Resistor Box (150 Resistors and 30 Values) Documentation

Component Name

Resistor Box (150 Resistors and 30 Values)

Overview

The Resistor Box (150 Resistors and 30 Values) is a comprehensive package of resistors, providing a wide range of values and quantities for various electronic projects and prototypes. This component is designed to cater to the needs of electronics enthusiasts, hobbyists, and professionals, offering a convenient and organized way to access a variety of resistors.

Functionality

The primary function of the Resistor Box is to provide a collection of resistors with different values, allowing users to select the appropriate resistor for their specific project requirements. Resistors are essential components in electronic circuits, and this box offers a diverse range of values to accommodate various circuit designs.

Key Features

Quantity: The Resistor Box contains 150 resistors, providing an ample supply for multiple projects and prototypes.
Value Range: The box includes 30 different values of resistors, ranging from low ohmic values to high ohmic values, covering a wide spectrum of resistance requirements.
Resistance Tolerance: The resistors in the box have a standard tolerance of 5% or 1%, ensuring accurate and reliable performance in electronic circuits.
Power Rating: The resistors are rated for a maximum power dissipation of 0.25W or 0.5W, making them suitable for a variety of applications.
Package Type: The resistors are packaged in a compact, compartmentalized box, making it easy to store and organize the components.
Labeling: Each compartment is clearly labeled with the corresponding resistor value, facilitating quick identification and selection.
Material: The resistors are made from high-quality materials, ensuring reliable performance and durability.
Compatibility: The resistors are compatible with a wide range of electronic projects, including breadboarding, PCB design, and prototyping.

Resistance Range

10 to 1M

Tolerance

5% or 1%

Power Rating

0.25W or 0.5W

Operating Temperature

-40C to 125C

Material

Metal Film or Carbon Film

Dimensions

15cm x 10cm x 5cm (box dimensions)

Applications

The Resistor Box (150 Resistors and 30 Values) is suitable for a wide range of applications, including

Electronic prototyping and development

Breadboarding and PCB design

Robotics and automation projects

IoT and embedded systems

Hobbyist and DIY electronic projects

Conclusion

The Resistor Box (150 Resistors and 30 Values) is an essential component for anyone working with electronics, providing a comprehensive collection of resistors with a wide range of values and quantities. Its compact, organized design and clear labeling make it an ideal solution for professionals and hobbyists alike.

Pin Configuration

Resistor Box (150 Resistors and 30 Values) Documentation
The Resistor Box is a convenient and space-saving component that houses 150 resistors with 30 different values. This documentation provides a detailed explanation of the pins and how to connect them.
Pin Structure:
The Resistor Box has a total of 30 rows, each representing a unique resistor value. Each row has 5 pins, labeled as follows:
Row Structure:
Row Label: A label indicating the resistor value (e.g., 1k, 2k, etc.)
Pin 1 (R1): One end of the resistor
Pin 2 (R2): The other end of the resistor
Pin 3 (GND): Ground connection
Pin 4 (NC): No Connection (not used)
Pin 5 (NC): No Connection (not used)
Pin Explanation:
Pin 1 (R1): This pin is one end of the resistor. Connect this pin to the desired circuit point.
Pin 2 (R2): This pin is the other end of the resistor. Connect this pin to the desired circuit point.
Pin 3 (GND): This pin is a ground connection. Connect this pin to the ground rail of your circuit or breadboard.
Pin 4 (NC): This pin is not used and should be left unconnected.
Pin 5 (NC): This pin is not used and should be left unconnected.
Connecting the Pins:
To use a resistor from the Resistor Box, follow these steps:
1. Identify the desired resistor value: Locate the row with the desired resistor value (e.g., 1k, 2k, etc.).
2. Connect Pin 1 (R1): Connect Pin 1 to the desired circuit point.
3. Connect Pin 2 (R2): Connect Pin 2 to the desired circuit point.
4. Connect Pin 3 (GND): Connect Pin 3 to the ground rail of your circuit or breadboard.
5. Leave Pins 4 and 5 unconnected: Pins 4 and 5 (NC) are not used and should be left unconnected.
Example Connection:
Suppose you want to use a 1k resistor from the Resistor Box in a simple voltage divider circuit. Connect the pins as follows:
Pin 1 (R1) to VIN (input voltage)
Pin 2 (R2) to VOUT (output voltage)
Pin 3 (GND) to GND (ground rail)
Leave Pins 4 and 5 unconnected
Notes:
Make sure to handle the Resistor Box with care to avoid damaging the resistors or the pins.
Always double-check the resistor value and pin connections to ensure correct circuit operation.
When using multiple resistors from the Resistor Box, make sure to connect each resistor to the correct pins to avoid confusion or mistakes.

