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L'électronique est passionnée. C'est un plaisir amusant et instructif. Elle permet d'acquérir de nouvelles compétences, souvent utiles, à la maison et même au travail. Une expérience électronique avec ces circuits appropriés. Il donne vie à ses projets. Avant que le jour n'arrive, vous avez hâte de le voir ! Il est nécessaire de rassembler les articles pour la publication des articles du magazine d'électronique Elektor. Il sera le compagnon de vos progrès dans le monde de l'électronique. Plus que commencer par l'électronique analogique. Vous pourrez découvrir les compositions et les circuits ainsi que les simples pour comprendre les fonctions, les interactions et les problèmes éventuels. La meilleure façon de progresser, c'est de faire des expériences réelles, car la théorie ne suffit pas. Un guide en direct pour un excellent guide de montages pratiques, notamment pour les débutants. Et pour en savoir plus, acquérir la meilleure expérience et connaissance. La deuxième partie de la vie du monde du numérique électronique. En savoir plus sur l’utilisation des microcontrôles. Les effets des composants sont discrets grâce aux circuits intégrés des principaux composants des microcontrôleurs. La programmation à long terme de BASCOM, basée sur les pré-requis à la mise en œuvre d'Arduino, BBC micro:bit et d'autres, facilite la prise en compte de l'apprentissage. Voici une description détaillée des nombreuses applications des microcontrôleurs, abordables pour les néophytes. Ici, programmation et soudage font bon ménage !

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For Raspberry Pi, ESP32 and nRF52 with Python, Arduino and Zephyr Bluetooth Low Energy (BLE) radio chips are ubiquitous from Raspberry Pi to light bulbs. BLE is an elaborate technology with a comprehensive specification, but the basics are quite accessible. A progressive and systematic approach will lead you far in mastering this wireless communication technique, which is essential for working in low power scenarios. In this book, you’ll learn how to: Discover BLE devices in the neighborhood by listening to their advertisements. Create your own BLE devices advertising data. Connect to BLE devices such as heart rate monitors and proximity reporters. Create secure connections to BLE devices with encryption and authentication. Understand BLE service and profile specifications and implement them. Reverse engineer a BLE device with a proprietary implementation and control it with your own software. Make your BLE devices use as little power as possible. This book shows you the ropes of BLE programming with Python and the Bleak library on a Raspberry Pi or PC, with C++ and NimBLE-Arduino on Espressif’s ESP32 development boards, and with C on one of the development boards supported by the Zephyr real-time operating system, such as Nordic Semiconductor's nRF52 boards. Starting with a very little amount of theory, you’ll develop code right from the beginning. After you’ve completed this book, you’ll know enough to create your own BLE applications.

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Le téléchargement intégral de ce numéro est disponible pour nos membres GOLD et GREEN sur le site Elektor Magazine ! Pas encore membre ? Cliquez ici. adaptateur de mesure USBTest du courant et des signaux des ports USB sortie boucle de courant 4-20 mA pour Arduino UnoUne interface de boucle de courant fiable et insensible aux interférences électromagnétiques commande automatique pour aspirateurGardez votre établi propre générateur DDS avec ATtiny testeur d'ampli-op V2Nouveau circuit imprimé – désormais compatible avec les CMS amplificateur audio à tube 550 mWson chaleureux des tubes à vide surveillance des fusiblesavec une LED clignotante préamplificateur RIAA HQExploitez tout le potentiel sonore de vos disques vinyles ! Outil de réglage pour platines vinylesGénérateur de lumière stroboscopique 100–120 Hz basé sur Arduino Elektor Classics : ampli vidéo gradateur à télécommande infrarougeContrôlez votre éclairage avec confort et précision comment utiliser switch…case avec des chaînes de caractères en C++/EDI Arduino détecteur d’aimantsAvec un simple capteur à effet Hall bouton de mise sous tension intelligent pour Raspberry PiUne solution pour Raspberry Pi jusqu’au modèle 4 astuces clés pour makersDes conseils pros pour vos projets projets pratiques avec le timer 555Commande de moteur CC et jeux de rapidité moniteur de charge CA simpleÉconomisez de l'énergie grâce à un appareil simple batteries externes en parallèleTrois jours d’autonomie VFO jusqu’à 15 MHzRéalisation avec un Raspberry Pi Pico accordeur de violon avec ATtiny202 Elektor Classics : ampli vidéo pour TV N&B capacimètre20 pF à 600 nF horloge quasi analogique Mk IIDeux anneaux LED pour les heures et les minutes concevez sans limites(grâce à l’écosystème complet d’Arduino) dé à lampes néon Elektor Classics : indicateur d'accord RTTY solutions matérielles inspirantes pour vos projets ESP Elektor Classics : alimentation 3 A LED RGB avec circuit de commande intégréLumière de précision : les ICLED établissent de nouvelles normes expérience : un Thérémine analogico-numérique ?Combiner des capteurs numériques modernes avec l’intemporel générateur analogique XR2206 carte émetteur-récepteur audio ESP32 (1)Démo : lecture de fichiers WAV depuis une carte SD infographies : Circuits et conception de circuits 2025 petit mixeur audioUne conception polyvalente et modulable minuteur intelligent pour éclairage d’escalierÉconomisez encore plus sur votre facture d’énergie ! modernisez vos voletsContrôlez les systèmes Velux avec un ESP32 et MQTT chauffe-pieds à transistorsConfort économe en énergie le quadricoptère M5Stamp Fly est-il le prochain drone Tello ? (Revue) optimiser la portée Wi-Fi de l’ESP32-C3 SuperMiniUne modification d’antenne simple et efficace station de soudage à air chaud ZD-8968Un outil de travail économique ou uniquement de l'air chaud ? testeur de radar de reculDétecter les pannes du système d’aide au stationnement d’un véhicule

