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Understand When and Why System Reliability Matters
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How Signal-Chain ICs Form Foundation for Smart-Grid Equipment
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Can Wearable Health Technology Pinpoint Disease Onset?
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How to Get 20% More Battery Life for Your Wearables and IoT Designs
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Is Your Wearable Equipped to Support Remote Patient Monitoring?
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Biosensors Detect Sleep Apnea Via Wearable, Home-Based Test
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Tips to Achieve Faster Design of USB-C Power Solutions
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Wearable Flags Health Changes in Seniors Via Biosensors and Predictive Analytics
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Simplify Your PLC Design with a Digital I/O IC
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Here’s an Easier Way to Keep Your IoT Devices Safe from Hackers
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Buck vs. Boost Converters: How Do They Compare
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Power Up Internal Circuits While Simplifying Diagnostics for Signal Monitoring Applications
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Why Hardware-Based Cryptography Offers Stronger IoT Design Protection
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High-Speed Serial Links for High-Performance ADAS Solutions
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Crafty Engineers Create COVID-19 Monitoring Devices with Arduino Boards and Maxim ICs
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Download App for Essential Analog IC Information On-the-Go
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Get More System Power Protection for Less
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When Smarter Gets Smaller, Only a Dual-Core Micro Will Do
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Two Beautiful Ways to Measure Temperature
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Understand and Address Threats to Cryptographic Systems
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Can a Supercapacitor Replace Your Battery for Backup Power
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How Fast and Safe Will 5G Wireless Networks Be
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These Industrial Communications ICs are Oldies but Goodies for Good Reason
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DIY Engineering Projects for Your Valentine
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Why Embedded Systems Designers Should Care About OpenSSL
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Balancing Power Demands of High-Voltage Automotive Power Applications
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PUF Technology Protects Against Invasive Attacks
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Safer Electric Vehicles Start with a Fast, Accurate Battery Management System
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Simplify Vehicle Head Unit Design with Maxim’s Radio Tuner Solution
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Moving Toward Value-Based Healthcare Using Wearables and Patient-Generated Data
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A Smarter Way to Design Touchscreens
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Want to Avoid Counterfeiting?
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Ultra-Small Wearable Healthcare Design Platform
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Vision Realized in Advancing Industry 4.0 Solutions
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Solving EMI Challenges in LED Headlamps
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embedded world 2017
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Engineering is for Dummies
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See & Hear Maxim Technologies at Mobile World Congress
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Keeping Cars Safe and Reliable Via ISO 26262 Certification
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Fast (But Not Too Fast) Op Amps for Reliable Very Low-Power Systems
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Shade-Proof Your Solar with Maxim Solar Cell Optimizers
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How Machine Learning Can Speed Up Your Design Cycle
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MakeWithMaxim Design Contest
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To IO-Link and Beyond!
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How 3D Printers Help You Evaluate ICs
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Optical Networking Technologies OFC 2017
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How You Can Help Bring 20.8 Billion Connected Things Into the World
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Reference Designs Go Beyond the IC, Become Complete Systems
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Industry 4.0 is Coming on Strong, and Analog Integration is a Major Beneficiary
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Putting the power of Industry 4.0 in your Pocket
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Battery fuel gauge ICs do more
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Reference Designs: Game Changers for Complex Projects
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Why Hackers Can’t Wait to Get Into Your New Car
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Your Home Might Be Smarter—But How Secure Is It from Hackers?
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Achieving Fast, Accurate Fault Detection on Smart Electricity Grid
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Fitness/Wellness Wearables Reference Design Saves Development Time and Effort
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Simplifying Design of Pulse Rate/Blood-Oxygen Wearables
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Don’t Design the Next Useless IoT Gadget
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Exactly What the Doctor Ordered: Cars that Monitor Their Own Health and Yours
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Reducing Component Count in Factory Automation Applications
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Maxim Highlights Auto, Wearable Healthcare Tech at CES
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Cut 6 Months Off Health Application Design Cycle
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Future Engineers Make with Maxim at Yale’s YHack Hackathon
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Interesting Inventions Inspire Ingenuity
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Ants Have Their Own Smart Cities—Why Can’t We?
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Proximity Sensing Made Easier
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Get Longer Battery Life By Lowering Quiescent Current
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Eat Pie and Win a Dev Board
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Why System Monitoring ICs Are Good Analog Insurance
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Who is nanoMan?
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Why Now Is the Time to Consider Wired Interface Solutions
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Get to Market Quickly with Your Secure Wearable Health Designs
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Why Powerline Communications is Great for Noisy Industrial Environments
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How Factory Automation Can Support Reshoring
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Don’t Become the Next Hacking Headline
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One Smart Design: Low IQ Boost Converter
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A Look at the Future of Wearable Healthcare Design
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Camera Interfaces Critical to ADAS System Design
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Reduce Calibration Costs for Industrial Process Control
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Making Smart Energy Even Smarter Via nanoPower Technology
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We Love Startups! Let Us Help You Prototype Quickly
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Safeguard IoT Designs with Holistic Approach to Security
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Surprising Facts About the Cost to Operate Your Electric Car
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Keeping Hackers Away from Your POS Terminals
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Webinar: Learn Why It’s Smart to Have a Low IQ
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Why Sensors Are the Next Big Thing
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Building a Self-Balancing Robot with Feature-Rich Featherboard
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Helping You Create Rugged, Long-Lasting Mil/Aero Designs
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Why You Can’t Afford to Overlook Design Security
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Why Iso-Buck Converters Are Better than Flyback Converters
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Learn Ways to Improve Power Efficiency—Free Seminar
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Are Machines Taking Over?
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Are You Doing Enough to Build Trust in Our Connected World?
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Aggies Invent: 48 Hours from Idea to Prototype
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IoT World: From IoT Patterns to Blockchain Security
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Building the Self-Aware Digital Factory
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Flexound Systems Brings Immersive Dimension to Music
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Better Battery Runtimes Without Characterization
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Driving Greater Performance and Safety from Advanced Automotive Lighting
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How Secure ICs Protect Data in Transit in IoT Devices
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Learn 3 Key Ways to Lock In Security for Your IoT Design
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Recloser Controllers Maintain Smart Grid Uptime
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Operate Your Design from a Single Battery, with the Right Converter
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Show Your Engineering Ingenuity in Summer of Love Contest
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SDR Baseband Processing—Flexibly and Cost-Effectively
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Embedded Security ICs Safeguard PCs and Payments
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Want Your Oven to Play Your Favorite U2 Song?
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Choosing the Right Power Management ICs for Automotive Designs
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Designing Hearables? Tiny PMICs Boost Battery Life
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Designing Accurate, Wearable Optical Heart Rate Monitors
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Maxim Interns Showcase Summer Projects
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Protect Your Medical Device Endpoints with Secure Authenticators
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Are Your Power Supplies Doing the Job?
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Tesla Switching to PMAC Synchronous Drive Motor for Model 3
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3 Cool Technologies for Virtual Healthcare
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nanoMan Says: Use This Power Design Simulation Tool
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How Fast Can You Solve This Crossword Puzzle?
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Why Not Design a Smaller PLC?
