Stufin
Home Quick Cart Profile

400 Tie Points Solderless Breadboard

Buy Now on Stufin

Component Name

400 Tie Points Solderless Breadboard

Description

The 400 Tie Points Solderless Breadboard is a versatile and convenient platform for prototyping and testing electronic circuits. It is a type of solderless breadboard, designed to facilitate easy and rapid assembly of electronic components without the need for soldering. This breadboard is ideal for students, hobbyists, and professionals alike, providing a efficient and organized way to build and test complex electronic projects.

Functionality

The primary function of the 400 Tie Points Solderless Breadboard is to provide a flexible and reusable platform for building and testing electronic circuits. It allows users to connect and disconnect components quickly and easily, making it an essential tool for prototyping and development.

Key Features

  • 400 Tie Points: The breadboard features 400 tie points, providing ample space for connecting and testing a wide range of electronic components, including ICs, resistors, capacitors, and more.
  • Solderless Design: The breadboard is designed for solderless assembly, eliminating the need for soldering irons, flux, and other materials. This makes it an ideal choice for rapid prototyping and testing.
  • Interconnected Bus Strips: The breadboard features interconnected bus strips, which allow for easy connection of power and ground rails to multiple components.
  • Durable Construction: The breadboard is built with high-quality materials, ensuring durability and reliability even with frequent use.
  • Compact Size: Despite its high density of tie points, the breadboard is compact and space-efficient, making it easy to integrate into a variety of projects and workspaces.
  • Easy-to-Use Layout: The breadboard features a logical and intuitive layout, making it easy to navigate and connect components.
  • Reusability: The breadboard is reusable, allowing users to build, test, and iterate on multiple projects without incurring significant material costs.
  • Compatibility: The breadboard is compatible with a wide range of electronic components, including through-hole and surface-mount devices (SMDs).
  • Power Rails: The breadboard features dedicated power rails, providing easy access to power and ground connections.
  • Labeling: The breadboard often features labeling and markers, making it easy to identify specific components and connections.

Applications

The 400 Tie Points Solderless Breadboard is suitable for a wide range of applications, including

Prototyping and testing electronic circuits

Developing IoT projects

Building proof-of-concept models

Educating students in electronics and engineering

Creating prototype devices and gadgets

Rapid prototyping and development

In summary, the 400 Tie Points Solderless Breadboard provides a versatile and convenient platform for building and testing electronic circuits. Its solderless design, high density of tie points, and durable construction make it an ideal choice for professionals and hobbyists alike.

Pin Configuration

  • 400 Tie Points Solderless Breadboard
  • The 400 Tie Points Solderless Breadboard is a versatile and widely used platform for prototyping and testing electronic circuits. It provides a convenient way to connect and disconnect components without the need for soldering. Here's a detailed explanation of the pins on the breadboard, along with a point-by-point guide on how to connect them:
  • Pin Structure:
  • The breadboard consists of a rectangular array of 400 holes, divided into 40 rows and 10 columns. Each hole is connected to a spring-loaded contact, allowing you to insert and remove wires or components easily.
  • Columns and Rows:
  • The breadboard has 10 columns, labeled A to J, and 40 rows, numbered 1 to 40. Each column has 40 holes, making a total of 400 tie points.
  • Pin Connections:
  • Here's a point-by-point explanation of how to connect the pins on the breadboard:
  • 1. Column Connections:
  • Each column (A to J) has 40 connected holes, forming a single bus.
  • You can connect multiple components or wires to any hole in a column, and they will be electrically connected to each other.
  • 2. Row Connections:
  • Each row (1 to 40) has 10 connected holes, one in each column (A to J).
  • You can connect multiple components or wires to any hole in a row, and they will be electrically connected to each other.
  • 3. Inter-Column Connections:
  • There are no direct connections between columns.
  • To connect components or wires between columns, you need to use jumper wires or other connecting methods.
  • 4. Inter-Row Connections:
  • There are no direct connections between rows.
  • To connect components or wires between rows, you need to use jumper wires or other connecting methods.
  • 5. Power Buses:
  • Some breadboards have dedicated power buses, usually marked with a '+' or '-' symbol.
  • These power buses are connected to a single row or column, providing a convenient way to distribute power to your circuit.
  • 6. Gaps:
  • There are gaps between the columns and rows, allowing you to place components such as ICs, resistors, and capacitors.
  • These gaps also help prevent accidental connections between pins.
  • Connection Examples:
  • 1. Connecting a Resistor:
  • Insert one leg of the resistor into hole A1 and the other leg into hole A2.
  • The resistor is now connected between rows 1 and 2 in column A.
  • 2. Connecting an IC:
  • Insert the IC into the breadboard, making sure to align the pins with the holes.
  • Connect pin 1 of the IC to hole A1 and pin 2 to hole A2.
  • Continue connecting the remaining pins of the IC to the corresponding holes in the breadboard.
  • 3. Connecting Jumper Wires:
  • Insert one end of a jumper wire into hole A1 and the other end into hole C10.
  • The jumper wire is now connecting rows 1 and 10 between columns A and C.
  • Tips and Precautions:
  • Always check the component's pinout before connecting it to the breadboard.
  • Use the correct gauge of wire and ensure it is securely inserted into the holes to prevent loose connections.
  • Avoid overcrowding the breadboard, as this can lead to accidental connections and shorts.
  • Keep the breadboard clean and dry to prevent corrosion and ensure reliable connections.
  • By following these guidelines, you can efficiently use the 400 Tie Points Solderless Breadboard to prototype and test your electronic circuits.

