This is a presentation of OBSTACLE AVOIDANCE ROBOT. which has the details on making an obstacle avoider using arduino uno, ultrasonic sensor. This presentation has the detailed description of all the components that are being used in making. And also circuit diagram and flow chart of the robot.
The ultrasonic sensor transmits ultrasonic waves above 20 kHz and detects the reflected waves with a receiver to measure distance. The HC-SR04 module can measure distances from 2 to 400 cm with 5V power and works by sending a 10 microsecond trigger signal to initiate a transmission, then measuring the echo pulse width to calculate the distance. Ultrasonic sensors can be used to measure distance, level, presence and more without contact and have applications in obstacle detection robots, parking assistance systems and more.
This document describes a moisture sensor circuit that uses an operational amplifier (IC 741) and transistors (BC547) to indicate the presence of moisture. When moisture is detected by the sensor, the op-amp changes states and turns on a green LED while turning off a red LED. The circuit diagram and components used are shown. It then explains how the op-amp acts as a voltage comparator and how the transistors are used to switch the LEDs on and off depending on the sensor reading. Finally, some applications of moisture sensors are listed such as in chemical processing, weather monitoring, and greenhouse humidity control.
Here we have entirely explained about Social media powerpoint presentation. Every slide in this presentation is powered by www.slideegg.com(Slideegg).
If you need to download these Social media PowerPoint templates, you can visit https://www.slideegg.com
The document summarizes key information about the Indian armed forces, including the Indian Army, Indian Navy, and Indian Air Force. It provides details on the personnel strength and capabilities of each branch. The Indian Army is the world's third largest with over 1.4 million active personnel. The Indian Navy operates over 180 vessels and is the fifth largest navy globally. The Indian Air Force is the fourth largest air force in terms of aircraft and personnel. It discusses the role and history of each branch of the armed forces in defending India.
The document discusses a portfolio website created by Manoj Kumar Gaddam to showcase his skills online for job applications. It lists the technologies used - HTML, CSS, Javascript, Bootstrap and Google Chrome browser. It describes how an online bootcamp course from Imbuedesk helped Gaddam learn the basics of web development and build his portfolio site in 3 days, teaching him HTML, CSS, Bootstrap, plugins and databases. Gaddam expresses gratitude to Imbuedesk for the opportunity to learn through an amazing course that helped him discover his potential and readiness for greater challenges.
This document describes a smart irrigation system that uses Internet of Things technology. It discusses the sensors used, including soil moisture sensors, temperature and humidity sensors, and relays. The document also covers the NodeMCU microcontroller, Blynk app for remote monitoring and control, and provides code examples. It notes that smart irrigation can help farmers more efficiently water crops based on soil conditions to save water and reduce costs compared to traditional irrigation methods.
The document describes a smart irrigation system using IoT that was presented in a seminar. The system aims to save water and reduce human intervention in agriculture by continuously monitoring soil moisture sensors and providing water automatically when needed. It uses an Arduino microcontroller, soil moisture sensor, LED, resistor, and water pump. The sensor measures moisture levels, which are compared to a threshold value set in the code. If the reading is above the threshold, the LED turns on and water is pumped to the crops. This smart system allows for more efficient irrigation to increase productivity while reducing water usage and costs.
This document describes a digital soil moisture sensor that can be used to automatically monitor soil moisture levels and trigger watering systems. The sensor outputs a digital signal indicating soil moisture levels and can connect to devices like Arduino. It works by measuring the dielectric constant of soil which corresponds to moisture level. The sensor has adjustable sensitivity and threshold levels and provides digital, analog or serial output of moisture readings for various microcontroller applications.
This document discusses sensors and provides examples of different types of sensors. It begins with an introduction that defines a sensor as a device that measures a physical quantity and converts it into a signal. It then discusses the uses of sensors in various applications like cars, machines, medicine, and more. The document also summarizes the different types of sensors like optical sensors, microwave sensors, biosensors, and non-biological sensors. It provides examples of specific sensors like infrared sensors, photoelectric sensors, and discusses their properties and resolution.
This document describes a smart irrigation system that uses sensors to measure soil moisture, temperature, humidity and water levels. The system has a transmitter section with sensors that sends the sensor readings via Zigbee modules to a receiver section. The receiver section has a microcontroller that receives the data and sends messages to farmers via GSM if irrigation is needed. The system automatically provides water to crops based on sensor readings to save water and reduce human intervention in agriculture.
1. The document describes a smart irrigation system that uses IoT sensors and a mobile app to remotely monitor soil properties and automate irrigation.
2. Key components include a NodeMCU board, DHT11 sensor to measure temperature and humidity, a soil moisture sensor, motor pump, relay module, and LCD display connected via I2C.
3. The system works by sensing soil properties with various sensors, transmitting the data via NodeMCU and WiFi to a mobile app, and controlling the motor pump remotely based on the sensor readings and user inputs to optimize water usage.
This document discusses Internet of Things (IoT) applications in agriculture. It defines IoT as the internetworking of physical devices that can transfer data over a network without human interaction. Key IoT applications in agriculture discussed include crop water management using soil moisture sensors, pest management using motion sensors, and precision agriculture. The document outlines an implemented method using Arduino, sensors, and wireless communication to monitor soil moisture levels and detect predator motion to send alerts and reduce crop damage while optimizing water usage.
AUTOMATIC PLANT WATERING SYSTEM USING ARDUINO BASED PPTrishav164
So what is this project? What does it do? Basically this is a soil moisture monitoring system, which detects if the moisture content in the soil is above or below a certain satisfactory threshold value. If it goes below a certain critical point, it is time to water the plant until the soil surrounding the plant is moist enough. An arrangement of a DC motor relay is used to control the watering mechanism.
This Presentation provides some basics of Sensors Technology.........
It gives few ideas to learn about sensors which are as normally used as electrical & electronics applications.......
This document proposes an IoT-based smart agriculture monitoring system using sensors and Arduino. The system would consist of temperature, moisture, and water level sensors to monitor soil conditions. A surveillance camera would monitor plant growth and detect biological infections. The system is powered by a solar panel and sends sensor data and camera footage via WiFi and GSM modules to allow remote monitoring on a mobile phone. This would reduce manual labor while optimizing resource use like water and fertilizer to maximize crop yields.
