Features Selectable output format: Uart or Wiegand. 4Pins Electronic Brick Interface High Sensitivity Specifications Dimensions: 44 mm x 24 mm x9.6 mm Weight: 15 g Battery: Exclude Voltage: 4.75 V - 5.25 V Working Frequency: 125 kHz Sensing Distance(Max): 70 mm TTL Output: 9600 baud rate, 8 data bits, 1 stop bit, and no verify bit Wiegand Output: 26 bits Wiegand format, 1 even verify bit, 24 data bits, and 1 odd verify bit
Ever wanted an automated house? Or a smart garden? The Arduino IoT Cloud compatible board Nicla Vision allows you to build your next smart project. You can connect devices, visualize data, control and share your projects from anywhere in the world.
Nicla Vision combines a powerful STM32H747AII6 Dual ARM Cortex M7/M4 IC processor with a 2 MP color camera that supports TinyML, as well as a smart 6-axis motion sensor, integrated microphone and distance sensor. You can easily include it into any project because it’s designed to be compatible with all Arduino Portenta and MKR products, fully integrates with OpenMV, supports MicroPython and also offers both WiFi and Bluetooth Low Energy connectivity. It’s so compact – with its 22.86 x 22.86 mm form factor – it can physically fit into most scenarios, and requires so little energy it can be powered by battery for standalone applications.
All of this makes Nicla Vision the ideal solution to develop or prototype with on-device image processing and machine vision at the edge, for asset tracking, object recognition, predictive maintenance and more – easier and faster than ever. Train it to spot details, so you can focus on the big picture.
Automate anything
Check every product is labeled before it leaves the production line; unlock doors only for authorized personnel, and only if they are wearing PPE correctly; use AI to train Nicla Vision to regularly check analog meters and beam readings to the Cloud; teach it to recognize thirsty crops and turn the irrigation on when needed.Anytime you need to act or make a decision depending on what you see, let Nicla Vision watch, decide and act for you.
Feel seen
Interact with kiosks with simple gestures, create immersive experiences, work with cobots at your side. Nicla Vision allows computers and smart devices to see you, recognize you, understand your movements and make your life easier, safer, more efficient, better.
Keep an eye out
Let Nicla Vision be your eyes: detecting animals on the other side of the farm, letting you answer your doorbell from the beach, constantly checking on the vibrations or wear of your industrial machinery. It’s your always-on, always precise lookout, anywhere you need it to be.
Downloads
Schematics
Datasheet
The Portenta Machine Control is a fully-centralized, low-power, industrial control unit able to drive equipment and machinery. It can be programmed using the Arduino framework or other embedded development platforms.
Thanks to its computing power, the Portenta Machine Control enables a wide range of predictive maintenance and AI use cases. It enables the collection of real-time data from the factory floor and supports the remote control of equipment, even from the cloud, when desired.
Features
Shorter Time-To-Market
Give new life to existing products
Add connectivity for monitoring and control
Tailor it to your need, each I/O pin can be configured
Make equipment smarter to be ready for the AI revolution
Provide security and robustness from the ground up
Open new business model opportunity (e.g. servitization)
Interact with your equipment with advanced HMI
Modular Design for adaptation & upgrades
The Portenta Machine Control allows companies to enable new business-as-a-service models by monitoring customer usage of equipment for predictive maintenance and providing valuable production data.
The Portenta Machine Control enables industry standard soft-PLC control and is able to connect to a range of external sensors and actuators with isolated digital I/O, 4-20 mA compatible analog I/O, 3 configurable temperature channels, and a dedicated I²C connector. Multiple choices are available for network connectivity, including USB, Ethernet, and WiFi/Bluetooth Low Energy in addition to industry specific protocols such as RS485. All I/O are protected by resettable fuses and onboard power management has been engineered to ensure maximum reliability in harsh environments.
The Portenta Machine Control core runs a Portenta H7 microcontroller board (included), a highly reliable design operating at industrial temperature ranges (-40 °C to +85 °C) with a dual-core architecture that doesn’t require any external cooling. The main processor offers the possibility of connecting external Human Machine Interfaces like displays, touch panels, keyboards, joysticks, and mice to enable on-site reconfiguration of state machines and direct manipulation of processes.
