SEARCH
— IC芯片 | 连接器 | 传感器 | 被动器件 —
The VT6Z1T2R is a dual N-channel MOSFET manufactured by Rohm Semiconductor, housed in a compact SOT-323 surface-mount package. This component integrates two independent transistors within a single unit to optimize board space and simplify circuit design. It features low on-resistance characteristics suitable for efficient power switching applications. The device is designed for high-speed operation with optimized gate charge parameters. Its small form factor makes it ideal for portable electronics where space constraints are critical. The dual configuration allows for bridge or push-pull topologies without requiring separate discrete components.
Verify the specific suffix 'T2R' against official Rohm documentation to confirm tape and reel packaging specifications. Ensure compatibility with standard SOT-323 footprint dimensions during PCB layout. Cross-reference the manufacturer's latest datasheet for any updates on recommended soldering profiles or storage conditions prior to procurement.
Select this component when space-saving dual N-channel solutions are required for low-voltage switching tasks. Evaluate the maximum drain-source voltage and continuous current ratings against the specific load requirements of the target application. Consider the thermal performance within the SOT-323 package if high duty cycles are expected in the design.
This part belongs to Rohm's lineup of small-signal MOSFETs designed for mobile and handheld devices. The VT series typically focuses on minimizing footprint while maintaining reliable switching performance. It serves as an alternative to discrete dual-transistor setups, reducing assembly complexity and improving overall system reliability in compact electronic designs.
Consult official substitution guides for equivalent dual N-channel MOSFETs in SOT-323 packages. Verify pinout compatibility and electrical parameter overlaps before replacing the original component. Ensure that any substitute meets the same voltage and current ratings to maintain circuit integrity.