Skip to main content
Log in
Texas Instruments TPS61107PW — Power Management (PMIC / Gate Driver)

TPS61107PW Boost+LDO PMIC, 0.8V-3.3V Input, 500kHz

MPNTPS61107PW
Active

Texas Instruments TPS61107PW power management IC, boost + LDO dual-output, 0.8V~3.3V input, 500kHz switching, 20-TSSOP, -40°C to 85°C.

$4.3696Ref. price · indicative, final on quote
Texas Instruments TPS61107PW datasheet (PDF)
Independent supplier — new & surplus stockAuthenticity-screened · ESD-safe packingListing updated Jul 2026

Specifications

TPS61107PW specifications
ParameterValue
MountingSurface Mount
Supply voltage0.8V ~ 3.3V
Voltage/Current - output 13.3V, 1.8A
Voltage/Current - output 21.8V, 500mA
Frequency - switching500kHz
I/O channels2
Operating temperature-40°C~85°C
PackageTube
TopologyStep-Up (Boost) Synchronous (1), Linear (LDO) (1)
W (Sequencer)No
W (LED driver)No
W (Supervisor)No
Case20-TSSOP (0.173\", 4.40mm Width)

Product details

Two rails from one IC — boost plus LDO

The Texas Instruments TPS61107PW combines a synchronous step-up (boost) converter and a linear (LDO) regulator in a single 20-TSSOP package. The boost output delivers 3.3V at up to 1.8A, while the LDO provides a clean 1.8V rail at 500mA — enough to power a small microcontroller and its analog front end from a single low-voltage cell.

Switching at 500kHz — inductor sizing and ripple

Output ripple on the boost rail will be a few tens of millivolts with a ceramic output capacitor; the LDO on output 2 cleans up any residual switching noise for sensitive analog loads.

Frequently asked questions

What are the input and output voltage specifications of TPS61107PW?

Input voltage range is 0.8V to 3.3V. Output 1 is a boost regulator providing 3.3V at up to 1.8A; output 2 is an LDO delivering 1.8V at up to 500mA.

What package does TPS61107PW come in?

It is supplied in a 20-TSSOP package (4.40 mm width, 0.65 mm pitch), surface-mount.

What is the switching frequency of TPS61107PW and how does it affect my design?

The boost converter switches at 500kHz. This allows the use of small inductors (4.7 µH to 10 µH typical) while keeping switching losses moderate — a practical balance for portable and industrial supplies.