2SC6144SG

Single Bipolar Transistors Overview

The 2SC6144SG is an NPN bipolar transistor manufactured by onsemi, designed for high-current switching applications. It features a collector-emitter voltage rating of 50V and a continuous collector current capacity of 10A. The device utilizes the MBIT process to achieve a typical low collector-to-emitter saturation voltage of 180mV and a fast turn-off time of 25ns. It is housed in a TO-220F-3FS package.

Single Bipolar Transistors Feature Summary

• Adopts MBIT process technology for enhanced performance
• Supports large current capacitance up to 10A
• Provides low collector-to-emitter saturation voltage
• Enables high-speed switching operations

Single Bipolar Transistors Applications

• Relay drivers
• Lamp drivers
• Motor drivers

Single Bipolar Transistors Procurement Notes

Verify the specific suffix and manufacturer documentation when sourcing this component. Confirm that the part matches the required electrical specifications and physical package dimensions for your design. Ensure compliance with relevant safety and environmental standards before integration into final products.

Single Bipolar Transistors Selection Notes

Select this component for circuits requiring robust NPN switching capabilities with minimal voltage drop during conduction. The low saturation voltage improves efficiency in power management tasks. Consider the thermal characteristics of the TO-220F-3FS package for adequate heat dissipation in high-current scenarios.

Single Bipolar Transistors Part Context

This NPN transistor belongs to the family of high-current switching devices optimized for power control applications. It serves as a reliable solution for driving inductive loads such as relays and motors where fast response times and low power loss are critical design parameters.

Single Bipolar Transistors Replacement Considerations

Check datasheets for alternative parts offering similar 50V ratings and 10A current handling. Verify pinout compatibility and saturation voltage specifications to ensure seamless substitution without circuit redesign.