Automatic Irrigation System Project ReportEr Gupta
The project implements an automatic irrigation system using soil moisture sensors. Sensors in each agricultural field detect the humidity level in the soil and send signals to a microcontroller. If a field's soil becomes dry, the sensor sends a signal to the microcontroller which then supplies water to that field until the soil moisture level increases again. The system aims to reduce water usage through automated irrigation only when needed.
This document describes an automatic plant watering system that uses sensors like soil moisture, humidity, light, and ultrasonic sensors along with an Arduino board to control water pumps, sprinklers, lights, and fans without human intervention. The system works by sensing soil moisture and humidity levels and turning on water pumps when levels drop below a threshold. It also controls lights and fans based on light and humidity readings. An LCD display shows sensor values and system status while a GSM module sends status messages to users. The automatic system aims to efficiently water plants and save water compared to manual methods.
This presentation discuss about the Ultrasonic Sensor long with its working principle and simple test with sample of Arduino program. The ultrasonic Sensor featured in this presentation is HC-SR04.
Automated irrigation system based on soil moisture using arduinoVishal Nagar
Automated irrigation system based on soil moisture using arduino
More Details: Contact me 9982228229
www.roofurja.com
vishalnagarcool.blogspot.com
https://www.youtube.com/watch?v=utHRD4B8BxQ
This document describes the design and implementation of a GSM alarm system. The system uses an Arduino board connected to a GSM shield to detect motion via a PIR sensor and send SMS alerts. It includes a keypad for input, LCD display for status, and buzzer for alarms. Programming was done in C++ using the Arduino IDE. The system aims to provide remote security monitoring via GSM connectivity even when the owner is away. Some challenges included delays receiving hardware and issues with the GSM functionality during testing. Overall the project demonstrated a working GSM alarm prototype.
complete presentation on Smart Irrigation system using thingspeak technology is mainly helpful for the farmer to monitor the crop fields. Thingspeak is a platform, we can login with our matlab credentials.this system highly used in Mushroom cultivation because Mushroom cultivation is complete done in a perticuler Room, so this system will monitor the room Humidity, temperature, light and AirQuality. the hole process is we can monitor from any where in the world with help of Thingspeak platform.
Sensors are devices that measure physical quantities and convert them into signals that can be read by observers or instruments. The document discusses several common sensors: infrared (IR) sensors, sound sensors, temperature sensors, and discusses their working principles and applications. It also provides details on using timers and integrated circuits like the 555 timer IC to process sensor output signals.
This document describes an IoT-based health monitoring system created by three group members. The system uses sensors to measure a patient's heartbeat and temperature, which are sent wirelessly to a monitoring center. The monitoring center allows for real-time analysis of the vital sign data and emergency alerts. The system aims to allow doctors to remotely monitor patients at low cost using embedded technology.
automatic irrigation system by sensing soil moisture contentPAMULA MURALI
This document describes an automatic irrigation system that uses a soil moisture sensor and Arduino microcontroller to control a water pump. The system senses the moisture level of the soil and turns the pump on or off to water the plants accordingly. It aims to help farmers efficiently irrigate their fields without wasting water or requiring constant human monitoring. When the soil is dry, the moisture sensor sends a signal to the Arduino, which activates a relay to power the water pump. When the soil becomes wet again, the pump is turned off. The system uses low-cost, reliable components and provides benefits over manual irrigation methods.
This document presents a smart irrigation system that uses sensors to monitor soil moisture, temperature, and humidity wirelessly. It then sends the sensor data via GSM module to control watering. The system aims to reduce labor, conserve water, and allow real-time monitoring for better crop yields. Key components include soil moisture, temperature, and PIR sensors; Arduino and Raspberry Pi microcontrollers; and a GSM module to send alerts. Together, this smart irrigation system optimizes water usage for sustainable agriculture.
Arduino and sensors for water level, soil moisture, temperature & relative humidity for application in the ClimaAdapt Project areas - Nagarjuna Sagar Project Left and Right Canals in the States of Telangana and Andhra Pradesh for water use efficiency - Canal and On Farm
This document discusses soil moisture monitoring for irrigation water management. It outlines different options for monitoring soil moisture, including gypsum blocks, tensiometers, and the feel method. It explains how to place sensors in the field, focusing on the active root zone. The document also discusses using the data collected, such as graphing it over time and using a checkbook method to determine irrigation needs based on the soil's water holding capacity.
This document describes a smart irrigation system that uses Internet of Things technology. It discusses the sensors used, including soil moisture sensors, temperature and humidity sensors, and relays. The document also covers the NodeMCU microcontroller, Blynk app for remote monitoring and control, and provides code examples. It notes that smart irrigation can help farmers more efficiently water crops based on soil conditions to save water and reduce costs compared to traditional irrigation methods.
The document describes a smart irrigation system using IoT that was presented in a seminar. The system aims to save water and reduce human intervention in agriculture by continuously monitoring soil moisture sensors and providing water automatically when needed. It uses an Arduino microcontroller, soil moisture sensor, LED, resistor, and water pump. The sensor measures moisture levels, which are compared to a threshold value set in the code. If the reading is above the threshold, the LED turns on and water is pumped to the crops. This smart system allows for more efficient irrigation to increase productivity while reducing water usage and costs.
This document describes a digital soil moisture sensor that can be used to automatically monitor soil moisture levels and trigger watering systems. The sensor outputs a digital signal indicating soil moisture levels and can connect to devices like Arduino. It works by measuring the dielectric constant of soil which corresponds to moisture level. The sensor has adjustable sensitivity and threshold levels and provides digital, analog or serial output of moisture readings for various microcontroller applications.
This document discusses sensors and provides examples of different types of sensors. It begins with an introduction that defines a sensor as a device that measures a physical quantity and converts it into a signal. It then discusses the uses of sensors in various applications like cars, machines, medicine, and more. The document also summarizes the different types of sensors like optical sensors, microwave sensors, biosensors, and non-biological sensors. It provides examples of specific sensors like infrared sensors, photoelectric sensors, and discusses their properties and resolution.
