Zoekresultaten voor "pic microcontrollers"

Dit is een ideaal boek voor hobbyisten, studenten en ingenieurs die op een eenvoudige manier C en het gebruik van een mbed ARM microcontroller willen leren, rechtstreeks op internet zonder ingewikkelde software installatie. ARM mbed microcontroller NXP LPC1768 De projecten in dit boek zijn bedoeld voor beginners op het gebied van ARM microcontrollers of de programmeertaal C. Dat wil niet zeggen dat de projecten allemaal eenvoudig zijn, maar wel dat ze gemakkelijk te begrijpen zijn. We maken bijvoorbeeld gebruik van USB communicatie, een onderwerp dat door de mbed zo eenvoudig wordt gemaakt dat het geschikt is voor een beginners boek. Cloud technologie De mbed NXP LPC1768 maakt gebruik van cloud technologie, een revolutionair concept voor software ontwikkeling. Dit houdt in dat u geen software hoeft te installeren om de mbed te kunnen programmeren! Het enige dat u nodig heeft is een internet browser zoals Microsoft Internet Explorer, en een USB poort op uw PC. U kunt vanaf elke willekeurige PC waar dan ook ter wereld toegang krijgen tot uw project en er aan verder werken. Wanneer u klaar bent kunt u met een paar eenvoudige klikjes met uw muis het programma overzetten naar uw mbed hardware. Uiteraard kunt u de projecten ook downloaden en op uw eigen PC opslaan wanneer u dat liever heeft. Onderwerpen die aan de orde komen Leer het programmeren van een ARM microcontroller via cloud technologie. Geen moeilijke software installatie op uw eigen PC. Leer de programmeertaal C door leuke en interessante projecten uit te voeren. Geen ervaring of kennis noodzakelijk. Voorbeelden van projecten in dit boek: knipperlicht, tijdschakelaar, donkerschakelaar, digitale thermometer, mensen detector, USB communicatie, pratende microcontroller, fout zoeken, geluidsschakelaar, en nog veel meer - totaal 35 projecten. Voorbeelden van C onderwerpen in dit boek: variabelen, opdrachten, functies, programmaverloop, pointers (inleidend).

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A Project-Based Introduction to Microcontrollers and Drone Control A Practical Introduction to Embedded Systems with the ESP32 This book is intended for readers who are new to embedded systems and looking for a structured, example-driven way to begin. If you’ve explored general-purpose electronics or Arduino-based resources but found them too broad or lacking in practical application, this guide offers a more focused alternative. With a small, affordable set of components – such as LEDs, sensors, an OLED screen and a motion sensor – you’ll build and work with the same hardware setup throughout the book. This allows you to focus on learning and experimenting without constant reconfiguration. Topics include: Understanding and programming the ESP32 microcontroller Using the Arduino IDE to write and deploy code Exploring cyber-physical systems, culminating in basic drone control No prior experience with Arduino or embedded development is required. Each section includes hands-on examples and mini-projects designed to reinforce core concepts and encourage deeper exploration. By the end, you’ll be equipped not only to reproduce the book’s examples, but also to extend them toward your own ideas and applications. Whether your interest is in learning embedded programming, building interactive systems, or exploring educational drone control, this book provides a clear and practical path to getting started.

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Clever Tricks with ATmega328 Pro Mini Boards With a simple Pro Mini board and a few other components, projects that 20 or 30 years ago were unthinkable (or would have cost a small fortune) are realized easily and affordably in this book: From simple LED effects to a full battery charging and testing station that will put a rechargeable through its paces, there’s something for everyone. All the projects are based on the ATmega328 microcontroller, which offers endless measuring, switching, and control options with its 20 input and output lines. For example, with a 7-segment display and a few resistors, you can build a voltmeter or an NTC-based thermometer. The Arduino platform offers the perfect development environment for programming this range of boards. Besides these very practical projects, the book also provides the necessary knowledge for you to create projects based on your own ideas. How to measure, and what? Which transistor is suitable for switching a certain load? When is it better to use an IC? How do you switch mains voltage? Even LilyPad-based battery-operated projects are discussed in detail, as well as many different motors, from simple DC motors to stepper motors. Sensors are another exciting topic: For example, a simple infrared receiver that can give disused remote controls a new lease on life controlling your home, and a tiny component that can actually measure the difference in air pressure between floor and table height!

