Low power point-of-load DC/DC converters
High efficiency conversion for low-current, space-constrained applications
TI's portfolio of low power point-of-load DC/DC converters features high efficiency across the load spectrum for space-constrained applications. Fueled by DCS Control™ technology, this family provides low quiescent current and low BOM count for both battery- and line-powered applications up to 17V input voltage and 6A output current.
To further increase battery lifetime in wearable and IoT applications, TI's low power DC/DC converter portfolio offers devices with quiescent current (Iq) in the sub 3uA range.
While DCS Control limits the total number of external components, advanced packaging technologies, like 1.5 x 1.5 QFN and SOT563 minimize overall solution size.
Precision enable, forced-PWM and output discharge are a few examples of advanced features you will find in the low power point-of-load portfolio to help you solve complex DC/DC design challenges.
What is DCS Control?
TI's DCS Control architecture (Direct Control with seamless transition into power save mode) is an advanced regulation topology that combines hysteretic, voltage and current mode control.
The topology supports pulse width modulation (PWM) for medium and heavy load conditions and has a power save mode to maintain high efficiency at light load operation. It also avoids increased voltage ripple and random jitter by seamlessly transitioning between PWM and power save modes.
- High output-voltage accuracy through seamless transition between PWM to power save mode
- Excellent DC-voltage and load-transient regulation, combined with low output voltage ripple
- Small footprint and BOM count, cost-comprehensive external components like low-ESR capacitors
- Robust design that tolerates large output capacitance
- Highest accuracy and lowest quiescent current
Select product by feature
TI's family of low power point-of-load converters with DCS Control are designed to provide high efficiency across the load spectrum in a compact solution size. Browse the key features and functions below to help find the right converter for your next design.
Ultra low IQ
Extend battery life with DC/DC regulator ICs with low standby and shutdown quiescent current for portable applications or systems that spend a majority of the time in a standby state.
|Device||Vin (V)||Vout (V)||Iout (A)||IQ (µA)||Datasheet||WEBENCH®|
|TPS62800||1.8 to 5.5||0.4 to 0.775||1||2.3||Download||Start design|
|TPS62740||2.2 to 5.5||1.8 to 3.3||0.3||0.36||Download||Start design|
|TPS62745||3.3 to 10||1.8 to 3.3||0.3||0.4||Download||Start design|
|TPS62770||2.5 to 5.5||1 to 15||0.3||0.37||Download||Start design|
High power density
These devices provide excellent power density in a variety of compact packaging options, including wafer chip-scale, HotRod™ QFN, and leaded SOT-563.
|Device||Vin (V)||Vout (V)||Iout (A)||Package||Datasheet||WEBENCH®|
|TPS62800||1.8 to 5.5||0.4 to 0.775||1||DSBGA-6||Download||Start design|
|TPS62088||2.4 to 5.5||0.6 to 4||3||DSBGA-6||Download||Start design|
|TPS62366A||2.5 to 5.5||0.5 to 1.77||4||DSBGA-16||Download|
|TPS62826||2.4 to 5.5||0.6 to 4||3||VSON-HR-6||Download||Start design|
|TPS62480||2.4 to 5.5||0.6 to 5.5||6||VQFN-HR-16||Download||Start design|
|TPS62135||3 to 17||0.8 to 12||4||VQFN-HR-11||Download||Start design|
|TLV62568||2.5 to 5.5||0.6 to 5.5||1||SOT-563||Download||Start design|
|TLV62585||2.5 to 5.5||0.6 to 5.5||3||SOT-563||Download||Start design|
The following switching regulators are qualified to the AEC-Q100 automotive stress test specification and are great low power point-of-load options for a nominal 5V or 3.3V input.
Featured reference designs
Based on the new ultra-low-Iq TPS62801 buck converter, this design provides a blueprint for a power tree with low noise and low quiescent current.
Texas Instruments (TI) offers synchronous buck converters with DCS Control technology, a regulation topology of Direct Control with seamless transition into power save mode.
TI’s DCS Control topology (Direct Control with seamless transition into power save mode) is an advanced architecture that combines the advantages of hysteretic and voltage mode control.
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