Code Examples

Resistor Box (150 Resistors and 30 Values) Component Documentation

Overview

The Resistor Box (150 Resistors and 30 Values) is a versatile component designed for prototyping and development of various IoT projects. This component consists of 150 resistors with 30 different values, ranging from 1 to 1M, allowing users to easily test and experiment with different circuit configurations.

Key Features

150 resistors with 30 distinct values (1, 2, 5, 10, ... , 1M)
 Compact design for easy storage and transportation
 Suitable for breadboarding and prototyping IoT projects
 Ideal for electronics enthusiasts, students, and professionals

Pinout and Connections

The Resistor Box (150 Resistors and 30 Values) does not have specific pins or connectors. Instead, users can connect the resistors directly to their circuit boards or breadboards.

Code Examples

### Example 1: Using Resistors in a Basic LED Circuit (Arduino)

In this example, we will use a 1k resistor from the Resistor Box to connect an LED to an Arduino board.

Components:

Arduino Board (e.g., Arduino Uno)
 LED
 1k Resistor (from the Resistor Box)
 Breadboard
 Jumper wires

Code:
```c
const int ledPin = 13;  // Choose a digital pin on the Arduino board

void setup() {
  pinMode(ledPin, OUTPUT);
}

void loop() {
  digitalWrite(ledPin, HIGH);  // Turn the LED on
  delay(1000);
  digitalWrite(ledPin, LOW);  // Turn the LED off
  delay(1000);
}
```
Connections:

1. Connect the 1k resistor to the LED's cathode (short leg) and the Arduino's digital pin 13.
2. Connect the LED's anode (long leg) to the Arduino's 5V pin.
3. Connect the resistor's other end to the breadboard's ground rail.

### Example 2: Using Resistors in a Voltage Divider Circuit (Raspberry Pi)

In this example, we will use two resistors from the Resistor Box to create a voltage divider circuit with a Raspberry Pi.

Components:

Raspberry Pi
 2k Resistor (from the Resistor Box)
 1k Resistor (from the Resistor Box)
 Breadboard
 Jumper wires

Code:
```python
import time
import RPi.GPIO as GPIO

GPIO.setmode(GPIO.BCM)

# Define the pins for the voltage divider circuit
Vin = 17  # Input voltage (e.g., 5V)
Vout = 18  # Output voltage

GPIO.setup(Vin, GPIO.IN)
GPIO.setup(Vout, GPIO.IN)

while True:
    # Calculate the output voltage using the voltage divider formula
    Vout_voltage = (Vin_voltage  1000) / (2000 + 1000)
    print("Output Voltage: {:.2f}V".format(Vout_voltage))
    time.sleep(1)
```
Connections:

1. Connect the 2k resistor to the Raspberry Pi's 5V pin and the breadboard's rail.
2. Connect the 1k resistor to the breadboard's rail and the Raspberry Pi's GPIO pin 18 (Vout).
3. Connect the voltage input (Vin) to the breadboard's rail and the Raspberry Pi's GPIO pin 17.

Note: These examples are for illustrative purposes only and may require additional components or modifications to work in specific IoT projects. Always ensure the resistors are used within their rated specifications and follow proper safety guidelines when working with electronic circuits.