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Configurable, Dual-Output 3A + 3A Sub-PMIC for High-Performance Mobile Processors and Memory

Package Information

CAD Model: View CAD Model
Pkg. Type: 24 WLCSP
Pkg. Code:
Lead Count (#): 24
Pkg. Dimensions (mm):
Pitch (mm): 0.4

Environmental & Export Classifications

Moisture Sensitivity Level (MSL) 1
Pb (Lead) Free Yes
ECCN (US) EAR99
HTS (US) 8542.39.0090

Product Attributes

Lead Count (#) 24
Carrier Type Tape & Reel
Moisture Sensitivity Level (MSL) 1
Integrated step-down DC/DC Converter Channels (#) 1
Qty. per Reel (#) 4500
Pb (Lead) Free Yes
Battery Interface No
Bus Voltage (Max) (V) 5.5
Comm. Interface I2C
Function 2-ch PMIC
GPIOs (#) 4
Input Voltage (Max) (V) 5.5
Input Voltage (Min) (V) 2.5
Input Voltage Range (V) 2.5 - 5.5
Integrated Battery Charger No
Linear Output No
MOQ 4500
Multi-Phase Support fixed
Output Current Max (A) 6
Outputs (#) 2
Parametric Category Multi-Channel Power Management ICs (PMICs)
Pitch (mm) 0.4
Pkg. Type 24 WLCSP
Step-up DC/DC converter Channels (#) 0
Switching Frequency (MHz) 4 - 4
Switching Regulators 2
Temp. Range (°C) -40 to +125°C
Total step-down DC/DC converter channels (#) 2
VIN Range (V) 2.5 - 5.5

Description

The DA9220 is a sub-PMIC suitable for supplying CPUs, GPUs, and DDR memory rails in smartphones, tablets, RF modules, and other handheld applications.

DA9220 integrates two single-phase buck converters, each phase requiring a small external 0.10μH inductor. It is capable of delivering up to 3A of output current at a 0.3V to 1.9V output voltage range. The 2.5V to 5.5V input voltage range is suitable for a wide variety of low-voltage systems, including, but not limited to, all Li-ion battery-supplied applications.

Benefits

  • Input voltage range provides flexibility to run from a single-cell Li-ion battery or standard 3.3V or 5V system rail  
  • Differential voltage sensing provides tight regulation accuracy requirements of CPU cores in mobile SoCs
  • 4MHz switching frequency reduces the footprint and height of the output inductor and minimizes output capacitance, lowering BOM cost
  • Triggered through either an I²C or GPIO interface, output dynamic voltage control (DVC) can be used to optimize system power consumption