The official Raspberry Pi keyboard and hub is a standard 78-key US keyboard that includes an additional three USB 2.0 type A ports to power other peripherals. The keyboard is available in different language/country options as detailed below. 78-key US keyboard Three USB 2.0 type A ports for powering other peripherals Automatic keyboard language detection USB type A to micro USB type B cable included for connection to compatible computer Ergonomic design for comfortable use Compatible with all Raspberry Pi products
The Raspberry Pi USB-C power supply is designed specifically to power the latest Raspberry Pi 4 Model B computers.
The power supply features a USB-C cable and is available in four different models to suit different international power sockets, and in two colors.
Specifications
Output
Output voltage
+5.1 V DC
Minimum load current
0 A
Nominal load current
3.0 A
Maximum power
15.3 W
Load regulation
±5 %
Line regulation
±2 %
Ripple & noise
120 mVp-p
Rise time
100 ms maximum to regulation limits for DC outputs
Turn-on delay
3000 ms maximum at nominal input AC voltage and full load
Protection
Short circuit protectionOvercurrent protectionOver temperature protection
Efficiency
81% minimum (output current from 100%, 75%, 50%, 25%)72% minimum at 10% load
Output cable
1.5 m 18AWG
Output connector
USB Type-C
Input
Voltage range
100-240 VAC (rated)96-264 VAC (operating)
Frequency
50/60 Hz ±3 Hz
Current
0.5 A maximum
Power consumption (no load)
0.075 W maximum
Inrush current
No damage shall occur, and the input fuse shall not blow
Operating ambient temperature
0-40°C
The Raspberry Pi USB-C power supply is designed specifically to power the latest Raspberry Pi 4 Model B computers.
The power supply features a USB-C cable and is available in four different models to suit different international power sockets, and in two colors.
Specifications
Output
Output voltage
+5.1 V DC
Minimum load current
0 A
Nominal load current
3.0 A
Maximum power
15.3 W
Load regulation
±5 %
Line regulation
±2 %
Ripple & noise
120 mVp-p
Rise time
100 ms maximum to regulation limits for DC outputs
Turn-on delay
3000 ms maximum at nominal input AC voltage and full load
Protection
Short circuit protectionOvercurrent protectionOver temperature protection
Efficiency
81% minimum (output current from 100%, 75%, 50%, 25%)72% minimum at 10% load
Output cable
1.5 m 18AWG
Output connector
USB Type-C
Input
Voltage range
100-240 VAC (rated)96-264 VAC (operating)
Frequency
50/60 Hz ±3 Hz
Current
0.5 A maximum
Power consumption (no load)
0.075 W maximum
Inrush current
No damage shall occur, and the input fuse shall not blow
Operating ambient temperature
0-40°C
The OKdo E1 is an ultra-low-cost Development Board based on the NXP LPC55S69JBD100 dual-core Arm Cortex-M33 microcontroller. The E1 board is perfect for Industrial IoT, building control and automation, consumer electronics, general embedded and secure applications.
Features
Processor with Arm TrustZone, Floating Point Unit (FPU) and Memory Protection Unit (MPU)
CASPER Crypto co-processor to enable hardware acceleration for certain asymmetric cryptographic algorithms
PowerQuad Hardware Accelerator for fixed and floating point DSP functions
SRAM Physical Unclonable Function (PUF) for key generation, storage and reconstruction
PRINCE module for real-time encryption and decryption of flash data
AES-256 and SHA2 engines
Up to Nine Flexcomm interfaces. Each Flexcomm interface can be selected by software to be a USART, SPI, I²C, and I²S interface
USB 2.0 High-Speed Host/Device controller with on-chip PHY
USB 2.0 Full-Speed Host/Device controller with on-chip PHY
Up to 64 GPIOs
Secure digital input/output (SD/MMC and SDIO) card interface
Specifications
LPC55S69JBD100 640kbyte flash microcontroller
In-built CMSIS-DAP v1.0.7 debugger based on LPC11U35
Internal PLL support up to 100MHz operation, 16MHz can be mounted for full 150MHz operation.
SRAM 320kB
32kHz crystal for real-time clock
4 user switches
3-colour LED
User USB connector
2-off 16-way expansion connectors
UART over USB virtual COM port
Understanding and Using Them Effectively
What happens in electronics is invisible to the naked eye. The instrument that allows to accurately visualize electrical signals, the one through which the effects of electronics become apparent to us, is the oscilloscope.