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5 Blog Posts You Don’t Want to Miss
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Q&A: Maxim's Randall Wollschlager on Designing the Future Car
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Simplify Power Circuit Design with Simulation
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How Medical Wearables Enhance Quality of Life
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IO-Link Handbook Presents Primer on Designing Sensors and Masters
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ELIV 2017: Learn Ways to Design Safer, Smarter Cars
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Infomart Creates Tiny Power-over-Ethernet Devices
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Advancing Safety and Infotainment for Cars of Today and the Future
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How PA Linearization Solves Key Challenge for Remote PHY Fiber Nodes
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What It Takes to Deliver Safer, Smarter Cars
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Many Technologies Are Vying for Your IoT Wide Area Network Design
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Are Your IoT Devices Immune to Cyberattacks?
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Machine Learning Club Drives Data Science Demand
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Designing Tiny, Connected Products? Don’t Miss this Webinar
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How Factory Automation Can Support Reshoring
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How Can We Create One Trillion Connected Devices?
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Modular System Speeds Up IoT Design Cycle
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Keep Designs Cool with a Tiny, Low-Power Temperature Sensor
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Circuit Protection You Might Not Have Thought About
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You Can’t Steal a Key that Isn’t There
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See Demos of Turnkey Security ICs at TRUSTECH
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Synchronous Switching Regulators: Talk Time or Standby Time?
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5 Ways Solar Power Usage Will Change By 2037
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What Kind of World Will One Trillion Connected Devices Produce?
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Can We Fix the Cybersecurity Mess?
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Three Great Personal Gadgets for Engineers
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Secure TLS in Connected Devices with a Companion Security IC
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Are There One Trillion Things to Connect?
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Maxim to Demo High-Speed SerDes Links and More at CES 2018
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Achieve Precision Control of Vibration for Wearables
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Secure Microcontrollers Safe from Spectre and Meltdown Flaws
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How to Stop an Invasive Attack on Your Design
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Smaller, Lower Power 4-20mA Sensor Transmitters for Industrial Equipment
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Prevent Battery Counterfeiting with Secure Fuel Gauges
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Applying Peak Current Mode Control for High Performance in Switching Regulators
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The Story Behind the iButton
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Meeting Big Demands for Power in Small Devices
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The Jedi Master – Cyber-Physical Systems and Industrial Convergence
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A Quick Look at Using NFC to Protect Your System
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Get Technical Tips from Maxim in the Lab Videos
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How to Use Your Battery Fuel Gauge to Build Customer Trust
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Sustaining the IoT—What Will This Take?
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With Reference Designs, No Need to Reinvent the Wheel
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How a Software Isolation Solution Protects IoT Devices
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AM Radio in Your Electric Vehicle? Not Always
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Get Technical Tips from Maxim Unfiltered Videos
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Wirelessly Charge Your Next Design
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How Digital Health Technologies Enable Better Preventive Care
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A Look at the Latest Battery Technology from Tesla
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#MakewithMaxim Inspires Engineering Inventiveness
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Extend Vehicle Driving Range with Accurate Battery Management System
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Plug-and-Play Power in a Compact Package? You've Come to the Right Place
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Powering Motor Encoders and Resolvers
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Kids Invent Their Future at Upcoming Invention Convention
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Catch this Webinar If You're Designing Hearables and Wearables
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Flow Battery Technologies for Utility-Scale Systems
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High-Speed Serial Links for ADAS and Infotainment
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Got an IoT Design Idea? Enter Our Contest
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Powering WiFi This and WiFi That
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Meet DARWIN, a New Breed of Microcontrollers for the IoT
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Which Type of Analog Hero Are You?
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How Security ICs Address New Medical Device Regulations
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Deminar: 3 Ways that Analog ICs Can Strengthen Your Design
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On-Demand Webinar: Hardware Security with PUF Technology
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The Beauty of Precision Op Amps
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Kid Inventors Showcase STEM Skills at California Invention Convention
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How iButton Can Enhance Food Quality
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Why Your Audio DAC or Digital Amp Should Spec Dynamic Range Instead of SNR
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Increase Motion Control System Accuracy with Higher Performance RS-485 Transceivers
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Designing Secure, Scalable Contactless Payment Systems
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High-Bandwidth Serial Links for Safer Cars
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Keeping an Eye on Battery SOC in Wearables and Hearables
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Get High-Speed USB Port Protection for Industrial Voltages
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Don’t Worry – Isolate All Those Digital Signals
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Keep Tabs on Essential Electronic Loads with Supervisory ICs
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Optical Sensing Opens New Opportunities in Healthcare
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LED Bulb Inspires Creation of Maintenance-Free Cybernetic House
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A Better Listening Experience Starts with the Right Stereo Audio Codec
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Quieting the Noise: Meeting EMI Standards in Power Supply Designs
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Making Sweet Music with Raspberry Pi
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Putting Intelligence in the IoT
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Got a Wearable Health Design Idea? Here’s How to Make It Accurate
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What Will You Create with Optical Biosensors?
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How Can We Power Our Invisible Intelligence?
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What Can GPS Do for Your Design?
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Keeping the IoT Safe from Hackers
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Idea to IoT Product in Just Days? Talk to zGlue
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Regulate Car Battery Voltages for ADAS Applications
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Open-Source Framework Detects Memory Corruptions in Embedded Software
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Stop Straining Your Portables—Refine Your Power Strategies
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Choosing the Best Types of Temperature Sensors
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How to Stop Physical Tampering of Mobile POS Systems
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Summertime Fun Outside the Classroom
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Do You Trust Your Smart Medical Device?
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Can You Create an Energy-Efficient VR Headset?
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nanoMan Meets DARWIN—and Powerful Things Happen
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Consider Your WLAN Power-Supply Temperature and PCB Size Carefully
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Why on Earth Don’t You Include a Clock in Your Design?
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Reinforced Digital Isolator Ensures Safety in Industrial Environments
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CAN Bus Continues Its Grand Popularity – in Automotive, IoT, and Automation
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Who Had the Winning Project in Our MAX32620FTHR Design Contest?
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Reaching for the Golden Ring: 4 Key Elements for Industrial Convergence
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4 Ways to Extend Runtime of Small, Battery-Powered Electronics
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How Are You Managing Thermal Requirements of Shrinking Industrial Sensors?
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Accurate, Wrist-Based Heart-Rate Monitoring—Six Months Faster
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Getting a Finger on the Pulse of Well-Being
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LED Controllers Make Headlight System Design a Snap
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Smaller, Smarter, and More Powerful ICs—It’s All at electronica 2018
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Managing Low and High LED Currents for Matrix and Pixel Lighting
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An Ideal Diode Can Be an Engineer’s Best Friend
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Bring Intelligence to the Edge of the Digital Factory
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7 Key Steps to Empowering Innovation
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Empowering Secure PIN-on-Glass Payments at TRUSTECH 2018
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Engineering Intern Creates Heat-Sensing Robot with LoRa Technology
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So Many Smart Devices, So Many Security Vulnerabilities
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Why Embedded Systems Designers Should Care About OpenSSL
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CES 2019 Preview
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Secure Authenticators Protect Artificial Pancreas
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A Simple Way to Increase Factory Uptime
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Simpler, More Efficient Secure Companion ICs for the IoT
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Secure Provisioning Platform Makes It Easier to Protect IoT Designs
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University Students Gain Industry 4.0 Experience with Smart Factory Demo
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Want Traffic Updates from Your Toilet?
