The Challenger RP2040 WiFi is a small embedded computer equipped with a WiFi module, in the popular Adafruit Feather form factor. It is based on an RP2040 microcontroller chip from the Raspberry Pi Foundation which is a dual-core Cortex-M0 that can run on a clock up to 133 MHz. The RP2040 is paired with a 8 MB high-speed flash capable of supplying data up to the max speed. The flash memory can be used both to store instructions for the microcontroller as well as data in a file system and having a file system available makes it easy to store data in a structured and easy to program approach. The device can be powered from a Lithium Polymer battery connected through a standard 2.0 mm connector on the side of the board. An internal battery charging circuit allows you to charge your battery safely and quickly. The device is shipped with a programming resistor that sets the charging current to 250 mA. This resistor can be exchanged by the user to either increase or decrease the charging current, depending on the battery that is being used. The WiFi section on this board is based on the Espressif ESP8285 chip which basically is a ESP8266 with 1 MB flash memory integrated onto the chip making it a complete WiFi only requiring very few external components. The ESP8285 is connected to the microcontroller using a UART channel and the operation is controlled using a set of standardized AT-commands. Specifications Microcontroller RP2040 from Raspberry Pi (133 MHz dual-core Cortex-M0) SPI One SPI channel configured I²C One I²C channel configured UART One UART channel configured (second UART is for the WiFi chip) Analog inputs 4 analog input channels WLAN controller ESP8285 from Espressif (160 MHz single-core Tensilica L106) Flash memory 8 MByte, 133 MHz SRAM memory 264 KByte (divided into 6 banks) USB 2.0 controller Up to 12 MBit/s full speed (integrated USB 1.1 PHY) JST Battery connector 2.0 mm pitch Onboard LiPo charger 250 mA standard charge current Onboard NeoPixel LED RGB LED Dimensions 51 x 23 x 3,2 mm Weight 9 g Downloads Datasheet Design files Product errata
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 !
Le langage de programmation Python est apprécié par les pédagogues parce que sa syntaxe le rend facile à comprendre. Il s'est également imposé chez les informaticiens expérimentés. La société Adafruit a développé une version spéciale de Python pour l'embarquer sur les microcontrôleurs à 32 bits : CircuitPython.
Ce livre permettra au lecteur de s'initier à la programmation en CircuitPython sur deux cartes : Feather BlueFruit Sense (également appelée Feather nRF52840 Sense) et CLUE nRF52840 Express. Chacune est animée par le SoC nRF52840 de NORDIC avec une architecture à 32 bits.
Pour ce voyage dans le monde de la programmation embarquée, l'auteur sort du chemin classique, à savoir un cours complet sur la programmation orientée objet appliquée à ce langage. Il préfère emmener le lecteur directement sur le terrain avec des projets qui mettent en oeuvre les cartes et différents périphériques. Plus d'une quarantaine d'exemples et de montages permettent de découvrir la richesse de CircuitPython. Toutefois l'auteur s'est imposé une limite pour ne pas décourager les novices : le code de chaque projet ne dépasse jamais la centaine de lignes. Pour ce qui est du matériel, là aussi la simplicité domine : aucun programmateur, un simple PC suffit ; aucun soudage grâce au câblage sur platine d'essai. Les cartes d'extension FeatherWing à enficher sur la Feather nRF52840 Sense permettent de démultiplier ses fonctions : matrice de LED, enregistreur de données, écran à encre électronique, écran OLED, écran TFT, commande de moteurs, audio, relais…
Toutes les étapes (assemblage des différents composants, installation des bibliothèques requises, programmation, tests…) sont expliquées en détail. Le code des différents exemples et projets est disponible sur Github. Le résultat de chaque projet est même présenté sur de courtes vidéos disponibles sur YouTube.
À la fin de sa lecture, le nouveau Pythonien pourra facilement approfondir les notions abordées et donner vie à ses propres projets grâce aux outils qu'il aura essayés.
Ce livre s'adresse aux lycéens et étudiants ainsi qu'à toute la communauté des makers.
Chaîne YouTube de l'auteur
YouTube (Michaël Bottin)
Ready to explore the world around you? By attaching the Sense HAT to your Raspberry Pi, you can quickly and easily develop a variety of creative applications, useful experiments, and exciting games.