Alas, when one first ventures into electronics, it is often without an oscilloscope. And one is left fumbling, both physically and mentally. Observing an electrical signal on a screen for the first time is a revelation. Nobody wishes to forgo that marvel again. There is no turning back.
In electronics, if one wishes to progress with both enjoyment and understanding, an oscilloscope is essential. This marks the beginning of a period of questioning: how to choose one? And no sooner is that question answered than a whole string of others arises, which can be summed up in just one: how does one use the oscilloscope in such a way that what it displays truly reflects the reality of the signals?
Rémy Mallard is a passionate communicator with a gift for making complex technical subjects understandable and engaging. In this book, he provides clear answers to essential questions about using an oscilloscope and offers a wealth of guidance to help readers explore and understand the electrical signals behind electronic systems. With his accessible style and practical insights, this book is a valuable tool for anyone eager to deepen their understanding of electronics.
Understanding and Using Them Effectively
What happens in electronics is invisible to the naked eye. The instrument that allows to accurately visualize electrical signals, the one through which the effects of electronics become apparent to us, is the oscilloscope.
Alas, when one first ventures into electronics, it is often without an oscilloscope. And one is left fumbling, both physically and mentally. Observing an electrical signal on a screen for the first time is a revelation. Nobody wishes to forgo that marvel again. There is no turning back.
In electronics, if one wishes to progress with both enjoyment and understanding, an oscilloscope is essential. This marks the beginning of a period of questioning: how to choose one? And no sooner is that question answered than a whole string of others arises, which can be summed up in just one: how does one use the oscilloscope in such a way that what it displays truly reflects the reality of the signals?
Rémy Mallard is a passionate communicator with a gift for making complex technical subjects understandable and engaging. In this book, he provides clear answers to essential questions about using an oscilloscope and offers a wealth of guidance to help readers explore and understand the electrical signals behind electronic systems. With his accessible style and practical insights, this book is a valuable tool for anyone eager to deepen their understanding of electronics.
This pair of extended 'outrigger' feet for AxiDraw V3 and AxiDraw V3 XLX consists of a pair of machined aluminum struts with large 1/2' diameter (12 mm) rubber foot pads set securely in recesses. It greatly increases the effective base area of the AxiDraw, making it much more stable when plotting, and capable of carrying heavier tools without worry of tipping over. In addition to providing a larger footprint, the outrigger feet also provide four mounting holes that make it easier to secure your AxiDraw to a surface, should you choose to do so. Each foot strut has two top-side accessible #8/M4 clearance holes. Installation is straightforward: Remove the two screws that hold the standard foot plates to the bottom of the AxiDraw, and attach these struts in their place with the included screws. Compatible with: AxiDraw V3 AxiDraw V3 XLX
The OWON VDS6000 Series PC Oscilloscope combines powerful performance with a sleek, ultra-thin design. With 100 MHz bandwidth, 1 GSa/s real-time sampling, and up to 14-bit resolution, it delivers highly accurate measurements. The built-in 5 MHz function generator, USB-C power supply, and optional WiFi connectivity make it incredibly versatile.
Compatible with Windows, Linux, Android, and iOS, the VDS6000 is perfect for labs, fieldwork, and remote diagnostics – compact, flexible, and ready for any challenge.
Features
Bandwidth: 100 MHz
Vertical resolution: 14 bits
Rise time: ≤3.5 ns
Memory: 10 Mpts
Number of channels: 2 channels + 1 channel function generator
Horizontal scale: 5ns - 100s/div
Sample rate: Max. 1 GSa/s
Maximum voltage: 40 V (peak - peak)
Automatic measurements: Vpp, Vavg, Vamp, Vrms, Freq, Period, Vmax, Vmin, Vtop, Vbase, Overshoot, Preshoot, Rise Time,
Connectivity: USB-C, LAN, Wifi (optional)
Fall Time, Delay A→B↑, Delay A→B↓, +Width, -Width, +Duty, -Duty
Bandwidth: 5 MHz
Sample rate: 25 MSa/s
Standard waveforms: Sine (0.1 Hz - 5 MHz), Square (0.1 Hz - 200 kHz), Ramp (1 Hz - 10 kHz), Pulse (1 Hz - 10 kHz)
Resolution: 10 bits
DC offset range (AC + DC): ±2.5 V
Amplitude range: 10 mVpp - 5 Vpp
Dimensions: 190 x 120 x 18 mm
Weight: 380 g
Downloads
Manual
Quick Guide
PC Software
MacOS Software
With this comprehensive complete set, you can now enter the fascinating world of electronics. In addition to an Oxocard Connect and a breadboard cartridge, it contains 96 electronic components with which you can build a variety of electronic circuits.