This document describes a smart irrigation system that uses sensors to measure soil moisture, temperature, humidity and water levels. The system has a transmitter section with sensors that sends the sensor readings via Zigbee modules to a receiver section. The receiver section has a microcontroller that receives the data and sends messages to farmers via GSM if irrigation is needed. The system automatically provides water to crops based on sensor readings to save water and reduce human intervention in agriculture.
1. The document describes a smart irrigation system that uses IoT sensors and a mobile app to remotely monitor soil properties and automate irrigation.
2. Key components include a NodeMCU board, DHT11 sensor to measure temperature and humidity, a soil moisture sensor, motor pump, relay module, and LCD display connected via I2C.
3. The system works by sensing soil properties with various sensors, transmitting the data via NodeMCU and WiFi to a mobile app, and controlling the motor pump remotely based on the sensor readings and user inputs to optimize water usage.
This document discusses Internet of Things (IoT) applications in agriculture. It defines IoT as the internetworking of physical devices that can transfer data over a network without human interaction. Key IoT applications in agriculture discussed include crop water management using soil moisture sensors, pest management using motion sensors, and precision agriculture. The document outlines an implemented method using Arduino, sensors, and wireless communication to monitor soil moisture levels and detect predator motion to send alerts and reduce crop damage while optimizing water usage.
AUTOMATIC PLANT WATERING SYSTEM USING ARDUINO BASED PPTrishav164
So what is this project? What does it do? Basically this is a soil moisture monitoring system, which detects if the moisture content in the soil is above or below a certain satisfactory threshold value. If it goes below a certain critical point, it is time to water the plant until the soil surrounding the plant is moist enough. An arrangement of a DC motor relay is used to control the watering mechanism.
This Presentation provides some basics of Sensors Technology.........
It gives few ideas to learn about sensors which are as normally used as electrical & electronics applications.......
This document proposes an IoT-based smart agriculture monitoring system using sensors and Arduino. The system would consist of temperature, moisture, and water level sensors to monitor soil conditions. A surveillance camera would monitor plant growth and detect biological infections. The system is powered by a solar panel and sends sensor data and camera footage via WiFi and GSM modules to allow remote monitoring on a mobile phone. This would reduce manual labor while optimizing resource use like water and fertilizer to maximize crop yields.
Automatic Irrigation System Project ReportEr Gupta
The project implements an automatic irrigation system using soil moisture sensors. Sensors in each agricultural field detect the humidity level in the soil and send signals to a microcontroller. If a field's soil becomes dry, the sensor sends a signal to the microcontroller which then supplies water to that field until the soil moisture level increases again. The system aims to reduce water usage through automated irrigation only when needed.
This document describes an automatic plant watering system that uses sensors like soil moisture, humidity, light, and ultrasonic sensors along with an Arduino board to control water pumps, sprinklers, lights, and fans without human intervention. The system works by sensing soil moisture and humidity levels and turning on water pumps when levels drop below a threshold. It also controls lights and fans based on light and humidity readings. An LCD display shows sensor values and system status while a GSM module sends status messages to users. The automatic system aims to efficiently water plants and save water compared to manual methods.
This presentation discuss about the Ultrasonic Sensor long with its working principle and simple test with sample of Arduino program. The ultrasonic Sensor featured in this presentation is HC-SR04.
Automated irrigation system based on soil moisture using arduinoVishal Nagar
Automated irrigation system based on soil moisture using arduino
More Details: Contact me 9982228229
www.roofurja.com
vishalnagarcool.blogspot.com
https://www.youtube.com/watch?v=utHRD4B8BxQ
This document describes the design and implementation of a GSM alarm system. The system uses an Arduino board connected to a GSM shield to detect motion via a PIR sensor and send SMS alerts. It includes a keypad for input, LCD display for status, and buzzer for alarms. Programming was done in C++ using the Arduino IDE. The system aims to provide remote security monitoring via GSM connectivity even when the owner is away. Some challenges included delays receiving hardware and issues with the GSM functionality during testing. Overall the project demonstrated a working GSM alarm prototype.
complete presentation on Smart Irrigation system using thingspeak technology is mainly helpful for the farmer to monitor the crop fields. Thingspeak is a platform, we can login with our matlab credentials.this system highly used in Mushroom cultivation because Mushroom cultivation is complete done in a perticuler Room, so this system will monitor the room Humidity, temperature, light and AirQuality. the hole process is we can monitor from any where in the world with help of Thingspeak platform.
Sensors are devices that measure physical quantities and convert them into signals that can be read by observers or instruments. The document discusses several common sensors: infrared (IR) sensors, sound sensors, temperature sensors, and discusses their working principles and applications. It also provides details on using timers and integrated circuits like the 555 timer IC to process sensor output signals.
This document describes an IoT-based health monitoring system created by three group members. The system uses sensors to measure a patient's heartbeat and temperature, which are sent wirelessly to a monitoring center. The monitoring center allows for real-time analysis of the vital sign data and emergency alerts. The system aims to allow doctors to remotely monitor patients at low cost using embedded technology.
automatic irrigation system by sensing soil moisture contentPAMULA MURALI
This document describes an automatic irrigation system that uses a soil moisture sensor and Arduino microcontroller to control a water pump. The system senses the moisture level of the soil and turns the pump on or off to water the plants accordingly. It aims to help farmers efficiently irrigate their fields without wasting water or requiring constant human monitoring. When the soil is dry, the moisture sensor sends a signal to the Arduino, which activates a relay to power the water pump. When the soil becomes wet again, the pump is turned off. The system uses low-cost, reliable components and provides benefits over manual irrigation methods.
This document presents a smart irrigation system that uses sensors to monitor soil moisture, temperature, and humidity wirelessly. It then sends the sensor data via GSM module to control watering. The system aims to reduce labor, conserve water, and allow real-time monitoring for better crop yields. Key components include soil moisture, temperature, and PIR sensors; Arduino and Raspberry Pi microcontrollers; and a GSM module to send alerts. Together, this smart irrigation system optimizes water usage for sustainable agriculture.
