1 Features

• AEC-Q100 qualified for automotive applications

– Temperature grade 1: –40°C to +125°C, TA

• Functional Safety-Capable

– Documentation available to aid functional safety

system design

– Documentation available to aid functional safety

system design

– Documentation available to aid functional safety

system design

• 2.7-V to 6-V input voltage range

• Family of pin-to-pin compatible devices: 6 A, 9 A,

12 A, and 15 A

• Four output voltage ranges:

– 0.4 V to 0.71875 V in 1.25-mV steps

– 0.4 V to 1.0375 V in 2.5-mV steps

– 0.4 V to 1.675 V in 5-mV steps

– 0.8 V to 3.35 V in 10-mV steps

• Output voltage accuracy ±1

• 7-mΩ and 4.5-mΩ internal power MOSFETs

• Adjustable external compensation

• Resistor-selectable start-up output voltage

• Resistor-selectable switching frequency

• Power-save or forced-PWM operation

• I2C-compatible interface up to 1 MHz

• Differential remote sensing

• Optional stacked operation for increased output

current capability

• Thermal warning and thermal shutdown

• Precise enable input

• Active output discharge

• Optional spread-spectrum clocking

• Power-good output with a window comparator

• Available in 2.55-mm × 3.55-mm × 1-mm VQFN

package with wettable flanks

• –40°C to 150°C junction temperature, TJ2 Applications

• Infotainment and cluster

• ADAS

• FPGA, ASIC, and digital core supply

• DDR memory supply

3 Description

The TPS6287x-Q1 is a family of pin-to-pin 6-A, 9-

A, 12-A, and 15-A synchronous step-down DC/DC

converters with differential remote sensing. For each

current rating, there are full-featured device variants

with I2C interface and limited-featured device variants

without I2C interface. All devices offer high efficiency

and ease of use. Low-resistance power switches

allow up to 15-A continuous output current at high

ambient temperatures.

The devices can operate in stacked mode to deliver

higher output currents or to spread the power

dissipation across multiple devices.

The TPS6287x-Q1 family implements an enhanced

DCS control scheme that supports fast transients with

fixed-frequency operation. Devices can operate in

power save mode for maximum efficiency, or forced-

PWM mode for the best transient performance and

lowest output voltage ripple.

An optional remote sensing feature maximizes voltage

regulation at the point-of-load, and the device

achieves better than ±1 DC voltage accuracy under

all operating conditions.