Infineon Technologies

BTS716G

BTS716G Description

The BTS716G from Infineon Technologies is a high-performance 4-channel high-side power switch designed for automotive applications, compliant with AEC-Q100 standards. Part of the Classic PROFET series, it integrates robust protection features with a maximum operating temperature of +150°C, making it suitable for harsh environments. The device operates within a wide voltage range (-10V to 16V) and delivers a maximum output current of 2.6A (typical) per channel, with a low on-resistance of 110mΩ (max 140mΩ) for efficient power management. Packaged in a 20-pin DSO (Tape and Reel), it offers surface-mount (SMD) compatibility and RoHS/REACH compliance.

BTS716G Features

• High-Side Switching: Four independent channels with high-side driver functionality.
• Low Power Dissipation: 3.6W maximum power dissipation ensures thermal stability.
• Fast Switching: On/Off times as low as 250µs/270µs, enabling rapid load control.
• Integrated Protection: Features current limiting (6.5A max) and overtemperature shutdown.
• Automotive-Grade: AEC-Q100 qualified, ideal for 12V/24V automotive systems.
• Compact Design: DSO-20 package (12.8mm x 7.6mm x 2.45mm) saves PCB space.
• Moisture Sensitivity (MSL): MSL1 ensures reliability in humid conditions.

BTS716G Applications

• Automotive Load Control: Ideal for LED lighting, motors, solenoids, and heaters in vehicles.
• Power Distribution Modules: Used in fuse boxes, relay replacements, and smart junction boxes.
• Industrial Systems: Suitable for PLC I/O modules, actuators, and low-voltage DC loads.
• Consumer Electronics: Enables compact power switching in appliances and IoT devices.

Conclusion of BTS716G

The BTS716G stands out for its high channel count, rugged design, and automotive compliance, offering superior efficiency and reliability compared to discrete solutions. Its low on-resistance, fast response, and integrated protections make it a top choice for demanding automotive and industrial applications. Engineers benefit from reduced BOM complexity and enhanced system safety, solidifying its role in next-gen power management designs.