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Elektor GREEN en GOLD leden kunnen deze uitgave hier downloaden. Nog geen lid? Klik hier om een lidmaatschap af te sluiten. PIO programmeren op de Raspberry Pi PicoNegen instructies, veel mogelijkheden AI buiten de browser brengenAI-CLI's gebruiken voor het coderen, compileren en valideren van embedded projecten De Scrutiny DebuggerDebuggen, visualiseren en testen van code in Embedded C/C++ Sigfox breakout board (1)Een zelfgebouwde radio BoB Low-Noise voeding (2)Constructie, montage en praktische implementatie Eenvoudige signaalgenerator met de RP2040Analoge en digitale signalen voor ongeveer €10 De toekomst van slimme huizen verkennen met Matter en Edge AIBieden de nieuwste updates van Matter en de opkomst van Edge AI technici eindelijk de tools om de intelligente, slimme huizen te bouwen die gebruikers zijn beloofd? Differentiële druksensorenVoorspellend onderhoud in HVAC-systemen Security by designTechnische basisprincipes beperken storingen Embedded security is niet langer optioneel CRA en PQC herzien prioriteiten voor embedded securityWaarom zelfs kleine IoT- en industriële bedrijven een upgradeplan nodig hebben embedded world 2026Een interview met Benedikt Weyerer, Executive Director embedded world Praktijkervaring met I3CGebruik van hardware van ST en Microchip Het BLEnky-projectSnelle prototyping voor Bluetooth Low Energy toepassingen Pulsbreedtemodulatievan een eenvoudige aan/uit-thermostaat naar een rimpelloos DC-signaal AudiotronicaOorstrelende elektronica voor zelfbouw Uit het leven gegrepenRead the f...ing manual! ESP32 audio transceiver board (Deel 4)Afstemmen van de kloksignalen en een bekabelde versie 2026: An AI OdysseyDe kater van Vibe-Coding in 2025 Symmetrische DC-belastingStatische of dynamische en symmetrische gelijkstroombelasting Gezichten tellen met MaixCAMEen eenvoudige methode om de omvang van het publiek vast te leggen

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Elektor GREEN and GOLD members can download their digital edition here. Not a member yet? Click here. PbMonitor v2.0 UpdateBattery Monitoring with Improved Analog Design Audio Latency MeasurementA Standalone Tool for Evaluating Errors and Latency in Audio Transmission Square Wave vs. Bode PlotChecking the Performances of an Audio Device embedded world 2026 Clever Coding with AIAI in Software Development for Electronics Engineers QA403 Audio AnalyzerAffordable Precision for Audio Professionals and Hobbyists EasyGimbalAutonomous Camera Tracking with AI, Stepper and Servo Motors Sigfox Breakout Board (2)Sending Messages Circuit ProtectionControlling Overvoltages with TVS Diodes Emerging Battery Testing ApproachesA New Era of Diagnostics AudiotronicsA First Preamplifier CANopenTermAn Open-Source Tool That Brings CAN to Makers and Engineers Alike Stabilization of Operational AmplifiersAvoiding Feedback Instability Err-lectronicsCorrections, Updates, and Readers’ Letters Signal ConditioningTips and Tricks to Fit Voltage Ranges TDR Attachment for OscilloscopesLength, Short Circuit, Mismatch: Measure Cables Using Reflections! From Life's ExperienceLED It Be Speaker Oscillator and Resonance TesterA Fully Experimental Project for Your Speakers Elektor Community Perspectives on Test and Measurement ESP32 Audio Transceiver Board (Part 5)Audio Processing and Remote Control 2026: An AI OdysseyAI Has a Context Problem Battery Storage for Balcony Power PlantsSmall Batteries, Big Impact

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Create Models for 3D Printing, CNC Milling, Process Communication and Documentation Engineers dread designing 3D models using traditional modeling software. OpenSCAD takes a refreshing and completely different approach. Create your models by arranging geometric solids in a JavaScript-like language, and use them with your 3D printer, CNC mill, or process communication. OpenSCAD differs from other design systems in that it uses programmatical modeling. Your model is made up of primitives that are invoked using a C-, Java- or Python-like language. This approach to model design is close to the “mechanical work” done in the real world and appeals to engineers and others who are not a member of the traditional creative class. OpenSCAD also provides a wide variety of comfort functions that break the 1:1 relationship between code and geometry. This book demonstrates the various features of the programming language using practical examples such as a replacement knob for a LeCroy oscilloscope, a wardrobe hanger, a container for soap dispensers, and various other real-life examples. Written by an engineer with over 15 years of experience, this book is intended for Linux and Windows users alike. If you have programming experience in any language, this book will have you producing practical three-dimensional objects in short order!