The Sense HAT contains several helpful environmental sensors: temperature, humidity, pressure, accelerometer, magnetometer, and gyroscope. Additionally, an 8x8 LED matrix is provided with RGB LEDs, which can be used to display multi-color scrolling or fixed information, such as the sensor data. Use the small onboard joystick for games or applications that require user input. In Innovate with Sense HAT for Raspberry Pi, Dr. Dogan Ibrahim explains how to use the Sense HAT in Raspberry Pi Zero W-based projects. Using simple terms, he details how to incorporate the Sense HAT board in interesting visual and sensor-based projects. You can complete all the projects with other Raspberry Pi models without any modifications.
Exploring with Sense HAT for Raspberry Pi includes projects featuring external hardware components in addition to the Sense HAT board. You will learn to connect the Sense HAT board to the Raspberry Pi using jumper wires so that some of the GPIO ports are free to be interfaced to external components, such as to buzzers, relays, LEDs, LCDs, motors, and other sensors.
The book includes full program listings and detailed project descriptions. Complete circuit diagrams of the projects using external components are given where necessary. All the projects were developed using the latest version of the Python 3 programming language. You can easily download projects from the book’s web page. Let’s start exploring with Sense HAT.
Ready to explore the world around you? By attaching the Sense HAT to your Raspberry Pi, you can quickly and easily develop a variety of creative applications, useful experiments, and exciting games.
The Sense HAT contains several helpful environmental sensors: temperature, humidity, pressure, accelerometer, magnetometer, and gyroscope. Additionally, an 8x8 LED matrix is provided with RGB LEDs, which can be used to display multi-color scrolling or fixed information, such as the sensor data. Use the small onboard joystick for games or applications that require user input. In Innovate with Sense HAT for Raspberry Pi, Dr. Dogan Ibrahim explains how to use the Sense HAT in Raspberry Pi Zero W-based projects. Using simple terms, he details how to incorporate the Sense HAT board in interesting visual and sensor-based projects. You can complete all the projects with other Raspberry Pi models without any modifications.
Exploring with Sense HAT for Raspberry Pi includes projects featuring external hardware components in addition to the Sense HAT board. You will learn to connect the Sense HAT board to the Raspberry Pi using jumper wires so that some of the GPIO ports are free to be interfaced to external components, such as to buzzers, relays, LEDs, LCDs, motors, and other sensors.
The book includes full program listings and detailed project descriptions. Complete circuit diagrams of the projects using external components are given where necessary. All the projects were developed using the latest version of the Python 3 programming language. You can easily download projects from the book’s web page. Let’s start exploring with Sense HAT.
An Introduction to RISC-V
RISC-V is an Instruction Set Architecture (ISA) that is both free and open. This means that the RISC-V ISA itself does not require a licensing fee, although individual implementations may do so. The RISC-V ISA is curated by a non-profit foundation with no commercial interest in products or services that use it, and it is possible for anyone to submit contributions to the RISC-V specifications. The RISC-V ISA is suitable for applications ranging from embedded microcontrollers to supercomputers.
This book will first describe the 32-bit RISC-V ISA, including both the base instruction set as well as the majority of the currently-defined extensions. The book will then describe, in detail, an open-source implementation of the ISA that is intended for embedded control applications. This implementation includes the base instruction set as well as a number of standard extensions.
After the description of the CPU design is complete the design is expanded to include memory and some simple I/O. The resulting microcontroller will then be implemented in an affordable FPGA development board (available from Elektor) along with a simple software application so that the reader can investigate the finished design.
The Intelligent Digital Thermostat Temperature Controller is a small switch controller (77x51mm) which allows you to create your own thermostat. With its NTC Sensor and its LED displays, you are able to switch up to 10A 220V depending on the measured temperature.
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.
