MAX17410GTM+T

Overview

The MAX17410GTM+T is a Quick-PWM controller designed for Intel IMVP-6+ voltage regulator applications. It features two independent output channels with an input voltage range of 4.5V to 5.5V and adjustable output voltages from 0.013V to 1.5V. The device is housed in a 48-TQFN (7x7mm) package with an exposed pad, facilitating surface-mount installation for high-density power management solutions.

Feature Summary

• Implements Quick-PWM architecture for efficient voltage regulation
• Supports dual-channel output configuration for multi-rail requirements
• Compatible with Intel IMVP-6+ processor power specifications

Applications

• Intel IMVP-6+ Voltage Regulator Modules
• Multi-phase CPU core power supplies
• High-performance computing platform power distribution

Procurement Notes

Verify the complete part number including suffixes against official Analog Devices documentation to ensure correct packaging and temperature rating. Confirm that the specific revision matches your design requirements, as manufacturing updates may occur without functional changes. Always reference the latest datasheet for pinout and electrical characteristics before finalizing procurement.

Selection Notes

Select this component when designing power stages for processors requiring Intel IMVP-6+ compliance. Ensure the PCB layout supports the 48-TQFN footprint and thermal dissipation needs. Verify that the system input voltage remains within the specified 4.5V to 5.5V range for stable operation of the internal control circuitry.

Part Context

This IC belongs to the Maxim Integrated line of power management solutions, now under Analog Devices. It serves as a critical control element in modern mobile and desktop processor power delivery networks, replacing older PWM controllers with higher efficiency and tighter transient response capabilities required by advanced CPU architectures.

Replacement Considerations

Check for direct cross-references in Analog Devices' product change notices. Alternative controllers may require significant redesign of the feedback network and compensation components due to differences in switching frequency or control loop dynamics.