Zoekresultaten voor "technical or modeling or with or openscad"

Learning Embedded Systems with STM32 Nucleo Boards Embedded programming has become more accessible than ever before. Development boards are inexpensive, software tools are easy to install, and the Arduino IDE provides a familiar environment for creating embedded applications. Combined with the STM32 Nucleo family of development boards, it offers an excellent platform for learning how modern microcontrollers interact with the physical world. This book introduces embedded programming using the Arduino environment on STM32 Nucleo boards. You will learn how a microcontroller continuously reads inputs, processes information, and controls outputs in a predictable real-time loop. Through practical examples, you will discover how to control LEDs, read switches and sensors, generate PWM signals, drive motors, and exchange data with other devices, all while becoming familiar with the capabilities of STM32 microcontrollers. Although the STM32 family includes devices with different performance levels, memory sizes, and peripheral sets, they all share the same architectural concepts. Digital and analog I/O, timers, interrupts, PWM, communication interfaces, and low-power operation are fundamental features found throughout the STM32 ecosystem. Understanding these building blocks will enable you to work confidently with a wide range of STM32 devices, from entry-level microcontrollers to more advanced applications. By focusing on practical programming techniques rather than hardware complexity, this book develops skills that remain useful well beyond the examples presented. Whether you are taking your first steps in embedded systems or expanding your experience with STM32 microcontrollers, you will gain a solid understanding of both the Arduino development environment and the principles that underpin embedded software design.

Lees (+) (–)

Elektor GREEN and GOLD members can download their digital edition here. Not a member yet? Click here. The ESP-BLASTA Mini ESP32 Rocket Drone That Flies 100 km/h+ Wireless Workshop (1)Radio Modules Unlocked: 433 MHz CC1101 Sub-GHz Transceiver AM TransmitterWith Square/Sine Wave Generator on Raspberry Pi Pico STM32Cube Innovation ChallengeCompete with Your Best STM32C5 Design CoffeeCallerHow a Long Hallway Led to a Custom Mesh-Networked PCB AudiotronicsTotal Harmonic Distortion Elektor at 65Projects from Septembers and Octobers Past Bluetooth Channel Sounding for Asset TrackingCentimeter-Level Precision Ranging for Next-Generation IoT 2026: An AI OdysseyQuantum Computing Is Not the Next GPU Protecting the Cloud Demands Security at the Edge First Experiences with the HackRF ProPractical Tests with the New SDR Hardware Modem Upgrade from GPRS/2G to LTE/4GUsing a Wireless Alarm Control Panel as an Example Loop Antenna with RF BricksPart 1: A DIY Shortwave Antenna with Adjustable Directivity Internet Radio to AM ConverterUsing an ESP32-S3 as Transmitter Err-lectronics mioty — An OverviewFraunhofer’s Approach to LPWAN Workbench WisdomPractical Tips from Experts Walter, the Compact IoT ModulePart 2: Accessing Weather and Data Services

Lees (+) (–)

Diese Ausgabe steht allen GOLD- und GREEN-Mitgliedern auf der ElektorMagazine-Website zum Download bereit! Sie sind noch kein Mitglied? Hier klicken! DIY-SolarakkusÜber den Selbstbau von Energiespeichern für Solaranlagen Solarmodul-SimulatorFür Test und Optimierung von MPP-Trackern und Invertern Der STM32-Edge-KI-WettbewerbEntdecken Sie den neuen STM32N6 und nehmen Sie am Wettbewerb um 5.000 € teil! Erweiterung der BandlückeWarum gibt es so viel Interesse an SiC und GaN? Power-Bank für NotebooksVerlängern Sie das Leben Ihres alten Laptops! Medizinische RoboterÜberwindung technischer und regulatorischer Hürden Frostwächter für ObstpflanzenMit Temperatur-Datenlogger Das analoge DingDer Arduino des Analog-Computings? Sparsames NetzrelaisMit über 90% Leistungsreduzierung Verbesserung der DC-Last ET5410A+Keep cool and be quiet! electronica 2024 im Rückblick Elektromagnetische VerträglichkeitEMV kurz und bündig! Aller Anfang......muss nicht schwer sein: Aktive Filter Verlustleistung reduzieren mit AbleitkondensatorenEin cleverer Einsatz von kapazitiver Reaktanz Preiswerter 12-Bit-Digital-Analog-Wandler MCP4725Mit EEPROM-Feature für sicheres Einschaltverhalten Fnirsi LCR-ST1, die intelligente LCR-SMD-Pinzette Test- und Messlabor mit Raspberry PiDas Wichtigste zuerst: Der ADC Elektronischer LastwiderstandEin Projekt aus der Kiste 2025: Eine Odyssee in die KIEinige Projekte für das neue Jahr Projekt-Update: Modulares DC-Leistungsmessgerät AmpVolt v2.0100 Ampere und mehr! Projekt 2.0 Ethische Transparenz sichtbar gemachtErgebnisse der Umfrage 2024 von Ethics in Electronics Elektor Audio-DSP FX-Prozessor-BoardTeil 2: Anwendungen erstellen