Code Examples

400 Tie Points Solderless Breadboard Documentation
Overview
The 400 Tie Points Solderless Breadboard is a versatile and convenient prototyping platform for electronic circuits. It provides a hassle-free way to build and test circuits without the need for soldering. The breadboard features 400 tie points, making it ideal for complex projects and experiments.
Key Features
400 tie points for connecting components
 Solderless design for easy prototyping and circuit modification
 Compatible with a wide range of components, including resistors, capacitors, ICs, and more
 Durable construction with a sturdy plastic base and high-quality copper contacts
Connecting Components
To connect components to the breadboard, simply insert the component leads into the corresponding tie points. The breadboard's spring-loaded contacts will securely hold the leads in place. Make sure to align the component leads with the correct tie points to ensure a secure connection.
Code Examples
### Example 1: LED Circuit with a 400 Tie Points Solderless Breadboard (Arduino)
In this example, we will create a simple LED circuit using an Arduino board and the 400 Tie Points Solderless Breadboard.
Hardware Components
Arduino Board (e.g., Arduino Uno)
 400 Tie Points Solderless Breadboard
 LED (any color)
 220 Ohm Resistor
 Jumper Wires
Circuit Diagram
Connect the LED to digital pin 13 on the Arduino board through a 220 Ohm resistor. Use jumper wires to connect the components to the breadboard.
Arduino Code
```cpp
const int ledPin = 13;  // Choose the pin for the LED
void setup() {
  pinMode(ledPin, OUTPUT);
}
void loop() {
  digitalWrite(ledPin, HIGH);  // Turn the LED on
  delay(1000);               // Wait for 1 second
  digitalWrite(ledPin, LOW);  // Turn the LED off
  delay(1000);               // Wait for 1 second
}
```
### Example 2: Voltage Divider Circuit with a 400 Tie Points Solderless Breadboard
In this example, we will create a voltage divider circuit using the 400 Tie Points Solderless Breadboard.
Hardware Components
400 Tie Points Solderless Breadboard
 2 x 1k Ohm Resistors
 1 x 2k Ohm Resistor
 1 x 9V Battery
 1 x Voltage Meter (optional)
Circuit Diagram
Connect the resistors to form a voltage divider circuit. The output voltage can be measured using a voltage meter.
Calculations
Input Voltage (Vin) = 9V
 R1 = 1k Ohm
 R2 = 1k Ohm
 R3 = 2k Ohm
 Output Voltage (Vout) = Vin  (R2 / (R1 + R2 + R3)) = 3V
Tips and Variations
Use the 400 Tie Points Solderless Breadboard to experiment with different resistor values and voltage sources to observe the effects on the output voltage.
 Add more components, such as capacitors or diodes, to create more complex circuits.
 Use the breadboard to prototype and test circuits before moving to a PCB or perfboard.
Remember to always follow proper safety precautions when working with electronic components and circuits.