SLVA958B June 2021 – May 2022 LM2776 , LM27761 , LM27762 , LM3670 , LM3671 , LM3674 , LM7705 , TLV62065 , TLV62080 , TLV62084 , TLV62084A , TLV62085 , TLV62090 , TLV62095 , TLV62130 , TLV62130A , TLV62150 , TLV62565 , TLV62568 , TLV62569 , TLV62585 , TPS60400 , TPS60403 , TPS62065 , TPS62080 , TPS62085 , TPS62088 , TPS62090 , TPS62095 , TPS62097 , TPS62110 , TPS62120 , TPS62122 , TPS62125 , TPS62130 , TPS62130A , TPS62130A-Q1 , TPS62133 , TPS62135 , TPS62136 , TPS62140 , TPS62142 , TPS62143 , TPS62150 , TPS62160 , TPS62160-Q1 , TPS62162 , TPS62170 , TPS62170-Q1 , TPS62172 , TPS62173 , TPS62175 , TPS62177 , TPS62180 , TPS62200 , TPS62203 , TPS62230 , TPS62240 , TPS62260 , TPS62290 , TPS62400 , TPS62420 , TPS62480 , TPS62560 , TPS62730 , TPS62740 , TPS62742 , TPS62743 , TPS62745 , TPS62746 , TPS62748 , TPS62770 , TPS62800 , TPS62801 , TPS62802 , TPS62806 , TPS62807 , TPS62808 , TPS62821 , TPS62840 , TPS63700 , TPS63710 , TPS82084 , TPS82085 , TPS82130 , TPS82140 , TPS82150 , TPS82740A , TPS82740B , TPSM82480 , TPSM82810 , TPSM82813 , TPSM82816 , TPSM82821 , TPSM82822 , TPSM82864A , TPSM82866A
| Fundamentals of Switchmode DC/DC Converters | |
| Understanding Buck Power Stages in Switchmode Power Supplies | SLVA057 |
| Switching Regulator Fundamentals | SNVA559 |
| Basic Calculation of a Buck Converter's Power Stage | SLVA477 |
| Bang for your Buck – An Introduction to Buck Converter vs. Buck Power Module Comparison | SNVA988 |
| Control-Mode Architecture | |
| Choosing the Right Variable-Frequency Buck-Regulator Control Strategy | SLUP319 |
| Choosing the Right Fixed-Frequency Buck-Regulator Control Strategy | SLUP317 |
| Internally Compensated Advanced Current Mode (ACM) Overview | SLYY118 |
| High-efficiency, low-ripple DCS-Control™ offers seamless PWM/pwr-save transitions | SLYT531 |
| Understanding frequency variation in the DCS-Control™ topology | SLYT646 |
| Control-Mode Quick Reference Guide | SLYT710 |
| Design, Layout and Manufacturing Support | |
| MSL Ratings and Reflow Profiles | SPRABY1 |
| Long Term Storage Evaluation of Semiconductor Devices | SLPA019 |
| Handling and Process Recommendations | SNOA550 |
| QFN/SON PCB Attachment Application Report | SLUA271 |
| Benefits and Trade-offs of Various Power-Module Package Options | SLYY120 |
| HotRod™ QFN Package PCB Attachment | SLUA715 |
| SMT Guidelines for Stacked Inductor (Inductor On Top) on Voltage Regulator IC | SLVA764 |
| Five steps to a great PCB layout for a step-down converter | SLYT614 |
| Design considerations for a resistive feedback divider in a DC/DC converter | SLYT469 |
| Optimizing Resistor Dividers at a Comparator Input | SLVA450 |
| Optimizing Transient Response of Internally Compensated DC-DC Converters with Feedforward Capacitor | SLVA289 |
| Choosing an appropriate pull-up and pull-down resistor for Open Drain Outputs | SLVA485 |
| Achieving a clean startup by using a DC/DC converter with a precise enable-pin threshold | SLYT730 |
| Extending the Soft Start Time without a Soft Start Pin | SLVA307 |
| Adjusting the soft-start time of an integrated power module | SLYT669 |
| Sequencing and Tracking with the TPS621-Family and TPS821-Family | SLVA470 |
| Understanding the Absolute Maximum Ratings of the SW Node | SLVA494 |
| Minimizing Ringing at the Switch Node of a Boost Converter | SLVA255 |
