ARD MKR SHD CAN - Arduino MKR Shield - CAN bus

47.88 EUR
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The automotive interface is now on your Arduino MKR too! In the automotive sector, the CAN bus enables intelligent or autonomous vehicles and drones to be networked with various industrial sensors and motors.
Input voltage either 5 V via the header connector or 7 to 24 V via threaded terminal ends.
EAN: 7630049200302
Delivery Cost: 9.95 EUR
Availability: in stock
Delivery Time: 4-5 business days
Condition: new
The automotive interface is now on your Arduino MKR too! In the automotive sector, the CAN bus enables intelligent or autonomous vehicles and drones to be networked with various industrial sensors and motors.
- Controller: Microchip MCP2515
- Transceiver: NXP TJA1049
- Compatible with all MKR boards
Input voltage either 5 V via the header connector or 7 to 24 V via threaded terminal ends.
EAN: 7630049200302
Delivery Cost: 9.95 EUR
Availability: in stock
Delivery Time: 4-5 business days
Condition: new
Comparison of Similar Products

Connections
• 21 digital I/O - interfaces (13 of them with PWM)
• 7 analog inputs
• 1 analog output
• micro USB port
Technical data
• SAMD21 Cortex-M0+ 32bit low power ARM MCU
• Operating voltage: 3.3 V
• Input voltage: 5 V
• 48 MHz - crystal oscillator
• DC 7 mA (I/O)
• Flash Memory: 256 KByte
• SRAM : 32 KByte
• integrated Li-Po charging circuit
• SAMD21 Cortex-M0+ 32bit Low-Power-ARM-MCU
• NINA-W10 series from U-BLOX, Low Power 2.4 GHz IEEE® 802.11b/g/n WLAN, Bluetooth v4.2 BLE/EDR
• ECC508 Crypto-Authentication

- Air pressure
- Temperature and humidity
- UVA and UVB intensity
- Operating voltage: 3.3 V
- Communication: I²C, analog
- Built-in sensors:
- ST LPS22HB
- ST HTS221
- VISHAY TEMT6000 - dimensions (LxW): 61 x 25 mm
The measured data can be further processed as desired or stored using the built-in SD card slot.
Technical Data
Note: Sensor VISHAY VEML6075 not installed

The shield is perfect for rapid prototyping without soldering. Simply connect your sensors directly to this shield with Grove connectors.
- 14x Grove connections
- I²C and UART interface
The board offers both Single Grove and Double Grove analogue inputs

•GPS •GLONASS • Galileo
Examples of use
- For monitoring fleets or swarms
- scientific experiments at high altitude
- general localisation
The MKR GPS Shield is based on the u-blox SAM-M8Q GNSS (Global Navigation Satellite System) module. It is designed for use on MKR format boards, but thanks to its Eslov connector it can also be connected with a cable to any board with such a connector.
Technical data
- GNSS receiver: SAM-M8Q
- Connections: MKR, Eslov
- Battery: CR1216 (not included)
- Communication: Serial / I2C / DCC

Technical data
- Operating voltage: 3.3 V
- Input voltage: 7 - 12 V
- DC current for 3.3 V Pin: 700 mA
- DC Strin for 5 V Pub: 700 mA
Dimensions (LxW): 68.6 x 53.4 mm
Note
Please remember that the MKR2UNO is only a form factor adapter and therefore there is NO voltage translation. Be careful before connecting a shield, as a shield without IOREF level shifting capability may not work properly.

The Shield uses a Cinterion TX62 radio module designed for high-efficiency, low-power IoT applications and optimized bandwidth and performance.
The Shield enables the development of asset tracking and remote monitoring applications (agriculture, smart cities, utilities) combined with the powerful computing power of Portenta H7. This is a Works with Arduino product, developed by Arduino and Thales.
• add NB-IoT, CAT.M1 and positioning to Portenta.
• change connectivity capabilities without changing the board.
• reduce communication bandwidth requirements in IoT applications
• low power module
• implement a small multiprotocol gateway (H7 WiFi - BT + NB-IoT/CAT.M1)
• compatible with MKR boards and Portenta H7
Technical data
• Cinterion TX62 radio module (see data sheet)
• NB-IoT - LTE CAT.M1
• 3GPP Rel.14 compliant protocol LTE Cat. M1/NB1/NB2
• UMTS BANDS: 1 - 5 / 8 / 12 (17) / 13 / 18 - 20 / 25 - 28 / 66 / 71 / 85
• LTE Cat.M1 DL: max. 300 kbps, UL: max. 1.1 Mbps
• LTE Cat.NB1 DL: max. 27 kbps, UL: max. 63 kbit/s
• LTE Cat.NB2 DL: max. 124 kbps, UL: max. 158 kbps
• point-to-point mobile terminated (MT) and mobile originated (MO) text mode
• Protocol Data Unit (PDU) mode
• GNSS capability (GPS/BeiDou/Galileo/GLONASS)
• Embedded IPv4 and IPv6 TCP/IP stack access
• Internet services: TCP server/client, UDP client, DNS, Ping, HTTP client, FTP client, MQTT client Secure connection with TLS/DTLS Secure Boot
Possible application areas
• Remote monitoring
• industry and agriculture
• public utilities
• asset tracking
• daily life
• fleet management of industrial vehicles

