Résultats de la recherche pour "franzis or iot or bluething or board"

Elektor GREEN and GOLD members can download their digital edition here. Not a member yet? Click here. Accelerating IoT Innovation A Color E-Ink Wi-Fi Picture Frame ESP-Launchpad TutorialFrom Zero to Flashing in Minutes ESP32 and ChatGPTOn the Way to a Self-Programming System… Walkie-Talkie with ESP-NOWNot Quite Wi-Fi, Not Quite Bluetooth! From Idea to Circuit with the ESP32-S3A Guide to Prototyping with Espressif Chips AIoT Chip InnovationAn Interview With Espressif CEO Teo Swee-Ann Simulate ESP32 with WokwiYour Project’s Virtual Twin Trying Out the ESP32-S3-BOX-3A Comprehensive AIoT Development Platform Electronics Workspace EssentialsInsights and Tips From Espressif Engineers The ESP RainMaker StoryHow We Built “Your” IoT Cloud Assembling the Elektor Cloc 2.0 KitAn Elektor Product Unboxed by Espressif Unleashing the ESP32-P4The Next Era of Microcontrollers Rust + EmbeddedA Development Power Duo Who Are the Rust-Dacious Embedded Developers?How Espressif is Cultivating Embedded Rust for the ESP32 Espressif’s Series of SoCs Building a PLC with Espressif SolutionsWith the Capabilities and Functionality of the ISOBUS Protocol The ESP32-S3 VGA BoardBitluni’s Exciting Journey Into Product Design Acoustic Fingerprinting on ESP32Song Recognition With Open-Source Project Olaf Circular Christmas Tree 2023A High-Tech Way to Celebrate the Holiday Season A Simpler and More Convenient LifeAn Amateur Project Based on the Espressif ESP8266 Module How to Build IoT Apps without Software ExpertiseWith Blynk IoT Platform and Espressif Hardware Building a Smart User Interface on ESP32 Quick & Easy IoT Development with M5Stack Prototyping an ESP32-Based Energy Meter A Value-Added Distributor for IoT and More In-Depth Insights: Interview With Arduino on the Nano ESP32Alessandro Ranellucci and Martino Facchin Discuss Espressif Collaboration Your AIoT Solution ProviderInsights From Espressif Streamlining MCU Development With ESP-IDF Privilege Separation An Open-Source Speech Recognition Server……and the ESP BOX The Thinking EyeFacial Recognition and More Using the ESP32-S3-EYE ESP32-C2-Based Coin Cell SwitchDesign and Performance Evaluation The Smart Home Leaps Forward with MatterUnlocking Smart Home IoT Potential Tech the Future: Where Is Smart Home IoT Headed?

Lis (+) (–)

From basics to flows for sensors, automation, motors, MQTT, and cloud services This book is a learning guide and a reference. Use it to learn Node-RED, Raspberry Pi Pico W, and MicroPython, and add these state-of-the-art tools to your technology toolkit. It will introduce you to virtual machines, Docker, and MySQL in support of IoT projects based on Node-RED and the Raspberry Pi Pico W. This book combines several elements into a platform that powers the development of modern Internet of Things applications. These elements are a flow-based server, a WiFi-enabled microcontroller, a high-level programming language, and a deployment technology. Combining these elements gives you the tools you need to create automation systems at any scale. From home automation to industrial automation, this book will help you get started. Node-RED is an open-source flow-based development tool that makes it easy to wire together devices, APIs, and online services. Drag and drop nodes to create a flowchart that turns on your lights at sunset or sends you an email when a sensor detects movement. Raspberry Pi Pico W is a version of the Raspberry Pi Pico with added 802.11n Wi-Fi capability. It is an ideal device for physical computing tasks and an excellent match to the Node-RED. Quick book facts Project-based learning approach. Assumes no prior knowledge of flow-based programming tools. Learn to use essential infrastructure tools in your projects, such as virtual machines, Docker, MySQL and useful web APIs such as Google Sheets and OpenWeatherMap. Dozens of mini-projects supported by photographs, wiring schematics, and source code. Get these from the book GitHub repository. Step-by-step instructions on everything. All experiments are based on the Raspberry Pi Pico W. A Wi-Fi network is required for all projects. Hardware (including the Raspberry Pi Pico W) is available as a kit. Downloads GitHub

