2000 Series, Solderless Breadboards

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ImageProduct DetailPriceAvailabilityECAD ModelColorNumber of RowsFeaturesVoltage RatingCurrent Rating (Amps)SeriesWire GaugeTerminal Block TypeNumber of Wire EntriesPitchTop TerminationBottom TerminationBarrier TypeNumber of Circuits
2018
BREADBOARD TERM STRIP 1.10X0.30"
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2
Flange
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30A
2000
10-22 AWG
Barrier Block
36
0.438" (11.12mm)
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Closed
2 Wall (Dual)
18

About  Solderless Breadboards

Solderless breadboard products offer a convenient solution for interconnecting electronic components in hobby, educational, or development settings without the need for soldering or similar fixation processes. These products consist of an electrically insulating housing with a grid of holes, each containing a U-shaped metallic contact. The design of solderless breadboards allows for easy and flexible circuit assembly. Component leads and wire segments can be inserted into the holes of the insulator, where they make contact with the metallic contacts beneath. The spring tension of the contacts ensures a secure electrical connection, while also allowing for easy reconfiguration of the circuit layout. Solderless breadboards are particularly useful for experimentation and prototyping purposes. They enable quick and hassle-free circuit assembly, as components can be easily inserted and removed without the need for soldering or other permanent attachment methods. This flexibility allows for rapid testing and modification of circuit designs. However, it is important to note that solderless breadboards have certain limitations. The connections made on these boards are not mechanically robust, as they rely solely on the spring tension of the contacts to retain the components. This means that excessive movement or vibration can disrupt the connections. Another consideration is that solderless breadboards introduce parasitic circuit elements due to their construction. The contacts and the lengthy wire segments within the breadboard introduce resistance, capacitance, and inductance into the circuit. As a result, solderless breadboards are not suitable for high-speed or high-frequency circuits, as these parasitic elements can significantly impact circuit performance and signal integrity. In summary, solderless breadboards provide a convenient and flexible method for interconnecting electronic components without the need for soldering. They are ideal for rapid prototyping and experimentation, allowing for easy assembly and modification of circuits. However, their connections are not mechanically robust, and the introduction of parasitic circuit elements makes them unsuitable for high-speed applications.