- Supply voltage: 4.5 - 13.5 V DC li>
- 2 connections for 5 V servos li>
- TB6612 chipset with 1.2A per bridge li>
- Engines are automatically disabled at power up li>
- Arduino reset button li>
- Dimensions: 70 x 55 x 10 mm li> ul>


Maximum current of single-pole switch contact: 30 VDC, 2 A
Maximum load voltage: 48 V
Maximum switching capacity: 60 W

In addition, the board forwards important functions such as the status LED or the reset button, so that they remain easily accessible.
In addition, the board comes with its own terminal strip, which can be used to supply the connected devices with power. You only have to remove the jumper next to it.
Technical data
• has a power LED and a D13 display
• has a reset button
• extends the digital and analog interface to 3-pin
• has a serial communication interface
• extends the ICSP and SPI interface
• terminal block for power supply

- Incl. assembly materials
- Dimensions: 55 x 66 mm
The Raspberry Pi must be ordered separately.

CAN-BUS is a common industrial bus due to its long range, medium communication speed and high reliability. It can often be found on modern machine tools and as a vehicle diagnostic bus. Thanks to CAN-BUS, manufacturers can check their cars more conveniently. To facilitate interaction with cars, we have released the CAN-BUS Shield, which uses the MCP2515 CAN-BUS controller with SPI interface and the MCP2551 CAN transceiver to give you the ability to use Arduino/Seeeduino CAN-BUS.
Technical features
- implements CAN V2.0B with up to 1 Mb/s
- 9-pin sub-D connector according to industry standard
- OBD-II and CAN standard pin assignment selectable
- Exchangeable CS pin for TF card slot
- Screw terminal that is easy to connect CAN_H and CAN_L
- 2 slot connectors (I2C and UART)
- SPI interface up to 10 MHz
Further information about the board as well as data sheets, instructions, downloads can be found at http://wiki.seeedstudio.com/CAN-BUS_Shield_V2.0/

You can use the Arduino™ shield to control 2 DC motors or 1 stepper motor independently of each other. You can also measure each motor's power consumption and perform many other functions.
Technical data
- Operating voltage: 5 - 12 V
- Motor control: L298P, controls 2 DC motors or 1 stepper motor
- Power: 2 A per channel or max. 4 A (with external power supply)
- Current detection: 1.65 V/A
- Free-running stop and brake function

The Arduino™ Ethernet Shield 2 allows an Arduino™ board to connect to the Internet as well as read and write on a microSD card.
The shield is simply mounted on an Arduino™ board, for example on the Arduino™ Uno or since this version also on the Arduino™ Mega. Other shields can be stacked right on top of the Ethernet shield, allowing for optimum functionality integration in designs.
Connect the shield to your computer or a network hub/router via a standard Ethernet cable.
Features:
• W5500 Ethernet chip
• Slot for microSD card/card reader
• Reset controller
• RJ45 Ethernet jack
• 5 status LEDs
• Dimensions: 6.86 x 5.33 cm

The Arduino™ 9 Axes Motion Shield has been developed with Bosch using their BN0055 absolute orientation sensor as an on-board key feature. With the shield, designers can start to introduce motion sensing to projects, connecting to TinkerKit modules and Arduino™ boards such as Uno, Yun, Leonardo, Ethernet, Mega, Due and Zero Pro.
The shield is powered only when connected to an Arduino™ board.
Features
• BN0055 absolute orientation sensor
• 5 V operating voltage
• 50 mW power consumption