Arduino and sensors for water level, soil moisture, temperature & relative humidity for application in the ClimaAdapt Project areas - Nagarjuna Sagar Project Left and Right Canals in the States of Telangana and Andhra Pradesh for water use efficiency - Canal and On Farm
This document discusses soil moisture monitoring for irrigation water management. It outlines different options for monitoring soil moisture, including gypsum blocks, tensiometers, and the feel method. It explains how to place sensors in the field, focusing on the active root zone. The document also discusses using the data collected, such as graphing it over time and using a checkbook method to determine irrigation needs based on the soil's water holding capacity.
This document describes an automatic plant irrigation system that uses sensors and a microcontroller to control a motor and irrigation facilities based on soil moisture levels. The system consists of a sensor circuit to measure moisture, a microcontroller circuit, and a motor driver circuit. Sensors send signals to the microcontroller when the soil is dry or wet compared to a reference voltage. This turns the motor on to pump water when dry and off when wet, displaying the status on an LCD screen. The system aims to simplify irrigation for farms and gardens by automating the process based on soil conditions.
This document discusses methods for estimating soil moisture content. It defines soil moisture as the water held in the spaces between soil particles, particularly in the top 200 cm that is available to plants. There are direct methods that measure the moisture content through gravimetric techniques like oven drying samples, and volumetric methods using bulk density. Indirect methods measure water potential or tension, including tensiometers, gypsum blocks, and neutron probes. Remote sensing techniques estimate soil moisture from visible/infrared reflectance, thermal infrared surface temperature, and passive/active microwave emissions and backscattering related to dielectric properties.
A REVIEW OF VARIOUS SOIL MOISTUREMEASUREMENT TECHNIQUESBhushan Patil
This paper presents review of the different eight methods for measurement of soil moisture and describes the principle used, methodology, advantages, disadvantages and comparison. Described methods are Gravimetric method, Neutron moderation (NM), Time Domain Reflectometer (TDR), Frequency Domain Reflectometer (FDR), Amplitude Domain Reflectometer (ADR), Phase Transmission (PT), Time Domain Transmission (TDT) and Tensiometer method.
Remote sensing can be used to study soils by analyzing parameters like surface color, temperature, moisture, vegetation indices, mineralogy, organic carbon, iron content, and salinity. High resolution DEM and imagery from sensors like LIDAR and SAR can be used to map landforms and classify soils. Traditional soil mapping is done at scales of 1:1 million to 1:50,000. Remote sensing allows soil mapping across large areas by analyzing the spectral response patterns influenced by soil properties.
Wireless greenhouse environment monitoring through sensorsSudhanshu Tripathi
This document describes a wireless greenhouse environment monitoring system using sensors. The system monitors temperature, humidity, soil moisture, and light intensity using various sensors and sends the data to a microcontroller. The microcontroller then controls actuators like water pumps, sprayers, and lights depending on the sensor readings and predefined thresholds. It uses sensors, a microcontroller, LCD display, and RF transmission to monitor and control devices in the greenhouse remotely.
This document describes a microcontroller-based automatic irrigation system. It consists of a soil moisture sensor to detect moisture levels, a comparator circuit to analyze the sensor readings, an ATmega328 microcontroller to control the system, and a solenoid valve and relay circuit to regulate water flow. The system automatically monitors soil moisture and operates the valve to optimize irrigation based on moisture thresholds, reducing water use and labor compared to manual systems.
Design Development of Water Monitoring Systems by Using Arduino and SensorsSai Bhaskar Reddy Nakka
The document discusses the design and development of a water monitoring system using various sensors. It begins with an acknowledgment section thanking those involved in the project. It then provides an abstract that outlines the need for effective water management and monitoring. The document goes on to discuss different types of sensors that can be used for monitoring water levels, soil moisture, and temperature/humidity. It describes contact sensors like soil moisture sensors and non-contact sensors like ultrasonic sensors. It also discusses the arduino processing platform and components like the GSM module for data transmission. The document appears to provide details on setting up water monitoring systems using the various sensors connected to an arduino.
Arduino based intelligent greenhouse ProjectAmit Saini
Final Year Project : - Arduino based ‘Intelligent Green House'
A complete greenhouse monitoring and controlling system ,that is automated, updating each and every detail on internet that can be accessed from anywhere. For sensors, it uses a light sensor, temperature sensor, moisture sensor, humidity sensor and all the updates will be available on internet through Ethernet shield through which the user can take care of the garden even when not at home.
This document describes an advanced irrigation system using a soil moisture sensor to conserve water. The system uses a microcontroller and soil moisture sensor to automatically water plants only when needed. It measures the soil moisture level and compares it to a threshold value set by the user. If the soil is dry (below the threshold), a relay is activated to supply water. This removes the need for manual intervention by farmers and helps save up to 60% of irrigation water typically wasted through over-watering. The system guide includes the code and wiring diagram to build the automated irrigation system.
This document describes an automated greenhouse system using an 8051 microcontroller. The system monitors environmental conditions like temperature, light, and humidity using sensors and controls factors like watering and lighting using relays to maintain optimal growing conditions for plants. The microcontroller runs a software program to automate monitoring of sensors and control of relays. The system aims to save water, increase efficiency, and reduce environmental impacts on plant production while allowing remote monitoring and control of the greenhouse over the internet.
This document provides an overview of measuring soil moisture using digital image processing. It begins with an introduction stating that soil moisture content is important for crop growth and needs to be measured online. It then describes applying digital image processing techniques to images of soil layers to extract the gray value characteristic, and analyzing the relationship between gray value and soil moisture content. Experimental results showed an approximate linear relationship between soil moisture percentage and image gray value.
