SEARCH
— IC芯片 | 连接器 | 传感器 | 被动器件 —
The NSVBC124EDXV6T1G is a dual NPN digital transistor manufactured by onsemi, designed to replace discrete devices and external bias networks. It features an integrated base resistor with a typical value of 2.2 kOhms and a typical resistance ratio of 1. The component operates within a collector-emitter voltage (VCEO) range up to 50 V and supports a continuous collector current of 100 mA. It is housed in a compact SOT-563-6 surface-mount package, suitable for space-constrained designs. The device ensures reliable performance across a wide temperature range from -55°C to +150°C, with a power dissipation rating of 357 mW.
Verify the specific suffix 'T1G' against official onsemi documentation to confirm tape-and-reel packaging and RoHS compliance status. Confirm that the part number matches the exact electrical specifications required for the target application, as minor variations exist within the series. Check for any obsolescence notices or lifecycle changes directly from the manufacturer before finalizing procurement plans.
Select this component when a dual NPN configuration with integrated biasing is required to reduce external component count. The 50 V rating and 100 mA current capacity make it suitable for low-power switching tasks. Ensure the SOT-563-6 footprint aligns with the PCB layout constraints. Compare the 2.2 kOhm input resistance against other variants like NSBC115EDXV6T1G if different drive currents are needed.
This part belongs to the NSBC124EDXV6 series of pre-biased digital transistors. It is functionally similar to the NSBC123EDXV6T1G but differs in internal resistance values and gain characteristics. The series is designed to streamline the replacement of single transistors with external resistor networks, offering a compact solution for modern electronic designs requiring multiple switching elements.
Direct substitutes include NSBC123EDXV6T1G and NSBC115EDXV6T1G, though these differ in input resistance and gain parameters. Verify compatibility with existing circuit designs before substitution.