The included clock generator ensures a very precise PWM signal and a very precise positioning. The board has 2 inputs for voltage from 4.8V to 6V which can be used for up to 11A. With this input, a perfect power supply is always guaranteed and even bigger projects are no problem. The supply runs directly over the Motorino which provides a connection for voltage, ground and control.
With the build in capacitor, the voltage is buffered which prevents a sudden voltage-drop at a high load. But there is also the possibility to connect another capacitor. The control and the programing can be done, as usual, with the Arduino. Manuals and code examples allows a quick introduction for beginners.
Specifications
• 16 Channels , own clock generator
• Input 1: Coaxial power connector 5.5 / 2.1 mm , 4.8 ... 6 V, 5 A max.
• Input 2: Screw-terminal, 4.8 ... 6 V, 6 A max.
• compatible with Arduino Uno, Mega and may more microcontroller with Arduino compatible pinout
Scope of supply
• board
• manual
Dimensions: 69 x 24 x 56 mm

Features
• 16x2-character display
• 3 backlight pins
• 5 keypad pins
• I²C interface
Use
• Arduino Uno™, Duemilanove, Diecimilla and Mega R3

This shield is a 2-channel CAN-BUS(FD) shield for the Raspberry Pi (MCP2518FD) and supports the CAN FD protocol, as well as transmission speeds up to 8 Mbps.
Specifications
• supports CAN FD
• supports the Jetson Nano
• 8 Mbps @10 m 20 AWG shielded cable / 1 Mbps @40 m 20 AWG shielded cable
• stable power supply, selectable via Raspberry Pi or DC power supply
• ''one-button configuration'' of 120 Ohm terminating resistor
• compatible with Raspberry Pi 2/3/Zero and Raspberry Pi 4 (with latest Raspbian image)
Further information
https://wiki.seeedstudio.com/2-Channel-CAN-BUS-FD-Shield-for-Raspberry-Pi/

63.39 EUR Perfect for your next IoT projects
Create projects based on the Arduino Nano board with secure connections via screw terminals. If you need to add additional components, you can use the prototyping area.
Fast, safe and ready for additional prototyping.
• Fast and secure connection: screw terminals, perfect for solderless and reliable connections for your next IoT project.
• prototyping area in place: 8 x 9 plated-through prototyping area for additional components
• double row of headers: one row is left empty on each side of the board, with additional quick connections via jumpers
• thin headers: lower overall thickness (total thickness including the nano board is less than 15 mm)
Specifications
• Nano Screw Terminal Adapters (Pack of 3)
• screw terminals: 32 screw terminal connectors (3.5 mm pitch)
• terminal sockets: 2 double row sockets with 15 contacts each (pitch 2.54 mm)
• prototyping area: 9 x 8 grid (2.54 mm)
• dimensions (L x W): 70 x 50.5 mm

The solar charger is a stackable shield to Arduino compatible platforms, enables adaptive battery power and act as energy harvester for in-field charging. You may use various batteries that has the voltage of 3.0V-4.2V to shift up for 5V output, or put on Li-ion battery and solar panel to form an autonomous sensor unit. The maximum current provided by the board can get up to 600mA. An usb connector is also useful to charge the battery.
Features
• Output Disconnect
• Short circuit protection
• 3W Output Power when connecting battery
• Continuous Charge Current Up to 900mA
• Battery status indication ( Red : Charging , Green: Charged )
• Micro-USB Connector
Specification
• Battery input voltage: 3.0~4.5V
• USB input voltage: 4.75~5.25V
• Solar input voltage: 4.8~6V
• Maximum Output Power(with battery): 3W(600mA@5V)
• Ripple voltage:<100mV @ 500mA
• Dimensions: 68*53mm

Create projects based on the Arduino Nano board with secure connections via screw terminals. If you need to add additional components, you can use the prototyping area.
Fast, safe and ready for additional prototyping.
• fast and secure connection: screw terminals, perfect for solderless and reliable connections for your next IoT project.
• prototyping area in place: 8 x 9 plated-through prototyping area for additional components
• double row of headers: one row is left empty on each side of the board, with additional quick connections via jumpers
• thin headers: lower overall thickness (total thickness including nano board is less than 15 mm)
Specifications
• Nano Screw Terminal Adapter (1x)
• screw terminals: 32 screw terminal connectors (3.5mm pitch)
• terminal sockets: 2 double row sockets with 15 contacts each (pitch 2.54 mm)
• prototyping area: 9 x 8 pitch (2.54 mm)
• dimensions (L x W): 70 x 50.5 mm

• 3-way platform for Raspberry Pi, Arduino and the 32-bit Arm Cortex microcontroller
• Helps get the maximum from all 3 platforms
Included:
• Embedded Pi board
• 4 plastic spacers
• 26- and 10-pin flat ribbon cable