Lees (+) (–)

Android Open Accessory (DE) | E-book

Lees (+) (–)

UFactory 850 is the most powerful robot with industrial grade performance. Features 6DoF Payload: 5 kg Reach: 850 mm Repeatability: 0.02 mm Weight: 20 kg Applications Glambot Welding Screwdriving Robot Vision Industrial Production Designed for both mobile platforms and your workbench The AC control box contains an AC-DC adapter inside, 100-240 V AC is all ready to go. The DC control box supports 48-72 V wide inputs, it perfectly fits the battery system on your mobile platform. Flexible Deployment With Safe Feature Hand teaching, space-saving and easy to re-deploy to multiple applications without changing your production layout. Perfectly for recurrent tasks. Collision detection is available for all of our cobots. Your safety is always the top priority. Graphical Interface For Beginner-Friendly Programming Compatible with various operation systems, including macOS and Windows. Web-based technology compatible with all major browsers. Drag and drop to create your code in minutes. Powerful And Open Source SDK At Your Fingertips Fully functional open-source Python/C++ SDK provides more flexible programming. ROS/ROS2 packages are ready-to-go. Example codes help you to deploy the robotic arm smoothly. Specifications UFactory 850 xArm 5 xArm 6 xArm 7 Payload 5 kg 3 kg 5 kg 3.5 kg Reach 850 mm 700 mm 700 mm 700 mm Degrees of freedom 6 5 6 7 Repeatability ±0.02 mm ±0.1 mm ±0.1 mm ±0.1 mm Maximum Speed 1 m/s 1 m/s 1 m/s 1 m/s Weight (robot arm only) 20 kg 11.2 kg 12.2 kg 13.7 kg Maximum Speed 180°/s 180°/s 180°/s 180°/s Joint 1 ±360° ±360° ±360° ±360° Joint 2 -132°?132° -118°?120° -118°?120° -118°?120° Joint 3 -242°~3.5° -225°~11° -225°~11° ±360° Joint 4 ±360° -97°~180° ±360° -11°?225° Joint 5 -124°~124° ±360° -97°~180° ±360° Joint 6 ±360° ±360° -97°~180° Joint 7 ±360° Hardware Ambient Temperature Range 0-50°C Power Consumption Typical 240 W, max 1000 W Input Power Supply 48 V DC, 20.8 A Footprint Ø 190 mm Materials Aluminum, Carbon Fiber Base Connector Type M8x4 ISO Class Cleanroom 5 Robot Mounting Any End Effector Communication Protocol Modbus RTU End Effector I/O 2x DI / 2x DO / 2x AI / 1x RS485 Communication Mode Ethernet Included 1x UFactory 850 robotic arm 1x AC control box 1x Control box power cable

Lees (+) (–)