Lis (+) (–)

Diese Ausgabe steht allen GOLD- und GREEN-Mitgliedern auf der ElektorMagazine-Website zum Download bereit! Sie sind noch kein Mitglied? Hier klicken! MultiRF-EntwicklungsboardEine Plattform zur Evaluierung drahtloser Protokolle für kurze und lange Reichweiten Elektor wird 65Elektronik im Wandel seit 1961 WLAN-basierte Personenerkennung mit dem ESP32Wenn der Router zum Bewegungsmelder wird Drahtlose WaagenVier kleine Waagen = eine große Waage Walter, das kompakte IoT-ModulESP32-S3-SoC, LTE-M/NB-IoT-5G-Modem und GNSS-Receiver 3- und 4-Draht-RTD-Sensoren konditionierenMit Vollbereichsabgleich und Kabelkompensation Drei in einem: 2-Kanal-Oszilloskop/Generator/MultimeterEin Test des Fnirsi 2D15P electronica Fast Forward 2026 für Start-ups und Industriepartner EcologgingEine modulare IoT-Messstation für Umweltdaten Drahtlos-Anbindung für MedizingeräteImmer am Puls mit Bluetooth LE AudiotronicsBrummunterdrückung Mehr Effizienz in der Landwirtschaft durch KI-Modelle und SensorenSteigerung der landwirtschaftlichen Produktivität OPC UA – ein ÜberblickPlattformunabhängiger Datenaustausch Redox-Meter Instrumentenverstärker für Physik- und Engineering-Experimente Aktive differentielle Audio-FilterFür professionelle Frequenzweichen und mehr Elektor-Community-Tipps zu IoT und Sensoren Telegram-gesteuerter WarmwasserbereiterEine Lösung mit ESP32 und Arduino-Software 2026: Eine KI-OdysseeWas wurde eigentlich aus der Fuzzy-Logik? Projekt 2.0 Alarmsignalinjektor + PowerTools zum Suchen verdeckt verlegter Leitungen

Lis (+) (–)

Diese Ausgabe steht allen GOLD- und GREEN-Mitgliedern auf der ElektorMagazine-Website zum Download bereit! Sie sind noch kein Mitglied? Hier klicken! Beschleunigung der IoT-Innovation Ein WLAN-Bilderrahmen mit farbigem E-Ink-Display Tutorial ESP-LaunchpadVon Null auf Flash in wenigen Minuten ESP32 und ChatGPTAuf dem Weg zu einem selbst-programmierenden System Walkie-Talkie mit ESP-NOWNicht ganz WLAN, nicht ganz Bluetooth, aber... Von der Idee zur Schaltung mit dem ESP32-S3Ein Leitfaden für die Prototypentwicklung mit Espressif-Chips AIoT-Chip-InnovationEin Interview mit Espressif-CEO Teo Swee-Ann ESP32 mit Wokwi simulierenDer virtuelle Zwilling Ihres Projekts Ausprobiert: die ESP32-S3-BOX-3Eine umfassende AIoT-Entwicklungsplattform Mein Elektronik-ArbeitsplatzEinblicke und Tipps von Espressif-Ingenieuren Die ESP-RainMaker-StoryWie wir „Ihre“ IoT-Cloud entwickelten Zusammenbau des Elektor-Kits Cloc 2.0Ein Elektor-Produkt, ausprobiert von Espressif Ausgepackt: der ESP32-P4Die nächste Ära der Mikrocontroller Rust + EmbeddedEin Power-Duo für die Entwicklung Wer sind die Rust-begeisterten Embedded-Entwickler?Wie Espressif Embedded Rust für den ESP32 kultiviert Zeitleiste der SoC-Reihe von Espressif Aufbau einer SPS mit Espressif-LösungenMit den Fähigkeiten und Funktionen des ISOBUS-Protokolls Das ESP32-S3-VGA-BoardBitlunis aufregende Reise in die Produktentwicklung Akustischer Fingerabdruck mit ESP32Songerkennung mit dem Open-Source-Projekt Olaf Zirkularer Weihnachtsbaum 2023Weihnachtszeit, eine High-Tech-Annäherung Für ein einfacheres und komfortableres LebenEin Amateurprojekt basierend auf dem ESP8266-Modul von Espressif Wie man IoT-Apps ohne Software-Expertise erstelltMit der Blynk IoT-Plattform und Espressif-Hardware Erstellung einer intelligenten Benutzeroberfläche auf ESP32 Schnelle und einfache IoT-Entwicklung mit M5Stack Prototyping eines Energiezählers mit ESP32 Ein Distributor für IoT und mehr – mit Mehrwert Tiefe Einblicke: Ein Interview mit Arduino über den Nano ESP32Alessandro Ranellucci und Martino Facchin diskutieren über die Zusammenarbeit mit Expressif IoT-Chip-InnovationenEinblicke von und in Espressif Rationelle MCU-Programmierung dank ESP Privilege Separation Ein Open-Source-Spracherkennungsserver...und die ESP-BOX Das mitdenkende AugeGesichtserkennung und mehr mit ESP32-S3-EYE Knopfzellen-Sender mit ESP32-C2Entwurf und Leistungsbewertung Matter – ein Meilenstein für das Smart HomeSo schalten Sie das IoT-Potenzial von Smart Home frei Tech the Future: Wohin steuert Smart Home IoT?