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If you enjoy DIY electronics, projects, software and robots, you’ll find this book intellectually stimulating and immediately useful. With the right parts and a little guidance, you can build robot systems that suit your needs more than overpriced commercial systems can. 20 years ago, robots based on simple 8-bit processors and touch sensors were the norm. Now, it’s possible to build multi-core robots that can react to their surroundings with intelligence. Today’s robots combine sensor readings from accelerometers, gyroscopes and computer vision sensors to learn about their environments. They can respond using sophisticated control algorithms and they can process data both locally and in the cloud. This book, which covers the theory and best practices associated with advanced robot technologies, was written to help roboticists, whether amateur hobbyist or professional, take their designs to the next level. As will be seen, building advanced applications does not require extremely costly robot technology. All that is needed is simply the knowledge of which technologies are out there and how best to use each of them. Each chapter in this book will introduce one of these different technologies and discuss how best to use it in a robotics application. On the hardware side, we’ll cover microcontrollers, servos, and sensors, hopefully inspiring you to design your own awe-inspiring, next-generation systems. On the software side, we’ll cover programming languages, debugging, algorithms, and state machines. We’ll focus on the Arduino, the Parallax Propeller, Revolution Education PICAXE and projects I’ve with which I’ve been involved, including the TBot educational robot, the PropScope oscilloscope, the 12Blocks visual programming language, and the ViewPort development environment. In addition, we’ll serve up a comprehensive introduction to a variety of essential topics, including output (e.g. LEDs, servo motors), and communication technologies (e.g. infrared, audio), that you can use to develop systems that interact to stimuli and communicate with humans and other robots. To make these topics as accessible as possible, handy schematics, sample code and practical tips regarding building and debugging have been included. Hanno Sander Christchurch, New Zealand

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Maîtrise de la puce RP2040 avec plus de 60 projets à réaliser et à programmer Les cartes Raspberry Pi Pico et Pico W sont animées par un microcontrôleur ARM Cortex M0+ RP2040 à double coeur, rapide, efficace et peu coûteux, qui fonctionne jusqu'à 133 MHz et dispose de 264 Ko de SRAM et de 2 Mo de mémoire Flash. Outre une vaste mémoire, le Pico et le Pico W disposent de nombreuses broches GPIO et d'interfaces telles que CA/N, SPI, I²C, UART, MLI, de fonctions de temporisation, d'une interface de débogage matériel et d'un capteur de température interne. La carte Raspberry Pi Pico W comporte en plus une puce CYW43439 Bluetooth et Wi-Fi d'Infineon. Au moment de la rédaction de ce livre, le micrologiciel Bluetooth pour le Pico W n'était pas encore disponible. Le Wi-Fi à 2,4 GHz est toutefois entièrement pris en charge avec les protocoles 802.11b/g/n. Ce livre est une introduction à l'utilisation du Raspberry Pi Pico W avec le langage de programmation MicroPython. Les quelque soixante projets testés et opérationnels sont présentés à l'aide de l'environnement de développement intégré (EDI) Thonny. Les sujets abordés sont nombreux : Installation de MicroPython sur le Raspberry Pi Pico depuis un PC Interruptions de l'horloge et interruptions externes Convertisseur analogique-numérique (CA/N) Capteurs de température interne et externe Capteurs externes (pression, humidité, pouls, à ultrasons) Enregistrement de données MLI, UART, I²C et SPI Bluetooth, Wi-Fi et applis sur smarphone Convertisseur numérique-analogique (CN/A) Tous les projets ont été testés et éprouvés. Ils peuvent être mis en oeuvre sur le Raspberry Pi Pico ainsi que sur le Raspberry Pi Pico W. Toutefois les projets avec une liaison Wi-Fi ne fonctionnent que sur le Pico W. Une petite expérience en programmation et en électronique est nécessaire pour suivre les projets. De brèves descriptions, des schémas fonctionnels, des schémas détaillés du câblage des montages et des listings MicroPython complets sont fournis pour tous les projets.