Dit boek is bedoeld voor diegenen die zich bezig houden met geluidsversterking en geluidsdistributie. Het gaat in op de akoestische eigenschappen van open, halfopen en omsloten ruimten. Belangrijk is hoe luidsprekers aangepast kunnen worden op allerlei omgevingen. Meestal moet men een keuze maken uit het aanbod van luidsprekers en microfoons. De vraag is dan welke luidspreker en microfoon de juiste keuze zijn. En hoe deze moeten worden opgesteld waarbij spraak- en muziekverstaanbaarheid en de maximaal haalbare versterking in de live-situatie de belangrijkste criteria zijn. Dit boek geeft antwoord op die vragen.Verder wordt de lezer meegenomen naar het ontwerpen van luidsprekers op basis van de T/S parameters. Met eenvoudige software is het mogelijk akoestische en mechanische elementen van een luidspreker met de eventuele behuizing te vertalen naar de elektrische analogieën, zodat de luidspreker op de PC gesimuleerd kan worden. Aan de hand van rekenvoorbeelden worden bovenstaande simulaties ondersteund. Tot slot zijn in de referentielijst een aantal internetlinks opgenomen waaruit zeer waardevolle gegevens gehaald kunnen worden.De auteur, Peter Swarte, is natuurkundig ingenieur en was werkzaam bij Philips. Momenteel is hij_eigenaar van consultancy bureau P.A.S. Electro Acoustics en is hij actief lid van zowel het NAG (Nederlands Akoestisch Genootschap) als de AES (Audio Engineering Society).
This book is aimed at practising engineers, students and hobbyists. It is intended as a source of reference for hardware and software associated with instrumentation and control engineering. Examples are presented from a range of industries and applications.
Throughout the book, circuit diagrams and software listings are described, typical of many measurement and control applications. The hardware and software designs may be used as a basis for application by the reader.
The book contains examples of PIC, PLC, PAC and PC programming. All code samples are available to download free of charge from the support website.
After an introductory section on control theory and modelling, the text focus is upon software for control system simulation and implementation, with appropriate reference to interfacing, electronic hardware and computing platforms.
Introduction to Control Engineering is a sourcebook of solutions for control system applications!
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.
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.
In 35 Projects with the Raspberry Pi and Arduino
The Internet of Things (IoT) is a trend with a strong technological impulse. At home, we want to do everything on our tablets, from browsing Facebook to watching TV, from operating lights to keeping an eye on the temperature.
In 35 fun projects, this book will show you how to build your own Internet of Things system. We'll cover the hardware (primarily the Raspberry Pi and Arduino) and the software that makes control via Internet possible. We employ Wi-Fi and radio links so no requirement any longer to install cabling crisscross through your home.
Assuming the projects in the book are finished, you have a complete Internet of Things system that allows you to control and view of everything in your home. For example, if there's something in the mail box or the car is securely in the garage. Also, you can switch on the lights and the alarm from your couch. The crisp explanations allow the projects to be customized with ease, for example, to turn on your coffee machine or TV remotely. The index gives easy access to creative projects that can serve as an example, enabling you to do all the connecting to the IoT independently. All project software can be downloaded free of charge from the Elektor website.
In this unique book, Raspberry Pi, Arduino and HTML webpages with stylesheets and JavaScript come together in clearly-described, easy-to-build projects. This special book is an essential part of your collection!
There are many so-called 'Arduino compatible' platforms on the market. The ESP8266 – in the form of the WeMos D1 Mini Pro – is one that really stands out. This device includes WiFi Internet access and the option of a flash file system using up to 16 MB of external flash memory. Furthermore, there are ample in/output pins (though only one analogue input), PWM, I²C, and one-wire. Needless to say, you are easily able to construct many small IoT devices!
This book contains the following builds:
A colourful smart home accessory
refrigerator controller
230 V power monitor
door lock monitor
and some further spin-off devices.
All builds are documented together with relevant background information for further study. For your convenience, there is a small PCB for most of the designs; you can also use a perf board. You don’t need to be an expert but the minimum recommended essentials include basic experience with a PC, software, and hardware, including the ability to surf the Internet and assemble PCBs.
And of course: A handle was kept on development costs. All custom software for the IoT devices and PCB layouts are available for free download from at Elektor.com.
TapNLink modules provide wireless interfaces for linking electronic systems to mobile devices and the Cloud. TapNLink connects directly to the target system's microcontroller. It integrates into and is powered by the target system. All TapNLink products are easily configured to control access by different types of users to data in the target system.TapNLink facilitates rapid creation of Human Machine Interfaces (HMI) that run on Android, iOS and Windows mobiles. HMI apps are easily customized for different users and can be deployed and updated to keep pace with evolving system requirements and user needs.TapNLink Wi-Fi modules can also be configured to connect the target system permanently to a wireless network and the Cloud. This enables permanent logging of target system data and alarms.Features
Wireless Channels
Wi-Fi 802.11b/g/n
Bluetooth Low Energy (BLE 4.2)
Near Field Communication (NFC) Type5 tag (ISO/IEC 15693)
Supported Target Connections: Connects on 2 GPIO of the target microcontroller and supports:
Serial interface with Software Secure Serial Port (S3P) protocol
Serial interface with ARM SWD debug protocol.