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Features Bandwidth: DC-800 KHz Maximum measurable current: 100 Apk (70.7 Arms) Max. conductor diameter: 13 mm Auto & Manual "Zero" function Directly powered by USB port Standard BNC interface, compatible with any oscilloscope Specifications Bandwidth DC-800 KHz Rise time <= 583 ns Ranges 10 A / 100 A Output sensitivity 0.1 V/A (10 A) 0.01 V/A (100 A) DC accuracy 3% ±50 mA (10 A) 4% ±50 mA (100 A, 500 mA - 40 Apk) 15% (100 A, 40 Apk -100 Apk) Signal delay < 150 ns (10 A) < 200ns (100 A) Current measurement range 50 mA - 10 Apk (10 A) 1 A - 100 Apk (100 A) Max. Voltage CAT III 300 V CAT II 600 V Power supply DC 5 V Downloads Quick Guide Datasheet Manual

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Elektor GREEN and GOLD members can download their digital edition here. Not a member yet? Click here. PbMonitor v1.0A Battery-Monitoring System for UPS and Energy Storage Applications Solar Charge Controller with MPPT (1)Basic Principles of a Solar Controller for Stand-Alone Systems B-Field Integration Magnetometer With Home-Made Sensors Precise or Accurate?Your Instruments Need to Be Both! AD7124 A Precision ADC in PracticeFeatures for Sensor Signal Conditioning PID Control ToolOptimize Your Parameters Easily embedded world 2025 Starting Out in Electronics……Continues with Tone Control Academy Pro BoxBook + Online Course + Hardware Milliohmmeter AdapterUses the Precision of Your Multimeter The Next Leap in SemiconductorsOnward Toward 1.4 nm Through-Hole Technology ConnectorsThe Best of Two Worlds: THR Frequency CounterPortable and Auto-Calibrating Via GPS Analog MetersPeculiar Parts, the Series Stand-Alone Crystal TesterHow Accurate Is Your Clock Source? Low-Cost I²C TesterConnect I²C Devices Directly to Your PC From Life’s ExperienceWho Doesn’t Honor the Small Things? 2025: An AI OdysseyThe Transformative Impact on Software Development Err-lectronicsCorrections, Updates, and Readers’ Letters Raspberry Pi Standalone MIDI Synthesizer (2)Enhancing Our Setup with Intelligence Nortonized Wien Bridge OscillatorSmall Changes Yield Significant Improvements Putting a $0.10 Controller to the TestThe CH32V003 RISC-V Microcontroller and MounRiver Studio in Practice An FPGA-Based Audio Player with Equalizer (2)Adding Volume Control, Advanced Mixing, and a Web Interface

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The UT8803E is a portable, AC-powered 3⅚ digital multimeter with 6000 counts with automatic measuring range and large display with backlight. The UT8803E can be used to measure AC/DC voltage, AC/DC current, resistance, frequency, capacitance, inductance, triode (HFE), diode (LED), thyristor (SCR), and on-off switching. Features Extreme value and reference value operation, with analog bargraph Multiple measurement parameters optional D/Q parameters of capacitance and inductance can be measured Measurement resolution 3.5-inch, maximum measurement value 5999 Specifications Measurement Resolution 3⅚, Maximum Measurement Value 5999 Measurement Rate 2-3 measurements/s DC Voltage Range 600 mV~1000 V DC Current Range 600 µA~20 A AC Voltage Range 600 mV~750 V (True RMS) AC Current Range 600 µA~20 A (True-RMS) Resistance Range 600 Ω~60 MΩ Capacitance Range 6 nF~60 mF Inductance Range 600 µH~100 H Frequency Measurement Range 600 Hz~20 MHz Duty Cycle Measurement Range 5%~95% Mathematical Operation Maximum, minimum, relative value, trend chart Interface USB device (can be connected to the upper computer control software) Frequency response 100 KHz Downloads Datasheet User Manual Programming Manual Software

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Learn to interface and program hardware devices in a wide range of useful applications, using ARM7 microcontrollers and the C programming language. Examples covered in full detail include a simple LED to a multi-megabyte SD card running the FAT file system. Features of this book Build prototype circuits on breadboard or Veroboard and interface to ARM microcontrollers. A 32-bit ARM7 microcontroller is used in interfacing and software examples. Interfacing principles apply to other ARM microcontrollers and other non-ARM microcontrollers as well. Example programs are written in the C programming language. Use only free or open source software. Download and install all programming tools from the Internet. Template project files are provided for easy project creation. Hardware Interface to LEDs, transistors, optocouplers, relays, solenoids, switches, keypads, LCD displays, seven segment displays, DC motors, stepper motors, external analogue signals using the ADC, RS232, RS-485, TWI, USB, SPI and SD memory cards. Software Once hardware has been interfaced to a microcontroller, software must be written to control the hardware. You will learn how to write programs to operate externally interfaced hardware devices, use timers and interrupts. Also learn how to port FAT file system code for use with an SD memory card, program the PWM to produce an audio sine wave, program the PWM to speed control a DC motor and more. A chapter on more advanced ARM microcontrollers is included with an overview of some of the newest ARM microcontrollers and their features.