The Portenta Machine Control’s design addresses a large variety of use scenarios. It is possible to configure a selection of the I/O pins via software. The Portenta Machine Control stands out as a powerful computer to unify and optimize production where one single type of hardware can serve all of your needs. Among other outstanding features are the following:
Industrial performance leveraging the power of Portenta boards
DIN bar compatible housing
Push-in terminals for fast connection
Compact device (170 x 90 x 50 mm)
Reliable design, operating at industrial temperature rates (-40 °C to +85 °C) with a dual-core architecture that doesn’t require any external cooling
Embedded RTC (Real Time Clock) to ensure perfect synchronization of processes
Leverage the embedded connectivity without any external parts
The Portenta Machine Control can be used in multiple industries, across a wide range of machine types, including: labelling machine, form & seal machine, cartoning machine, gluing machine, electric oven, industrial washer & dryers, mixers, etc.
Add the Portenta Machine Control to your existing processes effortlessly and become the owner of your solutions in the market of machines.
Specifications
Processor
STM32H747XI Dual Cortex-M7+M4 32-bit low power Arm MCU (Portenta H7)
Input
8 digital 24 VDC
2 channels encoder readings
3 Analog for PT100/J/K temperature probes (3-wire cable with compensation)
3 Analog input (4-20 mA/ 0-10 V/NTC 10K)
Output
8 digital 24 VDC up to 0.5 A (short circuit protection)
4 analog 0-10 V (up to 20 mA output per channel)
Other I/O
12 programmable digital I/O (24 V logic)
Commmunication protocols
CAN-BUS
Programmable Serial port 232/422/485
Connectivity
Ethernet
USB Programming Port
Wi-Fi
Bluetooth Low Energy
Memory
16 MB onboard Flash memory
8 MB SD-RAM
Dimensions
170 x 90 x 50 mm
Weight
186 g
Power
24 VDC +/- 20%
Connector type
Push-in terminals for fast connection
Operating temperature
-40°C to +85°C (-40°F to 185°F)
Downloads
Datasheet
Schematics
Pinout
LuckFox Pico Mini is a compact Linux micro development board based on the Rockchip RV1103 chip, providing a simple and efficient development platform for developers. It supports a variety of interfaces, including MIPI CSI, GPIO, UART, SPI, I²C, USB, etc., which is convenient for quick development and debugging.
Features
Single-core ARM Cortex-A7 32-bit core with integrated NEON and FPU
Built-in Rockchip self-developed 4th generation NPU, features high computing precision and supports int, int8, and int16 hybrid quantization. The computing power of int8 is 0.5 TOPS, and up to 1.0 TOPS with int4
Built-in self-developed third-generation ISP3.2, supports 4-Megapixel, with multiple image enhancement and correction algorithms such as HDR, WDR, multi-level noise reduction, etc.
Features powerful encoding performance, supports intelligent encoding mode and adaptive stream saving according to the scene, saves more than 50% bit rate of the conventional CBR mode so that the images from camera are high-definition with smaller size, double the storage space
Built-in RISC-V MCU supports low power consumption and fast start-up, supports 250 ms fast picture capture and loading Al model library at the same time to realize face recognition "in one second"
Built-in 16-bit DRAM DDR2, which is capable of sustaining demanding memory bandwidths
Integrated with built-in POR, audio codec and MAC PHY
Specifications
Processor
ARM Cortex-A7, single-core 32-bit CPU, 1.2 GHz, with NEON and FPU
NPU
Rockchip 4th-gen NPU, supports int4, int8, int16; up to 1.0 TOPS (int4)
ISP
Third-gen ISP3.2, up to 4 MP input at 30fps, HDR, WDR, noise reduction
RAM
64 MB DDR2
Storage
128 MB SPI NAND Flash
USB
USB 2.0 Host/Device via Type-C
Camera Interface
MIPI CSI 2-lane
GPIO Pins
17 GPIO pins
Power Consumption
Low power, RISC-V MCU for fast startup
Dimensions
28 x 21 mm
Downloads
Wiki
Lo-Fi (ESP32 + LoRa combination) is the perfect solution for anyone looking to establish long-range wireless communication in a variety of applications with WiFi capabilities. LoRa offers exceptional range and easy connectivity, it allows you to seamlessly communicate with devices up to 5 km away.