| IQ: What it is, what it isn’t, and how to use it | SLYT412 |
| Understanding Eco-Mode™ Operation | SLVA388 |
| Agency Requirements for Standby Power Consumption with Off-line and PoL Converters | SLYT665 |
| The Forgotten Converter | SLPY005 |
| Demystifying Input Supply Current in DC/DC Regulators: From Shutdown to Full Load | SLYY189 |
| How the Switching Frequency Affects the Performance of a Buck Converter | SLVAED3 |
| Methods to Solve Reverse Current-caused Damage in Synchronous Buck Converter | SLUA962 |
| Understanding Flip Chip QFN (HotRod™) and Standard QFN Performance Differences | SLVAEE1 |
| Understanding Power Module Operating Limits | SLUAAC9 |
| The Stability of a D-CAP2™ Converter with Different Kinds of Capacitors | SLVAE93 |
| Benefits Using a Buck Converter's External Vcc Bias Pin | SNVAA16 |
| Multi-Function Pins for Easy Designing | SLVAF56 |
| Stability Analysis and Design of D-CAP2 and D-CAP3 Converter – Part 1: How to Select Output Capacitor | SLVAF11 |
| Stability Analysis and Design of D-CAP2 and D-CAP3 Converter – Part 2: How to Select Feedforward Capacitor | SLVAF45 |
| Designing with small DC/DC converters: HotRod™ QFN vs. Enhanced HotRod™ QFN Packaging | SLYT816 |
| Manufacturing and Rework Design Guide for MicroSiP™ Power Modules | SLIB006 |
| Methods of output-voltage adjustment for DC/DC converters | SLYT777 |
| Understanding OOA™ Operation | SLUA946 |
| Intro to Multi-function Pins and their Applications in TI Step-down Converters | SLVAF64 |
| Layout Guidelines for Switching Power Supplies | SNVA021 |
| Reduced Size, Double-Sided Layout for High-Current DC/DC Converters | SLVA963 |
| Reducing Ringing Through PCB Layout Techniques | SLPA005 |
| Constructing Your Power Supply – Layout Considerations | SLUP230 |
| Space Optimized, “Clam Shell” Layout for Step-Down DC/DC Converters | SLVA818 |
| Breakthrough Power Delivery for Space-Constrained Applications | SSZY023 |
| Thermal Considerations | |
| Semiconductor and IC Package Thermal Metrics | SPRA953 |
| Techniques for Thermal Analysis of Switching Power Supply Designs | SNVA207 |
| An Accurate Thermal-Evaluation Method for the TLV62065 | SLVA658 |
| Improving the thermal performance of a MicroSiP™ power module | SLYT724 |
| TPS62366x thermal and device lifetime information | SLVA525 |
| PCB Thermal Design Tips for Automotive DC/DC Converters | SNVA951 |
| PowerPAD™ Thermally Enhanced Package | SLMA002 |
| Practical Thermal Design With DC/DC Power Modules | SNVA848 |
| Achieving High Thermal Performance in Compact Buck Power Modules | SLVAEI9 |
| Thermal Performance Optimization of High Power Density Buck Converters | SLUAAD6 |
| Thermal Design by Insight, not Hindsight | SNVA419 |
| How to Evaluate Junction Temperature Properly with Thermal Metrics | SLUA844 |
| Understanding the thermal-resistance specification of DC/DC converters with integrated power MOSFETs | SLYT739 |
| Method of Graphing Safe Operating Area (SOA) Curves for DC-DC Converters | SLVA766 |
| A Guide to Board Layout for Best Thermal Resistance for Exposed Packages | SNVA183 |
| Thermal Comparison of a DC-DC Converter in SOT23 and the New SOT563 | SLVAEB1 |
| Understanding power module SOA curves to operate at high output currents and high temperatures | SLUAAJ1 |
| Low Noise / Controlling EMI | |
| Not All Jitter is Created Equal | SLUA747 |