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Want Your Battery-Powered Devices to Run Longer? Here’s How.
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Why Embedded Systems Designers Should Care About OpenSSL
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5 Cool Gadgets that Engineers Might Want to Unwrap
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An Insider's View of Analog Artistry at electronica 2018
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One Way to Replace Power Rail Clusters in Small Electronic Devices
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Engineers Had Better Be Careful with Algorithms and AI
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Makers Make the Most of Analog ICs
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Get Inspired to Think Big and Design Small
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How LED Backlight Drivers Enable Bigger, Higher Resolution Automotive Displays
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How IoT Sensors Help Ensure Freshness and Quality of Perishables
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Fish Tanks Don’t Need Security—Unless They’re Part of the IoT
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How Manufacturing Systems Can Evolve to Enable the Industrial IoT
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Committed to a Smarter, More Sustainable Future
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Squeeze More Out of Your Portable Electronics
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Cook Up Something Yummy for Pi Day
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Happy Birthday, James Kirk
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Using Optical Sensors to Detect Particles
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You Be the Judge of Creative Student Inventors
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Maxim Is Going to the Dogs in 2020
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Designing for USB-C Just Got Easier
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Tiny, Power-Efficient IO-Link Transceiver for IIoT Designs
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How Ceramic Voltage References Enhance Long-Term Drift Performance
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What’s Needed to Implement Today’s Industrial IoT Architecture
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How Security Supervisors Safeguard IoT Devices
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On-Demand Webinar: Your FPGA Design Starts with the Right Power Supply
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Tips for Choosing Precise, Power-Efficient GNSS Receivers for Location-Based Applications
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Digital Instrument Clusters: Why Functional Safety is Important
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Channel Your Engineering Ingenuity for Star Wars Day
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How Will the Industrial IoT Architecture Evolve
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New Power Management Design Guides for Smart Buildings and Smart Factories
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Get Better Performance from Your ADAS Camera Systems
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How to Save Time and Space with Power Supply Designs
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Reference Designs: Designed, Built, and Tested—So You Won’t Have To
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Understand How Physically Unclonable Function Technology Can Benefit Your Design
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Meet Vehicle Emissions Standards with Supervisory and Watchdog-Timer ICs
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How to Derive More System Efficiency from Battery-Powered Designs
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Higher Throughput at Lower Cost for Semiconductor Testing
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Want to Protect Your USB Port Without Slowing It Down?
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Sensors Expo: See Wearable Healthcare Technologies in Action
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4 Reasons to Register for a Free Design Startup Pack
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How to Efficiently Power Tiny Industrial Sensors
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Don’t Go Breaking Your Heart to Add ECG to Your Wearable
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What You Need to Know About Battery Management Challenges
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System Loads Are No Match for This Current-Sense Amplifier
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Power Conversion Efficiency for Portable Designs
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Why Authenticators SHOULD be THE Key to Your Smart Lock
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Can Wearables Get People Off the Couch
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How Dynamic Voltage Scaling Saves Power in Wearables
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Can Wearables Reduce Healthcare Costs?
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How to Get Louder, Richer Sound from Micro Speakers
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When Is a Digital Output Not Just a Digital Output? When It’s Also a Digital Input!
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3 Reasons to Use a Discrete Real-Time Clock in Your Wearable Design
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How Secure Authenticators Prevent Counterfeiting of Medical Disposables
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How to Minimize Power in Clocking Applications
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Are Sensor Clones Stealing Away Your Customers?
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Maxim Summer Interns Showcase Their Technical Talents
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What’s Driving Industry 4.0?
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Breakout Boards Give You a Head Start on Your Design
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RS-485 Just Got a Major Stamina Boost!
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Why Shrinking Sizes of RTCs Is Good News for Your Portable Designs
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The Ins and Outs of Voltage Supervisor ICs
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See If You Can Steal These Keys
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How Power Management ICs Support Smart Buildings
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How Analog ICs Fuel Wireless IoT Sensors
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Drive HB LEDs to Brighter Heights for Automotive Applications and More
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nanoPower Technology Translates into Happy Users
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Smartphone for Seniors Gets Smarter with Health Monitoring
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Deliver Accurate Battery SOC Data from Your Wireless Android Headphones
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Like a Good Wine, These Industrial Communications ICs Get Better Over Time
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5 Ways a MyMaxim Account Enhances Productivity
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Simple Yet Effective – Never Underestimate the Usefulness of the Humble Comparator!
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Look Ma, the Battery Has Wheels!
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How to Safely Demagnetize Your Inductor When Using Switching Inductive Loads
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Are Your Car Battery Packs in Danger of Failing?
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How an Old Digital Dog Can Learn New Analog Tricks
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CCCamp Badge is More than an Entry Ticket – It’s a Sensor-Rich Reference Design
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5 Ways a MyMaximAir Guitar Gets Real with These Electronic Instruments Account Enhances Productivity
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Stress Your Power Supply, Not Yourself
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How to Drive Micro Speakers to Their Maximum Power Rating
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How to Get Accurate In-Ear Heart-Rate and SpO2 Monitoring
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Scare Up Some Electronic Tricks and Treats This Halloween
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How Wearables Can Become a More Integral Part of Healthcare
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Why Long Battery Life is the Lifeblood of Thread IoT Sensors
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Keep Perishables Safe with Reliable Temperature Monitoring
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Ask Michael: How Do I Make My High-Current Sensor IO-Link Compatible?
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PUI Audio Delivers Clean, Clear Sound from Tiny Speakers
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How Analog ICs Support Seismic Signal Detection
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Reference Designs with ECAD Files Mean Faster Circuit Design
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How GSEE-TECH Cut 6 Months from Analog Input Module Development Cycle
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3 Ways an Integrated Bio-algorithm Sensor Hub Simplifies Wearable Designs
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Intelligent Buildings Get Smarter and Smarter
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Why New ICs Are Needed to Bring Intelligence to the Edge
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Learn How You Can Design a Power Supply in 5 Minutes
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Ask Michael: Swipe Right for the Isolated Gate Driver That’s a Perfect Match for GaN/SiC Switches
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Experience Wireless Battery Management at CES 2020
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Can Wearables Help Prevent the Silent Killer?
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Holiday Gift-Giving Guide: 5 Hot Tech Gadgets for Engineers
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Simplify System Power Design for Your Automotive Displays
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Add Diode ORing Without Losing Efficiency
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Function-Rich Diving Computer Fueled by Analog and Power Management ICs
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Getting to Reliable Sensor Data: Interaction Between Electronics, Optics, and Mechanical Design
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Calterah Semiconductor Delivers High-Performance, Power-Efficient mmWave Radar Tech
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Your Guide to the Advantages of Pack-Side Fuel Gauging
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How to Extend the Life of Your Smart Factory’s Wireless Beacons
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Uber Driverless Cars, AI and IoT at CES 2020
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Power Up Internal Circuits While Simplifying Diagnostics for Signal Monitoring Applications
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Digital Input Design
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Location-Tracking Chip IoT Designs
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See How Click Boards Make It Quick to Evaluate Real Time Clock ICs
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Multichannel ADC Accuracy for Accurate Sensing
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Future of Industrial Automation Demos at Embedded World
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Complete Wrist-Based Heart-Rate SpO2 Sensor Reference Design
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How to Create Accurate Performance-Tracking Sports Wearables
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Robust NAND Flash Wafer Testers Rely on Low-Power ATE Drivers
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Quickly Simulate DC-DC Converters with SIMPLIS-Based Tool
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Tips for Achieving Efficient AC Motor Drive System Design
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Guide to LiDAR Sensors for Self-Driving Cars
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Analog PAM4 Chipset in Hyperscale Data Centers
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Are Biometric Sensors the Key to Healthier Horses…and Humans?