Devices provide an efficient and trustworthy choice for long-range wireless communication in addition to WiFi access to link internet clouds best suited for Internet of Things applications, enabling connectivity in remote and challenging settings.
Features
Device powered by powerful ESP32 S3 WROOM-1 which is having Xtensa dual-core 32-bit LX7 microprocessor, up to 240 MHz
Inbuilt Wi-Fi & Bluetooth LE for wireless connectivity
Type C interface for Programming/Power
1.14" TFT display for visual interactions
GPIO breakouts for interfacing additional peripherals
Breadboard compatible for easy DIY breadboarding projects
2 separate user programmable buttons along with Reset and Boot buttons
3.7 V Lithium Battery connector for a portable use case with an onboard charging option
Use new generation LoRa spread spectrum to ensure stable communication
For LoRa, faster speed and a longer data transmission range of up to 5 km
Applications
Internet of Things (IoT)
Smart Home Automation
Agricultural Automation
Emergency Services
Environmental Monitoring
Industrial Automation
Specifications
Microcontroller: ESP32 S3 WROOM-1
Wireless Interface: WiFi, BLE, LoRa
Protocol: 802.11b/g/n, Bluetooth 5.0
Memory Size: 16 MB Flash, 384 kB ROM, 8 MB SRAM
Supply Voltage: 5 V
Operating Voltage: 3.3 V
Display Size: 1.14”
Display Type: TFT
Display resolution: 135 x 240 pixels
Display driver: ST7789V
Display Appearance: RGB
Display color: 4k/65k/252k
Display Luminance: 400 Cd/m²
Operating Temperature: -20 to 70°C
Storage Temperature: -30 to 80°C
LoRa Module Specs:
Carrier Frequency (License Free ISM): 868 MHz
Chip: Based on SX1262 RF chip
Range: 5Km
Transmitting Power: 22 dBm
Receiving Sensitivity: -147 dbm
Data Rate: Up to 62.5 kbps
Communication Port: UART serial
Downloads
Getting started guide
Hardware design files
Included
1x Lo-Fi Board
1x Antenna (868 MHz)
World’s Most Popular ROS Platform TurtleBot is the most popular open source robot for education and research. The new generation TurtleBot3 is a small, low cost, fully programmable, ROS based mobile robot. It is intended to be used for education, research, hobby and product prototyping. Affordable Cost TurtleBot was developed to meet the cost-conscious needs of schools, laboratories and companies. TurtleBot3 is the most affordable robot among the SLAM-able mobile robots equipped with a 360° Laser Distance Sensor LDS-01. Small Size The dimension of TurtleBot3 Burger is only 138 x 178 x 192 mm (L x W x H). Its size is about 1/4 of the size of the predecessor. Imagine keeping TurtleBot3 in your backpack and develop your program and test it anywhere you go. ROS Standard The TurtleBot brand is managed by Open Robotics, which develops and maintains ROS. Nowadays, ROS has become the go-to platform for all the roboticists around the world. TurtleBot can be integrated with existing ROS-based robot components, but TurtleBot3 can be an affordable platform for whom want to get started learning ROS. Extensibility TurtleBot3 encourages users to customize its mechanical structure with some alternative options: open source embedded board (as a control board), computer and sensors. TurtleBot3 Burger is a two-wheeled differential drive type platform but it is able to be structurally and mechanically customized in many ways: Cars, Bikes, Trailers and so on. Extend your ideas beyond imagination with various SBC, sensors and motors on a scalable structure. Modular Actuator for Mobile Robot TurtleBot3 is able to get a precise