- detachable A4988 Motordriver
- compatible to GRBL 0.8
- control of up to 4 axes
- reset-button
- screw-terminals for power supply
- input voltage: 12 - 36 V
- dimensions: 53 x 68 x 18 mm

- dual-use prototype shield
- Pitch: 2.54 mm
- with stacking bar for the 2x3 ICSP pins

• compatible with all popular Raspberry Pi models (Raspberry Pi 5B excluded)
• integrates WM8960 low-power stereo CODEC, communicates via I2S interface
• integrates two high-quality MEMS silicon microphones, supports the recording of left and right dual channels
• onBoard standard 3.5 mm headphone jack, music playback via external headphones
• integrated two-channel speaker interface that drives the speakers directly
• supports sound effects such as stereo, 3D environment, etc.
Specifications
• CODEC: WM8960
• power supply: 5 V
• logic voltage: 3.3 V
• Control interface: I2C
• Audio interface: I2S
• DAC signal-to-noise ratio: 98 dB
• ADC signal-to-noise ratio: 94 dB
• Headphone driver: 40 mW (16 Ohm @ 3.3 V)
• Speaker driver: 1 W per channel (8 Ohm BTL)
Scope of delivery
1x WM8960 Audio Hut
1x 8 Ohm 5W speaker
1x RPi screw package
Documentation and downloads can be found here:
Download

The Vision Shield is supplied with a 324 x 324 pixel camera module containing an ultra low power image sensor designed for always-on vision devices and applications. The highly sensitive image sensors can capture gestures, ambient light, proximity detection and object identification.
• professional image processing
• directed audio detection
• Ethernet or LoRa (depending on shield)
• JTAG
• for Arduino Portenta
Arduino has teamed up with OpenMV to offer a free license for the OpenMV IDE, which allows an easy entry into image processing with MicroPython. With OpenMV, all professionals, researchers and developers can develop cost-effective Python-based camera vision and audio applications. With the two digital microphones integrated in all directions you can record sounds to the videos, which can be stored on a MicroSD card.
Transfer data either via Ethernet or LoRa®.
ARD SHD ASX00021 (Shield with LAN)
ARD SHD ASX00026 (Shield with LoRa)
Technical data
• Camera: Himax HM-01B0 Camera module
• resolution: 320 x 320 active pixel resolution with support for QVGA
• Image sensor: Highly sensitive 3.6-µ-BrightSenseTM pixel technology
• Microphones: 2x MP34DT06JTR
• Connection: LAN
• Interface: JTAG
• Dimensions (LxW): 66 x 25 mm
Scope of delivery
Portenta Shield with LAN function
external links
https://openmv.io/pages/download
https://www.arduino.cc/pro/tutorials/portenta-h7/por-openmv-bt

Dimensions (L x W): 61.5 x 25 mm

Libraries and instructions and examples can be found at
https://www.arduino.cc/en/guide/MKRRGBShield
Technical data
- 84 x APA102 RGB LEDs
- Input voltage: 5 V
- Operating voltage: 3.3 V
- maximum current: 2.5 A
- Interface: SPI
- Dimensions: 61,5 x 27 mm

Dimensions (L x W): 80 x 50 mm

Four Grove connectors also allow you to easily connect additional sensors.
A special hardware component (secure element) allows your application to work with Google's Cloud IOT Core. The ATECC608A cryptoprocessor can store up to 16x 256-bit keys in its EEPROM. It was integrated so that you can identify the device securely - and for example make sure that the measurement data comes from the right (own) hardware.
Sensors
• Humidity: Texas Instruments HDC2010 humidity sensor (measuring range: 0-100% at +- 2% accuracy)
• Temperature: HDC2010 (Measuring range: -40 to +125°C at +- 0.2°C accuracy)
• Brightness: Texas Instruments OPT3002 ambient light sensor (optical spectrum: 300-1000 nm, measuring range: 1.2 nW/cm² to 10 mW/cm²)
• Barometer: Bosch Sensortec BMP280 barometric pressure sensor (measuring range 300 ... 1100 hPa at +- 1hPa accuracy).
Further features
• 128 x 32 OLED display (SSD1306 controller / SPI)
• freely programmable button
• freely programmable LED
• on-board TLA2021IRUGT 12-bit ADC (analog/digital converter)
• Microchip ATECC608A crypto chip with Google keys
• 40-pin GPIO connector for Coral Dev Boards and Raspberry Pi
Grove connector
bulletpoint# UART
bulletpoint# I2C
bulletpoint# PWM
• Analog
External Links
https://coral.ai/docs/enviro-board/get-started/
https://coral.ai/docs/reference/enviro/coral.enviro.board/
Note
• factory pre-installed a Google key for use with Google Cloud IoT Core, it can be overridden if desired.