UART with Modbus protocol
Mobile Platform Support
HTML5 web apps (Android, iOS)
API for Cordova (Android, iOS, Windows 10)
Java (Android, iOS native)
Auto-app generator for Android and iOS mobiles
Security
Configurable access profiles
Configurable, encrypted passwords
AES-128/256 module-level data encryption
Configurable secure pairing with NFC
Dimensions: 38 mm x 28 mm x 3 mm
Electrical Characteristics
Input voltage: 2.3V to 3.6 V
Low power consumption:
Standby: 100 µA
NFC Tx/Rx: 7 mA
Wi-Fi Rx: 110 mA
Wi-Fi Tx : 280 mA (802.11b)
Temperature Range: -20°C - +55°C
Compliance
CE (Europe), FCC (USA), IC (Canada)
REACH
RoHS
WEEE
Ordering Information
Base Part Number: TnL-FIW103
MOQ: 20 modules
TapNLink modules pre-qualified, pre-programmed and ready to configure.
IoTize Studio configuration and testing software
Software for HMI on mobile devices (iOS, Android, Windows 10)
IoTize Cloud MQTT infrastructure (open source)
For more information, check out the datasheet here.
Deze buitenantenne van glasvezel is geoptimaliseerd voor het ontvangen van signalen in de 868 MHz ISM-band en ondersteunt technologieën zoals Sigfox, LoRa, Mesh Networks en Helium. De antenne bestaat uit een halvegolfdipool met een versterking van 4,4 dBi, ingekapseld in een glasvezelradome met een aluminium montagebasis.
Specificaties
Frequentie
868-870 MHz
Antennetype
Dipool 1/2 golf
Connector
N vrouwelijk
Installatietype
Mastdiameter 35-60 mm (montagebeugel meegeleverd)
Winst
4,4 dBi
SWR
≤1,5
Type polarisatie
Verticaal
Maximaal vermogen
10 W
Impedantie
50 Ohm
Afmetingen
52,5 cm
Buisdiameter
26 mm
Basisantenne
32 mm
Bedrijfstemperatuur
−30°C tot +60°C
Inbegrepen
ISM-bandantenne (868 MHz)
Mastbeugel (voor installatie op een mast met een diameter van 35 tot 60 mm)
The AxiDraw's pen holder normally holds the pen parallel to the front face of the vertical pen slide, either vertically or at 45° from vertical. This heavy-gauge aluminum adapter sits between the front face of the vertical slide and the pen clip, and serves to rotate the pen tip an additional 45°, not from vertical but out from parallel to the front face of the vertical slide. This gives the AxiDraw the ability to hold a pen in a 'right handed' grip, as opposed to the normal 'center-handed' (for lack of a better description) position. The right-handed grip makes it possible to hold the pen at a consistent angle suitable for use with regular pens, but also stub, italic, parallel, and chisel-point pens. Compatibility This adapter is compatible only with AxiDraw V3 family pen plotters that mount the pen on a 2-hole vertical slide. This includes all AxiDraw V3/A3 and AxiDraw V3 XLX units, and all AxiDraw V3 units manufactured after February 2017.