Features
Free and unlimited access to the nanopy.io editor with a variety of scripts that you can transfer to your Oxocard Connect at the touch of a button.
Electronics course with 15 experiments that show you step by step how to switch LEDs, connect a servo, generate acoustic signals with a piezo and much more.
Oxocard Connect
High quality microcontroller device with TFT screen, glass cover, joystick, USB-C, as well as revolutionary 16-pin cartridge slot.
The Oxocard Connect represents the next generation of small experimental computers. The universal cartridge slot allows ready-made or self-developed boards to be brought to life instantly by simply plugging them in. Each card comes with drivers and demo programs installed and automatically loaded and started when plugged in.
Breadboard Cartridge
With the Breadboard you can quickly plug in your own circuits. A plug-in board with 17 rows is available for this purpose. Connections: two analog inputs, five digital ports, I²C, SPI, GND/V3.3. access to the 5 V power source of the port. Red LEDs are attached to the digital pins. 5 V can also be injected to power the Oxocard Connect without USB.
Included
1x Oxocard Connect
1x Breadboard Cartridge
Electronic components
1x PIR-Sensor (Motion detector)
1x Thermistor 10 kΩ (Temperature sensor)
1x Photoresistor 10 kΩ (Light sensor)
1x Potentiometer
1x Mikroservo SG92R
1x Piezo (Acoustic signals)
3x LED (green, yellow, red)
2x Buttons
9x Resistances
75x Cables (angled) – various colors and lengths
A Small Basic Approach
There are many different PC programming languages available on the market. Some have beautiful names; some have easy to use development tools. Others have incredible power. They all have one thing in common: they assume that you have, or want to have, a knack for technology and difficult to read commands.
In this book we take a practical approach to programming. We assume that you simply want to write a PC program, and write it quickly. Not in a professional environment, not in order to start a new career, but for plain and simple fun... or just to get a task done.
Therefore we use Small Basic. You will have an application up and running in a matter of minutes. You will understand exactly how it works and be able to write text programs, graphical user interfaces, and advanced drivers. It is so simple; you don't even need to be an adult!
This 14-way MonoDAQ-compatible connector allows the user to create, reuse and archive test fixtures instead of rewiring the connector furnished with the MonoDAQ everytime a measurement or test has to be repeated. Helps the user to build a library of plug-and-play test setups. Features Time saving push-in connection, tools not required Defined contact force ensures that contact remains stable over the long term Intuitive use through colour coded actuation lever Operation and conductor connection from one direction enable integration into front of device All necessary technical data can be found here.
Cleaning nozzle drill kit small box containing 10 carbide PCB drills 0.8 mm all with 4 mm shaft.
Ideal for drilling small precision holes in pcb's, plastic or soft metal.
The PCW10A soldering mat is the ultimate solution for any soldering or repair project. Measuring 450 x 300 mm, this silicone mat provides a generous work surface that is heat-resistant up to 450°C, making it ideal for use with a range of (soldering) tools and equipment. It is the perfect size for your workbench and provides ample space for all your tools and components. The PCW10A soldering mat comes with several convenient features to make your repair work easier and more efficient. The built-in storage boxes provide a convenient place to keep your tools and components organized, while the powerful magnets hold small parts securely in place. These features ensure that you can work more efficiently and effectively, reducing the risk of lost or misplaced items. The PCW10A soldering mat also features a non-slip surface that provides a stable and secure work environment, preventing your equipment from slipping or sliding during use. Additionally, the mat is easy to clean, allowing you to maintain a hygienic workspace that is free of debris and other contaminants. In addition, the mat also features a printed grid to help you measure and cut materials accurately. Whether you are a professional technician or a DIY enthusiast, the PCW10A soldering mat is an essential tool for anyone who needs a reliable and durable work surface for their repair and soldering projects. With its durable construction, ample workspace, and convenient storage options, you can tackle any project with confidence and ease. Features Silica gel working mat (blue) Size: 450 x 300 mm Edge thickness: 6.5 mm Various magnetic sections 3 storage boxes Heat-resistant 450°C
The PeakTech 1094 two-pole voltage tester is a reliable and practical tool for measuring voltages up to 400 V. It uses LED indicators to display voltage levels at 12 V, 24 V, 50 V, 120 V, 240 V, and 400 V. The device supports both AC and DC voltage measurements and automatically detects and displays polarity when measuring DC voltages – no manual switching between AC and DC is required.