Lis (+) (–)

History and Future in the Internet of Things This book thoroughly reviews the history of the development of embedded Operating Systems, covers the technical characteristics, historic facts, as well as background business stories of mainstream embedded Operating Systems, and analyzes the technical evolution, market development, and new opportunities of embedded Operating Systems in the age of the Internet of Things. From the perspective of time, the book examines the evolution of critical technical aspects, including real-time and Power Management of embedded Operating Systems and Linux, Internet of Things security, communication, and cloud computing. The book looks into applications of embedded Operating Systems with important markets of mobile phones, communication equipment, automobile, and wearable devices, and also discusses business model and the issue of intellectual property of embedded Operating Systems. In addition, the book walks through the status quo, technical features, product evaluation and background of the Internet of Things Operating Systems in the second half of the book.

Lis (+) (–)

Build your textbook weather station or conduct environmental research together with the whole world. With many practical projects for Arduino, Raspberry Pi, NodeMCU, ESP32, and other development boards. Weather stations have enjoyed great popularity for decades. Every current and even every long discontinued electronics magazine has regularly featured articles on building your own weather station. Over the years, they have become increasingly sophisticated and can now be fully integrated into an automated home — although this often requires loyalty to an (expensive) brand manufacturer across all components. With your own weather and environmental data, you can keep up and measure things that no commercial station can. It’s also fun: expand your knowledge of electronics, current microcontroller development boards and programming languages in a fun and meaningful way. For less than 10 euros you can get started and record your first environmental data — with time and growing interest, you will continue to expand your system. In this Edition Which Microcontroller Fits My Project? The Right Development Environment Tracking Wind and Weather Weather Display with OpenWeatherMap and Vacuum Fluorescent Display Volatile Organic Compounds in the Air We Breathe Working with MQ Sensors: Measuring Carbon Monoxide — Odorless but Toxic CO2 Traffic Light with ThingSpeak IoT Connection An Automatic Plant Watering System Good Indoor Climate: Temperature and Humidity are Important criteria Classy Thermometer with Vintage Tube Technology Nostalgic Weather House for the Whole Family Measuring Air Pressure and Temperature Accurately Sunburn Warning Device DIY Sensor for Sunshine Duration Simple Smartphone Says: Fog or Clear View? Identifying Earthquakes Liquid Level Measurement for Vessels and Reservoirs Water pH Value Measurement Detecting Radioactive Radiation GPS: Sensor Location Service Across the Globe Saving and Timestamping Log Files on SD Cards LoRaWAN, The Things Network, and ThingSpeak Operating a LoRaWAN Gateway for TTN Defying "Wind and Weather" Mega Display with Weather Forecasz