spatial data by using 2 DYNAMIXEL’s in the wheel joints. DYNAMIXEL XM series can be operated by one of 6 operating modes (XL series: 4 operating modes): Velocity control mode for wheels, Torque control mode or Position control mode for joint, etc. DYNAMIXEL can be used even to make a mobile manipulator which is light but can be precisely controlled with velocity, torque and position control. DYNAMIXEL is a core component that makes TurtleBot3 perfect. It is easy to assemble, maintain, replace and reconfigure. Open Control Board for ROS The control board is open-sourced in hardware wise and in software wise for ROS communication. The open source control board OpenCR1.0 is powerful enough to control not only DYNAMIXEL’s but also ROBOTIS sensors that are frequently being used for basic recognition tasks in cost effective way. Various sensors such as Touch sensor, Infrared sensor, Color sensor and a handful more are available. The OpenCR1.0 has an IMU sensor inside the board so that it can enhance precise control for countless applications. The board has 3.3 V, 5 V, 12 V power supplies to reinforce the available computer device lineups. Strong Sensor Lineups TurtleBot3 Burger uses enhanced 360° LiDAR, 9-Axis Inertial Measurement Unit and precise encoder for your research and development. Open Source The hardware, firmware and software of TurtleBot3 are open source which means that users are welcomed to download, modify and share source codes. All components of TurtleBot3 are manufactured with injection molded plastic to achieve low cost, however, the 3D CAD data is also available for 3D printing. Specifications Maximum translational velocity 0.22 m/s Maximum rotational velocity 2.84 rad/s (162.72 deg/s) Maximum payload 15 kg Size (L x W x H) 138 x 178 x 192 mm Weight (+ SBC + Battery + Sensors) 1 kg Threshold of climbing 10 mm or lower Expected operating time 2h 30m Expected charging time 2h 30m SBC (Single Board Computers) Raspberry Pi 4 (2 GB RAM) MCU 32-bit ARM Cortex-M7 with FPU (216 MHz, 462 DMIPS) Actuator XL430-W250 LDS (Laser Distance Sensor) 360 Laser Distance Sensor LDS-01 or LDS-02
IMU Gyroscope 3 AxisAccelerometer 3 Axis Power connectors 3.3 V/800 mA5 V/4 A12 V/1 A Expansion pins GPIO 18 pinsArduino 32 pin Peripheral 3x UART, 1x CAN, 1x SPI, 1x I²C, 5x ADC, 4x 5-pin OLLO DYNAMIXEL ports 3x RS485, 3x TTL Audio Several programmable beep sequences Programmable LEDs 4x User LED Status LEDs 1x Board status LED1x Arduino LED1x Power LED Buttons and Switches 2x Push buttons, 1x Reset button, 2x Dip switch Battery Lithium polymer 11.1 V 1800 mAh / 19.98 Wh 5C PC connection USB Firmware upgrade via USB / via JTAG Power adapter (SMPS) Input: 100-240 VAC 50/60 Hz, 1.5 A @maxOutput: 12 VDC, 5 A Downloads ROS Robot Programming GitHub E-Manual Community
The LuckFox Pico Ultra is a compact single-board computer (SBC) powered by the Rockchip RV1106G3 chipset, designed for AI processing, multimedia, and low-power embedded applications.
It comes equipped with a built-in 1 TOPS NPU, making it ideal for edge AI workloads. With 256 MB RAM, 8 GB onboard eMMC storage, integrated WiFi, and support for the LuckFox PoE module, the board delivers both performance and versatility across a wide range of use cases.
Running Linux, the LuckFox Pico Ultra supports a variety of interfaces – including MIPI CSI, RGB LCD, GPIO, UART, SPI, I²C, and USB – providing a simple and efficient development platform for applications in smart home, industrial control, and IoT.
