DMG564010R

Overview

The DMG564010R is a silicon NPN epitaxial planar transistor manufactured by Panasonic. It features an integrated bias resistor with a ratio of 1, housed in a compact SMini6 package (SC-113DB). The device supports a maximum collector current of 0.1 A and a collector-emitter voltage of 50 V. With a power dissipation rating of 0.15 W and a minimum DC current gain of 80, it is designed for surface-mount applications requiring precise switching or amplification within low-power constraints.

Feature Summary

• Integrated bias resistor network simplifies circuit design
• Compact surface-mount packaging for space-constrained layouts
• High reliability silicon NPN epitaxial construction

Applications

• General-purpose switching circuits
• Low-power amplifier stages
• Interface logic level translation

Procurement Notes

Verify the specific suffix 'R' against official Panasonic documentation to confirm tape-and-reel packaging configuration. Confirm RoHS compliance status and check for any product change notices or obsolescence alerts prior to finalizing procurement plans.

Selection Notes

Select this component when a built-in bias resistor is required to reduce external component count. Ensure the 0.1 A current limit and 50 V voltage rating align with the target application's electrical requirements. Verify thermal management capabilities given the 0.15 W power dissipation limit in the specified package.

Part Context

This part belongs to Panasonic's discrete semiconductor lineup, specifically within their bipolar junction transistor category. It complements other surface-mount devices designed for industrial and consumer electronics, offering a standardized solution for embedded control systems requiring reliable NPN switching with integrated biasing.

Replacement Considerations

Consult official Panasonic substitution guides for verified equivalents. Generic replacements may not match the specific bias resistor ratio or package dimensions. Validate pinout compatibility and electrical characteristics before integrating alternative components.