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With Examples for Arduino UNO, Raspberry Pi Pico and ESP32 Programming small electronic systems has never been more accessible. Tasks that once demanded expensive tools, specialized hardware, and deep electrical engineering expertise can now be tackled with low-cost development boards and approachable software. At the centre of this shift is the Arduino environment, which provides a unified and familiar way to program a wide range of microcontroller platforms—from classic AVR boards like the Arduino UNO to modern ARM-based boards such as the Raspberry Pi Pico, and powerful Wi-Fi-enabled devices like the ESP32. This book introduces embedded programming through the core idea that defines all microcontrollers: reading inputs, processing information, and controlling outputs in a predictable loop. The Arduino environment abstracts much of the hardware complexity, allowing you to focus on behaviour rather than implementation details. With just a few lines of code, you can blink LEDs, read sensors, control motors, and communicate with other devices. While the Arduino UNO, Raspberry Pi Pico, and ESP32 boards differ greatly in performance and features, they share the same fundamental building blocks: digital and analog I/O, timers, serial communication, PWM, interrupts, and power management. Learning these concepts within the Arduino framework builds skills that transfer easily across platforms and scale toward more advanced applications. By exploring multiple boards while maintaining a consistent programming approach, this book helps you progress from simple experiments to confidently produce well-structured designs—showing that embedded development can be both practical and enjoyable.

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OWON VDS1022I 2-channel USB oscilloscope (25 MHz) is a oscilloscope for use with a computer. It is powered by USB and has a small size, making it easy to take it with you. The oscilloscope is very economical. It has a shielded USB connection, reducing interference and protecting the computer against over-voltage. The multi port on the scope can be used for external triggering, trigger out or Pass / Fail output. Features 25 MHz bandwidth, and max 1 GS/s real-time sample rate 10M record length Friendly UI: FFT, or X-Y, and waveform 2 views displayed on the same screen Multi-trigger option: edge, video, slope, pulse, and alternate USB isolation – less signal inference, more PC protection USB bus powering, and LAN remote control (optional) Ultra-thin body design, easy portability Specifications Bandwidth 25 MHz Channel 2+1 (multi) Sample Rate 100 MSa/s Horizontal Scale (s/div) 5 ns/div～100s/div, step by 1～2～5 Record Length 5K Max Input Voltage 400 V (PK - PK) (DC+AC, PK - PK) 40 V (PK - PK) (DC+AC, PK - PK) Vertical Resolution (A/D) 8 bits (2 channels simultaneously) Model VDS1022I Vertical Sensitivity 5 mV/div～5 V/div Trigger Type Edge, Pulse, Video, Slope, and Alternate Trigger Mode Auto, Normal, and Single Acquisition Mode Sample, Peak Detect, and Average Waveform Math ＋, －, ×, ÷, invert, FFT Communication Interface USB 2.0 (isolation) Multi-function Interface Signal Type Level Standard TTL Power Supply 5.0 V/1 A Power Consumption ≤2.5 W Dimensions (W × H × D) 170 x 120 x 18 mm Weight 0.26 kg Included 1x OWON VDS1022I oscilloscope 1x CD-ROM 1x Quick start guide 2x Oscilloscope probe 1x Probe tool 1x Power adapter 1x USB cable 1x Silicone case protectors 1x Power cable Downloads Datasheet User manual SCPI protocol USB driver

