2SC3937G0L

Overview

The Panasonic Electronic Components 2SC3937G0L is an NPN bipolar RF transistor designed for high-frequency applications. It features a maximum collector-emitter voltage of 10V and supports operation up to 6GHz. The device provides a maximum collector current of 80mA with a power dissipation rating of 150mW. It is housed in the SMini3-F2 surface-mount package, suitable for compact circuit designs requiring reliable RF signal amplification.

Feature Summary

• Optimized for radio frequency signal amplification tasks
• Capable of stable operation at frequencies reaching 6GHz
• Designed for efficient power handling within low-voltage constraints

Applications

• RF amplifier circuits
• High-frequency signal processing modules
• Wireless communication devices

Procurement Notes

Verify component authenticity through official Panasonic documentation channels. Confirm package integrity upon receipt. Check datasheet specifications against design requirements. Ensure storage conditions meet semiconductor standards. Validate part markings match the designated model number before integration into production lines.

Selection Notes

Evaluate thermal management capabilities due to 150mW dissipation limits. Assess impedance matching for optimal RF performance at target frequencies. Consider layout constraints imposed by the SMini3-F2 footprint. Review biasing requirements to ensure stable operation within the 10V voltage range during system integration.

Part Context

This component belongs to the discrete semiconductor product category, specifically under bipolar junction transistors intended for RF use. It serves as a specialized active element for high-frequency electronics, distinct from general-purpose switching transistors or low-frequency amplifiers found in other Panasonic series.

Replacement Considerations

The product status is listed as obsolete. Verify availability of direct substitutes or functional equivalents that match the 10V rating, 6GHz frequency limit, and SMini3-F2 package dimensions to ensure seamless transition without redesign.