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Le chargeur intégré est disponible pour nos clients OR et VERT sur le site d'Elektor Magazine ! Pas encore membre ? Cliquez ici . le téléphone à cadran rotatif comme télécommande pour allumer la lumière, composez le 1 ; verser la cafetière, composer les 2 régulateur de vitesse par GPS plus les contraventions pour excès de vitesse stroboscope RVB avec Arduino un instrument utile, instructif et désorientant bouton poussoir d'urgence sans fil sécuriser la force de location avec LoRa démarrer en électronique ...l'émetteur-suiveur comparateur à hystérésis à levelx indépendants simulations, calcul et algèbre analyseur basé sur un ESP32 simple, compatible avec les compositions et le faible coût ?! visite à domicile encouragez-nous pour les réalisations du personnel Carte d'apprentissage MCCAB pour Arduino Nano plateforme pour le cours « Cours pratique sur les microcontrôleurs ? sur le vif Luddisme moderne Babacapteur : le capteur de température DS18B20 connexion au bus 1-Wire quelles normes pour unifier la domotique ?? Matter et Thread se distinguent La matière, ou la concorde des objets Testez Matter avec la carte Thing Plus Matter et Simplicity Studio Infographie : IdO et capteurs Matière, ExpressLink, Rainmaker ? de quoi s'agit-il ? questions et réponses d'Amey Inamdar, directeur technique marketing chez Espressif introduction à la sélection de kits de développement de microcontrôleurs pour les applications IoT et IIoT un condensateur n?est pas toujours capacitif?! regarder NTP et CircuitPython pour l'utilisation du programme ? construire une simple sympathie IdO avec le Phambili Newt Détecteur de mouvement Doppler HB100 Théorie et pratique Guider la programmation bare-metal pour STM32 et autres microcontrôleurs revue multimètre Siglent SDM3045X microprocesseurs pour systèmes d'embarquement drôle de composants, la série la documentation des microcontrôleurs sans peine (3) schémas de principe, et autres documents station avec LoRa à faible puissance réaliser, même avec une gare avec un port long Transverter pour la bande 70 cm Ingénieurs appelant au climat Avancez vite et réparez les choses Hexadoku

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Zeitsteuerung, Scheduler, PIO und Zustandsmaschinen Multitasking ist der Schlüssel zu leistungsfähigen Embedded-Systemen, und zugleich eine der größten Herausforderungen in der Mikrocontroller-Programmierung. Dieses Buch zeigt Ihnen Schritt für Schritt, wie Sie von einem einfachen Ein-Task-Programm zu einem strukturierten, reaktionsfähigen und skalierbaren System gelangen. Dabei steht nicht nur das Wie, sondern vor allem das Warum im Mittelpunkt. Sie lernen: warum scheinbare Parallelität entsteht weshalb blockierende Programme instabil werden wie Aufgaben effizient und kontrolliert parallel ablaufen Ausgehend vom klassischen Superloop vermittelt das Buch moderne Multitasking-Strategien – von nicht-blockierender Programmierung und Tick-Systemen bis zu Task-Schedulern, Zustandsmaschinen und ereignisgesteuerten Konzepten. Der Fokus liegt auf der Praxis: Sensoren, Displays, Kommunikation und reale Anwendungen werden Schritt für Schritt integriert und mit verständlich kommentierten Beispielprogrammen erklärt. Fortgeschrittene Themen umfassen: Multicore-Programmierung mit dem Raspberry Pi Pico asynchrones Programmieren mit uasyncio RTOS-Grundlagen mit FreeRTOS die Kombination aus Multicore und RTOS Dabei werden auch die Grenzen dieser Techniken, insbesondere unter MicroPython, klar aufgezeigt. Das Buch richtet sich an ambitionierte Einsteiger und fortgeschrittene Entwickler, die Embedded-Systeme fundiert verstehen und robuste, wartbare Multitasking-Anwendungen entwickeln möchten.