Technology is constantly changing. New microcontrollers become available every year. The one thing that has stayed the same is the C programming language used to program these microcontrollers. If you would like to learn this standard language to program microcontrollers, then this book is for you! Arduino is the hardware platform used to teach the C programming language as Arduino boards are available worldwide and contain the popular AVR microcontrollers from Atmel. Atmel Studio is used as the development environment for writing C programs for AVR microcontrollers. It is a full-featured integrated development environment (IDE) that uses the GCC C software tools for AVR microcontrollers and is free to download. At a glance: Start learning to program from the very first chapter No programming experience is necessary Learn by doing – type and run the example programs A fun way to learn the C programming language Ideal for electronic hobbyists, students and engineers wanting to learn the C programming language in an embedded environment on AVR microcontrollers Use the free full-featured Atmel Studio IDE software for Windows Write C programs for 8-bit AVR microcontrollers as found on the Arduino Uno and MEGA boards Example code runs on Arduino Uno and Arduino MEGA 2560 boards and can be adapted to run on other AVR microcontrollers or boards Use the AVR Dragon programmer/debugger in conjunction with Atmel Studio to debug C programs

Lees (+) (–)

Kenmerken Advanced DDS technology, up to 250MHz frequency output 1.25GS/s sampling rate, and 1 μHz frequency resolution Up to 1M arbitrary waveform length Vertical resolution: 14 bits Comprehensive waveform output: 6 groups waveforms, and 152 group built-in arbitrary waveforms Comprehensive modulation options: AM, FM, PM, FSK, 3FSK, 4FSK, PSK, OSK, ASK, BPSK, PWM, sweep, and burst High-accuracy frequency counter integrated, ranging from 100mHz till 200MHz SCPI and LabVIEW supported 8'' 800 x 600 pixels touch screen LCD Specificaties XDG3102 Channel 2 Frequency Output 100MHz Sample Rate 1.25GSa/s Vertical Resolution 14 bits Waveform Standard Waveform sine, square, pulse, ramp, noise, and harmonic Arbitrary Waveform exponential rise, exponential fall, sin(x)/x, step wave, and others, total of 150 built-in waveforms, and user-defined arbitrary waveform Frequency (resolution 1μHz) Sine 1μHz - 100MHz Square 1μHz - 40MHz Pulse 1μHz - 25MHz Ramp 1μHz - 5MHz Harmonic 1μHz - 50MHz Noise 120MHz (-3dB, typical) Arbitrary Waveform built-in waveform: 1uHz - 15MHzuser-defined waveform: 1uHz - 50MHz Accuracy ±1ppm, 0°C - 40°C Amplitude Amplitude (50Ω) 1mVpp - 10Vpp (≤40MHz); 1mVpp - 5Vpp (≤80MHz) 1mVpp - 2.5Vpp (≤120MHz); 1mVpp - 1Vpp (≤250MHz) Amplitude(high impedance) 2mVpp - 20Vpp (≤40MHz); 2mVpp - 10Vpp (≤80MHz); 2mVpp - 5Vpp (≤120MHz); 2mVpp - 2Vpp (≤250MHz) Resolution 1mV or 4 digits DC Offset Range (50Ω) ±(5 Vpk - Amplitude Vpp/2) Range (high-Z, open circuit) ±(10 Vpk - Amplitude Vpp/2) Accuracy ±(1% of |setting| + 1mV + Amplitude Vpp x 0.5%) Resolution 1mV or 4 digits Load Impedance 50Ω (typical) Accuracy ±(1% of setting + 1 mVpp) (typical, 1kHz sine, 0V offset) Sine Wave Spectrum Purity Harmonic Distortion Typical (0dB) DC - 1MHz: <-65dBc 1MHz - 10MHz: <-60dBc 10MHz - 120MHz: <-50dBc 120MHz - 200MHz: <-45dBc