Application of Soil Moisture Sensors in Agriculture: A ReviewAnchit Garg
This is the presentation of my review paper published in Proceedings of 21st International Conference on Hydraulics, Water Resources and Coastal Engineering held at CWPRS, Pune
Automatic Plant Fertilization based on Soil Humidity utilising Arduino and So...Fabia Febriyanti
Instrumentation Project
Theme : GreenHouse
Title : "Automatic Plant Fertilization based on Soil Humidity utilising Arduino and Soil Moisture Sensor ( YL-69) "
Check out our Video about this project on ;
Youtube : https://www.youtube.com/watch?v=h6N6McVpkq4&t=16s
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Pengukuran kelembaban tanah dengan moisture sensor berbasis fixyana cahyana
Dokumen ini membahas tentang pengukuran kelembaban tanah menggunakan sensor kelembaban berbasis Arduino Uno. Sensor ini mampu mendeteksi langsung nilai kelembaban tanah dan memberikan indikasi keadaan tanah yang kering, lembab, atau basah melalui LED dan servo motor. Hasil pengujian menunjukkan bahwa sensor ini dapat mengukur kelembaban tanah dengan baik.
This document outlines an automated greenhouse project. The student aimed to learn about automation and control systems by automating a greenhouse. They bought sensors and components, learned about programming microcontrollers, and created code to automate and control the greenhouse's temperature, humidity, watering and lighting systems. The document is structured to explain the motivation, methodology, components used, and programming implemented to complete the automated greenhouse.
The document describes a project to design an automated soil moisture sensor irrigation system using a microcontroller. It includes a block diagram of the system showing the main components: soil moisture and humidity sensors, microcontroller, LCD display, relays, motor and pump. It then provides more details on the hardware components used, including the power supply circuit, sensors, microcontroller and other electronic components. The aim is to automatically maintain the soil moisture level as required for optimal plant growth.
This project summary describes an automated plant watering system. It uses sensors to measure soil moisture and temperature. An Arduino microcontroller processes the sensor readings and controls a solenoid valve to water the plants when the soil is dry. The system provides wireless communication through a Zigbee module for remote control. The document outlines the components, circuit diagram, working mechanism, advantages and applications of the automated irrigation system.
The document describes a weather monitoring and control system for a greenhouse. Sensors measure parameters like temperature, humidity, light, and soil moisture. A microcontroller processes the sensor data and controls actuators like pumps, sprayers, and lights. The system aims to automatically control the greenhouse climate based on predefined thresholds to optimize plant growth and production.
irrigationsystem using wind energy and water liftingHamed Raza
This document describes a wind-powered automatic irrigation system that uses a wind dynamo to generate electricity from wind energy. This electricity powers a pump that pumps water from a bore well to a storage tank. A soil moisture sensor then senses the moisture level in the soil and controls a motor that regulates the flow of water from the tank to the irrigation field, optimizing water usage. The system provides a sustainable alternative energy source for irrigation after an initial investment and requires minimal ongoing maintenance or manual operation.
This document summarizes an Arduino seminar report. It discusses what Arduino is, different Arduino boards, how the Arduino board works including the controller, power supply, and USB to serial converter. It also summarizes sensors that can interface with Arduino like temperature sensors and hall sensors. Finally, it provides an overview of a home automation project using Arduino and GSM to control devices remotely through SMS messages.
Adding Remote Controller Functionality To Any StereoEditor IJCATR
Use of stereo has become common in our lives. They are used in cars, TVs, music players etc. And it is essential at least to control their volumes. Suppose there is a stereo amplifier which functions pretty well but it does not have a remote. It would be very annoying if its volume cannot be controlled. So this project is useful as it creates a device which makes use of any existing remote to control the volume. For controlling the volume, we use a volume controller IC. The electronic volume controller IC PT2258 is a digital potentiometer which can be controlled using I2C protocols. It is used to control the attenuation for every combination possible from 0 to -79 dB/step. Universal IR receiver is used to decode the IR codes and the data will be transferred to the Arduino which in turn communicates with the IC PT2258 and controls the volume. The device also consists of two buttons, which are used to synchronize the IR code of the existing remote with the device. So the user will be able to use the device easily.
This document is a 37-page student project report on developing a water pump controller with a water level display. It includes sections on the introduction, literature review, proposed system and methodology, results and discussion, and conclusion. The project uses an Arduino board, ultrasonic sensor, LCD display, water pump, and other components to monitor and control the water level in a tank.
This document provides an overview of a lab on using Arduino. The schedule includes lectures on Arduino, installing drivers, and using an ultrasonic sensor. It defines Arduino as a hardware and software platform and describes the Arduino UNO board. It explains how to install the Arduino IDE and write programs with a setup and loop structure. Lab 1 demonstrates controlling an LED, and Lab 2 uses an ultrasonic sensor to measure distance. Lab 3 builds a minimum system using just an AVR chip.
The document discusses sensors, actuators, and microcontroller boards. It begins by defining sensors as devices that detect physical phenomena and convert them to electrical signals. Actuators are defined as devices that interpret electrical signals and convert them to mechanical motion. It then provides examples of different sensor types like thermistors, thermocouples, photoresistors, and motion sensors. Examples of actuator types include linear actuators, motors, relays, and solenoids. The document also discusses sensor interfaces and microcontroller boards like the Arduino UNO and Raspberry Pi.
This document describes an automatic plant watering system using an Arduino Uno that senses soil moisture levels. A soil moisture sensor measures the resistance in the soil to determine if it is dry or wet. If the soil is dry, the sensor triggers a relay that powers a water pump to supply water. Once the soil moisture reaches a sufficient level, the pump shuts off.
This document describes a project to develop an IoT-based system to track lost ATM cards using multiple sensors. The system uses an ESP8266 module connected to a GPS sensor, flex sensor, moisture sensor, lasers and buzzer to detect the location and condition of a lost ATM card. The sensor data is sent to a cloud server and can be accessed through a mobile application. The hardware components include an ESP8266, GPS module, light sensors, buzzer, moisture sensors and flex sensors. The system is intended to provide more secure tracking of lost ATM cards compared to existing solutions.
GSM based agriculture monitoring systemIRJET Journal
This document describes an agriculture monitoring system that uses sensors to measure soil moisture and temperature, and sends alerts via SMS if the measurements exceed thresholds. The system includes an Arduino board connected to sensors for soil moisture and temperature, as well as a GSM module. The sensors continuously monitor conditions and transmit readings to users' phones via the GSM module if the moisture or temperature levels go above or below set points. This low-cost system allows small farmers to remotely monitor field conditions without expensive dedicated equipment.