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23 projects to bring your microcontroller to life! This book contains 23 special and exciting artificial intelligence machine-learning projects, for microcontroller and PC. Learn how to set up a neural network in a microcontroller, and how to make the network self-learning. Discover how you can breed robots, and how changing a fitness function results in a totally different behavior. Find out how a PC program exposes your weak spots in a game, and ruthlessly exploits them. Build a free-will robot, or have one clean your floor! Example projects from the book: A microcontroller that learns what your favourite color is. A robot wandering about the house looking for someone to play with. A bred robot program that is incapable of crossing a black line. A microcontroller that learns how to play a game until You just can't win anymore. A PC that programs a microcontroller all by itself. Complete with free software that you can download containing: All source code for the microcontroller. All sources of compiled PC programs (MS Windows). JAL programming language, with special editor and extension libraries. Robot breed program. Plus a support webpage with links, errata and FAQ. Several artificial intelligence techniques are discussed and used in projects such as expert system, neural network, subsumption, emerging behavior, genetic algorithm, cellular automata and roulette brains. Every project has clear instructions and pictures so you can start immediately. Suggestions and literature links allow you to go way beyond the scope of the book. Even after you have built all the projects contained within, this book will remain a valuable reference guide to keep next to your PC. A unique book for anyone with an interest in artificial intelligence and machine learning.

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Your First Steps with an ESP32-C3 and the IoTA Wi-Fi Button and Relay IoT Cloud a la Arduino Dual Geiger-Müller Tube Arduino ShieldA High Sensitivity, Very Low-Power Radiation Sensor CO2 GuardA DIY Approach to Monitoring Air Quality MonkMakes Air Quality Kit for Raspberry PiMeasures Temperature and eCO2 Starting Out in ElectronicsWelcome to the Diode Tips & Tricks for Testing ComponentsNo Expensive Equipment Required Reducing the Power Consumption of Your Mole RepellerAn ATtiny13 Replaces a 555 Light Switch DeLuxA Solution for High-Precision Light-Controlled Switching The Challenges in Bringing IoT Solutions to MarketWorries Around Security, Scalability, and Competition Infographics 5-6/2022 Preferably Wired After AllTips for Developing a 1 Gbit/s Interface in an Industrial Environment Bringing Real-Time Object Detection to MCUs with Edge Impulse FOMO Traveling-Wave TubesPeculiar Parts, the Series Narrowband Internet of ThingsStandards, Coverage, Agreements, and Modules Dragino LPS8 Indoor GatewaySpeedy LoRaWAN Gateway Setup Explore ATtiny Microcontrollers Using C and Assembly LanguageSample Chapter: ATtiny I/O Ports Err-lectronicsCorrections, Updates and Readers’ Letters LoRa GPS Tracker UpdateReceive and Show Location Using a Raspberry Pi Circuit Simulation with TINA Design Suite & TINACloudSample Chapter: Sinusoidal Oscillators From Life’s ExperienceAssembly Line Work The WinUI Graphics Framework for Windows AppsA Small Demo Application GUIs with PythonWorst GUI of the world Off-Grid Solar SystemsElectrical Energy Independent of the Mains Grid The 10-Year SmartphoneRenew Your Expectations HexadokuThe Original Elektorized Sudoku

