BTA2008W-600D,135

Triacs Overview

The BTA2008W-600D,135 is a surface-mount Triac manufactured by WeEn Semiconductors. It features a rated repetitive off-state voltage of 600 V and an RMS on-state current of 0.8 A. The device utilizes SOT223 packaging for compact integration. Key electrical parameters include a gate trigger current of 5 mA and a maximum forward impulse current of 9 A. It operates within a standard temperature range suitable for general electronic applications.

Triacs Feature Summary

• Utilizes Hi-Com technology for reliable triggering in all quadrants
• Sensitive gate design reduces required control power
• Surface-mount construction facilitates automated assembly

Triacs Applications

• Lighting dimmer circuits
• Motor speed control systems
• General purpose switching applications

Triacs Procurement Notes

Verify the specific suffix '135' to confirm tape-and-reel packaging configuration as indicated by distributor listings. Ensure compatibility with SOT223 footprint requirements during PCB layout. Cross-reference official datasheets for thermal derating curves relevant to the specific ambient operating conditions.

Triacs Selection Notes

Select this component when a low-current Triac is required for surface-mount designs. The 0.8 A rating suits light loads such as small motors or lighting elements. Verify that the 600 V blocking voltage meets circuit peak voltage demands. Consider the 5 mA gate sensitivity for microcontroller interface compatibility without additional driver stages.

Triacs Part Context

This part belongs to the WeEn Semiconductors Triac family, specifically designed for high-compatibility switching. The BTA2008W series offers robust performance in compact packages. It serves as a solution for modern electronics requiring efficient AC control with minimal board space consumption.

Triacs Replacement Considerations

Direct substitutes must match the 600 V rating, 0.8 A current capacity, and SOT223 package. Verify equivalent gate trigger characteristics to ensure functional interchangeability in existing circuit designs.