PPT iot based smart rrigration system pptx.pptxrakesh851750
This document describes an IoT-based smart irrigation system that uses soil moisture, temperature, and humidity sensors to automatically irrigate crops without human intervention. The system has a transmitter section with sensors that measures the soil conditions and a receiver section consisting of a microcontroller and modules that receives the sensor data and controls the irrigation. The sensor data is sent wirelessly via ZigBee to reduce water consumption and over/under irrigation while increasing agricultural production.
This document describes the design and working of an intelligent line following robot. It uses infrared sensors to detect a black line on a white surface and a microcontroller to control motors that navigate the robot along the line. The microcontroller receives sensor input and determines whether the robot should move straight, turn right, or turn left to stay on the line. The line following robot demonstrates principles of sensing, feedback control, and programming intelligence into machines.
This laboratory manual introduces students to controlling systems using an Arduino microcontroller. Lab 1 covers basic input and output using LEDs and buttons. Lab 2 adds a photoresistor sensor and implements proportional and proportional-integral control of LED brightness. Lab 3 applies these same control techniques to a motor system using an encoder for position feedback. The labs provide circuit diagrams, code examples, and instructions to help students gather and analyze data on system responses under different control schemes.
This document describes a smart blind stick project created by students using an Arduino Uno and ultrasonic sensor. The stick detects nearby obstacles and notifies the user through a buzzer. It aims to help the visually impaired navigate safely. Key components include an Arduino, ultrasonic sensor to detect obstacles up to 450cm away, and a buzzer to alert the user. The document outlines the circuit diagram and code used. It also discusses potential future additions like GPS and an SOS function to improve assistance and safety for the blind.
Automatic Door Opener using PIR SensorRAGHUVARMA09
This document describes an automatic door opening system using a PIR sensor. When a person approaches within the sensor's range, it sends a signal to the microcontroller to open the door using a motor. The door automatically closes after a fixed time delay if no further movement is detected. The system uses an Arduino, PIR sensor, LCD display, motor driver, and other hardware. It is powered by a battery and is designed to open doors automatically for accessibility purposes in places like malls, hotels, and theaters. Further improvements proposed include adding user counting and upgrading to a closed-circuit TV system for security monitoring.
This document provides instructions for assembling a motion detector kit using a PIR sensor, lens, and integrated circuit. The key components - the PIR sensor, light dependent resistor (LDR), and plastic lens - are mounted on the back of the printed circuit board. The sensitivity of the motion detection can be adjusted using three trimpots that control sensitivity level, daylight sensitivity using the LDR, and output pulse duration. The integrated circuit contains all the electronics needed for motion detection and output signaling through an LED or relay. Proper assembly of the components and warming up the circuit for a minute are important for reliable operation.
This document describes a rain detection system using an Arduino that can trigger an alarm when it rains. The system uses a rain sensor module that detects rain by measuring changes in resistance from water on its surface. When rain is detected, the sensor outputs a signal to an Arduino board that then triggers an alarm. The sensor can be used to automate rainwater harvesting or sprinkler systems by detecting the onset of rain. The document provides details on the components, wiring, and code needed to interface the rain sensor with an Arduino board and respond to rain detection with an alarm.
Transient Analysis of 12V DC Power Supply_F.pdfParvesh Taneja
This document describes the transient analysis of a 12V DC power supply circuit. The goals of the project are to design the circuit using basic electronic components, simulate it in MATLAB Simulink, and analyze the transients. The circuit converts 220V AC mains power to 12V DC through four stages: step-down transformer, full-wave rectifier, capacitor, and voltage regulator. Simulations of the circuit in MATLAB Simulink are shown with voltage vs. time graphs at each stage and conclusions are that the transient states can be seen in the results graphs.
This project aims to save electricity used in street lamps by installing motion sensors between lamps that are 30 meters apart. Passive infrared sensors will detect movement of people or vehicles and activate the LED street lights. This will ensure lights turn on only when needed rather than remaining on constantly. By only turning lights on when motion is detected, a large amount of electricity can be conserved compared to the current system where lights remain lit regardless of activity. The motion sensors will activate lights 20 meters and 80 meters ahead of detected movement to provide adequate lighting for pedestrians and vehicles respectively.
This document provides an overview and summary of a dissertation on vertical farming. The summary includes:
1) The objective of the dissertation was to investigate the feasibility and sustainability of vertical farming by examining its energy generation and carbon footprint, and stakeholder perceptions.
2) The methodology involved literature reviews, energy and carbon footprint analyses, life cycle analyses, and interviews with stakeholders to understand barriers and opportunities.
3) The scope discussed potential benefits of vertical farming like reduced transportation and use of unused urban spaces, but also limitations in crop varieties and challenges in initial costs and developing sustainable lighting.
The document discusses pumps, motors, and hydraulic cylinders. It begins by introducing hydraulic pumps and describing the two main types: rotodynamic pumps (like centrifugal pumps) and reciprocating pumps. It then compares centrifugal and positive displacement (reciprocating) pumps, noting key differences in how they handle flow rate, pressure, viscosity, efficiency, and net positive suction head (NPSH). The document dives deeper into technical terms related to pumps like static pressure, pressure head, specific weight, and flow rate. It provides diagrams of components like centrifugal pumps and reciprocating pumps. In summary, the document provides an overview of hydraulic pump types and technical concepts as well as comparisons between centrifugal and reciprocating pump
Subject studied during Mechanical Engineering at Gd Goenka UniversityParvesh Taneja
This document lists Parvesh Taneja's coursework over 8 semesters for a Bachelor of Technology degree in Mechanical Engineering from 2013-2017. It includes core engineering courses covering subjects like mechanics, thermodynamics, design, and manufacturing processes. It also includes general education classes in areas such as mathematics, chemistry, physics, communication skills and ethics. During the 8th semester, Parvesh Taneja completed a 4-6 month internship at ARDE DRDO in Pune, India.
This report discusses about different types of tools that are required for cutting stones.
This is a study project that was done in 5th semester of B.Tech. for subject Manufacturing Process and Metallurgy.