Total Harmonic Distortion ≤0.05 %, 10 Hz to 20 kHz, 1 Vpp Spurious (non-harmonic), Typical (0dB) ≤10MHz: <-70dBc >10MHz: <-70dBc + 6dB/ octave Phase Noise Typical (0 dBm, 10 kHz deviation) 10MHz: -110dBc/Hz Square Rise/Fall Time <5ns Overshoot <3% Duty Cycle 50.0% (fixed) Jitter (rms) 300ps + 100ppm Pulse Pulse Width 12ns - 996875s Leading/Trailing Edge Time ≤7ns Overshoot <3% Jitter (rms) 300ps + 100ppm Ramp Linearity ≤1% of peak output (typical, 1kHz, 1 Vpp, 50% symmetry) Symmetry 0% to 100% Harmonic Harmonic Order ≤16 Harmonic Type even, odd, all, user Harmonic Amplitude could be set for all the harmonics Harmonic Phase Arbitrary Waveform Length 2 points - 1M points Vertical Resolution 14 bits Minimum Rise/Fall Time <7ns Jitter (rms) 3ns Modulation Type AM, FM, PM, PWM, FSK, 3FSK, 4FSK, PSK, OSK, ASK, BPSK, sweep, and burst AM Carrier Waveform sine, square, ramp, and arbitrary (except DC) Source internal / external Modulating Waveform sine, square, ramp, noise, and arbitrary Depth 0.0% - 100.0% Modulating Frequency 2 mHz - 100 kHz FM Carrier Waveform sine, square, ramp, and arbitrary (except DC) Source internal / external Modulating Waveform sine, square, ramp, noise, and arbitrary Modulating Frequency 2 mHz - 100 kHz PM Carrier Waveform sine, square, ramp, and arbitrary (except DC) Source internal / external Modulating Waveform sine, square, ramp, noise, and arbitrary Phase Deviation 0° - 180° Modulating Frequency 2 mHz - 100 kHz PWM Carrier Waveform pulse Source internal / external Modulating Waveform sine, square, ramp, noise, and arbitrary Width Deviation 0 ~ minimum (pulse duty ratio, 100% - pulse duty ratio) Modulating Frequency 2 mHz - 100 kHz FSK / 3FSK / 4FSK Carrier Waveform sine, square, ramp, and arbitrary (except DC) Source internal / external Modulating Waveform square with 50% duty cycle Key Frequency 2 mHz - 1MHz PSK Carrier Waveform sine, square, ramp, and arbitrary (except DC) Source internal / external Modulating Waveform square with 50% duty cycle Key Frequency 2 mHz - 1MHz OSK Carrier Waveform sine, square, ramp, and arbitrary (except DC) Source internal Oscillation Time square with 50% duty cycle Key Frequency 2 mHz - 1MHz ASK Carrier Waveform sine, square, ramp, and arbitrary (except DC) Source internal / external Modulating Waveform square with 50% duty cycle Key Frequency 2 mHz - 1MHz BPSK Carrier Waveform sine, square, ramp, and arbitrary (except DC) Source internal Modulating Waveform square with 50% duty cycle Key Frequency 2 mHz - 1MHz Sweep Carrier Waveform sine, square, ramp, and arbitrary (except DC) Type linear, and log Direction up, and down Sweep Time 1 ms to 500s, ± 0.1% Trigger Source internal, external, and manual Burst Carrier Waveform sine, square, ramp, pulse, and arbitrary (except DC) Burst Count 1 to 50,000 period, infinite, gating Internal Period 10 ns - 500 s Gated Source external trigger Frequency Counter Function frequency period, +width, -width, +duty, and -duty Frequency Range 100mHz - 200MHz Frequency Resolution 7 digits Input / Output Display 8”800 x 600 pixels touch screen LCD Type frequency counter, external modulation input,external trigger input,external reference clock input / output Communication Interface USB Host, USB Device, and LAN Dimensions 340 x 177 x 90 mm Weight 2.50 kg