Lis (+) (–)

Elektor GREEN and GOLD members can download their digital edition here. Not a member yet? Click here. An Autonomous Sensor NodeLoRa-Based Data Transmission and Power by Solar Cells Elektor eXpansion Board v1.0For ESP32-S3 and other XIAO controller boards Model Railroad with CameraInstalling an ESP32 CAM Module Broadband Magnetic Antenna for Long WaveMultiple Channels Without Tuning TensorFlow Lite on Small MicrocontrollersA (Very) Beginner’s Point of View A Hub for RS-422 and RS-485 DevicesWire Your Bus Like a Star RF ProbeWith LED Bar Graph Starting Out in Electronics……Reviews More Opamp Circuits Open VarioThe Open-Source Multifunction Variometer for Paragliding From Life’s ExperienceAbout Taking Things for Granted AI-Based Water Meter Reading (Part 2)Get Your Old Meter Onto the IoT! ML-Based Pest DetectionSmart Agriculture Device With IoT Connectivity Why Anybus CompactCom Is the Ideal Choice for Embedded Industrial Communication IQRF Communication StandardReliability for Lossy, Low-Rate Wireless Mesh Networks How to Build a Smart Agricultural RobotEssential Technical Considerations and Challenges Audio Notch Filter with Adjustable FrequencyUniversal Solution for Suppressing Frequencies in Audio Applications The LeoINAGPS SystemGets Useful Insights on Your Electric Vehicle Solar-Powered LoRa NodeA Modular, Compact, and Versatile IoT Solution AWS for Arduino and Co. (2)Sending Data Using AWS IoT ExpressLink Err-lectronicsCorrections, Updates, and Readers’ Letters 2024: An AI OdysseyDesktop Versus Embedded Accelerators: A Look at Some Options ESP32 Range ExtenderA Simple Antenna Modification

Lis (+) (–)

Practical Introduction to 3D Modeling from Enclosure to Front Panel Embedding a vintage component, creating a professional looking home for a circuit board, or even designing a complex apparatus complete with a chassis – these and many other challenges turn into a stimulating pleasure with FreeCAD. Once you have internalized the basic processes, there are virtually no limits to your imagination. Starting to use a new software is never straightforward – especially with a tool as versatile as FreeCAD. Manageable, but at the same time easily usable individual components provide the starting point in this book. Putting these components together later results in assemblies. In the FreeCAD universe, a workable trajectory is demonstrated. The described procedure is illustrative so the examples are easily applied to custom tasks. The devices were made by the author and illustrated with photos. Creating a 3D design is requiring some effort but the initial investment pays off soon. Besides the impressive spatial representation of the projects, the extracted drawings yield a solid base for documentation and production. Extended FreeCAD capabilities like the unfolding of sheet metal parts enormously add to efficiency and pushes models forward into practical assembly. Soon you will definitely not want to do without FreeCAD!

Lis (+) (–)

A Practical Guide to AI, Python, and Hardware Projects Welcome to your BeagleY-AI journey! This compact, powerful, and affordable single-board computer is perfect for developers and hobbyists. With its dedicated 4 TOPS AI co-processor and a 1.4 GHz Quad-core Cortex-A53 CPU, the BeagleY-AI is equipped to handle both AI applications and real-time I/O tasks. Powered by the Texas Instruments AM67A processor, it offers DSPs, a 3D graphics unit, and video accelerators. Inside this handbook, you‘ll find over 50 hands-on projects that cover a wide range of topics—from basic circuits with LEDs and sensors to an AI-driven project. Each project is written in Python 3 and includes detailed explanations and full program listings to guide you. Whether you‘re a beginner or more advanced, you can follow these projects as they are or modify them to fit your own creative ideas. Here’s a glimpse of some exciting projects included in this handbook: Morse Code Exerciser with LED or BuzzerType a message and watch it come to life as an LED or buzzer translates your text into Morse code. Ultrasonic Distance MeasurementUse an ultrasonic sensor to measure distances and display the result in real time. Environmental Data Display & VisualizationCollect temperature, pressure, and humidity readings from the BME280 sensor, and display or plot them on a graphical interface. SPI – Voltmeter with ADCLearn how to measure voltage using an external ADC and display the results on your BeagleY-AI. GPS Coordinates DisplayTrack your location with a GPS module and view geographic coordinates on your screen. BeagleY-AI and Raspberry Pi 4 CommunicationDiscover how to make your BeagleY-AI and Raspberry Pi communicate over a serial link and exchange data. AI-Driven Object Detection with TensorFlow LiteSet up and run an object detection model using TensorFlow Lite on the BeagleY-AI platform, with complete hardware and software details provided.