Specifications
Chip
Rockchip RV1106G3
Processor
Cortex-A7 1.2 GHz
Neural Network Processor (NPU)
1 TOPS, supports int4, int8, int16
Image Processor (ISP)
Max input 5M @30fps
Memory
256 MB DDR3L
WiFi + Bluetooth
2.4GHz WiFi-6 Bluetooth 5.2/BLE
Camera Interface
MIPI CSI 2-lane
DPI Interface
RGB666
PoE Interface
IEEE 802.3af PoE
Speaker interface
MX1.25 mm
USB
USB 2.0 Host/Device
GPIO
30 GPIO pins
Ethernet
10/100M Ethernet controller and embedded PHY
Default Storage Medium
eMMC (8 GB)
Included
1x LuckFox Pico Ultra W
1x LuckFox PoE module
1x IPX 2.4G 2 db antenna
1x USB-A to USB-C cable
1x Screws pack
Downloads
Wiki
The HT-M00 is a dual-channel gateway that is specifically designed to cater to smart family LoRa applications that work with less than 30 LoRa nodes. The gateway has been built around two SX1276 chips that are driven by ESP32. To enable monitoring of 125 KHz SF7~SF12 spreading factor, a software mixer has been developed, which is commonly referred to as a baseband simulation program.
The software mixer is a critical component that enables the HT-M00 gateway to operate with high efficiency. It is designed to simulate baseband signals, which are then mixed with the radio frequency signals to produce the desired output. The software mixer has been developed with great care and precision, and has undergone rigorous testing to ensure that it is capable of delivering accurate and reliable results.
Features
ESP32 + SX1276
Emulates LoRa demodulators
Automatic adaptive spread spectrum factor, SF7 to SF12 for each channel is optional
Maximum output: 18 ±1dBm
Support for LoRaWAN Class A, Class C protocol
Specifications
MCU
ESP32-D0WDQ6
LoRa Chipset
SX1276
LoRa Band
863~870 MHz
Power Supply Voltage
5 V
Receiving Sensitivity
-110 dBm @ 300 bps
Interface
USB-C
Max. TX Power
17dB ±1dB
Operating Temperature
−20~70°C
Dimensions
30 x 76 x 14 mm
Included
1x HT-M00 Dual Channel LoRa Gateway
1x Wall bracket
1x USB-C cable
Downloads
Manual
Software
Documentation
The CubeCell series is designed primarily for LoRa/LoRaWAN node applications.
Built on the ASR605x platform (ASR6501, ASR6502), these chips integrate the PSoC 4000 series MCU (ARM Cortex-M0+ Core) with the SX1262 module. The CubeCell series offers seamless Arduino compatibility, stable LoRaWAN protocol operation, and straightforward connectivity with lithium batteries and solar panels.
The HTCC-AB01 (V2) is an upgraded version of the HTCC-AB01 board.
Features
Arduino compatible
Based on ASR605x (ASR6501, ASR6502), those chips are already integrated the PSoC 4000 series MCU (ARM Cortex-M0+ Core) and SX1262
LoRaWAN 1.0.2 support
Ultra low power design, 3.5 uA in deep sleep
Onboard SH1.25-2 battery interface, integrated lithium battery management system (charge and discharge management, overcharge protection, battery power detection, USB/battery power automatic switching)
Good impendence matching and long communication distance. Onboard solar energy management system, can directly connect with a 5.5~7 V solar panel
Micro USB interface with complete ESD protection, short circuit protection, RF shielding, and other protection measures
Integrated CP2102 USB to serial port chip, convenient for program downloading, debugging information printing
Specifications
Main Chip
ASR6502 (48 MHz ARM Cortex-M0+ MCU)
LoRa Chipset
SX1262
Frequency
863~870 MHz
Max. TX Power
21 ±1 dBm
Max. Receiving Sensitivity
−134 dBm
Hardware Resource
1x UART1x SPI1x I²C1x SWD1x 12-bit ADC input8-channel DMA engine8x GPIO2x PWM
Memory
128 Kb FLASH16 Kb SRAM
Power consumption
Deep Sleep 3.5 uA
Interfaces
1x USB-C1x LoRa Antenna (IPEX 1.0)SH1.25; 11x 2x 2.54 Pin header1x (2x 2.54 Pin header)
Solar Energy
VS pin can be connected to 5.5~7 V solar panel
Battery
3.7 V Lithium battery (power supply and charging)
Operating temperature
−20~70°C
Dimensions
40.6 x 22.9 x 7.6 mm
Included
1x CubeCell HTCC-AB01 (V2) Development Board
1x Antenna
1x 2x SH1.25 battery connector
Downloads
Datasheet
Schematic
Quick start
GitHub
The MKR IoT Carrier comes equipped with 5 RGB LEDs, 5 capacitive touch buttons, a colored display, IMU and a variety of quality sensors. It also features a battery holder for a 18650 Li-Ion battery, SD card holder and Grove connectors.
