SLVAEH8A May   2020  – June 2021 TPS63000 , TPS63010 , TPS63020 , TPS63024 , TPS630250 , TPS63027 , TPS63030 , TPS63036 , TPS63050 , TPS63060 , TPS63070 , TPS63802 , TPS63805 , TPS63806 , TPS63810 , TPS63811

 

  1.   Trademarks
  2. Introduction
  3. Summary Table
  4. Fundamentals of Switching Regulators
  5. Design Support
  6. PCB Layout and Thermal Considerations
  7. EMI Considerations
  8. Device-Specific Technical Discussions
  9. Measurement Techniques
  10. Buck-Boost Converter Applications
  11. 10Revision History

Summary Table

Fundamentals of Switching Converters
Switching Regulator FundamentalsSNVA559
Under the Hood of a Noninverting Buck-Boost ConverterSLUP346
Understanding Inverting Buck-Boost Power Stages in Switch Mode Power SuppliesSLVA059
Basic Calculations of a 4-Switch Buck-Boost Power StageSLVA535
Basic Calculation of an Inverting Buck-Boost Power StageSLVA721
Design Support
Understanding the Absolute Maximum Ratings of the SW NodeSLVA494
IQ: What It Is, What It Isn’t, and How to Use ItSLYT412
Understanding Undervoltage Lockout in Power DevicesSLVA769
Extending the Soft Start Time Without a Soft Start PinSLVA307
Achieving a Clean Startup by Using a DC/DC Converter With a Precise Enable-Pin ThresholdSLYT730
Methods of Output-Voltage Adjustment for DC/DC ConvertersSLYT777
Design Considerations for a Resistive Feedback Divider in a DC/DC ConverterSLYT469
Prevent Battery Overdischarge With Precise Threshold Enable PinSLVAE79
Precise Start-Up Delay Using Enable Pin with Precise Voltage ThresholdSLVAEA3
Choosing an Appropriate Pull-Up and Pull-Down Resistor for Open Drain OutputsSLVA485
Optimizing Transient Response of Internally Compensated DC-DC Converters With Feedforward CapacitorSLVA289
Improving Load Transient Response of DC/DC Converters Powering Controlled LoadsSLVAEE0
Extending Battery Life With Low Quiescent Current and Dynamic Voltage ScalingSLVAER8
PCB Layout and Thermal Considerations
QFN Layout GuidelinesSLOA122
PowerPAD™ Layout GuidelinesSLOA120
DSBGA Wafer Level Chip Scale PackageSNVA009
Five Steps to a Great PCB Layout for a Step-Down ConverterSLYT614
Five Steps to a Good PCB Layout of a Boost ConverterSLVA773
Semiconductor and IC Package Thermal MetricsSPRA953
EMI Considerations
EMI/RFI Board DesignSNLA016
Layout Tips for EMI Reduction in DC/DC ConvertersSNVA638
Simple Success with Conducted EMI from DC/DC ConvertersSNVA489
Minimizing Ringing at the Switch Node of a Boost ConverterSLVA255
Layer Design for Reducing Radiated EMI of DC to DC Buck-Boost ConvertersSLVAEP5
Device Specific Technical Discussions
High Efficiency Battery Powered High Brightness LED Driver Using the TPS63000SLVA268
Supercapacitor Backup Power Supply With TPS63802SLVAE52
Dynamically Adjustable Output Using TPS63000SLVA251
How to Use VSEL Function of TPS63070SLVAE62
Using Input Current Limiting to Extend Battery LifeSLVAES7
TPS63802HDKEVM - Hardware Development KitSLVUBU0
Measurement Techniques
Accurately Measuring Efficiency of Ultralow-IQ DevicesSLYT558
Performing Accurate PFM Mode Efficiency MeasurementsSLVA236
How to Measure the Loop Transfer Function of Power SuppliesSNVA364
Simplifying Stability ChecksSLVA381
Techniques for Accurate PSRR MeasurementsSLYT547
Buck-Boost Converter Applications
Different Methods to Drive LEDs Using TPS63xxx Buck-Boost ConvertersSLVA419
Low-Power TEC DriverSLVA677
Buck-Boost Converters Solving Power Challenges in Optical ModulesSLVAEB2
Improve Efficiency in TWS and Hearing Aid Earbuds With a Buck-Boost ConverterSLVAED7
High-Efficiency Backup Power SupplySLVA676
Smart Electricity Meter Supercapacitor Backup Power Supply With Current LimitSLVAEI4
Using Non-Inverting Buck-Boost Converter for Voltage StabilizationSLVAEA2