I²C is ubiquitous, you can find it in your phone, in embedded electronics, in all microcontrollers, Raspberry Pi and computer motherboards. It's applicable in a wide variety of cases, but the only downside is that it might be difficult to learn using it properly and to avoid painful debugging.This device makes it easier for you to understand what's going on inside, as I²CDriver has a clear logic-analyzer display of the signal lines plus a graphical decoding of the I²C traffic.In addition, it continuously displays an address map of all attached I²C devices, so as you connect a device, it lights up on the map.The current and voltage monitoring let you catch electrical problems early. The included color-coded wires make hookup quite easy; no pinout diagram is required. It includes a separate 3.3 V supply for your devices, a high-side current meter, and programmable pullup resistors for both I²C lines.Thanks to 3 I²C ports you can hook up multiple devices simultaneously without any effort. I²CDriver comes with software to control it from:
a GUI
the command-line
C and C++ using a single source file
Python 2 and 3, using a module
You can control I²C hardware using the PC tools you’re familiar with and reduce the development time needed to get the device doing what you want it to.Calibrating devices like accelerometers, magnetometers, and gyroscopes is much simpler and faster when done directly on the PC through I²CDriver.Moreover, the built in display shows a heatmap of all active network nodes. So in an I²C network with multiple devices, you can see at a glance which ones are the most active.I²CDriver can dump all I²C traffic back to the PC. I²CDriver’s capture mode reliably records every bit to an exhaustive time-stamped log. This is really helpful for debug, analysis, and reverse-engineering. Supported formats include text, CSV, and VCD.Features
Open hardware: the design, firmware and all tools are under BSD license
Live display: shows you exactly what it’s doing all the time
Fast transfer: sustained I²C transfers at 400 and 100 kHz
USB power monitoring: USB line voltage monitor to detect supply problems, to 0.01 V
Target power monitoring: target device high-side current measurement, to 5 mA
I²C pullups: programmable I²C pullup resistors, with automatic tuning
Three I²C ports: three identical I²C ports, each with power and I²C signals
Jumpers: color coded jumpers included in each pledge level
3.3 output: output levels are 3.3 V, all are 5 V tolerant
Supports all I²C features: 7- and 10-bit I²C addressing, clock stretching, bus arbitration
Sturdy componentry: uses an FTDI USB serial adapter, and Silicon Labs automotive-grade EFM8 controller
Usage reporting: reports uptime, temperature, and running CRC of all traffic
Flexible control: GUI, command-line, C/C++, and Python 2/3 host software provided for Windows, Mac, and Linux
Details
Maximum power out current: up to 470 mA
Device current: up to 25 mA
Dimensions: 61 mm x 49 mm x 6 mm
Computer interface: USB 2.0, micro USB connector
Contents (I²CDriver Core)
1x I²CDriver
3x Set of hookup jumpers
De JLINK V9 Arm USB-JTAG emulator/debugger is een krachtige en betrouwbare tool voor het programmeren en debuggen van ARM Cortex-M, Cortex-A/R en andere ondersteunde microcontrollers via JTAG- en SWD-interfaces.
Kenmerken
Universele compatibiliteit: Ondersteunt een breed scala aan ARM-gebaseerde MCU's en cores, waaronder Cortex-M0, M3, M4, M7, A5, A7, A9 en R4.
Hoge snelheid: Snelle gegevensdoorvoer voor zowel flashprogrammering als realtime debuggen met minimale latentie.
Ondersteuning voor meerdere interfaces: Biedt zowel JTAG- als SWD-modi, wat flexibel gebruik in verschillende ontwikkelomgevingen mogelijk maakt.
Plug & Play via USB: Eenvoudige aansluiting op uw pc met USB 2.0-interface; Geen externe voeding nodig.
Robuuste softwareondersteuning: volledig compatibel met SEGGER J-Link-softwaretools en ondersteund door belangrijke IDE's, waaronder Keil MDK, IAR EWARM, SEGGER Embedded Studio en andere.
