TUSB215IRGYR

Specialized Overview

The TUSB215IRGYR is a USB 2.0 high-speed signal conditioner manufactured by Texas Instruments, designed to extend the reach of USB connections in PCB layouts. It operates within a supply voltage range of 4.4 V to 5.5 V and supports data rates up to 480 Mb/s. The device features two ports and utilizes an I2C interface for configuration. It is housed in a 14-VQFN package with dimensions of 3.5x3.5 mm. The component functions as a redriver to maintain signal integrity over long traces.

Specialized Feature Summary

• Extends USB trace length by conditioning high-speed signals
• Configurable via I2C interface for flexible system integration
• Supports dual-port operation for simultaneous signal processing

Specialized Applications

• PCB layout extension for USB host or device connections
• Signal integrity improvement in high-speed digital designs
• Industrial equipment requiring extended USB cabling on board

Specialized Procurement Notes

Verify the specific suffix against official datasheets to confirm package type and temperature grade. Ensure compatibility with existing I2C control lines and power supply rails before procurement. Confirm moisture sensitivity level handling requirements during storage and assembly processes.

Specialized Selection Notes

Select this component when USB trace lengths exceed recommended limits without active repeaters. Compare pinout compatibility with existing designs if substituting similar signal conditioners. Verify that the 14-VQFN footprint matches the target PCB layout constraints.

Specialized Part Context

This part belongs to the TUSB21x family of USB 2.0 high-speed signal conditioners. It serves as a passive-like solution for extending USB connectivity without protocol conversion. The series includes variants tailored for different automotive and industrial environments.

Specialized Replacement Considerations

Check for direct pin-compatible alternatives within the same manufacturer's portfolio. Verify electrical characteristics such as input/output impedance and power consumption match the original design requirements.