Foundation of Computational Fluid Dynamics Parvesh TanejaParvesh Taneja
Scored highest in an online course, Titled "Foundation of Computational Fluid Dynamics" by Indian Institute of Technology Madras. National Programme on Technology Enhanced Learning (NPTEL)
Parvesh Taneja completed an 8-week industrial training at M/s Mindarika Pvt. Ltd, which is part of the Uno Minda Group. During the training, Parvesh worked in the company's design department. Some of Parvesh's responsibilities included designing switches like power window switches and rocker switches using ProE software, preparing bills of materials and quality standards, and conducting 2D drafting in AutoCAD. Parvesh also learned about the company's organization structure, design processes, work ethics programs around continuous improvement, and substance compliance regulations. The training provided Parvesh valuable experience in industrial design work and manufacturing processes.
Connecting morse key to pc using an optical mouse.Parvesh Taneja
This document provides instructions for connecting a Morse key to a PC using an optical mouse. It outlines two methods: using a DB9 to USB converter or hacking an optical mouse. Hacking the mouse is described as the cheaper and easier option. A step-by-step procedure is provided that involves opening the mouse, identifying the micro-buttons and LED, and wiring the key to trigger the buttons to send keyboard signals. Optional additions like LED indicators are also described.
Supervisory Control and Data Acquisition (SCADA) system for Greenhouse Farm w...Parvesh Taneja
Supervisory Control and Data Acquisition (SCADA) system for Greenhouse Farm with internet of things (I.o.T.) architecture.
Automation of a greenhouse using Raspberry Pi. Controlling Humidity,Temperature. Controlling everything remotely using your browser.
Autodesk Maya is an industry-standard 3D modeling, rigging, and animation software. The document discusses various 3D modeling and animation techniques in Maya like traditional 2D animation involving hand-drawn frames, digital 2D animation using software, 3D animation allowing for realistic characters, stop motion using physical object manipulation, and puppetry animation using life-like puppets. It also details animation concepts such as character rigging using digital skeletons and rendering to generate images from 3D models. Examples made in Maya using these techniques included a crow, soda can, and humanoid character.
3D modelling and animation using Autodesk mayaParvesh Taneja
This document provides a summary of a student project report on 3D modeling and animation using Autodesk Maya. The report includes chapters on the basics of 3D modeling and different types of modeling. It also covers an introduction to animation, various animation techniques, and an overview of Autodesk Maya software capabilities and system requirements.
This document proposes a system to automate a farm and monitor environmental conditions in real-time using a Raspberry Pi and Arduino board. Sensors would detect light levels, soil moisture, temperature, and humidity. The Raspberry Pi would connect to the internet and Arduino to receive analog sensor data. When light is low or soil moisture decreases, artificial light or a water pump would activate. A web interface would display current conditions and sensor readings over time to monitor the farm remotely.
Wireless local area networks (WLANs) use radio waves to connect devices in a building or campus wirelessly. They integrate with wired networks through access points that bridge wireless and wired traffic. WLANs operate similarly to wired LANs but have some differences like lower security, limited bandwidth, and variable performance depending on location within the network coverage area. Common devices that use WLANs include tablets, smartphones and laptops.
“Comparative and Competitive study of the corporate identity of the domestic ...Parvesh Taneja
“Comparative and Competitive study of the corporate identity of the domestic airlines and design a Facelift and image-refurbishment strategy for one of them. ”
ADVXAI IN MALWARE ANALYSIS FRAMEWORK: BALANCING EXPLAINABILITY WITH SECURITYijscai
With the increased use of Artificial Intelligence (AI) in malware analysis there is also an increased need to
understand the decisions models make when identifying malicious artifacts. Explainable AI (XAI) becomes
the answer to interpreting the decision-making process that AI malware analysis models use to determine
malicious benign samples to gain trust that in a production environment, the system is able to catch
malware. With any cyber innovation brings a new set of challenges and literature soon came out about XAI
as a new attack vector. Adversarial XAI (AdvXAI) is a relatively new concept but with AI applications in
many sectors, it is crucial to quickly respond to the attack surface that it creates. This paper seeks to
conceptualize a theoretical framework focused on addressing AdvXAI in malware analysis in an effort to
balance explainability with security. Following this framework, designing a machine with an AI malware
detection and analysis model will ensure that it can effectively analyze malware, explain how it came to its
decision, and be built securely to avoid adversarial attacks and manipulations. The framework focuses on
choosing malware datasets to train the model, choosing the AI model, choosing an XAI technique,
implementing AdvXAI defensive measures, and continually evaluating the model. This framework will
significantly contribute to automated malware detection and XAI efforts allowing for secure systems that
are resilient to adversarial attacks.
Concept of Problem Solving, Introduction to Algorithms, Characteristics of Algorithms, Introduction to Data Structure, Data Structure Classification (Linear and Non-linear, Static and Dynamic, Persistent and Ephemeral data structures), Time complexity and Space complexity, Asymptotic Notation - The Big-O, Omega and Theta notation, Algorithmic upper bounds, lower bounds, Best, Worst and Average case analysis of an Algorithm, Abstract Data Types (ADT)
"Feed Water Heaters in Thermal Power Plants: Types, Working, and Efficiency G...Infopitaara
A feed water heater is a device used in power plants to preheat water before it enters the boiler. It plays a critical role in improving the overall efficiency of the power generation process, especially in thermal power plants.
🔧 Function of a Feed Water Heater:
It uses steam extracted from the turbine to preheat the feed water.
This reduces the fuel required to convert water into steam in the boiler.
It supports Regenerative Rankine Cycle, increasing plant efficiency.
🔍 Types of Feed Water Heaters:
Open Feed Water Heater (Direct Contact)
Steam and water come into direct contact.
Mixing occurs, and heat is transferred directly.
Common in low-pressure stages.
Closed Feed Water Heater (Surface Type)
Steam and water are separated by tubes.
Heat is transferred through tube walls.
Common in high-pressure systems.
⚙️ Advantages:
Improves thermal efficiency.
Reduces fuel consumption.
Lowers thermal stress on boiler components.