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2 kanalen • 350 MHz • 1 GSa/s • 50.000 wfm/s • 7 inch Touchscreen De FNIRSI DPOS350P is een gestroomlijnde 4-in-1 krachtpatser in tabletvorm! Dit compacte en draagbare apparaat biedt serieuze functionaliteit: het combineert een 2-kanaals oscilloscoop (350 MHz), een signaalgenerator (50 MHz), een frequentieresponsanalyzer (50 MHz) en een spectrumanalyzer (200 kHz–350 MHz) – alles in één apparaat. Of u nu bezig bent met R&D, probleemoplossing of veldtesten, de DPOS350P biedt de tools die u nodig hebt om elektronische signalen nauwkeurig en helder te meten, genereren, analyseren en visualiseren. Het responsieve touchscreen met hoge resolutie en de intuïtieve bediening maken signaalanalyse snel, flexibel en efficiënt. Kenmerken Krachtige multifunctionele integratie 350 MHz 2-kanaals oscilloscoop met 1 GSa/s realtime sampling 50 MHz signaalgenerator met 14 standaard + aangepaste golfvormen Spectrum analyzer (200 kHz–350 MHz): Perfect voor EMI, RF en HF-testen Frequentieresponsanalyzer (FRA) tot 50 MHz Hoogwaardige golfvormregistratie Vernieuwingsfrequentie van 50.000 wfm/s voor realtime signaalhelderheid Bandbreedte van 350 MHz (enkelkanaalsmodus) Detecteert zeldzame en onwaarschijnlijke afwijkingen Scherp display & Soepele werking 7" IPS-touchscreen (resolutie 1024 x 600) Schakelen tussen grijstinten- en kleurtemperatuurweergave Eenvoudig te bedienen in verschillende testomgevingen Betrouwbaar, beveiligd en snel opladen Hoogspanningsbeveiliging tot 400 V Snel opladen met QC 18 W (volledig opladen in 2 uur) Gebouwd voor stabiele, langdurige werking Gegevensopslag en -export Sla tot 500 golfvormrecords + 90 screenshots op USB-export voor eenvoudige rapportage en offline analyse Specificaties Algemeen Scherm 7 inch (IPS, volledige kijkhoek) Resolutie 1024 x 600 pixels Interactiemodus Capacitief touchscreen Totaal stroomverbruik 10 W Inschakelconfiguratie 5 voorinstellingen Opladen QC 18 W, 12 V/1,5 A (USB-C) Accu 3,7 V, 8000 mAh lithiumbatterij Accuduur ca. 3 uur in gebruik, 5 uur stand-by Warmteafvoer Luchtkoeling Uitbreidingsinterface USB-poort Automatische uitschakeling 15 tot 60 minuten / uit Firmware-upgrade Ondersteunt .iso-image-upgrade Talen Engels / Portugees / Russisch / Chinees Afmetingen 190 x 128 x 37 mm Oscilloscoop Analoge kanalen 2 Analoge bandbreedte 350 MHz Stijgtijd 1 ns Real-time bemonsteringsfrequentie 1 GSa/s Geheugendiepte 60 Kpts Ingangsimpedantie 1 MΩ / 14PF Tijdbasisbereik 5 ns ~ 50 s Roltijdbasis 50 ms ~ 50 s Verticale gevoeligheid 2 mV ~ 20 V (1X) Verticaal bereik 16 mV ~ 160 V (1X) DC-nauwkeurigheid ±2% Tijd nauwkeurigheid ±0,01% Ingangskoppeling DC / AC Probe-verzwakking 1X / 10X / 100X Hardwarebandbreedtelimiet 150M / 20M Hoge-resolutiemodus 8 bit ~ 16 bit Parametermetingen 12 typen Cursormeting Tijd, periode, frequentie, niveau, spanning Triggerdetectie Digitale trigger Triggerkanaal CH1 / CH2 Triggermodus Auto / Single / Normal Triggerflank Rising edge / Falling edge Triggeronderdrukking L1 ~ L3 Triggerniveau Handmatig / automatisch 10% ~ 90% Screenshot-opslag 90 afbeeldingen Golfvormopslag 500 groepen Achtergrondraster Weergeven/verbergen Golfvormbeweging Grof/fijn afstellen Overspanningsbeveiliging Bestandsspanning 400 V Helderheid golfvorm Instelbaar Eenvoudig FFT-display Ja Digitale fluorescentie Ja Kleurtemperatuurweergave Ja X-Y-modus Ja ZOOM-tijdbasis Ja Automatische aanpassing met één druk op de knop Ja Terug naar nul met één druk op de knop Ja Gegevensbrowser Ja Signaalgenerator Golfvormtypen 14 standaardfuncties + vastgelegde golfvorm Frequentie 0~50 MHz (alleen sinusgolf, andere golfvormen tot 10M/5M/3M) Amplitude 0~5 VPP Offset -2,5 V ~ +2,5 V Bedrijfstype cyclus 0,1~99,9% Frequentieresolutie 1 Hz Amplituderesolutie 1 mV Offsetresolutie 1 mV Inschakelduurresolutie 0,1% Aanpasbare vastgelegde golfvorm 500 groepen Frequentieresponsanalyzer (FRA) Frequentie van het excitatiesignaal 100 Hz ~ 50 MHz Ampitude van het excitatiesignaal 0~5 VPP Offset van het excitatiesignaal -2,5 V ~ +2,5 V Aantal excitatiefrequenties 20~500 Cursormeting Frequentie / versterking / fase Bedrijfsmodus Enkelvoudig / cyclisch Systeemkalibratie Ja Spectrumanalyzer Conversiemethode FFT FFT-lengte 4K ~ 32K Frequentiebereik 200 kHz ~ 350 MHz Niveaubereik -60 dBmV ~ +260 dBmV Cursormeting Frequentie / amplitude Markeringsparameter Maximale energieharmonischen Watervalgrafiek Ja 3D-watervalgrafiek Ja Automatische afstelling Ja Systeemkalibratie Ja Inbegrepen 1x FNIRSI DPOS350P (4-in-1) 2x 350 MHz-sondes 1x QC 18 W snellader (EU) 1x USB-datakabel 1x Krokodillenklem 1x Opbergtas 1x Manual Downloads Manual Firmware

