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10E 3296W Trimpot(Pack of 5)

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Component Name

10E 3296W Trimpot (Pack of 5)

Description

The 10E 3296W Trimpot is a type of potentiometer, specifically designed for trimming and adjusting electrical circuits. This component is a convenient and cost-effective solution for fine-tuning voltage levels, signal amplitudes, or impedance matching in various electronic devices and systems.

Functionality

The 10E 3296W Trimpot is a variable resistor that allows for precise adjustment of electrical resistance between its input and output terminals. By rotating the shaft, the user can change the resistance value, dividing the input voltage into two partsone part connected to the wiper terminal and the other part connected to the other two terminals. This enables the trimpot to function as a voltage divider, signal attenuator, or impedance matcher.

Key Features

  • Adjustable Resistance: The trimpot features a variable resistance range of 10k, allowing for precise adjustments to be made.
  • Compact Size: The component has a compact size, making it suitable for use in space-constrained applications.
  • Through-Hole Mounting: The trimpot has a through-hole design, allowing for easy mounting on a printed circuit board (PCB).
  • Rotary Shaft: The component features a rotary shaft with a knurled edge, providing a comfortable grip for easy adjustments.
  • Robust Construction: The trimpot is built with a durable plastic body and metal terminals, ensuring reliable operation in a variety of environments.
  • Pack of 5: The component is sold in a pack of 5, making it a cost-effective solution for projects that require multiple trimpots.

Resistance Range

10k

Tolerance

20%

Power Rating

1/4W

Insulation Resistance

>10M

Operating Temperature Range

-40C to 85C

Body Material

Plastic

Terminal Material

Metal

Shaft Material

Metal

Dimensions

6.1mm x 4.3mm x 2.2mm

Weight

0.5g (approximate)

Applications

The 10E 3296W Trimpot is suitable for use in a wide range of applications, including

Voltage regulators and power supplies

Audio equipment and amplifiers

Industrial control systems and automation

Medical devices and equipment

Consumer electronics and appliances

Precautions

When working with the 10E 3296W Trimpot, please observe the following precautions

Handle the component with care to avoid damage to the shaft or terminals.

Ensure the trimpot is mounted securely on the PCB to prevent mechanical stress or vibration.

Follow proper soldering techniques to avoid overheating or damage to the component.

By understanding the features, functionality, and precautions of the 10E 3296W Trimpot, you can effectively incorporate this component into your designs and achieve precise control over electrical circuits.

Pin Configuration

  • 10E 3296W Trimpot (Pack of 5) Documentation
  • Overview
  • The 10E 3296W Trimpot is a 3-terminal potentiometer, commonly referred to as a trimpot or trimmer potentiometer. It is used to adjust and set voltage levels, resistance, or impedance in electronic circuits. This documentation provides a detailed explanation of the pins and their connections.
  • Pinout
  • The 10E 3296W Trimpot has 3 pins, labeled 1, 2, and 3. Here's a breakdown of each pin's function:
  • Pin 1: Counter-Clockwise Terminal (CCW)
  • Function: One end of the resistive track
  • Connection: Connect to the ground or the negative side of the voltage source
  • Description: When the trimpot is turned counter-clockwise, the resistance between Pin 1 and Pin 2 increases, while the resistance between Pin 1 and Pin 3 decreases.
  • Pin 2: Wiper Terminal (W)
  • Function: Moving contact point on the resistive track
  • Connection: Connect to the output or signal line of the circuit
  • Description: The wiper terminal is the moving contact point on the resistive track, which varies its resistance with respect to Pins 1 and 3 as the trimpot is rotated.
  • Pin 3: Clockwise Terminal (CW)
  • Function: Other end of the resistive track
  • Connection: Connect to the positive side of the voltage source or a reference voltage
  • Description: When the trimpot is turned clockwise, the resistance between Pin 3 and Pin 2 increases, while the resistance between Pin 3 and Pin 1 decreases.
  • Connection Structure
  • Here's a step-by-step guide to connecting the pins:
  • 1. Ground/ Negative Voltage (Pin 1): Connect Pin 1 to the ground or the negative side of the voltage source. This provides a reference point for the trimpot's resistive track.
  • 2. Output/Signal (Pin 2): Connect Pin 2 to the output or signal line of the circuit. This is where the variable resistance is tapped, allowing the trimpot to adjust the signal or voltage level.
  • 3. Positive Voltage/Reference (Pin 3): Connect Pin 3 to the positive side of the voltage source or a reference voltage. This completes the circuit and allows the trimpot to function as a voltage divider or impedance adjuster.
  • Important Notes
  • When using the trimpot as a voltage divider, ensure that the voltage across the trimpot does not exceed the rated voltage.
  • The trimpot's resistance value is typically specified at room temperature (25C).
  • To avoid damage, do not exceed the trimpot's power rating or operate it outside its specified temperature range.
  • By following this documentation, you can correctly connect and utilize the 10E 3296W Trimpot in your electronic circuits.