Minimizes corrosion by removing dissolved gases.
Data Structures_Linear data structures Linked Lists.pptxRushaliDeshmukh2
Concept of Linear Data Structures, Array as an ADT, Merging of two arrays, Storage
Representation, Linear list – singly linked list implementation, insertion, deletion and searching operations on linear list, circularly linked lists- Operations for Circularly linked lists, doubly linked
list implementation, insertion, deletion and searching operations, applications of linked lists.
Value Stream Mapping Worskshops for Intelligent Continuous SecurityMarc Hornbeek
This presentation provides detailed guidance and tools for conducting Current State and Future State Value Stream Mapping workshops for Intelligent Continuous Security.
We introduce the Gaussian process (GP) modeling module developed within the UQLab software framework. The novel design of the GP-module aims at providing seamless integration of GP modeling into any uncertainty quantification workflow, as well as a standalone surrogate modeling tool. We first briefly present the key mathematical tools on the basis of GP modeling (a.k.a. Kriging), as well as the associated theoretical and computational framework. We then provide an extensive overview of the available features of the software and demonstrate its flexibility and user-friendliness. Finally, we showcase the usage and the performance of the software on several applications borrowed from different fields of engineering. These include a basic surrogate of a well-known analytical benchmark function; a hierarchical Kriging example applied to wind turbine aero-servo-elastic simulations and a more complex geotechnical example that requires a non-stationary, user-defined correlation function. The GP-module, like the rest of the scientific code that is shipped with UQLab, is open source (BSD license).
☁️ GDG Cloud Munich: Build With AI Workshop - Introduction to Vertex AI! ☁️
Join us for an exciting #BuildWithAi workshop on the 28th of April, 2025 at the Google Office in Munich!
Dive into the world of AI with our "Introduction to Vertex AI" session, presented by Google Cloud expert Randy Gupta.
Sorting Order and Stability in Sorting.
Concept of Internal and External Sorting.
Bubble Sort,
Insertion Sort,
Selection Sort,
Quick Sort and
Merge Sort,
Radix Sort, and
Shell Sort,
External Sorting, Time complexity analysis of Sorting Algorithms.
3. INTRODUCTION
Soil Moisture Sensor as the name suggest ,can detect amount of moisture in
soil (roots of a plant).
It is Low-Tech sensor.
This sensor is compatible with Arduino UNO,Arduino mega2560, Arduino ADK
etc.
4. WORKING PRINCIPLE
• Strictly Speaking moisture sensor does not measures moisture but measures
conductivity or resistivity of soil.
• Moisture Sensor has two probes to pass current through the soil. It then reads
resistance(conductance) in the soil.
• Less moisture (water) in soil results in higher resistance i.e. dry soil.
• More moisture (water) in soil results in lesser resistance and sensor thus
relates moisture content.
5. FEATURES
This sensor has low power consumption, and high sensitivity. (Sensitivity should not be
confused with accuracy)
Operates on low Voltage of 5v.
Operates on low current <20mA.
Weighs only 3 gram.
7. PIN DEFINITIONS
Fig 2.1: Soil Moisture Sensor Pins (Ref)
Pin with “S” written on it means signal.
Pin with “-” written on it means GND (ground) .
Pin with “+” written on it means 5v supply.
8. YL69(PROBES) CONNECTED TO YL38 (INTERFACE)
This is what I will be using while
Showing Demo.
Fig 2.2: Soil Moisture Sensor unit (Ref)
Yl38 (Interface) and Yl69 (Probes)
Cost = 130 INR
9. YL-69 MOISTURE SENSOR (PROBES)
• This is an Electrical resistance Sensor. The sensor is made up of two electrodes. This soil moisture sensor
reads the moisture content around it. A current is passed across the electrodes through the soil and the
resistance to the current in the soil determines the soil moisture. If the soil has more water resistance
will be low and thus more current will pass through. On the other hand when the soil moisture is low
the sensor module outputs a high level of resistance.
• This sensor has both digital and analogue outputs. Digital output is simple to use but is not as accurate
as the analogue output.
11. YL - 38 INTERFACE FOR YL-69 PROBES
• The sensor comes with a small PCB board fitted with LM393 comparator chip and a potentiometer.
• Output signal Pins (Both Analog and Digital).
• Input Power pins for the sensor is also present on this PCB.
Fig 2.2.2: YL-38 (Interface)
15. SIMPLE BASIC SKETCH-1
• void setup() {
• // put your setup code here, to run once:
• // initialize serial communication at 9600 bits per second:
• Serial.begin(9600);
• }
• void loop() {
• // put your main code here, to run repeatedly:
• // read the input on analog pin 0:
• int sensorValue = analogRead(A0); Serial.println(sensorValue);
• delay(100);
• }
16. SIMPLE BASIC SKETCH-2
void setup() {
Serial.begin(9600);
}
void loop(){
if(analogRead(A0)<300){
Serial.println("I feel so comfortable");
}
if(analogRead(A0)>300 && analogRead(5)<700){
Serial.println("I am thirsty ,please give me water");
}
if(analogRead(A0)>700){
Serial.println("Too much water,I might get hurt");
}
delay(200);
}
21. THANK YOU
• Keep Experimenting
• Keep Loving Open Source.
Editor's Notes
#4: Low Tech means which is not highly accurate for scientific studies but could be used for non scientific work like in sensing moisture in root of a plant where we don’t need exact readings or simply it doesn’t matter if some small errors are present in reading.
#9: This was cheaper then previous one shown in figure2.1 and was easily available. So this slide is just to tell what I did(That’s why background is different)
#18: All pictures in slide 11,12 & 13 are taken from http://www.fut-electronics.com/wp-content/plugins/fe_downloads/Uploads/moisture-sensor-arduino.pdf
#19: All pictures in slide 11,12 & 13 are taken from http://www.fut-electronics.com/wp-content/plugins/fe_downloads/Uploads/moisture-sensor-arduino.pdf
#20: All pictures in slide 11,12 & 13 are taken from http://www.fut-electronics.com/wp-content/plugins/fe_downloads/Uploads/moisture-sensor-arduino.pdf