Printed Circuit Boards and Breadboards are most commonly used in prototyping and building electronic circuits. In the field of electronics, both serve as vital instruments but they have different purposes. In this post, we will discuss the differences of breadboards and PCBs in detail, the use of breadboards, and which one is suitable for your specific needs.

PCB vs Breadboard: Understanding the Key Distinctions

What is a Breadboard?

A breadboard, or protoboard, is a device that allows you to create single or double-sided solderless boards. Breadboards are the temporary construction base that can be used for prototyping electronic circuits without having to solder the components. These boards consist of tiny holes which are used to insert the terminals of an electronic component and wire.

How does a Breadboard Work?

The key feature of a breadboard is its interconnected clips or spring terminals. These terminals are arranged in rows and columns. The columns are typically labeled with alphameric coordinates, such as A, B, C, and so on, while the rows are numbered.

To use a breadboard, you simply insert your electronic components, such as resistors, capacitors, and integrated circuits, into the designated terminal holes. The clips within the breadboard create electrical connections, making it possible to connect the components in various configurations. The connections are typically made by inserting jumper wires into the terminal holes, allowing for easy experimentation and modification of circuits.

When Should You Use a Breadboard?

Breadboards are ideal for several scenarios:

  • Prototyping: Breadboards provide a quick and flexible way to test and validate circuit designs before committing to a permanent solution.
  • Educational Purposes: They are widely used in electronics education to teach students about circuit design and component interconnections.
  • Temporary Circuits: If you need a temporary circuit for a specific project or experiment, a breadboard allows you to assemble and disassemble the circuit easily.

What is the Difference between a PCB and a Breadboard?

While breadboards are temporary and primarily used for prototyping, PCBs offer a permanent and reliable solution for electronic circuits. Here are some key differences between the two:

  • Construction: Breadboards consist of plastic boards with metal clips or spring terminals, while PCBs are rigid or flexible boards made of insulating materials like fiberglass with copper traces etched on them.
  • Soldering: Breadboards do not require soldering as components are inserted into the terminal holes, whereas PCBs require soldering to establish permanent connections between components and the board.
  • Complexity: PCBs allow for complex circuit designs with precise component placement and routing, while breadboards are limited in terms of complexity and are more suitable for simpler circuits.
  • Reliability: PCBs provide more reliable connections as soldering ensures secure and stable connections, while breadboards can sometimes suffer from loose connections or intermittent contact.

PCB or Breadboard: Which is Better?

The choice between a PCB and a breadboard ultimately depends on your specific requirements and the stage of your project. Here are some considerations:

  • Prototype Development: Breadboards are excellent for quickly testing circuit ideas and making iterative changes during the prototyping phase.
  • Long-Term Projects: If you’re working on a project that requires a permanent, robust, and reliable circuit, a PCB is the better choice. PCBs offer durability, compactness, and superior electrical performance.
  • Customization: PCBs provide the ability to design and customize circuit layouts precisely, making them suitable for complex projects with specific design requirements.


Both PCBs and breadboards play essential roles in the field of electronics. Breadboards offer flexibility and ease of use during PCB prototyping, while PCBs provide a more permanent and reliable solution. Consider the specific needs of your project, such as complexity, durability, and long-term viability, to make an informed decision about whether to use a breadboard or a PCB.