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The Turbidity Sensor Module is an efficient and cost-effective solution for monitoring water quality by measuring the turbidity (cloudiness) caused by suspended particles like silt, clay, plankton, and organic matter. This sensor is compatible with Arduino and similar microcontroller platforms, making it perfect for DIY electronics projects and industrial applications.

Key Features:

• Accurate Turbidity Measurement: Measures light transmittance and scattering rate to evaluate water clarity.
• Wide Compatibility: Works seamlessly with Arduino and other microcontrollers.
• Dual Signal Outputs:
  • Analog Output (AO): Voltage range 0~4.5V for real-time data.
  • Digital Output (DO): High/low signal based on threshold (adjustable via potentiometer).
• Industrial Applications: Ideal for washing machines, water purification systems, and environmental monitoring.
• Durable Design: Operates within a wide temperature range (-20°C to 90°C) and ensures high insulation resistance.

Specifications:

• Working Voltage: 5V DC
• Current Consumption: 40mA (max)
• Response Time: <500ms
• Insulation Resistance: 100MΩ (min)
• Operating Temperature: -20°C to 90°C
• Module Size: 38.6mm x 22.1mm

Package Includes:

• 1x Turbidity Sensor Module

Applications:

• Water Quality Monitoring: Measure turbidity for environmental research.
• Washing Machines & Dishwashers: Optimize performance by detecting water clarity.
• DIY Projects: Integrate into Arduino-based water purification or IoT systems.

Why Choose ElectroBoat?

At ElectroBoat, we offer tested and high-quality electronics components, including this Turbidity Sensor Module. Enjoy:

• Affordable Prices
• Fast Delivery Across India
• Exclusive Discounts on Bulk Orders

Order the Turbidity Sensor Module today and start building smarter water quality systems!

A turbidity sensor is a device used to measure the cloudiness or haziness of a liquid, which indicates the presence of suspended particles. It is commonly used in water quality monitoring, industrial processes, and environmental studies to assess the clarity of water.

Key Features:

1. Measurement Principle:

   • Optical: Turbidity sensors typically use an optical method to measure turbidity. They emit light into the liquid and measure the amount of light scattered by suspended particles.
   • Infrared or Visible Light: Some sensors use infrared light, while others use visible light, depending on the application.

2. Output Type:

   • Analog Output: Provides a continuous voltage signal proportional to the turbidity level.
   • Digital Output: Provides a digital signal or data readout that represents the turbidity level.

3. Range and Sensitivity:

   • Measurement Range: The range can vary depending on the sensor, often from very low turbidity levels (e.g., 0-100 NTU) to higher levels (e.g., 0-4000 NTU).
   • Resolution: The sensitivity and resolution of the sensor can affect its accuracy in detecting low levels of turbidity.

4. Calibration:

   • Calibration Needed: Turbidity sensors usually require calibration using standard solutions or reference samples to ensure accurate readings.

5. Environmental Conditions:

   • Temperature and pH: Some sensors are designed to operate under various temperature and pH conditions, while others might be sensitive to these factors.

Applications:

1. Water Quality Monitoring:

   • Drinking Water: Ensures water clarity and safety for human consumption.
   • Wastewater Treatment: Monitors the clarity of treated wastewater before discharge.

2. Industrial Processes:

   • Manufacturing: Measures the clarity of process fluids and ensures product quality.
   • Food and Beverage: Assesses clarity in beverages and other liquid products.

3. Environmental Studies:

   • River and Lake Monitoring: Tracks changes in turbidity to assess environmental impact and water quality.

4. Aquarium and Hydroponics:

   • Water Clarity: Maintains optimal conditions for aquatic life and plants.

Selecting the Right Sensor:

1. Measurement Range:

   • Appropriate Range: Choose a sensor with a measurement range suitable for your application. For instance, high turbidity environments require sensors with a broader range.

2. Accuracy and Precision:

   • Resolution: Select a sensor with sufficient accuracy and resolution for your needs.

3. Environmental Conditions:

   • Compatibility: Ensure the sensor can operate under the specific temperature, pH, and chemical conditions of your application.

4. Output Type:

   • Analog or Digital: Choose based on how you plan to interface with the sensor and process the data.

5. Calibration:

   • Ease of Calibration: Consider how easily the sensor can be calibrated and maintained.

Wiring and Installation:

1. Power Supply:

   • Voltage Requirements: Ensure the sensor is powered according to its specifications, usually 5V or 12V DC.

2. Signal Connection:

   • Analog Output: Connect the analog output to an analog input of a microcontroller or data acquisition system.
   • Digital Output: Connect the digital output to the appropriate input on a microcontroller or display.

3. Mounting:

   • In-Line or Submersible: Some sensors are designed to be mounted in-line with the flow of the liquid, while others are submersible and can be placed directly in the liquid.

4. Calibration:

   • Use Standard Solutions: Calibrate the sensor using standard turbidity solutions to ensure accurate readings.