Lis (+) (–)

Elektor GREEN and GOLD members can download their digital edition here. Not a member yet? Click here. The Raspberry Pi 5A Huge Improvement From Its Predecessor AI in the Electronics LabGoogle Bard and Flux Copilot Put to the Test Arduino Nano Waveform GeneratorNano + Code = Function Generator Solar-Powered Christmas GarlandAn Eco-Friendly Solution for Garnishing Your Balcony USB Killer DetectorBetter Safe Than Sorry A Simple CNCed EnclosureWith Autodesk Fusion 360 for Personal Use Low-Volume Board ProductionWith and without Assembly IoT Simulation Simplified with WokwiDeveloper Uri Shaked on Design, Software, and More A Bare-Metal Programming Guide (Part 3)CMSIS Headers, Automatic Testing, and a Web Server LoRa, a Swiss Army Knife (2)The Hardware and Software MEMS Microphone Design and Construction Tools to Try Before You SolderSimulation and 3D Modeling Tools That Can Be Used for Free New Tools From Microchip!PICkit 5 and MPLAB ICD 5 Available Now! Rapid Prototyping of Flexible, Stretchable ElectronicsHow the Voltera NOVA Speeds Up Innovation in Wearable Electronic Systems Galvanic IsolationUsing Phototransistor Optocouplers Successfully The Complex Solution or the Anybus Solution?Embedded Industrial Ethernet in 2 Days Rather Than Many Months Your Essential DFM ChecklistHow to Start Designing for Manufacture 3D Printing FilamentsTypes, Features and Use in Prototyping Specialists for Effective Signal Analysis from ELF to EHF BandAaronia’s latest real-time SPECTRAN® V6 series spectrum analyzers Challenges of DFM Analysis for Flex and Rigid-Flex Design Setting Up an SMT Line The Right Combination for a Reliable Assembly Revolutionizing IndustriesThe Rise of Autonomous Mobile Robots (AMRs) Evolved for More ChallengesRohde & Schwarz Adds Eight-Channel R&S MXO 5 to Next-Generation Oscilloscopes Starting Out in Electronics……Amplifying Differences Mini Reflow PlateFor Assembling or Repairing Small SMD Circuits Don’t Start with a Prototype – Start with a Pretotype!Check That a Market Exists for Your Product Before Warming Your Soldering Iron 2023: An AI OdysseyGetting Help Designing a Physical Project Brussels Is InnovatingSupport for Deep Tech

Lis (+) (–)