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Keep Hackers’ Hands Off Your Battery Packs
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Psst…This Fitness Wearable Tells You Your Body’s Secrets
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ASIL-Grade Camera Power Protector Safeguards Your Car Cameras
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CES 2020: The Power Behind Robotics
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Is Pulse Transit Time Needed for Accurate Blood-Pressure Monitoring from Wearables?
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Need to Design Small, Reliable Earbuds in a Hurry? Sometimes It Pays to Play It Cool…
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MediaTek Taps Into GMSL SerDes Technology for Automotive Infotainment Solution
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How Analog Devices Are Enhancing LUXROBO’s IoT and Robotics Development Platform
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Say “No More” to Tedious Calculations for E Series Values
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How Secure Authentication Protects Your Automotive Designs from Counterfeiting
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How NCATEST Raised Performance and Lowered Power of Its Automated Test Equipment
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Ensuring Employee Safety During an Unprecedented Time
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How LiDAR Delivers Critical Distance-Sensing for Self-Driving Cars
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Why Does It Take a Pandemic to Realize the Value of Remote Patient Monitoring?
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What’s in Photoplethysmography Data? A Look at the Interaction Between Sensor Performance and Algorithms
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Charging Your Car’s Battery – in 1898
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Prioritizing Customer Focus to Save Lives
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How Capacitors Provide a Window into the Real Value of a Battery
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What’s All the Fuss About Cryptography?
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Safeguard Smart Medical Devices for Enhanced Patient Safety
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Making a Difference in the Global Fight Against COVID-19
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How iButton Devices Facilitate Electric Car Safety
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how a small schottky diode minimizes noise in synchronous converters
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Understand the Multiphase Buck Voltage Regulator Advantage
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Answering the Call to Help Maxim Integrated Customers Innovate in Our New World
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Philips RDT Relies on RTC to Keep Remote Patient Monitoring Device on Schedule
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Philips RDT Relies on RTC to Keep Remote Patient Monitoring Device on Schedule
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The Keys to How Modern Cryptography Keeps Transactions Safe
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HollySys Creates Small, Efficient Industrial Automation Solutions
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How Cryptographic Algorithms Protect Embedded Designs
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Virtual Sensors Show Brings Latest Technologies to You
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How Performance at the Edge Drives Smarter Manufacturing
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Don’t Get Cold Feet from Your ASIL B and Cold-Crank Specifications
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How Soundmatters Is Making Small, Portable Speakers Sound Better
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How Miromico Designed the Industry’s Smallest LoRaWAN Module for the IoT
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What Makes PUF Technology One of the Best Protections in Cryptography?
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Extend the battery life of your vehicle tracker/asset tracker/IoT device 10-fold with Maxim’s ultra-low power GPS solution
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What Makes Cryptography Easier? Secure Authenticators and Coprocessors
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How Being Bold Brings Smart Automation Solutions
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The Dawn of the Self-Aware Machine
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On the Go Vital Monitoring and Gaming Platform
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Can We Find Common Ground on Common Mode Range?
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Slash Power Dissipation with Maxim’s Industrial Protected Low-Side Digital Output Solution
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Assistant Excellence Conference - It Takes Two
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Two Tools to Ease Inductor Selection
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More nanoPower technology™ tools for your toolkit
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The Smallest Arm Cortex-M4 Microcontroller in the World
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No-Opto Isolated DC-DC Flybacks for Smart Factories and Building Automation
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Smart Wake-up for Security and Home Monitoring Cameras
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Keep the Lights On When Someone is Home
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Enabling Industry 4.0 with Low Power, Secure & Reliable Microcontrollers
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Differences Between DS2431 and DS28E07
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Relieving Supply Chain Issues of the 1-Wire Silicon Serial Number Chip
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Just 1-Wire to Operate I2C/SPI Endpoints
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Understand When and Why System Reliability Matters
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Customer Testimonials
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HollySys: Delivering Small, Efficient Industrial Automation Solutions
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Radio Bridge: Designing Flexible, Long-Range Wireless IoT Sensors with Maxim Integrated Analog ICs
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NU-RISE: Closing the Loop on Cancer Radiation Therapy
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Atec Inc.: Engineering Assistive Devices with Maxim Biosensors
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MediaTek: Delivering High-Performance Automotive Infotainment Solutions
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Calterah Semiconductor: Developing 77GHz CMOS mmWave Radar Sensor ICs for Automotive and Industrial Designs
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Equine SmartBits: Mouth-Based Biometrics Monitoring with Maxim Health Sensors
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Gospell Digital Technology: Advancing Digital TV Technologies Globally
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WHOOP: Unlocking Human Performance with MAX32652
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Noitom Limited: Redefining Motion Capture with MAX17224 nanoPower Boost Converter
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Spire: Making Clothes Smarter with Maxim Wearable Health AFE
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LUXROBO: Creating Educational Coding Robots with CAN Transceiver Circuit
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NCATEST Technologies: Developing High-End ATE Products
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Philips RDT: Improving Patients’ Outcomes Throughout the Continuum of Care
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Formula Student Germany: Keeping Electric Race Car Batteries Safe with iButton
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Soundmatters: Producing World-Class Sound from Ultra-Compact Audio Systems
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Miromico: Creating the Smallest LoRaWAN Module with MAX32625/MAX32626 MCUs
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Beijing Sifang Automation: Leading the Way in Smart-Grid Equipment with Maxim Integrated Signal-Chain ICs
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Ectosense: Helping Sleep Apnea Patients Get a Better Night’s Rest
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CarePredict: Harnessing the Power of Data to Enhance Quality of Life for Seniors
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Xylon: Enabling High-Performance ADAS with Maxim Integrated's GMSL High-Speed Serial Links
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B-Secur: Delivering Powerful ECG Algorithms and Analytics with MAX32660
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SICK AG: Shrinking the Size of Precise Optical Sensors with a µSLIC Power Module
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HollySys: Delivering Small, Efficient Industrial Automation Solutions
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Glossary of EE Terms
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Knowledge Base Search
Maxim Micros SDK (Linux) | ||
Software Version: | 1.0.0 | |
File Name: | MaximMicrosSDK_linux.run | |
Description: | This software package contains the installer for the Linux version of Maxim Microcontroller SDK. This Maxim Micros SDK is the SDK recommended for new designs and replaces the now deprecated Low Power Micro SDK. | |
Operating Systems Supported: | Linux | |
Required Hardware: | MAX32570-MNKIT#; MAX32520-KIT#; MAX32670EVKIT#; MAX78000EVKIT#; MAX32655EVKIT#; MAX32655FTHR#; MAX78000FTHR#; MAX32570-QNKIT#; MAX32520FTHR#; MAX32660-EVSYS#; MAX32650-EVKIT#; MAX32651-EVKIT#; MAX32650FTHR#; MAX32665EVKIT#; MAX32666EVKIT#; MAX32666FTHR#; MAX32672EVKIT#; MAX32675EVKIT#; MAX32680EVKIT# | |
Related Product Folder(s): |
MAX32680EVKIT
MAX32655FTHR MAX32650FTHR MAX32675EVKIT MAX32672EVKIT MAX32520-KIT MAX32570 MAX32650-EVKIT MAX32670 MAX32650 MAX32672 MAX78000FTHR MAX32651 MAX32652 MAX78000 MAX32655 MAX32520FTHR MAX32666EVKIT MAX32655EVKIT MAX32570-MNKIT MAX32665EVKIT MAX32666FTHR MAX32670EVKIT MAX32680 MAX32660 MAX32520 MAX32665 MAX32666 MAX32651-EVKIT MAX32660-EVSYS MAX32570-QNKIT MAX78000EVKIT |
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Notes: |
Software License Agreement
MAXIM INTEGRATED PRODUCTS, INC.