This tester operates without batteries, ensuring it is always ready for use, even after extended periods of inactivity. With its IP54 protection rating, the PeakTech 1094 is robust and resistant to dust and splashing water, making it suitable for use in both indoor and outdoor environments.
Specifications
DC Voltage (max.)
400 V
AC Voltage (max.)
400 V
Over voltage category
CAT III 400 V
Accuracy
-30% to 0% of the measured value
Voltage test
Automatically
Polarity check
Entire measuring range
Range selection
Automatically
Response time
<0.1s
AC Voltage frequency range
50/60 Hz
Dimensions
223 x 40 x 32 mm
Weight
95 g
Downloads
Manual
The AxiDraw's pen holder normally holds a pen (or other instrument) either vertically or at 45° from vertical. The Pen clip rotation stage is a lightweight adapter allows you to mount the instrument at arbitrary angles, and fine-tune that angle over a range of 90 degrees with a precision of 1 degree.This adapter is not normally needed in general writing and drawing usage. However certain precision applications of the AxiDraw – particularly those using the AxiDraw as a general purpose XY motion control stage – may find this to be helpful. Some users have also found it useful for fine-tuning the angle that a pen is mounted at when using italic or chisel-tip pens in combination with the Italic pen adapter.You can attach the rotation stage to the front face of the AxiDraw in two orientations, vertical or at 45° from vertical. These orientations, along with the 90°adjustment range, allow you to either adjust between vertical and horizontal, or between vertical and ±45° from vertical. Two small thumbscrews and an engraved bezel allow you to make adjustments and set the angle.Specifications
Material: Anodized 6061-T6 aluminum
Size: Outer radius 64 mm, height 48 mm, thickness 4.6 mm (excluding mounting hardware)
Weight: Approximately 11 g
Mounting hardware: included (2 each M3 flat head cap screws, M2 socket cap screws w/washers, 1.5 mm hex wrench)
CompatibilityThis adapter is compatible only with AxiDraw V3 family pen plotters that mount the pen on a 2-hole vertical slide. This includes all AxiDraw SE/A3, AxiDraw V3/A3 and AxiDraw V3 XLX units, and all AxiDraw V3 units manufactured after February 2017.
A low-power, open source, 2.7-inch IoT display powered by an ESP32-S2 module and featuring SHARP's Memory-in-Pixel (MiP) screen technology
The Newt is a battery-powered, always-on, wall-mountable display that can go online to retrieve weather, calendars, sports scores, to-do lists, quotes…really anything on the Internet! It is powered by an ESP32-S2 microcontroller that you can program with Arduino, CircuitPython, MicroPython, or ESP-IDF. It's perfect for makers:
Sharp’s Memory-in-Pixel (MiP) technology avoids the slow refresh times associated with E-Ink displays
A real-time clock (RTC) was added to support timers and alarms
The Newt was designed with battery operation in mind; every component on the board was chosen for its ability to operate at low power.
Newt was designed to operate 'untethered,' which means it can be mounted in places where a power cord would be inconvenient, for example a wall, refrigerator, mirror, or dry-erase board. With the optional stand, desks, shelves, and nightstands are also good options.
Newt is open source, and all design files and libraries are available for review, use, and modification. However, doing that is not required. Each Newt is delivered with working code with the following features:
Current weather details
Hourly and daily weather forecast
Alarm
Timer
Inspirational quotes
Air-quality forecast
Habit calendar
Pomodoro timer
Oblique Strategy cards
Only following the Wi-Fi provisioning instructions is needed to get started. No app downloads are required.