| Controlling the Switch-node Ringing of Synchronous Buck Converters | SLYT465 |
| Simplify Low-EMI Design with Power Modules | SLYY123 |
| Snubber Circuits: Theory, Design and Application | SLUP100 |
| Minimizing Output Ripple During Startup | SLVA866 |
| Measuring Various Types of Low-frequency Noise from DC/DC Switching Converters | SLYY134 |
| Using a 4MHz switching regulator w/o a Linear Regulator to Power a Data Converter | SLYT756 |
| Extend Battery Life with < 100 nA IQ Buck Converter Achieving < 150 µV Voltage Ripple (with PI filter design) | SLVAEG1 |
| Analysis and Design of Input Filters for DC-DC Circuits | SNVA801 |
| Calculating Output Capacitance to Meet Transient and Ripple Requirements of an Integrated POL Converter Design Based on D-CAPx™ Modulators | SLVA874 |
| Controlling Output Ripple and Achieving ESR Independence with Constant On-Time Regulators | SNVA166 |
| EMI/RFI Board Design | SNLA016 |
| Simple success with Conducted EMI from DC/DC Converters | SNVA489 |
| Layout tips for EMI Reduction in DC/DC Converters | SNVA638 |
| Output Noise Filtering for DC/DC Power Modules | SNVA871 |
| Designing High-Performance, Low-EMI Automotive Power Supplies | SNVA780 |
| Enhanced HotRod QFN Package: Achieving Low EMI Performance | SNVA935 |
| Improve High-Current DC/DC Regulator EMI Performance for Free With Optimized Power Stage Layout | SNVA803 |
| Device-Specific Technical Discussions | |
| Optimizing the TPS62130, TPS62140, TPS62150 and TPS62160 Output Filter | SLVA463 |
| Optimizing the TPS62175 Output Filter | SLVA543 |
| Optimizing the TPS62090 Output Filter | SLVA519 |
| Feedforward Capacitor to Improve Stability and Bandwidth of TPS621 and TPS821-Family | SLVA466 |
| Optimizing TPS6206x External Component Selection | SLVA441 |
| TPS62130A Differences to TPS62130 | SLVA644 |
| TPS6208x and TLV6208x Device Comparison | SLVA803 |
| Output Voltage Selection for the TPS62400 Family of Buck Converters | SLVA254 |
| Designing an Isolated Buck (Flybuck) Converter using the LMR36520 | SNVA790 |
| Configuring LM62460 for Dual-Phase Operation | SNVAA21 |
| How to Migrate Between LM614xx and LM624xx Product Families | SNVAA31 |
| Powering Sensitive ADC Designs with the TPS62913 Low-Ripple and Low-Noise Buck Converter | SLVAEW7 |
| Achieving Better than 1% Output Voltage Accuracy with TPS546D24A | SLUAA02 |
| Enhance Stability of TPSM41625 Buck Module Designs with Minimized Ceramic Output Capacitors | SLVAEZ2 |
| Powering the AFE7920 with the TPS62913 Low-Ripple and Low-Noise Buck Converter | SLVAF16 |
| Comparison of TPS6290x vs. TPS621x0 | SLVAF55 |
| How Output Capacitor Reduction Affects Load Transient in TPS563231 with D-CAP3 Control | SLUA986 |
| Minimize On-Time-Jitter and Ripple by Optimizing Compensation | SLUAA65 |
| Demystifying and Mitigating Power Supply Ripple and Noise Implication on AFE8092 | SLVAF52 |
| Expand Buck Converter Minimum Input Voltage with External VCC Bias | SLVAE69 |
| Large Duty Cycle Operation with the TPS568230 | SBVA083 |
| How to Understand LC Table and Select LC About TPS563202 | SLUAAD3 |
| Powering the TPS546D24A Device Family from a Single 3.3-V Input Power Supply | SLUAA03 |
| How to Best Use TPS62903 for a Given Application Requirement | SLVAF76 |
| Large Duty Cycle Operation On the TPS563211 | SLUAAE4 |