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The OWON XDM1041 is a fast, high-precision digital True RMS benchtop multimeter with a high-resolution 3.5-inch LCD and 50,000 counts. Its DC voltage accuracy is up to 0.05% and it can measure up to 65 values per second. Features 3.5“ high-resolution LCD (480x320 pixels) 55000 counts, DC voltage accuracy up to 0.05% Up to 65 readings per second Dual line display supported Trend analysis accessible in chart mode AC True RMS measurements (bandwidth: 20 Hz – 1 kHz) SCPI support: Remote control the multimeter through PC software via USB port Data record function, you can record the measured data into internal memory, and then read and process the recorded data with your computer. Specifications Measurement Range Resolution Accuracy DC Voltage 50.000 mV 0.001 mV 0.1% +10 500.00 mV 0.01 mV 0.05% +5 5.0000 V 0.0001 V 0.05% +5 50.000 V 0.001 V 0.05% +5 500.00 V 0.01 V 0.1% +5 1000.0 V 0.1 V 0.1% +10 AC Voltage 500 mV～750 V 20 Hz～45 Hz 1% +30 45 Hz～65 Hz 0.5% +30 65 Hz～1 KHz 0.7% +30 DC Current 500 uA 0.01 uA 0.15% +20 5000 uA 0.1 uA 0.15% +10 50 mA 0.001 mA 0.15% +20 500 mA 0.01 mA 0.15% +10 5 A 0.0001 A 0.5% +10 10 A 0.001 A 0.5% +10 AC Current 500 uA～500 mA 20 Hz～1 KHz 0.5% +20 5 A-10 A 1.5% +20 Resistance 500 Ω 0.01 Ω 0.15% +10 5 KΩ 0.0001 KΩ 0.15% +5 50 KΩ 0.001 KΩ 0.15% +5 500 KΩ 0.01 KΩ 0.15% +5 5 MΩ 0.0001 MΩ 0.3% +5 50 MΩ 0.001 MΩ 1% +10 Frequency 10.000 Hz～60 MHz / ±(0.2% +10) Capacitance 50 nF～500 uF / 2.5% +10 5 mF～50 mF 5% +10 Diode 3.0000 V 0.0001 V / Continuity 1000 Ω 0.1 Ω Adjustable threshold Temperature K type, PT100 Max Display 55,000 counts Data-logging Function Logging Duration 15ms～9999.999s Logging Length 1,000 points Display 3.5“ TFT LCD (480x320 pixels) Power supply 230 V AC mains voltage Dimensions 200 x 88 x 150 mm Weight approx. 0.5 kg Included 1x OWON XDM1041 Multimeter 1x Power cord 2x Test leads 1x Fuse 1x USB cable 1x Manual Downloads Programming Manual PC Software

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Learn RC and RL Filters with Hands-On Circuits and Simulation Introduction to Electronic Filters is your comprehensive guide to understanding, designing, and applying first-order electronic filters using resistors, capacitors, and inductors. Whether you are a student, maker, or educator, this book demystifies the theory behind RC and RL filters and bridges the gap between concepts and real-world applications through simulation and experimentation. From the basics of frequency response and phase shift to hands-on breadboard builds and Python-based simulations, this book offers a deeply practical learning experience. You will learn to analyse filters using Bode plots and phasors, and explore applications in audio tone shaping, sensor signal conditioning, noise reduction, and power supply filtering. As you progress, you’ll build, measure, simulate, and tune filters using modern tools like CircuitLab, Python, and the Analog Discovery 3. Each chapter includes thoughtfully crafted activities that reinforce learning by doing – designing filters for specific tasks, simulating dynamic behaviour, and observing how theory translates into performance. Inside you’ll find: A clear introduction to the fundamentals of electronic filters Detailed explanations of RC and RL filters, cutoff frequency, and phase Guided activities using both simulation and hardware tools Real-life applications in audio, sensors, power supplies, and more A beginner-friendly primer on Python and algebra for electronics Whether you’re working through simulations or experimenting with real components on your workbench, this book will help you develop a solid understanding of electronic filters and their role in practical circuits.

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DIY LiPo Supercharger BundleGreatScott and Elektor's LiPo Charger, Booster, and Protector MTheCamA Simple Mini Thermal Camera Weller WE 1010Soldering Station electronica Fast Forward 2020 Winners I2S Test Signal Generator with AVR Microcontroller32-Bit 1-kHz Digital Sine, fs 192 kHz, Level Adjustable from 0 to -110 dB Control Your Home with Raspberry PiRPi snoops on 433.92 MHz Simulate Circuits Online From Life's ExperienceThe Fine Line Between Order and Chaos Starting Out in ElectronicsEasier Than imagined! Homebrew CPUsThe Discrete Microcontroller Connect Your Thermostat with ESPHomeAn Attempt at Doing Home Automation the Right Way Developer’s ZoneTips & Tricks, Best Practices and Other Useful Information Small Circuits RevivalFrom the Elektor suggestions box Raspberry Pi Full StackRPi and RF24 at the heart of a sensor network Practical ESP32 Multitasking (6)Event Groups Multi-Channel Power Analyzer: Up to 3 Channels, with Graphic and Alphanumeric Display Analogue Filter Design (Part 3)Passive Filters JOY-iT VAX-1030Wireless Measurement Module New LCR Meter 50 Hz - 2 MHz Part 2Operation, Calibration, and Firmware Programming Error AnalysisTips on Voltage Regular Circuits, PCB Design, and More The Open Hardware ObservatoryCommunity-Based Open Source Hardware Assessment Java on the Raspberry PiAn Interview with Frank Delporte Data Analysis and Artificial Intelligence in PythonInterpreting Real Data with NumPy, pandas and scikit-learn Project 2.0Corrections, Updates and Readers’ letters Getting to Know the Parallax Propeller 2 (Part 1)An Introduction Hexadoku

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