Le testeur de diodes Zener Elektor est essentiellement une source de courant constant commutable par paliers de 1 à 50 mA. Il peut être utilisé pour tester des diodes Zener jusqu’à un maximum de 54 V. Grâce à un convertisseur élévateur de 60 V, l’appareil peut être alimenté par une tension courante de 5 à 12 V. Le principe de ce testeur est simple. Une diode Zener ou un autre DUT (device under test, dispositif sous test, comme une LED) est polarisé par une source de courant réglable. La tension aux bornes du DUT peut être mesurée avec un multimètre. La tension de la plupart des (petites) diodes Zener est spécifiée pour un courant de 5 mA. Selon l’application, la tension à d’autres courants peut également présenter un intérêt. C’est pourquoi six réglages de courant sont disponibles : 1, 2, 5, 10, 20 et 50 mA. Les LED sont souvent spécifiées pour un courant de 20 mA. Il est possible de tester : Si une diode Zener est défectueuse (court-circuit ou haute impédance). Si une diode Zener présente la bonne tension Zener. Comment une tension Zener évolue avec différents courants. Quelle tension exacte est présente sur une référence de tension intégrée. Si des LED montées en série présentent des différences de luminosité (d’où le courant de 20 mA). Quel est le gain en courant pour différents courants de base dans des transistors (de puissance). Le kit contient toutes les pièces indiquées dans la nomenclature, y compris le circuit imprimé et le boîtier. Spécifications Tension d'alimentation 5…12 V/2 A (USB-C) Courant d'alimentation (Itest = 50 mA) 1,1 A à 5 V / 412 mA à 12 V Courants sélectionnables 1, 2, 5, 10, 20 et 50 mA Tension de test max. >54 V à Itest ≥1 mA Tension de sortie max. 60 V à Itest = 0 mA Limite de tension à 5 V 4,5 V à Itest = 1 mA / 5,18 V à Itest = 50 mA Dimensions du boîtier 110 x 82 x 44 mm Dimensions du circuit imprimé 105,4 x 67,3 mm Connexions Douilles banane 4 mm pour multimètre Douilles banane 2 mm pour pinces de test Connecteur USB-C pour l'alimentation Inclus Résistances R1 = 3.3 kΩ, 600 mW, 1% R2 = 0.15 Ω, 1 W, 5%, LS 12.7 mm, ø 3.5 mm R3, R8 = 180 Ω, 600 mW, 1% R4, R6, R16 = 1 kΩ, 600 mW, 1% R5, R19 = 47 kΩ, 600 mW, 1% R7 = 3.9 kΩ, 1 W, 5%, LS 12.7 mm, ø 3.5 mm R9, R10, R12 = 10 kΩ, 600 mW, 1% R11, R13 = 100 Ω, 600 mW 1% R14 = 249 Ω, 600 mW, 1% R15 = 499 Ω, 600 mW, 1% R17 = 2.49 kΩ, 250 mW, 1% R18 = 4.99 kΩ, 250 mW, 1% Condensateurs C1 = 470 uF / 35 V, 20%, Ir = 1.86 A, ø 12.5 mm, LS 5 mm, ESR = 0.038 Ω (Panasonic EEUTP1V471) C2 = 1 uF / 100 V, 10%, X7R, LS 5 mm C3 = 2.2 nF / 50 V, 10%, X7R, LS 5 mm C4, C7 = 100 nF / 100 V, 10%, X7R, LS 5 mm C5 = 100 uF / 100 V, 20%, ø 14 mm max., LS 5 mm C6 = 1 nF / 100 V, 10%, X7R, LS 5 mm Inducteur L1 = 100 uH, Irms = 2.4 A, Isat = 3.5 A, 0.09 Ω, radial, pitch 2.5/5/10 mm, ø 14 mm max. (Kemet SBC8-101-242) Semi-conducteurs D1 = MUR120G, DO-41 D2, D4 = STPS3150RL, DO-201AD D3 = Z-diode, 18 V, 1.3 W (BZX85C18) D5 = Z-diode, 5.1 V, 0.5 W (1N5231B) LED1 = LED in pushbutton S1 LED2 = LED, green, 3 mm IC1 = MC34063, DIP-8 IC2 = LM4040BIZ-5.0/NOPB, TO-92 (TO-226AA-3) IC3 = TL051CP, DIP-8 T1 = BC327.25, TO-92 T2 = STP40NF10L, TO-220 T3 = IRF9510PBF, TO-220 T4 = 2N7000, TO-92 Autres K1, K2, S1, S3 = 2-way screw terminal block, LS 3.5 mm, max. 1.5 mm² connected to K1 = USB-C socket, 30 V/3 A, chassis mounted, wired, 9 x 16 mm connected to K2 = Banana Connector, 2 mm, Socket, 60 VDC, Panel Mount, red (Multicomp 24.102.1) connected to K2 = Banana Connector, 2 mm, Socket, 60 VDC, Panel Mount, black (Multicomp 24.102.2) Test clip, red, 30 VAC/60 VDC (Hirschmann 931467101) Test clip, black, 30 VAC/60 VDC (Hirschmann 931467100) S1 = Pushbutton, panel mount, SPST-NO, 30 DC/100 mA, with red LED S2 = Rotary Switch, 6 position, 2 pole, 30°, 250 V/150 mA S3 = Toggle switch, panel mount, SPDT, solder lugs, 28 VDC T2, T3 = Heat sink, 15°C/W, FK 214 SA-CB Enclosure Hammond 1591XXSSBK, ABS, 110 x 82 x 44 mm Knob for S2, round shaft 6 mm, ø 21 mm, with indicator line (Multicomp CP-LB21-6-6D) 4 x Self-tapping screw #4-1/4", carbon steel, pan head Banana plug, red, 2 mm, 60 VDC (Multicomp 25.205.1) Banana plug, black, 2 mm, 60 VDC (Multicomp 25.205.2) Banana socket, black 4 mm, panel mount Banana socket, red 4 mm, panel mount for LED1, LED2 = Pin header, 1 x 2, vertical, pitch 2.54 mm for LED1, LED2 = Pin socket, 1 x 2, vertical, pitch 2.54 mm for T2, T3 = M3 screw, 10 mm, steel, pan head 2 x M3 washer, plain, steel 4 x M3 nut for IC1, IC3 = DIP-8 socket Wire, black, 0.25 mm² (24 AWG), stranded 14 x 0.15 mm, 1 m Wire, red, 0.25 mm² (24 AWG), stranded 14 x 0.15 mm, 1 m PCB 250772-1 v1.1 Liens Article Elektor Labs