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Make your project dreams come true: an odometer for the hamster wheel, a fully automatic control of your ant farm with web interface, or the Sandwich-O-Mat – a machine that toasts and grills sandwiches of your choice. With the Arduino and the DIY or Maker movement, not only did entry into microcontroller programming become child's play, but a second development also took place: Resourceful developers brought small boards – so-called shields or modules – to the market, which greatly simplified the use of additional hardware. The small modules contain all the important electronic parts to be connected to the microcontroller with a few plug-in cables, eliminating the need for a fiddly and time-consuming assembly on the plug-in board. In addition, it is also possible to handle tiny components that do not have any connecting legs (so-called SMDs). Projects Discussed Arduino seeks connection BMP and introduction to libraries, I²C Learn I/O basics with the multi-purpose shield I²C LCD adapter and DOT matrix displays LCD keypad shield Level converter W5100: Internet connection I/O expansion shield Relays and solid-state relays The multi-function shield: A universal control unit Connecting an SD card reader via SPI Keys and 7-segment displays 16-bit ADC MCP4725 DAC 16-way PWM servo driver MP3 player GPS data logger using an SD card Touch sensor Joystick SHT31: Temperature and humidity VEML6070 UV-A sensor VL53L0X time-of-flight Ultrasonic distance meter MAX7219-based LED DOT matrix display DS3231 RTC Port expander MCP23017 433 MHz radio MPU-650 gyroscope ADXL345 accelerometer WS2812 RGB LEDs Power supply MQ-xx gas sensors CO2 gas sensor ACS712 current sensor INA219 current sensor L298 motor driver MFRC522 RFID 28BYJ-48 stepper motor TMC2209 silent step stick X9C10x digital potentiometer ST7735 in a color TFT display e-Paper display Bluetooth Geiger counter SIM800L GSM module I²C multiplexer Controller Area Network

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Vom Messwert zur stabilen Entscheidung Wie wird aus einem einfachen Mikrocontroller ein intelligentes System, das Sensorwerte erfasst, verarbeitet und sinnvoll darauf reagiert? Dieses Buch zeigt es Ihnen Schritt für Schritt – verständlich, praxisnah und ohne unnötige Vorkenntnisse. Sie beginnen mit den Grundlagen der digitalen und analogen Ein- und Ausgänge. Anschließend lernen Sie, wie Sensorwerte gelesen, geglättet und zuverlässig bewertet werden. Anschauliche Beispiele erklären, warum einzelne Messwerte oft täuschen können und wie Mittelwertbildung, Hysterese und einfache Entscheidungsregeln für stabile Ergebnisse sorgen. Nach und nach erweitern Sie Ihre Projekte um Displays, I²C-Kommunikation und mehrere vernetzte Mikrocontroller. So entstehen verteilte Systeme, in denen Raspberry Pi Pico und ATtiny-Controller Daten austauschen und gemeinsam Aufgaben übernehmen. Im fortgeschrittenen Teil erhalten Sie einen leicht verständlichen Einstieg in Merkmalsbildung, Datenvorverarbeitung, hybride Entscheidungsmodelle und TinyML-nahe Anwendungen. Dabei verbinden Sie klassische Regelungstechnik mit modernen datenbasierten Methoden. Alle Projekte werden von ausführlich kommentierten Programmen in C und MicroPython begleitet. Das Buch richtet sich an Einsteiger, Maker, Studierende und alle, die Embedded-Systeme von Grund auf verstehen möchten. Am Ende können Sie eigene Systeme entwickeln, die nicht nur messen, sondern Informationen auswerten, zuverlässige Entscheidungen treffen und gezielt reagieren.