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This collection features the best of Elektor Magazine's articles on embedded systems and artificial intelligence. From hands-on programming guides to innovative AI experiments, these pieces offer valuable insights and practical knowledge for engineers, developers, and enthusiasts exploring the evolving intersection of hardware design, software innovation, and intelligent technology. Contents Programming PICs from the Ground UpAssembler routine to output a sine wave Object-Oriented ProgrammingA Short Primer Using C++ Programming an FPGA Tracking Down Microcontroller Buffer Overflows with 0xDEADBEEF Too Quick to Code and Too Slow to Test? Understanding the Neurons in Neural NetworksEmbedded Neurons MAUI Programming for PC, Tablet, and SmartphoneThe New Framework in Theory and Practice USB Killer DetectorBetter Safe Than Sorry Understanding the Neurons in Neural NetworksArtificial Neurons A Bare-Metal Programming Guide Part 1: For STM32 and Other Controllers Part 2: Accurate Timing, the UART, and Debugging Part 3: CMSIS Headers, Automatic Testing, and a Web Server Introduction to TinyMLBig Is Not Always Better Microprocessors for Embedded SystemsPeculiar Parts, the Series FPGAs for BeginnersThe Path From MCU to FPGA Programming AI in Electronics DevelopmentAn Update After Only One Year AI in the Electronics LabGoogle Bard and Flux Copilot Put to the Test ESP32 and ChatGPTOn the Way to a Self-Programming System… Audio DSP FX Processor Board Part 1: Features and Design Part 2: Creating Applications Rust + EmbeddedA Development Power Duo A Smart Object CounterImage Recognition Made Easy with Edge Impulse Universal Garden LoggerA Step Towards AI Gardening A VHDL ClockMade with ChatGPT TensorFlow Lite on Small MicrocontrollersA (Very) Beginner’s Point of View Mosquito DetectionUsing Open Datasets and Arduino Nicla Vision Artificial Intelligence Timeline Intro to AI AlgorithmsPrompt: Which Algorithms Implement Each AI Tool? Bringing AI to the Edgewith ESP32-P4 The Growing Role of Edge AIA Trend Shaping the Future

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The Arduino Uno is an open-source microcontroller development system encompassing hardware, an Integrated Development Environment (IDE), and a vast number of libraries. It is supported by an enormous community of programmers, electronic engineers, enthusiasts, and academics. The libraries in particular really smooth Arduino programming and reduce programming time. What’s more, the libraries greatly facilitate testing your programs since most come fully tested and working. The Raspberry Pi 4 can be used in many applications such as audio and video media devices. It also works in industrial controllers, robotics, games, and in many domestic and commercial applications. The Raspberry Pi 4 also offers Wi-Fi and Bluetooth capability which makes it great for remote and Internet-based control and monitoring applications. This book is about using both the Raspberry Pi 4 and the Arduino Uno in PID-based automatic control applications. The book starts with basic theory of the control systems and feedback control. Working and tested projects are given for controlling real-life systems using PID controllers. The open-loop step time response, tuning the PID parameters, and the closed-loop time response of the developed systems are discussed together with the block diagrams, circuit diagrams, PID controller algorithms, and the full program listings for both the Raspberry Pi and the Arduino Uno. The projects given in the book aim to teach the theory and applications of PID controllers and can be modified easily as desired for other applications. The projects given for the Raspberry Pi 4 should work with all other models of Raspberry Pi family. The book covers the following topics: Open-loop and closed-loop control systems Analog and digital sensors Transfer functions and continuous-time systems First-order and second-order system time responses Discrete-time digital systems Continuous-time PID controllers Discrete-time PID controllers ON-OFF temperature control with Raspberry Pi and Arduino Uno PID-based temperature control with Raspberry Pi and Arduino Uno PID-based DC motor control with Raspberry Pi and Arduino Uno PID-based water level control with Raspberry Pi and Arduino Uno PID-based LED-LDR brightness control with Raspberry Pi and Arduino Uno