Inbegrepen
1x JLINK V9 USB-JTAG Arm emulator/debugger
1x USB-kabel
1x Verbindingskabel
Dit display komt overeen met de Nokia 5110 norm waardoor het prima geschikt is om gegevens of grafieken van meetwaarden weer te geven via een microcontroller of een single-board computer. Bovendien is het display compatibel met alle Raspberry Pi, Arduino, CubieBoard, Banana Pi en microcontroller zonder extra handelingen. Specificaties Chipset Philips PCD8544 Interface SPI Resolutie 84 x 48 Pixels Voeding 2.7-3.3 V Speciale kenmerken Backlight Compatibel met Raspberry Pi, Arduino, CubieBoard, Banana Pi en microcontroller Afmetingen 45 x 45 x 14 mm Gewicht 14 g
This aluminium-based Armor Case is perfect for your Raspberry Pi 4 if it gets hot, as this protects it against shocks and heat equally. Channel milling combined with dual fans offers best cooling performance. That‘s why it is suitable for extreme settings. Another benefit is that this case does not need more space than the Raspberry Pi itself and can be integrated in existing projects.Features
Material: CNC milled aluminium alloy
Compatible with Raspberry Pi 4B
Assembly: 4 included screws connect the case to the Raspberry Pi
Special features: Large heat sink and dual fan each Ø24 mm, massive protection against heat and shocks, no additional space needed
Wiring: Fan 5V (Red) - 5V (Pin4), Fan GND (Black) - GND (Pin6)
Scope of delivery: Armor case “BLOCK ACTIVE”, screws, thermal tape
Size top side: 69 x 56 x 15.5 mm
Size bottom side: 87 x 56 x 7.5 mm
DownloadsManual
De JOY-iT Armor Case BLOCK is een robuuste aluminium behuizing speciaal ontworpen voor de Raspberry Pi 5. Het biedt uitstekende bescherming tegen hitte en fysieke schokken, waardoor het geschikt is voor uitdagende omgevingen. Het compacte ontwerp zorgt ervoor dat er geen extra ruimte nodig is, waardoor een naadloze integratie in bestaande projecten mogelijk is.
De behuizing is voorzien van een groot koellichaam om de koelefficiëntie te verbeteren. De installatie is eenvoudig, met vier schroeven (meegeleverd) waarmee de behuizing aan de Raspberry Pi wordt bevestigd.
Specificaties
Materiaal
CNC gefreesde aluminiumlegering
Koelprestaties
Inactief: ~39°CVolle belasting: ~75°C
Speciale kenmerken
Groot koellichaam, bescherming tegen schokken en hitte met hetzelfde volume als zonder behuizing
Afmetingen (bovenkant)
69 x 56 x 15,5 mm
Afmetingen (onderzijde)
87 x 56 x 7,5 mm
Met dit uitbreidingsbord kunt u een RS485- en een CAN-interface toevoegen aan een Raspberry Pi Pico.
Het bord biedt ook de mogelijkheid om het te bedienen via een standaard USB-C-aansluiting met 5 V of via een schroefterminal die een spanning van 6 tot 12 V accepteert. De spanning die op de schroefaansluiting wordt toegepast, wordt teruggebracht tot 5 V door een op het bord geïntegreerde spanningsomvormer.
Kenmerken
Voeding kan worden geleverd via een USB-C-aansluiting met 5 V of via een schroefterminal die tussen 6 en 12 V trekt. In het laatste geval reduceert een ingebouwde spanningsomvormer de spanning tot 5 V.
Om de veelzijdigheid en het scala aan functies te vergroten, zijn de verbindingspinnen van de Raspberry Pi Pico naar buiten geleid.
De uitbreidingskaart biedt ook de mogelijkheid tot communicatie via de RS485- en CAN-interfaces.
Specificaties
CAN-interface
SPI, CAN
RS485-interface
Serial, RS485
Voedingsspanning
5 V DC (USB-C)
Schroefaansluiting
6-12 V DC
Logisch level
3,3 V
Afsluitweerstand CAN
120 Ω (kan indien nodig worden geactiveerd en gedeactiveerd)
Afsluitweerstand RS485
120 Ω (kan indien nodig worden geactiveerd en gedeactiveerd)
The Explorer Board is the easy and efficient way to develop your Raspberry Pi Pico projects.
Since the most important components are already integrated, you save time and effort on wiring. The Explorer Board has a wide range of interface connectors so you can connect your projects to a variety of modules and devices. With the integrated breadboard, you can quickly build and realize your own projects.
Thanks to the possibility to connect or disconnect all modules individually, you can use your pins, which are additionally led separately to the outside, for other projects or experiment on the integrated breadboard at any time.
Features
Fast and efficient experimenting with the Raspberry Pi Pico
Raspberry Pi Pico can be plugged in directly
All modules can be switched on and off individually
Additional integrated breadboard for own development
Specifications
Integrated modules: 4 RGB LEDs, buzzer, relay, 1.8“ TFT display, DHT11 temperature sensor, 4 buttons, breadboard
Interfaces: 4x servo motor, SPI, I²C, UART, 5x crocodile clip connector
Power supply: 5 V USB-C
Dimensions: 219 x 110 x 27 mm
Downloads
Manual
Examples and libraries