Specifications
Display
Sharp Memory LCD
Screen Size
2.7 inch
Resolution
240 x 400
Deep Sleep Current
30 uA
Refresh Rate
< 0.001 s
Periodic Screen Refresh Required
No
Input Buttons
10 capacitive pads, 1 push button
RTC included
Yes
Speaker included
Yes
Power Input
USB Type-C
Battery included
No
Programming Languages
Arduino, CircuitPython, ESP IDF, MicroPython
Dimensions
91 x 61 x 9 mm
Microcontroller
Espressif ESP32-S2-WROVER Module with 4 MB flash and 2 MB PSRAM
Wi-Fi capable
Supports Arduino, MicroPython, CircuitPython, and ESP-IDF
Deep sleep current as low as 25 μA
Display
2.7-inch, 240 x 400 pixel MiP LCD
Capable of delivering high-contrast, high-resolution, low-latency content with ultra-low power consumption
Reflective mode leverages ambient light to eliminate the need for a backlight
Time Keeping, Timers, and Alarms
Micro Crystal RV-3028-C7 RTC
Optimized for extreme low-power consumption (45 μA)
Able to simultaneously manage a periodic timer, a countdown timer, and an alarm
Hardware interrupt for timers and alarms
43 bytes of non-volatile user memory, 2 bytes of user RAM
Separate UNIX time counter
Buzzer
Speaker/buzzer with mini class-D amplifier on DAC output A0 can play tones or lo-fi audio clips
User Input
Power switch
Two programmable tactile buttons for Reset and Boot
10 capacitive touchpads
Power
Newt is designed to operate for one to two months between charges using a 500 mAH LiPo battery. The exact run time varies. (Heavy Wi-Fi use, in particular, will reduce battery charge more quickly.)
USB Type-C connector for programming, power, and charging
Low-quiescence voltage regulator (TOREX XC6220) that can output 1 A of current and operate as low as 8 μA.
JST connector for a Lithium-Ion battery
Battery-charging circuity (MCP73831)
Low-battery indicator (1 μA quiescence current)
Software
Newt hardware is compatible with open-source Arduino libraries for ESP32-S2, Adafruit GFX (fonts), Adafruit Sharp Memory Display (display writing), and RTC RV-3028-C7 (RTC)
Arduino libraries and sample programs are under development and will be available in our GitHub repository before launch
CircuitPython libraries and registration are on the roadmap, with the development of a CircuitPython library for the RV-3028 real-time clock as a key dependency
Included
Phambili Newt – Fully assembled with pre-loaded firmware
Laser-cut desktop stand
Mini-magnet feet
Required screws
Support & Documentation
Full instructions for use
GitHub: Arduino Library and Codebase
GitHub: Board schematics
Videos of prototypes or demos (build tracked on Hackaday)
Features Compatible with Raspberry Pi 4 only
Cutout in lid for 40x30mm heatsink or Fan SHIM
Super-slimline profile Fully HAT-compatible Protects your beloved Pi Clear top and base leave Raspberry Pi 4 visible GPIO cut-out Handy laser-etched port labels Leaves all ports accessible Made from lightweight, high-quality, cast acrylic Great for hacking and tinkering! Made in Sheffield, UK Weighing just over 50 grams, the case is lightweight and ideal for mounting to any surface. No tools are required for assembly or disassembly. The dimensions are: 99 × 66 × 15 mm. In the video below you can see a quick assembly guide.
The software simulation of gauges, control-knobs, meters and indicators which behave just like real hardware components on a PC’s screen is known as virtual instrumentation.
In this book, the Delphi program is used to create these mimics and PIC based external sensors are connected via a USB/RS232 converter communication link to a PC.
Detailed case studies in this Book include a virtual compass displayed on the PC’s screen, a virtual digital storage oscilloscope, virtual -50 to +125 degree C thermometer, and FFT sound analyser, a joystick mouse and many examples detailing virtual instrumentation Delphi components. Arizona’s embedded microcontrollers – the PIC's are used in the projects and include PIC16F84A, PIC16C71, DSPIC30F6012A, PIC16F877, PIC12F629 and the PIC16F887. Much use is made of Microchip’s 44 pin development board (a virtual instrument ‘engine)’, equipped with a PIC16F887 with an onboard potentiometer in conjunction with the PIC’s ADC to simulate the generation of a variable voltage from a sensor/transducer, a UART to enable PC RS232 communications and a bank of 8 LED's to monitor received data is also equipped with an ISP connector to which the ‘PICKIT 2’ programmer may easily be connected.