Code Examples

Component Overview
The 10E 3296W Trimpot is a type of potentiometer, a variable resistor used to control the output signal or voltage in an electronic circuit. It is a popular component in IoT projects, robotics, and automation systems. This documentation provides an overview of the component, its specifications, and code examples to help users integrate it into their projects.
Specifications
Type: Trimpot (Trimmed Potentiometer)
 Model: 3296W
 Resistance: 10 k
 Power Rating: 0.5 W
 Adjusting Torque: 10-20 Ncm
 Operating Temperature: -40C to 125C
 Package Includes: 5 pieces of 10E 3296W Trimpot
Code Examples
### Example 1: Analog Voltage Control using Arduino
In this example, we will use the 10E 3296W Trimpot to control the brightness of an LED connected to an Arduino board.
Circuit Diagram
Connect the Trimpot to the Arduino board as follows:
	+ VCC to 5V on the Arduino board
	+ GND to GND on the Arduino board
	+ Wiper (middle pin) to Analog Input A0 on the Arduino board
 Connect the LED to a digital pin on the Arduino board (e.g., Pin 13)
Arduino Code
```c
const int trimpotPin = A0;  // Trimpot wiper pin connected to Analog Input A0
const int ledPin = 13;     // LED pin connected to Digital Pin 13
void setup() {
  pinMode(ledPin, OUTPUT);
}
void loop() {
  int trimpotValue = analogRead(trimpotPin); // Read Trimpot value (0-1023)
  int brightness = map(trimpotValue, 0, 1023, 0, 255); // Map Trimpot value to brightness (0-255)
  analogWrite(ledPin, brightness); // Set LED brightness
  delay(50);
}
```
In this example, the Trimpot controls the analog voltage output, which is read by the Arduino board using the `analogRead()` function. The value is then mapped to a brightness level (0-255) using the `map()` function and written to the LED using the `analogWrite()` function.
### Example 2: Voltage Divider Circuit using Raspberry Pi
In this example, we will use the 10E 3296W Trimpot as a voltage divider to control the output voltage of a sensor connected to a Raspberry Pi.
Circuit Diagram
Connect the Trimpot to the Raspberry Pi as follows:
	+ VCC to 3.3V on the Raspberry Pi
	+ GND to GND on the Raspberry Pi
	+ Wiper (middle pin) to GPIO Pin 18 on the Raspberry Pi
 Connect the sensor (e.g., a photodiode) to the Trimpot wiper pin and another GPIO pin on the Raspberry Pi (e.g., Pin 23)
Python Code
```python
import RPi.GPIO as GPIO
import time
GPIO.setmode(GPIO.BCM)
trimpot_pin = 18  # Trimpot wiper pin connected to GPIO Pin 18
sensor_pin = 23  # Sensor pin connected to GPIO Pin 23
GPIO.setup(trimpot_pin, GPIO.IN)
GPIO.setup(sensor_pin, GPIO.IN)
while True:
    trimpot_value = GPIO.input(trimpot_pin)  # Read Trimpot value (0 or 1)
    if trimpot_value == 1:
        sensor_voltage = 3.3  # Set sensor voltage to 3.3V
    else:
        sensor_voltage = 0  # Set sensor voltage to 0V
    print("Sensor Voltage:", sensor_voltage)
    time.sleep(0.5)
```
In this example, the Trimpot acts as a voltage divider, controlling the output voltage of the sensor connected to the Raspberry Pi. The Python code reads the Trimpot value and sets the sensor voltage accordingly.
Note: These code examples are for illustration purposes only and may require modifications to suit your specific project requirements. Ensure you follow proper safety precautions and circuit design guidelines when working with electronic components.