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Mikrocontroller 2 (PDF)

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GUI with Touch — for ESP32, RPi & Co.Graphical user interfaces with the LittlevGL library "Not Just Any Guy's Project”Interview with Gábor Kiss-Vámosi, the developer of LittlevGL Capaci-Meterwith two-digit Dekatron-style LED display How To: Debounce a Mechanical Contact or SwitchA switch is either open or closed, isn't It? Developer's ZoneTips & Tricks, Best Practices and Other Useful Information Extendable Environmental Monitoring Systempublishes data on IoT platforms Practical ESP32 MultitaskingTask programming with FreeRTOS and the Arduino IDE InteractiveCorrections & Updates || Questions & Answers Automotive Headlight TuningLegal, illegal — it matters! Review: Toolcraft Digital Soldering Station Arduino Pro IDE - First Impressions Two Thermal Imaging Cameras ComparedSeek ShotPro and Seek Compact Steeped in ElectronicsOutfitting the e-lab and e-workshop Monsanto MAN1 LED DisplayPeculiar Parts, the series Thermoelectric Tea TimerFirst dealings with energy harvesting Single-Phase 1-Kilowatt AC Motor DriveThree-mode design: integral-cycle switching, phase-cut trailing, or phase-cut leading edge. RPi Gets a Fast 3.5" Touch DisplayMore power at no extra charge Lab, Sweet LabA glimpse of The Holy Place — no unauthorized entry. First Steps with RISC-VTrying out the LoFive Board Elektor Labs Challenged: a DIY LoRa Tracker Glitches and results in electronics development Sigfox and the IoT (2)Registration in the Sigfox network Starting Out in ElectronicsEasier than imagined! Analogue Electronics Design Case Study #1 — Section 1: MEMS Microphone… Testing 1-2-3 Small Circuits RevivalCapita Selecta from the Elektor Project Suggestions Box In a Nutshell: Text for MicrocontrollersUsing compression to save memory Focus On: Autonomous DrivingState of the art at a glance Start-Up Leaders and Innovators Talk “Innovation 4.0” in Munich Lego Electronic Train Set from 196850 years on, electronic toys still fascinate Beyond ElectronicsThe MX3D Bridge Senses the City

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PIC und AVR verstehen In diesem Buch werden wir uns ausschließlich mit 8-Bit-Mikrocontrollern beschäftigen, und zwar mit Mikrocontrollern der 8-Bit-PIC- und der 8-Bit-AVR-Mikrocontroller-Linien. Bei der PIC-Familie handelt es sich dabei um PIC10, PIC12, PIC16 und PIC18; bei der AVR-Familie um ATtiny, ATmega und ATxmega. Die vorgestellten 8-Bit-Chips sind für sehr viele Anwendungen vollkommen ausreichend und preislich auch attraktiv. Durch die Lektüre des Buches erhalten Sie ein fundiertes Wissen über die genannten 8-Bit-Mikrocontroller, über ihre Architektur, ihre Pinbelegungen und über ihre Programmierung. Weil wir uns in diesem Buch mit den Grundlagen der Architektur der PICs und AVRs vertraut machen möchten, werden wir auch für alle PIC- und AVR-Anwendungen Assembler einsetzen, denn die Assembler-Sprache erlaubt es, die Technik im Detail kennenzulernen. Wenn man wirklich wissen möchte, was sich im Mikrocontroller abspielt, greift man zu Assembler. Damit hat man die beste Gelegenheit, sehr nah an den Kern zu kommen. Und wenn man schon einen Mikrocontroller-Typ kennengelernt und verstanden hat, ist es bei dem nächsten deutlich einfacher, auch wenn er von einem anderen Hersteller kommt. Bei anderen Programmiersprachen bleibt die Technik immer ziemlich tief versteckt. Die Assembler-Beispiele sind so einfach gestaltet, dass sie jeder mit den im Buch aufgezeigten Programmiertechniken erstellen kann. Weil es sich um einfache Beispiele handelt, werden wir sie alle auf einer universellen Lochrasterplatine realisieren. Manche sind auch auf einem Experimentier-Breadboard umsetzbar.