Full source code examples are provided both for several different PIC’s, both in assembler and C, together with the Pascal code for the Delphi programs which use different 3rd party Delphi virtual components.
in 10 captivating lessons
Using the lessons in this book you learn how to program a microcontroller. You’ll be using JAL, a free but extremely powerful programming language for PIC microcontrollers, which enjoys great popularity in the hobby world. Starting out from scratch virtually, you slowly build up the knowledge. No previous knowledge is needed: anyone can get started with this book. Assuming you have absorbed all lessons – meaning you have actually completed all the exercises – you should be confident to write PIC microcontroller programs, as well as read and understand programs written by other people.
JAL commands
You learn the function of JAL commands such as include, pin, delay, forever loop, while loop, case, exit loop, repeat until, if then, as well as the use of functions, procedures and timer- and port interrupts.
JAL programs
You make an LED blink, build a time switch, measure a potentiometer’s wiper position, produce sounds, suppress contact bounce, and control the brightness of an LED. And of course you learn to debug, meaning: how to spot and fix errors in your programs.
Hardware
You learn to recognize various components including the PIC microcontroller, potentiometer and quartz crystal, and how to wire up a PIC microcontroller and effectively link it to your PC. A breadboard is used for the purpose, allowing you to easily modify the component arrangement for further experimenting.
The companion software with this book can be downloaded free of charge, including the JAL programming language. In addition, you may order a kit of parts so you don’t have to go shopping for the required components. Especially for a beginner, this is the easiest way to start with this unique pastime.
Having finished this book does not mean you are through with your pastime. You can get your hands dirty again, and if desired use other books packed with fun projects using the JAL programming language. More information may be found at the end of the lessons in the chapter "Done! What’s next?""
Turn your Raspberry Pi into a retro games console! Picade X HAT includes joystick and button inputs, a 3 W I²S DAC/amplifier, and soft power switch. This HAT has all the same great features as the original Picade HAT but now has no-fuss female Dupont connectors to hook up your joystick and buttons. Simply pop Picade X HAT onto your Pi, plug a USB-C power supply into the connector on the HAT (it back-powers your Pi through the GPIO, so no need for a separate power supply), wire up your controls, and install the driver! It's ideal for your own DIY arcade cabinet builds, or for interfaces that need big, colourful buttons and sound. Features I²S audio DAC with 3 W amplifier (mono) and push-fit terminals Safe power on/off system with tactile power button and LED USB-C connector for power (back-powers your Pi) 4-way digital joystick inputs 6x player button inputs 4x utility button inputs 1x soft power switch input 1x power LED output Plasma button connector Breakout pins for power, I²C, and 2 additional buttons Picade X HAT pinout Compatible with all 40-pin Raspberry Pi models The I²S DAC blends both channels of digital audio from the Raspberry Pi into a single mono output. This is then passed through a 3 W amplifier to power a connected speaker. The board also features a soft power switch that allows you turn your Pi on and off safely without risk of SD card corruption. Tap the connected button to start up, and press and hold it for 3 seconds to fully shutdown and disconnect power. Software/Installation Open a terminal and type curl https://get.pimoroni.com/picadehat | bash to run the installer. You'll need to reboot once the installation is complete, if it doesn't prompt you to do so. The software does not support Raspbian Wheezy Notes With USB-C power connected through Picade X HAT you'll need either to tap the connected power button or the button marked 'switch' on the HAT to power on your Pi.
This PiCAN 2 board provides CAN-Bus capability for the Raspberry Pi 2/3. It uses the Microchip MCP2515 CAN controller with MCP2551 CAN transceiver. Connection are made via DB9 or 3-way screw terminal. This board includes a switch mode power suppler that powers the Raspberry Pi is well.
Easy to install SocketCAN driver. Programming can be done in C or Python.
Not suitable for Raspberry Pi 4, please use PiCAN 3 instead.
Features
CAN v2.0B at 1 Mb/s
High speed SPI Interface (10 MHz)
Standard and extended data and remote frames
CAN connection via standard 9-way sub-D connector or screw terminal
Compatible with OBDII cable
Solder bridge to set different configuration for DB9 connector
120Ω terminator ready
Serial LCD ready
LED indicator
Foot print for two mini push buttons
Four fixing holes, comply with Pi Hat standard
SocketCAN driver, appears as can0 to application
Interrupt RX on GPIO25
5 V/1 A SMPS to power Raspberry Pi and accessories from DB9 or screw terminal
Reverse polarity protection
High efficiency switch mode design
6-20 V input range
Optional fixing screws – select at bottom of this webpage
Downloads
User guide
Schematic Rev B
Writing your own program in Python
Python3 examples in Github