SOFTWARE LICENSE terms and conditions
The Software you have requested is provided pursuant to these Software License Terms and Conditions (“Agreement”). By selecting the AGREE button, you are entering into, agreeing to, and consenting to be bound by all of the terms of this Agreement, which is between you and Maxim Integrated Products, Inc. on behalf of itself and its affiliates and subsidiaries (collectively, “Maxim”). This Agreement is effective as of the date of your response (the “Effective Date”). You represent and warrant that you are at least eighteen (18) years of age if you are a resident of the United States, or the age of majority in the jurisdiction of your residence. If you are accepting these terms on behalf of your employer (“Company”), you represent and warrant that you have full authority to bind the Company to these terms. You and, if applicable, the Company may hereinafter be collectively referenced in this Agreement as the “Customer.”
Recitals
A. Maxim, among other things, develops, manufactures, and sells semiconductor products and offers software consisting of certain software development tools, operating systems, driver software, firmware, and example application code. The provided Software contains software or features representative or illustrative of those that can (only) be used with Maxim ICs and can (only) be used for development of software application programs to operate with Maxim ICs or products containing Maxim ICs.
B. Customer desires to license the Software from Maxim, under the terms and conditions of this Agreement.
C. This Agreement permits Customer to license the Software from Maxim or its distributors, representatives, or other partners who are duly authorized by Maxim to offer such licenses and sets forth the basic terms and conditions under which the Software will be delivered.
- Definitions.
1.1. “Affiliate” means any entity under the Control of a party where “Control” means ownership of or the right to control greater than 50% of the voting securities of such entity.
1.2. “Customer Program” means a software program designed to operate with Maxim ICs and developed by Customer using the Software.
1.3. “Documentation” means all manuals, documentation, and other written materials that Maxim includes or otherwise provides as related to the Software or Maxim ICs, whether in printed or electronic form, including without limitation, customer reference and installation manuals, user’s guides, and programmers guide.
1.4. “Executable Code” means software in a machine-readable and executable form which is not generally readable by humans without reverse assembly, reverse compiling, or reverse engineering, but which can be combined in an unmodified form with Source Code and which can be compiled to make a Customer Program.
1.5. “Maxim ICs” means integrated circuits that are separately purchased or obtained by Customer directly from Maxim or indirectly from Maxim’s distributors, representatives, or other partners who are duly authorized by Maxim to sell such integrated circuits.
1.6. “Maxim-Enabled Products” means any product made by or for Customer that incorporates a Maxim IC.
1.7. “Maxim Proprietary Software” means the software provided by Maxim to Customer under and upon Customer’s acceptance of this Agreement, all permitted copies, modifications, or derivative works thereof made by Customer, and all basic or related materials pertinent thereto, including without limitation any documentation provided, either in hardcopy form or electronic form. Maxim Proprietary Software excludes Open Source Software and Third Party Technology.
1.8. “Object Code” means software in machine-readable and executable form resulting from compilation or assembly of Source Code and that is not generally readable by humans without reverse assembly, reverse compiling, or reverse engineering.
1.9. “Open Source Software” means any open source, community, or other free software code or libraries of any type, including, without limitation, any code that (a) is made generally available for free or that meets the definition of “open source” or “free” as defined by the Open Source Initiative or Free Software Foundation or (b) is licensed under any license agreement approved by either such entity (such as, for example purposes only, the GNU GPL, GNU LGPL, Mozilla, or Apache license).
1.10. “Site(s)” means the Customer’s and its Affiliate’s premises.
1.11. “Software” means the Maxim Proprietary Software, any Third Party Technology, and any Open Source Software delivered to Customer under the terms of this Agreement. Unless otherwise noted, the Software and Documentation are referred to collectively herein as “Software”.
1.12. “Source Code” means software in human-readable, high-level language form, which can be compiled or assembled into Object Code, machine code, or another executable form of code.
1.13. “Third Party Technology” means any software, feature or functionality that requires a license grant and/or payments by Customer to third parties for commercial activities related to Customer Programs and/or Maxim-Enabled Products.
- Software Licenses. The Maxim Proprietary Software is licensed to Customer under the license grant set forth in Section 3 (Maxim Proprietary Software License Grant) below. Any Open Source Software delivered to Customer is licensed to Customer under the license specified in such Open Source Software and as further restricted by Section 4. For purposes of clarity, the provisions of this Agreement applying to Source Code shall only apply if Source Code is being provided to Customer.
- Maxim Proprietary Software License Grant.
a. use Object Code versions of Maxim Proprietary Software, internally and only at the Site(s) for the sole purpose of creating Customer Programs;
b. load, install, run, execute, test, and debug Object Code versions of Maxim Proprietary Software, as incorporated within a Customer Program, in a Maxim-Enabled Product internally and only at the Site(s) and only for the purpose of enabling Maxim ICs in the Maxim-Enabled Product;
c. grant a personal, non-exclusive, non-transferable, non-assignable, non-sublicensable sublicense to third parties: (i) to install, run, load, and execute Object Code versions of Maxim Proprietary Software, as incorporated within a Customer Program, on Maxim-Enabled Products, and (ii) to distribute Object Code versions of Maxim Proprietary Software, as incorporated within a Customer Program, embedded in a Maxim-Enabled Product to such third parties solely for the purpose of and only to the extent needed to carry out such sublicense. The sublicense will subject the third party to the restrictions and obligations of Sections 3.4 (License Restrictions on Maxim Proprietary Software) and 14 (Confidential Information) as if the third party were in the place of Customer. Customer will be fully responsible for the compliance with and liable for the breach of the sublicense by the third party. Upon becoming aware of any breach or suspected breach of the sublicense by the third party, Customer will promptly report such breach or suspected breach to Maxim; and
d. use unmodified versions of Executable Code of Maxim Proprietary Software, to incorporate such Executable Code within Customer Programs, and to create an Object Code version of Customer Programs.
In all cases, the rights granted herein shall be exercised in accordance with (i) the Documentation, and (ii) this Agreement.