Lees (+) (–)

Projekte mit Arduino Uno und Raspberry Pi In diesem Buch werden Anwendungen von Arduino Uno und Raspberry Pi 4 in praxisnahen Projekten auf Basis von CAN-Bus detailliert beschrieben. Durch den Einsatz von entweder Arduino Uno oder Raspberry Pi in Verbindung mit handelsüblichen CAN-Bus-Schnittstellenmodulen werden die Entwicklung, Fehlersuche und Fehlerbeseitigung sowie die Überprüfung von Projekten auf CAN-Bus-Basis erheblich erleichtert. Dieses Buch richtet sich an jeden, der mehr über den CAN-Bus lernen möchte und mit den Grundlagen der Elektronik vertraut ist. Hilfreich ist auch Erfahrung mit den Programmiersprachen C und Python sowie mit der Programmierung von Arduino Uno unter Verwendung seiner IDE und von Raspberry Pi zu haben. Das Buch ist eine nützliche Informationsquelle und ein Nachschlagewerk für jeden, der Antworten auf eine oder mehrere der folgenden Fragen sucht: Welche Bussysteme stehen für die Automobilindustrie zur Verfügung? Was sind die Grundprinzipien des CAN-Bus? Welche Arten von Frames (oder Datenpaketen) stehen in einem CAN-Bussystem zur Verfügung? Wie können Fehler in einem CAN-Bussystem erkannt werden, und wie zuverlässig ist ein CAN-Bussystem? Welche Arten von CAN-Bus-Controllern gibt es? Welches sind die Funktionsprinzipien des MCP2515 CAN-Bus-Controllers? Wie kann ich ein CAN-Bus-Projekt mit Arduino Uno realisieren? Wie kann ich Arduino oder Raspberry Pi CAN-Bus-Projekte mit 2 und 3 Knoten erstellen? Wie kann ich die Daten auf dem CAN-Bus analysieren? Wie kann ich ein CAN-Bus-Projekt mit Raspberry Pi ausführen?

Lees (+) (–)

DRIVING MOTORS WITH H-BRIDGESAn Introduction to DC, Stepper, and Brushless Motors THE ELEKTOR LAB TEAMOur Approach, Preferred Tools, and More RASPBERRY PI AS A KVM REMOTE CONTROLPi-KVM Software Test IQAUDIO CODEC ZEROA Sound Card for the Raspberry Pi Family THE PIKVM PROJECT AND LESSONS LEARNEDInterview with Maxim Devaev (Developer, PiKVM) AUTONOMOUS VEHICLE WITH 2D LIDARESP32 Pico Interprets Data from the Lidar Module THE RASPBERRY PI ZERO 2 W GOES QUAD-CORE NOTES FROM THE 2021 WORLD ETHICAL ELECTRONICS FORUM MOTOR CONTROLHow the Complexity of Motor Control Is Simplified LARGE ELECTRIC MOTORSBasic Principles and Useful Information GETTING STARTED WITH THE ESP32-C3 RISC-V MCU PROTECT YOURSELF AND OTHERS!DIY Master Power Switch for the Lab Bench CREATE GUIS WITH PYTHON (PART 2)Spy name chooser PRODUCTRONICA FAST FORWARD 2021 WINNERSExciting Technologies and Creative Engineering Solutions VERSATILE SERVO TESTERCheck Behavior When There’s No Datasheet MODBUS OVER WLAN (PART 2)Software for the Modbus TCP WLAN Module UNDERSTANDING THE NEURONS IN NEURAL NETWORKS (PART 3)Practical Neurons INSIDE AN OPEN-SOURCE PROCESSORSample Chapter: Lattice and Xilinx FPGA Results STARTING OUT IN ELECTRONICSWe Are Not Yet Done with the Coil ERR-LECTRONICSCorrections, Updates and Readers’ Letters COLOR TO SOUNDHow to Read Out a Color Sensor via I2C BATTLAB-ONEMeasure and Optimize the Battery Life of IoT Devices SIMPLE EARTH-LEAKAGE TRACERTesting Isolation of Mains Supply POVERTY AND ELECTRONICSSustainable Development Goal 1 HEXADOKUThe Original Elektorized Sudoku

Lees (+) (–)