Extended 14 digital IO ports (12 servo interface) and power supply
• 6 analog IO ports and power supply
• 1 digital port for external power supply
• automatic switching between digital port and integrated external power supply
• 1 input terminal for external power supply + input pins
• RS485 interface
• reset button
• interface for xbee/Bluetooth Bee Bluetooth wireless modules
• APC220 / Bluetooth V3 interfaces for Bluetooth wireless data transmission
• IIC / I2C / TWI interfaces
• 3.3 V output connector
• interface for SD card module

Specifications
• TCS3200 chip
• Input voltage: 3.3/5 V
• 4 outputs with frequency-dependent signals (red, green, blue and clear)
• Includes 4 white LEDs for illumination of the measurement
• Dimensions (Ø x W): 37 x 19 mm

- high precision and ability to measure slight changes in load cell resistance
- integrated amplifier for signal amplification
- digital transmission of the measured values to a microcontroller
- support for load cells manufactured using Wheatstone bridge technology
- easy connection thanks to clearly marked pins on the PCB
The HX711 breakout is an essential component for precision measurement projects. The use of Wheatstone bridge technology makes it possible to connect load cells with four wires, with two wires for the power supply (E+ and E-, usually red and black) and two for the signal (A+ and A-, usually white and green). The clear marking of the pins on the PCB simplifies the connection process considerably. The digital transmission of the signals amplified by the integrated amplifier to a microcontroller such as Arduino (or a compatible board such as Dasduino) enables precise and uncomplicated conversion of the measured values into weight data. These features make the HX711 Breakout an indispensable tool for the development of scales and presence sensors in a wide range of applications.
Technical data
- ADC precision: 24-bit
- Gain: 128 for A-channel, 64 for B-channel
- Voltage: 2.7 ... 5,5 V
- Current: < 1.5 mA
- Reading speed: 10 SPS or 80 SPS - adjustable
- Dimensions: 22 x 22 mm
In summary, the HX711 Breakout's high precision and easy integration with microcontrollers such as Arduino provides an efficient solution for measurement projects requiring precise weight sensing. Its compatibility with Wheatstone bridge technology and user-friendly PCB design make it easy to use in a wide range of applications, both domestic and industrial.
External links
https://github.com/SolderedElectronics/Soldered-HX711-ADC-For-Weight-Scales-Arduino-Library
https://github.com/SolderedElectronics/Load-cell-ampfilier-HX711-board-hardware-design

For Makers who want to exploit the full potential of the STM32H7 and use all performance and service options.
Powerful microcontroller
With the STM32H7, customers have access to a dual-core microprocessor for running machine learning, sophisticated Arduino code and Micropython.
Wireless communication
Equipped with the Murata® 1DX to use WiFi 802.11 b/g/n and Bluetooth LE.
Multiple additional connections
The Giga R1 WiFi has a USB Type-A/ Type-C connector, a 3.5 mm jack, a JTAG connector, and a connector for the Arducam.
Technical specifications
• Dual Core (Cortex® M7 core at 480 MHz and Cortex® M4 at 240 MHz.
• Murata 1DX (WiFi 802.11 b/g/n, Bluetooth® Low Energy)
• 1x USB Type-A
• 1x USB Type-C
• 75 digital inputs/outputs
• 12 analog pins
• 12x PWM
• 4x UART
• 3x I2C
• 2x SP
and many more
External Links
https://docs.arduino.cc/hardware/giga-r1-wifi
https://youtu.be/Ha-qo9kc-LY