3.2. Source Code License. To the extent that the Maxim Proprietary Software includes any Source Code, subject to the terms and conditions of this Agreement, Maxim grants to Customer a non-sublicensable (except as expressly granted herein), non-exclusive, non-transferable, non-assignable license during the Term to use, modify, and compile the Source Code internally and only at the Site(s) solely to the extent necessary to support the development of a Customer Program as permitted under Section 3.1 (License Grant to Maxim Proprietary Software) above. Customer will keep track of all Customer employees who have had access to Source Code versions of Maxim Proprietary Software, and will provide a list of such employees to Maxim upon request during any Audits under Section 15.7.
3.3. Copies. Except for purposes of exercising the license granted in this Section 3 (Maxim Proprietary Software License Grant) and for back-up purposes, Customer may not copy the Maxim Proprietary Software. Customer agrees to reproduce and include Maxim’s copyright notice on any copies of the Maxim Proprietary Software, which copies it makes in any form, including partial copies of the Maxim Proprietary Software.
- modify, translate, adapt, reverse engineer, decompile, disassemble, or otherwise translate or create derivative works based on the Maxim Proprietary Software, except solely to the extent (i) expressly permitted in Section 3.1 (License Grant to Maxim Proprietary Software) above or (ii) by applicable law and then only with advance written notice of such activity to Maxim;
- review, analyze, or evaluate Maxim Proprietary Software for the purpose of determining the infringement, validity, or enforceability of any intellectual property, or compare Maxim Proprietary Software to intellectual property in any way;
- examine, review, evaluate, or otherwise use the Maxim Proprietary Software for the purpose of developing or enabling a product or technology that competes with Maxim;
- rent, lease, or sublicense the Maxim Proprietary Software to a third party, except as expressly permitted in Section 3.1 (License Grant to Maxim Proprietary Software);
- remove any product identification, proprietary, copyright or other notices contained in the Maxim Proprietary Software;
- disclose or distribute to any third party (i) benchmarks or other comparisons relating to the Maxim Proprietary Software or (ii) any information (A) relating to the results of Customer’s evaluation of the Maxim Proprietary Software (including relating to performance, function, or deficiencies of the Maxim Proprietary Software) or (B) contained in any documentation, report, or questionnaire of Maxim that constitutes Maxim Confidential Information; or
- distribute or sell the Maxim Proprietary Software in standalone form or in any manner other than as permitted under Section 3.1 (License Grant to Maxim Proprietary Software) above.
3.5. Authorized Users. Customer’s consultants and contractors, who are not direct competitors of Maxim and who are under written agreements to provide services to Customer (“Authorized Users”), may use the Maxim Proprietary Software in accordance with the licenses granted to Customer under this Agreement, provided that:
- such Authorized Users agree to be bound by terms as protective of Maxim and Maxim Confidential Information as the terms set forth in this Agreement,
- Customer shall remain responsible for the Authorized User’s compliance with such confidentiality terms and the applicable terms of this Agreement,
- if Source Code is licensed under Section 3.2 (Source Code License), Customer keeps track of all Authorized Users who have had access to Source Code, and provides a list of such Authorized Users in association with an audit under Section 15.7; and
- each Authorized User’s use of the Maxim Proprietary Software is only for Customer’s benefit in accordance with this Agreement.
3.6. No Right to Manufacture. Customer acknowledges and agrees that the license to the Maxim Proprietary Software granted in Section 3.1 (License Grant to Maxim Proprietary Software) does not include any license to any of Maxim’s other technology or intellectual property and that, consequently, it shall not have the right under this Agreement to develop, manufacture, or have manufactured any integrated circuits that incorporate any Maxim technology, and that Customer is required to separately purchase or obtain Maxim ICs from Maxim or a Maxim certified distributor.
3.7. Form of Delivery. Maxim will provide the Software licensed hereunder to Customer by electronic medium or other form as mutually agreed upon, in the condition as it exists on the Effective Date or date of delivery, if different, without special reformatting.
3.6. Use of Software in Critical Applications. Software provided by Maxim are not designed, intended or authorized for use in life support, life sustaining, nuclear, or other applications, including, but not limited to, transportation operating systems, safety, or any FDA Class 3 medical devices or medical devices with a similar or equivalent classification in a foreign jurisdiction, in which the failure of such Software could reasonably be expected to result in personal injury, loss of life or severe property or environmental damage. Customer acknowledges that use of the Software in such product applications is understood to be fully at the risk of Customer and that Customer is responsible for verification and validation of the suitability of the Software in such application. Customer agrees that Maxim is not liable, in whole or in part, for any claim or damage arising from use in such applications. Customer agrees to indemnify, defend and hold Maxim harmless from and against any and all claims, damages losses, costs, expenses and liabilities arising out of or in connection with such use.
- Open Source Licenses. Customer understands and acknowledges that Open Source Software may be delivered pursuant to this Agreement and subject to an Open Source Software license, that each Open Source Software license is a separate agreement between Customer and the copyright holder of such Open Source Software and that Maxim is not a party to any such Open Source Software license. The terms and conditions governing Customer’s use of the Open Source Software are set forth in the license agreement indicated in the Open Source Software and not in this Agreement. Customer’s use of all Open Source Software must comply with the terms of each applicable Open Source Software license. This Agreement does not limit Customer’s rights under, or grant Customer rights that supersede, the license terms of any particular Open Source Software license.
- Third Party Technology. Customer acknowledges and agrees that Customer Programs and Maxim-Enabled Products, as well as any products based on Maxim Proprietary Software or other Maxim technology, may require certain licenses from certain standards bodies and/or other third parties holding intellectual property rights (“IPR”) that may cover one or more of aforementioned items. Customer acknowledges and agrees that Maxim is not granting a sublicense to IPR of Third Party Technology, and Customer is solely responsible for procuring such license in connection with any use of such Third Party Technology.
6. Representations and Warranties of Customer.
6.1. General. Customer represents and warrants that:
a. Customer’s business and its performance under this Agreement are in compliance with all applicable federal, state and local laws and government rules and regulations;
b. None of the Customer Programs, Maxim-Enabled Products, or any portion thereof, excluding any Maxim Proprietary Software contained therein, constitutes or may give rise to a claim of infringement of any patent, copyright, trade secret or other intellectual property right of a third party anywhere in the world; and
c. No portion of any Customer Program (including any libraries), or any Maxim-Enabled Product, contains or will contain any “viral” Open Source Software, or any other software or code which could compromise or interfere in any way with Maxim’s rights, including IPR, in or to the Maxim Proprietary Software or other Maxim materials that may come into contact with such Customer Programs or Maxim-Enabled Products, or require Maxim or Customer to disclose any Source Code to any such Maxim Proprietary Software integrated in or distributed with any Customer Program or Maxim-Enabled Product.
6.2. Maxim Proprietary Software. Customer on behalf of itself and its Affiliates hereby covenants not to bring suit or otherwise assert any intellectual property right against Maxim or any user, distributor, or manufacturer of the Maxim Proprietary Software for the manufacture, use, import, offer for sale, or sale of any products or services based on the Maxim Proprietary Software.
