BQ51013B-Q1中文資料德州儀器數(shù)據(jù)手冊PDF規(guī)格書

1 Features

? Qualified for automotive applications

? AEC-Q100 qualified with the following results:

– Device temperature grade 1: –40°C to +125°C

ambient operating temperature

? Integrated wireless power supply receiver solution

– 93% overall peak AC-DC efficiency

– Full synchronous rectifier

– WPC v2.0 compliant communication control

– Output voltage conditioning

– Only IC required between Rx coil and output

? Wireless power consortium (WPC) v2.0 compliant

(FOD enabled) highly accurate current sense

? Dynamic rectifier control for improved load

transient response

? Dynamic efficiency scaling for optimized

performance over wide range of output power

? Adaptive communication limit for robust

communication

? Supports 20V maximum input

? Low-power dissipative rectifier overvoltage clamp

(VOVP = 15V)

? Thermal shutdown

? Multifunction NTC and control pin for temperature

monitoring, charge complete, and fault host control

2 Applications

? WPC v2.0 compliant receivers

? Passive entry passive start (PEPS)

? Ultrasound smart probe

? Cell phones and smart phones

? Headsets

? Handheld devices

3 Description

The BQ51013C-Q1 device is a single-chip, advanced,

flexible, secondary-side device for wireless power

transfer in portable applications capable of providing

up to 5W. The BQ51013C-Q1 devices provide

the receiver (RX) AC-to-DC power conversion and

regulation while integrating the digital control required

to comply with the Wireless Power Consortium

(WPC) Qi v2.0 communication protocol. Together with

the BQ500212A primary-side controller (or other Qi

transmitter), the BQ51013C-Q1 enables a complete

contactless power transfer system for a wireless

power supply solution. Global feedback is established

from the secondary to the primary to control the power

transfer process using the Qi v2.0 protocol.

The BQ51013C-Q1 integrates a low-resistance

synchronous rectifier, low-dropout regulator (LDO),

digital control, and accurate voltage and current loops

to ensure high efficiency and low power dissipation.