Lis (+) (–)

Les membres d'Elektor GREEN et GOLD peuvent télécharger ce numéro ici . Pas encore membre? Cliquez ici pour souscrire une adhésion. Raspberry Pi Pico comme analyseur de spectre FFT avec du matériel bon marché Régulateur de tension linéaire ±40 V alimentation alternative pour l'amplificateur de puissance Fortissimo-100... et autres ! Communication sans fil flexible avec un MCU L'EEPROM ouvre des possibilités de mise en réseau pour les MCU sans fil 5 000 € à gagner ! participez au concours de conception d'innovation sans fil STM32 2023 : une odyssée de l’IA Premiers pas avec l'interpréteur de code de ChatGPT LoRa – un couteau suisse partie 1 : le protocole LoRa et ses avantages Puits de courant réglable avec générateur d'horloge intégré tester les alimentations, les convertisseurs de tension et les batteries Deux nouvelles cartes Arduino UNO R4 : Minima et WiFi Potentiomètres logarithmiques ils sont exponentiels ! Carte de dérivation du pilote de moteur un BoB pour un driver de moteur 5 A DC de 3×3 mm Electronique extraite de la vie périculosa Le cellulaire offre-t-il la consommation d’énergie la plus faible pour l’IoT ? besoins énergétiques du LTE-M et du NB-IoT dans les déploiements LPWAN Communication sans fil dans les systèmes IoT avec les modules Arduino MKR la bonne carte pour WiFi, LoRa et autres standards Pertes AC dans les composants magnétiques évitez les coils chauds ! Mesurez pour une connectivité cloud optimale Implémentation de Matter : que faut-il pour déployer des appareils Matter ? YARD Bâton Un outil de test sans fil inférieur à 1 GHz Relais de maintien parties étrangères PIC avant dix heures – pile à l’heure conception d'un récepteur de signaux horaires SDR Directive sur le devoir de diligence Le statu quo ne suffira pas Tous les débuts... ...amplifie les tensions Enregistreur d'infrasons avec l'Arduino Pro Mini un exemple de projet de la publication Elektor « Arduino & Co » Compteur d'énergie basé sur le cloud avec un module ESP32 et un capteur tension/courant PZEM-004T Un guide de programmation puriste (partie 2) timing précis, l'UART et le débogage

Lis (+) (–)