7. Ownership. Notwithstanding anything to the contrary contained herein and except for the limited license rights expressly provided herein, Maxim and its suppliers have and will retain all rights, title, and interest in and to the Maxim Proprietary Software (including, without limitation, all patent, copyright, trademark, trade secret, and other intellectual property rights) and all copies, modifications, and derivative works thereof. Customer shall retain all rights, title, and interest in or to any modifications, improvements, or enhancements to the Maxim Proprietary Software as permitted under the Source Code License in Section 3.2. Customer acknowledges that it is obtaining only a limited license right to the Maxim Proprietary Software and that irrespective of any use of the words “purchase”, “sale,” or like terms hereunder, no ownership rights are being conveyed to Customer under this Agreement or otherwise. For the avoidance of doubt, as between Maxim and Customer, Customer shall have and retain all rights, title, and interest in and to any Customer Programs except to the extent that any Software is incorporated therein.
8. Term and Termination.
8.1. Term. This Agreement is effective as of the Effective Date, will continue for five (5) years (the “License Term”), and expire when the License Term has elapsed, unless earlier terminated in accordance with this Section (the “Term”).
8.2. Termination. This Agreement (and all licenses and sublicenses granted hereunder) shall terminate on the earlier of:
a. immediately upon Customer’s material breach of any term of this Agreement,
b. Maxim’s notice of termination, which may be for any reason, to Customer;
c. the date upon which Customer discontinues the development, sale or distribution of Customer Programs or Maxim-Enabled Products;
d. the date that Customer becomes insolvent, makes a general assignment for the benefit of creditors, suffers or permits the appointment of a receiver, becomes subject to any proceeding under any bankruptcy or insolvency law whether domestic or foreign, voluntary or involuntary; or
e. Expiration of the Term pursuant to Section 8.1 (Term).
Upon expiration or termination of this Agreement or upon written request from Maxim, Customer shall certify to Maxim in writing that Customer has returned (or, with the consent of Maxim, destroyed) all copies of the Maxim Proprietary Software and any other material provided by Maxim (excluding Open Source Software).
8.3. Survival. Sections 3.3 (Copies), 3.4 (License Restrictions on Maxim Proprietary Software), 3.6 (No Right to Manufacture), 3.8 (Use of Software in Critical Applications), 4 (Open Source Licenses), 5 (Third Party Technology), 6 (Representations and Warranties of Customer), 7 (Ownership), 8 (Term and Termination), 9 (Warranty Disclaimer), 11 (Taxes), 12 (Limitation of Remedies and Damages), 13 (Indemnification by Customer), 14 (Confidential Information), and 15 (General) shall survive any termination or expiration of this Agreement.
8.4. Limited Survival of License. Notwithstanding anything contained herein, unless this Agreement is terminated pursuant to Sections 8.2.a or 8.2.d, Customer shall, after termination or expiration of this Agreement, retain a limited license to the Maxim Proprietary Software, to use any Maxim-provided Source Code and Object Code versions of Maxim Proprietary Software internally and only at the Site(s) for the sole purpose of maintaining or supporting a Maxim-Enabled Product that was shipped in conjunction with an Object Code version of a Customer Program during the Term of this Agreement .
9. Warranty Disclaimer. TO THE EXTENT PERMITTED BY LAW, THE SOFTWARE AND ALL SERVICES ARE PROVIDED “AS IS” AND “WITH ALL FAULTS.” NEITHER MAXIM NOR ITS SUPPLIERS MAKES ANY WARRANTIES, EXPRESS OR IMPLIED, STATUTORY OR OTHERWISE, INCLUDING BUT NOT LIMITED TO WARRANTIES OF MERCHANTABILITY, TITLE, FITNESS FOR A PARTICULAR PURPOSE, OR NONINFRINGEMENT. CUSTOMER MAY HAVE OTHER STATUTORY RIGHTS. HOWEVER, TO THE FULL EXTENT PERMITTED BY LAW, THE DURATION OF STATUTORILY REQUIRED WARRANTIES, IF ANY, SHALL BE LIMITED TO THE LIMITED WARRANTY PERIOD.
- Support & Maintenance. The Software is provided to Customer without any maintenance or support services. Ongoing maintenance and customer support for Customer’s software that is based upon or includes portions of the Maxim Proprietary Software is the responsibility of the Customer. Maxim may provide to Customer, in Maxim’s sole discretion, updates to the Software from time to time. Upon delivery, such updates to the Software are subject to the terms and conditions herein.
- Taxes. Customer agrees to pay any sales, value-added, withholding or other similar taxes and assessments imposed by applicable law that Maxim is required to pay based on the licenses Customer ordered, except for taxes based on Maxim’s income.
12. Limitation of Remedies and Damages.
12.1. NEITHER PARTY IS LIABLE FOR ANY LOSS OF USE, LOST DATA, FAILURE OF SECURITY MECHANISMS, INTERRUPTION OF BUSINESS, OR ANY INDIRECT, SPECIAL, INCIDENTAL, OR CONSEQUENTIAL DAMAGES OF ANY KIND (INCLUDING LOST PROFITS), REGARDLESS OF THE FORM OF ACTION, WHETHER IN CONTRACT, TORT (INCLUDING NEGLIGENCE), STRICT LIABILITY, OR OTHERWISE, EVEN IF INFORMED OF THE POSSIBILITY OF SUCH DAMAGES IN ADVANCE.
12.2. NOTWITHSTANDING ANY OTHER PROVISION OF THIS AGREEMENT, MAXIM’S AND ITS LICENSORS’ AND SUPPLIERS’ ENTIRE CUMULATIVE LIABILITY UNDER THIS AGREEMENT TO CUSTOMER SHALL NOT EXCEED THE AMOUNTS PAID BY CUSTOMER.
12.3. THIS SECTION 12 DOES NOT APPLY TO CUSTOMER WITH RESPECT TO ANY CLAIM ARISING UNDER SECTION 3 (MAXIM PROPRIETARY SOFTWARE LICENSE GRANT), SECTION 6 (REPRESENTATIONS AND WARRANTIES OF CUSTOMER), SECTION 13 (INDEMNIFICATION BY CUSTOMER) OR SECTION 14 (CONFIDENTIAL INFORMATION).
12.4. The parties agree that the limitations specified in this Section 12 will survive and apply even if any limited remedy specified in this Agreement is found to have failed of its essential purpose.
13. Indemnification by Customer. Customer shall indemnify, defend, and hold Maxim and its Affiliates harmless from any and all claims, liabilities, damages, expenses (including reasonable attorney’s fees and court, arbitration, and mediation costs), or associated proceedings (“Claims”) in connection with, relating to, or which result from:
a. any allegation of infringement of a third party’s intellectual property rights with respect to any Customer Program or Maxim-Enabled Product, but excluding any such claim in either case to the extent based on the Software on a stand-alone basis,
b. the sale, marketing, distribution, or manufacture of any Maxim-Enabled Product, but excluding any such claim to the extent based on the Software on a stand-alone basis, or
c. Customer’s breach of any provisions of Section 6 (Representations and Warranties of Customer).
Maxim shall give Customer prompt notice in writing of any such Claims and the authority, information, and reasonable assistance (at Customer’s expense) necessary to defend and settle such Claims, except that Maxim’s failure to provide prompt notice will not relieve Customer of its indemnity obligations under this Section unless such failure materially prejudices the defense of the Claim, and Customer will not enter into a settlement of the Claim without Maxim’s prior written consent. If Customer does not diligently pursue resolution of the Claim or provide Maxim with reasonable assurance that it will diligently pursue resolution, then Maxim may, without in any way limiting its other rights or remedies, defend or settle the Claim. Nothing herein shall limit or restrict Maxim’s, its Affiliates’, or its suppliers’ rights to defend and protect their ownership and intellectual property rights in and to the Maxim Proprietary Software, in whole or in part, in connection with any Claim. Each party agrees to provide reasonable cooperation to the other party in the defense or settlement of any such Claims, upon the reasonable request of the other party.