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DIE NEURONEN IN NEURONALEN NETZWERKEN VERSTEHENTeil 1. Künstliche Neuronen EMV-VOR-KONFORMITÄTSTESTER FÜR IHR PROJEKT MIT DC-VERSORGUNGTeil 1: Was ist eine Netznachbildung? ELEKTRONISCHE LAST FÜR DC UND ACBis zu 400 V und 10 A ALLER ANFANG …ist gar nicht schwer! NVIDIA JETSON NANO - BILDVERARBEITUNG FÜR EINSTEIGERTeil 1: Hard- und Software im Überblick NETZTRANSFORMATOREN AUS DER NÄHE BETRACHTETWie verhalten sie sich beim Ein- und Ausschalten? PICAN 3 - YES WE CAN!CAN-Zusatzboard für Raspberry Pi 4 BALKONKRAFTWERKSelbst installiert = schnell amortisiert! FOTOGRAFIEREN UND VIDEO-STREAMING MIT DEM RASPBERRY PI 4Die High-Quality-Kamera des Raspberry Pi in der Praxis VERWENDUNG VON DISPLAYS IN RASPBERRY-PI-PROJEKTENBeispiel-Kapitel: Organische Leuchtdioden-Displays (OLED) PARALLAX PROPELLER 2Teil 4: Senden von Strings 60 JAHRE ELEKTOR: SEPTEMBER-RENAISSANCEDer Plan, der Plan, ein leerer Wahn ... ZUTRITT FÜR UNBEFUGE VERBOTEN ERWÜNSCHTIn Friesland, wo die Röhren blühen ... HYBRIDE SCHALTUNGENBemerkenswerte Bauteile KOMPASSROSE MIT DEM GY-271Oder, warum man mit dem Handy Achten gehen muss… KENNEN SIE IHREN FUSSABDRUCKBerechnen Sie die CO2-Bilanz Ihrer Elektronik ESP32-VERBUNDENES THERMOSTATLagern Sie Ihren Wein bei der richtigen Temperatur! MAGNETISCHE LEVITATION DIE DIGITALE ARTEin ESP32 Pico ersetzt den analogen Komparator ULTIMATE ARDUINO UNO HARDWARE MANUALEin beispielhaftes Kapitel: Bootloader für den Haupt-Mikrocontroller MICROPYTHON FÜR DEN ESP32 UND CO.Teil 2. Matrix-Displays einfach ansteuern MADMACHINE SWIFTIO-KARTEModerne Sprache trifft moderne Hardware AUS DEM LEBEN GEGRIFFENEine elektronische On/Off-Beziehung HEXADOKUSudoku für Elektroniker

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The Internet of Things (IoT) is a new concept in intelligent automation and intelligent monitoring using the Internet as the communications medium. The “Things” in IoT usually refer to devices that have unique identifiers and are connected to the Internet to exchange information with each other. Such devices usually have sensors and/or actuators that can be used to collect data about their environments and to monitor and control their environments. The collected data can be processed locally or it can be sent to centralized servers or to the cloud for remote storage and processing. For example, a small device at the size of a matchbox can be used to collect data about the temperature, relative humidity and the atmospheric pressure. This data can be sent and stored in the cloud. Anyone with a mobile device can then access and monitor this data at any time and from anywhere on Earth provided there is Internet connectivity. In addition, users can for example, adjust the central heating remotely using their mobile devices and accessing the cloud. This book is written for students, for practising engineers and for hobbyists who want to learn more about the building blocks of an IoT system and also learn how to setup an IoT system using these blocks. Chapter 1 is an introduction to the IoT systems. In Chapter 2, the basic concepts and possible IoT architectures are discussed. The important parts of any IoT system are the sensors and actuators and they are described briefly in Chapter 3. The devices in an IoT system usually communicate with each other and the important aspect of IoT communication is covered in Chapter 4. Chapter 5 proceeds with the features of some of the commonly used development kits. One of these, the Clicker 2 for PIC18FJ manufactured by mikroElektronika, can be used as a processor in IoT systems and its features are described in detail in Chapter 6. A popular microcontroller C language, mikroC Pro for PIC gets introduced in Chapter 7. Chapter 8 covers the use of a click board with the Clicker 2 for PIC18FJ development kit. Similarly, the use of a sensor click board is described as a project in Chapter 9, and an actuator board in Chapter 10. Chapters 11 and 12 cover Bluetooth and Wi-Fi technologies in microcontroller based systems, and the remaining chapters of the book demo the creation of a simple Wi-Fi based IoT system with cloud-based data storage. This book has been written with the assumption that the reader has taken a course on digital logic design and has been exposed to writing programs using at least one high-level programming language. Knowledge of the C programming language will be very useful. Also, familiarity with at least one member of the PIC series of microcontrollers (e.g. PIC16 or PIC18) will be an advantage. The knowledge of assembly language programming is not required because all the projects in the book are based on using the C language. If you are a total beginner in programming you can still access the e-book, but first you are advised to study introductory books on microcontrollers.

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