The Arduino Education Starter Kit includes all the hardware and software you need for eight students (in groups of 2). You'll get step-by-step lessons, teacher notes, exercises, and for a complete and in-depth classroom experience, there are also additional optional resources including activities, concepts, history, and interesting facts.
The online platform includes the teacher content, nine 90-minute lessons, and two open-ended group projects that teach students programming and electronics. Each lesson builds on the previous one and gives students another opportunity to apply the skills and concepts they have already learned. Students also receive a technical logbook to complete as they work through the lessons.
At the beginning of each lesson, students are given an outline, estimated completion times, and learning objectives. During each lesson, there are teacher notes and information to help the lesson run smoothly. Extension ideas are provided at the end of each lesson.
• a starter kit for 8 students (4 groups).
• usable in different languages (DE /EN /ES /IT)
• no previous knowledge required for teachers and students
• web-based step-by-step lessons
• 9x 90-minute lessons
• 2x group projects
• electronic notes for teachers
• electronic logbooks for students
• everything easily and clearly stored in boxes
Lessons
• first steps
• basics of electricity
• Ohm's law
• traffic signals
• dimmer switch
• sports robots
• windshield wipers
• musical keyboard
• light wave radar
Projects
• holiday lights
• greenhouse control system
Scope of delivery
• 4x Arduino Uno boards
• 4x multimeter
• 4x over 60 components such as capacitors, resistors, motors, buttons, sensors, plug-in boards, cables, etc.
Note
PCs, notebooks or tablets with internet connection required.
External links
https://edu-content-preview.arduino.cc/content-preview/middle_school/lesson/CONTENTPREVIEW+AESK
https://www.arduino.cc/education/edu-starter-kit

Build your own Arduino shield using the compact and flexible Proto Shield kit. Solder together a limitless range of circuits and reuse it in all your Arduino projects. A standard 0.1'' prototyping grid accepts commonly used through-hole parts and chips. You could also find a range of basic components are included to help you get started with your custom shield.
Features
• Standard Arduino compatible
• Large 0.1''*0.1'' pitch prototyping area
• A variety of through-hole sizes to fit most parts
• Arduino UART and I2C port pin breakout for easy external communications
• Dual ISP breakouts for easy programming and stacking
• 3.3 volt, 5 volt, and ground power rails are easily available anywhere on the board
• Breadboard style prototyping area
• USB type B breakout
• Basic components included (buttons, switches, LEDs, resistors, USB jack)
Packing List
• 1x Arduino compatible Proto Board
• 1x B type USB connector
• 1x 40-pin 2.54mm male long header
• 1x 40-pin 2.54mm female header
• 2x 40-pin 2.54mm male header
• 1x 40-pin 2.54mm spacer
• 3x 8-pin 2.54mm female header
• 1x 6-pin 2.54mm female header
• 1x ISP female pin header
• 1x ISP male pin header
• 1x 10k Ohm rotary potentiometer
• 4x 1k Ohm through-hole resistor
• 2x 10k Ohm through-hole resistor
• 2x 3mm Red through-hole LED
• 2x 3mm Green through-hole LED
• 1x 3mm dual color through-hole LED
• 4x Mini push button switch
• 2x DPDT switch
For all Grove users (especially beginners), we provide you guidance PDF documents. Please download and read through Preface - Getting Started and Introduction to Grove before your using of the product.

The Vision Shield is supplied with a 324 x 324 pixel camera module containing an ultra low power image sensor designed for always-on vision devices and applications. The highly sensitive image sensors can capture gestures, ambient light, proximity detection and object identification.
• professional image processing
• directed audio detection
• Ethernet or LoRa (depending on shield)
• JTAG
• for Arduino Portenta
Arduino has teamed up with OpenMV to offer a free license for the OpenMV IDE, which allows an easy entry into image processing with MicroPython. With OpenMV, all professionals, researchers and developers can develop cost-effective Python-based camera vision and audio applications. With the two digital microphones integrated in all directions you can record sounds to the videos, which can be stored on a MicroSD card.
Transfer data either via Ethernet or LoRa®.
ARD SHD ASX00021 (Shield with LAN)
ARD SHD ASX00026 (Shield with LoRa)
Technical data
• Camera: Himax HM-01B0 Camera module
• resolution: 320 x 320 active pixel resolution with support for QVGA
• Image sensor: Highly sensitive 3.6-µ-BrightSenseTM pixel technology
• Microphones: 2x MP34DT06JTR
• Connection: LoRa
• Interface: JTAG
• Dimensions (LxW): 66 x 25 mm
Scope of delivery
Portenta Shield with LoRa function
external links
https://openmv.io/pages/download
https://www.arduino.cc/pro/tutorials/portenta-h7/por-openmv-bt

Description
This module is equipped with a ceramic vibration sensor which outputs an analog signal when vibration occurs. The sensor can measure vibrations of different strengths. Vibrations acting on the sensor generate a voltage signal depending on the strength of the vibration due to the piezoelectric effect. This allows you to monitor vibrations in your plant, for example.
Specifications
• piezoelectric ceramic chip
• analog interface
• -10 ... +70°C
• dimensions (LxWxH): 36 x 20 x 14 mm