14. Confidential Information. Each party agrees that all code, inventions, know-how, business, technical and financial information it (“Receiving Party”) obtains from the disclosing party (“Disclosing Party”) constitute the confidential property of the Disclosing Party (“Confidential Information”), provided that it is identified as confidential at the time of disclosure or should be reasonably known by the Receiving Party to be Confidential Information due to the nature of the information disclosed and the circumstances surrounding the disclosure. Any software, documentation, or technical information provided by Maxim (or its agents)(excluding Open Source Software), performance information relating to the Maxim Proprietary Software, and the terms of this Agreement are deemed Confidential Information of Maxim without any marking or further designation. Except as expressly authorized herein, the Receiving Party will hold in confidence and not use or disclose any Confidential Information. The Receiving Party’s nondisclosure obligation does not apply to information that the Receiving Party can document:
a. was rightfully in its possession or known to it without the breach of any confidentiality obligations prior to receipt of the Confidential Information;
b. is or has become public knowledge through no fault of the Receiving Party;
c. is rightfully obtained by the Receiving Party from a third party without breach of any confidentiality obligation;
d. is independently developed by employees of the Receiving Party who had no access to such information; or
e. is required to be disclosed pursuant to a regulation, law, or court order (but only to the minimum extent required to comply with such regulation or order and with advance written notice to the Disclosing Party).
15. General.
15.1. Assignment and Delegation. Customer may not assign its rights or delegate its obligations (“Assign” or “Assignment”) under this Agreement without the prior written consent of Maxim, and any purported Assignment without such consent shall have no force or effect. In the event, Customer desires to Assign this Agreement to a successor in interest by merger or acquisition of its entire business, Customer shall obtain Maxim’s prior written approval, which shall be rendered by Maxim in its sole discretion. Subject to the foregoing, this Agreement shall bind and inure to the benefit of the respective parties hereto and their permitted successors and assigns. In the event of an Assignment or attempted Assignment by Customer without Maxim’s prior written approval, Maxim may, in its sole discretion, immediately terminate this Agreement.
15.2. Severability. If any provision of this Agreement is adjudged by any court of competent jurisdiction to be unenforceable or invalid, that provision is limited to the minimum extent necessary so that this Agreement shall otherwise remain in effect.
15.3. Governing Law; Jurisdiction and Venue. This Agreement is governed by the laws of the State of California and the United States without regard to conflicts of laws provisions thereof, and without regard to the United Nations Convention on the International Sale of Goods. The parties agree to submit any claim or actions arising from and/or related to this Agreement to the exclusive jurisdiction and venue of the Superior Court of California, Santa Clara County or the United States District Court for the Northern District of California, San Jose Branch and agree to waive any right to assert the defense of forum non conveniens or to object to such venue in any such proceeding.
15.4. Notices and Reports. Any notice or report to Maxim hereunder shall be in writing to the following notice address:
Maxim Integrated Products, Inc.
160 Rio Robles
San Jose, CA 95134
Attn: General Counsel
Any notice or report shall be deemed given:
a. upon receipt if by personal delivery;
b. upon receipt if sent by certified or registered mail (return receipt requested); or
c. one day after it is sent if by next day delivery by a major commercial delivery service.
15.5. Amendments; Waivers. No supplement, modification, or amendment of this Agreement is binding, unless executed in writing by a duly authorized representative of each party to this Agreement. No waiver will be implied from conduct or failure to enforce or exercise rights under this Agreement, nor will any waiver be effective unless in a writing signed by a duly authorized representative on behalf of the party claimed to have waived. No provision of any purchase order or other business form employed by Customer will supersede the terms and conditions of this Agreement, and any such document relating to this Agreement is for administrative purposes only and shall have no legal effect.
15.6. Entire Agreement. This Agreement is the complete and exclusive statement of the mutual understanding of the parties and supersedes and cancels all previous written and oral agreements and communications relating to the subject matter of this Agreement.
15.7. Audit Rights. Upon Maxim’s written request, Customer shall certify in a signed writing that Customer’s use of the Software is in full compliance with the terms of this Agreement (including any copy and user limitations). With prior reasonable notice, Maxim may audit the copies of the Software in use by Customer provided such audit is during regular business hours; Customer is responsible for such audit costs only in the event the audit reveals that Customer’s use is not in accordance with the applicable license(s).
15.8. Independent Contractors. The parties to this Agreement are independent contractors. There is no relationship of partnership, joint venture, employment, franchise, or agency created hereby between the parties. Neither party will have the power to bind the other or incur obligations on the other party’s behalf without the other party’s prior written consent.
15.9. Force Majeure. Neither party is liable to the other for any delay or failure to perform any obligation under this Agreement if the delay or failure is due to events that are beyond the reasonable control of such party, including but not limited to any strike, blockade, war, act of terrorism, riot, natural disaster, failure or diminishment of power, telecommunications, data networks or services, or refusal of approval or license by a government agency.
15.10. Government End-Users. If the user or licensee of the Software is an agency, department, or other entity of the United States Government, the use, duplication, reproduction, release, modification, disclosure, or transfer of this Software, or any related documentation of any kind, including technical data and manuals, is restricted by a license agreement or by the terms of this Agreement in accordance with Federal Acquisition Regulation 12.212 for civilian purposes and Defense Federal Acquisition Regulation Supplement 227.7202 for military purposes.
15.11. Export Compliance. Customer acknowledges that the Software is subject to export restrictions by the United States government and import restrictions by certain foreign governments. Customer shall not and shall not allow any third-party to remove or export from the United States or allow the export or re-export of any part of the Software or any direct product thereof:
a. into (or to a national or resident of) any embargoed or terrorist-supporting country;
b. to anyone on the U.S. Commerce Department’s Table of Denial Orders or U.S. Treasury Department’s list of Specially Designated Nationals;
c. to any country to which such export or re-export is restricted or prohibited, or as to which the United States government or any agency thereof requires an export license or other governmental approval at the time of export or re-export without first obtaining such license or approval; or
d. otherwise in violation of any export or import restrictions, laws, or regulations of any United States or foreign agency or authority. Customer agrees to the foregoing and warrants that it is not located in, under the control of, or a national or resident of any such prohibited country or on any such prohibited party list. The Software is further restricted from being used for the design or development of nuclear, chemical, or biological weapons or missile technology, or for terrorist activity, without the prior permission of the United States government.
15.12. Injunctive Relief. Customer understands and agrees that, notwithstanding any other provision of this Agreement, breach of the provisions of this Agreement by Customer will cause Maxim irreparable damage for which recovery of money damages would be inadequate, and that Maxim shall therefore be entitled to obtain timely equitable relief, including but not limited to injunctive relief, to protect Maxim’s rights under this Agreement in addition to any and all remedies available at law.
Maxim Software License Ver 02; August 3, 2020