| Achieving Longer Hold-Up Time Using the TPS62130 in Enterprise SSD Applications | SLVAF70 |
| TPSM8A29 Fast Load Transient with DCAP-3 | SLVAFB5 |
| Reducing Output Ripple and Noise with the TPS84259 Module | SLYT740 |
| Calculation, Simulation and Measurement Techniques | |
| Calculating Efficiency | SLVA390 |
| MOSFET Power Losses and How They Affect Power-Supply Efficiency | SLYT664 |
| Output Ripple Voltage for Buck Switching Regulator | SLVA630 |
| Accurately measuring efficiency of ultralow-IQ devices | SLYT558 |
| Performing Accurate PFM Mode Efficiency Measurements | SLVA236 |
| How to Measure the Loop Transfer Function of Power Supplies | SNVA364 |
| Simplifying Stability Checks | SLVA381 |
| How to Measure the Control Loop of DCS-Control™ Devices | SLVA465 |
| Loop Gain Reconstruction of a Step-Down Converter from Output Impedance Measurement | SLUAAI0 |
| How to Measure Impedance of a Power Distribution Network of a DC-DC Converter | SLUAAI3 |
| HS Load/Line Transient Jigs and App Rpt for Testing POL Regulators | SNOA895 |
| Measuring the Bode Plot of D-CAP™, D-CAP2™, and D-CAP3™ DC/DC Converters | SLUAAF4 |
| DC/DC Converter Applications | |
| Step-Down LED Driver with Dimming, the TPS621-Family and TPS821-Family | SLVA451 |
| Testing tips for applying external power to supply outputs without an input voltage | SLYT689 |
| Efficient Super-Capacitor Charging with TPS62740 | SLVA678 |
| Low-Noise CMOS Camera Supply | SLVA672 |
| Step-Down Converter with Input Overvoltage Protection | SLVA664 |
| Step-Down Converter with Cable Voltage Drop Compensation | SLVA657 |
| Using the TPS62150 in a Split Rail Topology | SLVA616 |
| Using the TPS6215x in an Inverting Buck-Boost Topology | SLVA469 |
| Using the TPS62175 in an Inverting Buck Boost Topology | SLVA542 |
| Powering the MSP430 from a High Voltage Input using the TPS62122 | SLVA335 |
| Voltage Margining using the TPS62130 | SLVA489 |
| Working With Inverting Buck-Boost Converters | SNVA856 |
| DC/DC Converter Solutions for Hardware Accelerators in Data Center Applications | SLVAEG2 |
| Point-of-Load Solutions for Data Center Applications Implementing VR13.HC VCCIN Specification | SLVAE92 |
| Non-Isolated Point-of-Load Solutions for Elkhart Lake in Industrial PC Applications | SLVAET0 |
| Non-Isolated DC/DC Solutions for Alder Lake in Notebook Computing Applications | SLUAAA6 |
| Non-Isolated Point-of-Load Solutions for Tiger Lake in PC Applications | SLUAA54 |
| Point-of-Load Solutions in Data Center Applications for Intel® Xeon® Sapphire Rapids Scalable Processors | SLVAF22 |
| Point-of-Load Solutions for Network Interface Cards (NIC) | SNVAA29 |
| Synchronizing DC/DC Converters in a Power Tree | SLVAEG8 |
| Benefiting from Step-Down Converters with an I2C Communication Interface | SLUAAE9 |
| Dynamically Adjustable Output Using the TPS63000 | SLVA251 |
| Designing a Negative Boost Converter from a Standard Positive Buck Converter | SLYT516 |
| Create a Split-Rail Power Supply with a Wide Input Voltage Buck Regulator | SLVA369 |
| Designing an Isolated Buck (Fly-Buck™) Converter | SNVA674 |
| Power-Supply Sequencing for FPGAs | SLYT598 |
| Power Supply Design Considerations for Modern FPGAs (Power Designer 121) | SNOA864 |
| Remote Sensing for Power Supplies | SLYT467 |
| Effect of Resistor Tolerances on Power Supply Accuracy | SLVA423 |