Water Usage & Arduino Irrigation Systems
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Water Usage & Arduino Irrigation Systems

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@BelovedPyramidsOfGiza

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Questions and Answers

What percentage of total extracted freshwater was used by the agriculture sector in 2010?

  • 50%
  • 30%
  • 69% (correct)
  • 19%
  • What is one advantage of a sensor-based automated irrigation system for farmers?

  • Farmers can manage their activities remotely. (correct)
  • Farmers need to be present for irrigation.
  • It requires manual operation at all times.
  • It reduces the total amount of water used.
  • Which platform is mentioned as part of the smart drip irrigation system proposed for home automation?

  • Arduino
  • Both A and B (correct)
  • Raspberry Pi
  • Microcontroller
  • How does a drip irrigation system optimize water use?

    <p>Water is slowly dripped to the roots of plants.</p> Signup and view all the answers

    What is the consequence of the conventional irrigation process for farmers?

    <p>Farmers are required to be present in the fields.</p> Signup and view all the answers

    Study Notes

    Water Usage & Irrigation

    • According to the AQUASTAT database in 2010, the agriculture sector consumed 69% of the world's freshwater supply, while industrial and domestic usage accounted for 19% and the remaining percentage, respectively.
    • Sensor-based automated irrigation systems offer a solution to the need for farmers' physical presence in their fields for irrigation.
    • These systems can remotely control water supply to plants, making them more efficient and allowing farmers to pursue other occupations.
    • A smart drip irrigation system utilizes Raspberry Pi and Arduino technology for home automation, efficiently delivering water to plants through narrow tubes and valves.

    Arduino-Based Automatic Plant Watering System

    • The system uses Arduino microcontroller, moisture sensors, and a motor/pump.
    • The microcontroller receives data from the moisture sensor and controls water delivery based on pre-programmed instructions.
    • The moisture sensor measures soil moisture levels and sends the data to the microcontroller.
    • If the soil is dry, the microcontroller activates the motor/pump to irrigate the plants.

    System Design

    • The system features a microcontroller block, a sensor block, and a hardware implementation block.
    • The microcontroller is responsible for processing data and controlling the system.
    • The moisture sensor measures the soil moisture level.
    • The hardware implementation includes the components needed for the operation system.
    • The LCD screen displays the moisture sensor readings and the status of the water pump.

    Code and Functionality

    • The system's code reads the sensor value and displays it on the LCD screen.
    • The code converts the analog sensor value into a digital representation and determines whether to activate the water pump.
    • If the soil moisture percentage is below 38%, the water pump will be automatically switched on.
    • The LCD screen will display "ON" when the water pump is active.
    • The code is responsible for the efficient use of water and the automation of the irrigation process.

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    Description

    This quiz explores the critical role of water consumption in agriculture, highlighting the statistics from the AQUASTAT database. It delves into innovative solutions like sensor-based automated irrigation and the implementation of Arduino in smart drip systems for efficient water management.

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