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Cool Projects for Test, Measurement, and Control The Raspberry Pi has dominated the maker scene for many years. Freely accessible I/O pins have made it one of the most popular processor boards of all time. However, the classic Raspberry Pi has no analog inputs. Direct measurement of analog values is therefore not possible. Consequently, photodiodes, NTCs, Hall sensors, etc. cannot be read directly. In addition, the pins are connected directly to the exposed contacts, i.e. without a driver or protection circuit. This can quickly destroy the central controller and thus the entire Raspberry Pi. These problems can be elegantly solved with the Pico. As a front-end, it can easily handle a wide range of measurement tasks. In addition, the Pico is much cheaper than a classic Raspberry Pi 4 or 5. If a faulty circuit leads to the destruction of the Pico, this is relatively easy to handle. This makes the combination of a classic Raspberry Pi 4 or 5 and the Pico an ideal pair. The book introduces the broad and highly topical field of modern controller technology using the combined force of a Raspberry Pi 4 or 5 and a Raspberry Pi Pico. In addition to a detailed introduction to the operation and functionality of the controller boards themselves, the book also focuses on data acquisition and processing with digital processors. Especially the combination of both systems offers a wide range of interesting possibilities. Some practical projects from the contents: USB between Raspberry Pi 4 or 5 and Pico I²C Communication and Pico as an I²C device Voltmeter and Computer Thermometer Pico W as a Web Server and WLAN Scanner Frequency Meters and Generators OLED Displays on Raspberry Pi 4 or 5 and Pico Energy Saving Monitor Which Astronauts are in Orbit? Mini Monitor for Current Bitcoin Exchange Rate

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Elektor GREEN and GOLD members can download their digital edition here. Not a member yet? Click here. Raspberry Pi Pico as Spectrum AnalyzerFFTs on a Low-Cost Hardware Basis ±40-V Linear Voltage RegulatorAn Alternative Power Supply for the Fortissimo-100 Power Amplifier… and Others! MCU Wireless Communication Made FlexibleEEPROM Opens Networking Prospects for Wireless MCUs €5,000 up for grabs!Join the STM32 Wireless Innovation Design Contest 2023: An AI OdysseyGetting Started with ChatGPT’s Code Interpreter LoRa, a Swiss Army Knife (1)The LoRa Protocol and Its Advantages Adjustable Current Sink with Integrated Clock GeneratorTest Power Supplies, Voltage Converters and Batteries Two New Arduino UNO R4 Boards: Minima and WiFi Logarithmic PotentiometersThey’re Exponential! Motor Driver Breakout BoardA BoB for a 5 A DC Motor Driver with a 3×3 mm Size From Life’s ExperienceHazardous Electronics Is Cellular the Lowest-Power Option for IoT?LTE-M and NB-IoT Energy Requirements in LPWAN Deployments Wireless Communication in IoT Systems – Using Arduino MKR ModulesThe Right Board for Wi-Fi, LoRa, and Many More Standards AC Losses in Magnetic ComponentsAvoid Hot Inductors! Measurement for Optimal Cloud Deployment Matter Adoption: What does it take to deploy Matter devices? YARD Stick OneA Sub-1 GHz Wireless Test Tool Latching RelaysPeculiar Parts, the Series PIC O’Clock – In Touch with TimeDesigning an SDR Time Signal Receiver Due Diligence DirectiveBusiness as Usual Will Not Do Starting Out in Electronics……Voltage Amplification Infrasound Recorder with the Arduino Pro MiniA Sample Project from Elektor’s “Arduino & Co.” Book Cloud-Based Energy MeterWith ESP32 Module and PZEM-004T Voltage/Current Sensor A Bare-Metal Programming Guide (Part 2)Accurate Timing, the UART, and Debugging Hexadoku

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