on certain conditions. For example, the system
could be programmed to send an alert if the temperature falls below
a certain threshold, or if the wind speed exceeds a certain level.
15. Applications
• Environmental Monitoring
• Disaster prediction and response
• Weather Information service
• Agriculture
• Personal use
• Outdoor recreation
• Energy management
16. Conclusion
This concludes that the present work was a success, and it will provide
a competent method for recording real time weather readings and help
farmers whose livelihood depends on the weather in a country like
India to produce better quality crops. It can be used to gather
information about the requirements for each area over the years. The
gathered information is used to determine the optimal conditions for
plants to grow and the farmer can modify the environment suitable for
the growth of the plant.
17. Future Scope
The future of this system is very wide. Same system can be applicable
to the variety of applications like Data monitoring, sending and
controlling of data at remote location.
18. References
• Mahmood, Sarmad Nozad, and Forat F.Hasan. “Design of Weather
Monitoring System Using Arduino based database implementation.”
Journal of Multidisciplinary Engineering Science and
Technology(JMEST)
• Arduino Based Weather Monitoring System . Author : Karthik
Krishnamurthi, SurajThapa, Lokesh Kothari, Arun Prakash.
• Katyal, Amber, Ravi Yadav, and Manoj Pandey. "Wireless arduino
based weather station." International Journal of Advanced Research
in Computer and Communication Engineering
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