Diese Ausgabe steht allen GOLD- und GREEN-Mitgliedern auf der ElektorMagazine-Website zum Download bereit! Sie sind noch kein Mitglied? Hier klicken! Kleine WärmebildkameraRealisiert mit einem Arduino UNO Projekt-Update #3: Energiemessgerät mit ESP32Integration und Test mit Home Assistant 2024: Eine Odyssee in die KIVerbessern der Objekterkennung: Nutzung verfeinerter Techniken Raspberry Pi Goes KINeues Kit enthält M.2-HAT mit KI-Beschleuniger Sensoren für WetterstationenWelchen Sensor sollte man wählen? KI-gestützter WasserzählerTeil 1: Bringen Sie Ihren alten Zähler ins IoT! Ein GSM-AlarmNutzung der GSM-Technologie für die Fernüberwachung von Garagen Low-Power-Thread-Geräte optimiert und getestetNiedriger Energiebedarf ... Niedrige Leistung? Aus dem Leben gegriffenDer Gender-Gap Nebelkammer selbstgebautUnsichtbare Strahlung sichtbar machen SparkFun Thing Plus MatterEin vielseitiges Matter-basiertes IoT-Entwicklungsboard IoT-RetrofittingRS232-Geräte fit für Industrie 4.0 machen IoT mit 8-Bit-Mikrocontrollern Technologie als Motor der NachhaltigkeitNeuerungen führen zu Energieeffizienz in vielen Applikationen AWS für Arduino und Co.Teil 1: AWS-IoT-ExpressLink in der Praxis Luftstromdetektor (nur) mit ArduinoKeine externen Sensoren erforderlich! WasserleckdetektorVerbunden mit der Arduino-Cloud QuarzeBemerkenswerte Bauteile Universeller Garten-LoggerEin Schritt auf dem Weg zur KI-gestützten Gartenarbeit Analoger 1-kHz-GeneratorSinuswellen mit geringen Verzerrungen Miletus: Web-Apps offline nutzenSystem- und Gerätezugriff inklusive Von 4G zu 5GIst es wirklich so einfach? Aller Anfang...muss nicht schwer sein: Der Ausgleich

Lees (+) (–)

310 Circuits – is the 11th volume in Elektor’s renowned ‘Three Hundred’ series. 310 circuits, tips and design ideas in one book form a treasure trove for every area of electronics: audio and video, hobby and modelling, RF techniques, home and garden, test and measurement, microcontrollers, computer hardware and software, power supplies and chargers – plus of course everything else that does not seem to belong in any of these categories. 310 Circuits – contains many complete solutions as well as useful starting points for your own projects. Both categories and anything in between represent a veritable fountain of inspiration for cultivating your own ideas and learning about electronics. 310 Circuits – is a compilation of articles from ‘Summer Circuits’ editions for the years 2006, 2007 and 2008. ‘Summer Circuits’ covers the publication months July and August of Elektor magazine. 310 Circuits – is a must-have book for every creative electronics enthusiast, be it professional, enthusiast or student. 310 Circuits – for the first time has a section exclusively on robots and robotics.

Lees (+) (–)

Elektor GREEN and GOLD members can download their digital edition here. Not a member yet? Click here. OBD2 Sensor DashboardOld Dials Sparked a Quest for Real Data OBD2: Add a Rev Counter and Gear Shift Indicator to Your CarRetro, but Super Useful LiDAR and Vision Sensors for Robotics Sensor+Test 2025 and PCIM 2025 Contact-Free E-Field Measurements (1)A Vibrating Membrane for Assessing DC Voltages or Static Electric Fields Wireless Mailbox NotifierFrom Optical Sensors to Radar, Exploring a Few Options Elektor Mini-WheelieA Self-Balancing Robot Solar CellsPeculiar Parts, the Series Getting Started With a Modern Radar SensorIs an Accurate Measurement on Your Radar? From Life’s ExperiencePaper Factory CybersecurityTough Times for Hackers Siglent Presents Next-Gen Multi-Channel OscilloscopesHigh-Performance Solutions for Modern Power and Embedded Systems Bluetooth 6.0 Brings Enhanced Distance-Ranging ApplicationsNew Version Offers Improved Device Positioning and Location Services Exploring Wireless Communication with BeagleY-AI Err-lectronicsCorrections, Updates, and Readers’ Letters Starting Out in Electronics……Concludes the Topic on Opamps A Powerful AI Code AssistantSpeed Up Your Development with Continue and Visual Studio Code Solar Charge Controller with MPPT (2)The Circuit Ultrasonic Obstacle DetectorA Simple Project to Help Those with Impaired Vision 2025: An AI OdysseyMid-Year Review Raspberry Pi Standalone MIDI Synthesizer (3)Making It Smarter and Adding a User Interface Meshtastic: A Demo ProjectAn Intelligent Mesh of LoRa Radios Analog Audio Frequency GeneratorHigh-Quality Adjustable Frequency Sine Wave Generator

Lees (+) (–)