Data Capture: Map the environment around the carrier using the integrated temperature, humidity, and pressure sensors and collect data about movement using the 6 axis IMU and light, gesture, and proximity sensors. Easily add more external sensors to capture more data from more sources via the on-board Grove connectors (x3).
Data Storage: Capture and store all the data locally on an SD card, or connect to the Arduino IoT Cloud for real-time data capture, storage, and visualization.
Data Visualisation: Locally view real-time sensor readings on the built-in OLED Color Display and create visual or sound prompts using the embedded LEDs and buzzer.
Total Control: Directly control small-voltage electronic appliances using the onboard relays and the five tactile buttons, with the integrated display providing a handy on-device interface for immediate control.
Pico Cube is a 4x4x4 LED cube HAT for Raspberry Pi Pico with 5 VDC operating voltage. Pico cube, a monochromatic Red with 64 LEDs, is a fun way to learn programming. It is designed to perform incandescent operations with low energy consumptions, robust outlook, and easy installation that make people/kids/users learn the effects of LED lights with a different pattern of colors via the combination of software and hardware i.e. Raspberry Pi Pico.
Features
Standard 40 Pins Raspberry Pi Pico Header
GPIO Based Communication
64 High-Intensity Monochromatic LEDs
Individual LED access
Each Layer Access
Specifications
Operating Voltage: 5 V
Color: Red
Communication: GPIO
LEDs: 64
Included
1x Pico Cube Base PCB
4x Layer PCB
8x Pillar PCB
2x Male Berg (1 x 20)
2x Female Berg (1 x 20)
70 LEDs
Note: Raspberry Pi Pico is not included.
Downloads
GitHub
Wiki
The X500 V2 ARF Kit is an affordable, lightweight, and robust carbon fiber professional drone kit that is easy to assemble (less than 15 minutes). It comes with the X500 V2 Frame Kit and motors, ESCs, power distribution boards and propellers preinstalled. It is perfectly compatible with various flight controllers such as the Holybro Pixhawk series, Durandal, Pix32 V5, etc. There are numerous improvements compared the previous model.
Specifications
Wheelbase: 500 mm
Motor mount pattern: 16x16 mm
Frame body: 144x144 mm, 2 mm thick
Landing gear height: 215 mm
Space between top and bottom plates: 28 mm
Weight: 610 g
Flight time: ~18 minutes hover with no additional payload. Tested with 5000 mAh battery.
Payload: 1500 g (without battery, 70% throttle)
Battery recommendation: 4S 3000-5000 mAh 20C+ with XT60 Lipo battery (not Included)
Included
X500 V2 Frame Kit
With Preinstalled Items:
4x Motors: Holybro 2216 KV920 Motor (4 pcs) with XT30 Plug
4x ESCs (BLHeli S ESC 20A)
6x 1045 Propellers
Power Distribution Board – XT60 plug for battery & XT30 plug for ESCs & peripherals
Note: Depth camera mount is sold separately.
Ever wanted an automated house? Or a smart garden? Well, now it’s easy with the Arduino IoT Cloud compatible boards. It means: you can connect devices, visualize data, control and share your projects from anywhere in the world. Whether you’re a beginner or a pro, we have a wide range of plans to make sure you get the features you need.
Connect your sensors and actuators over long distances harnessing the power of the LoRa wireless protocol or throughout LoRaWAN networks.
The Arduino MKR WAN 1310 board provides a practical and cost effective solution to add LoRa connectivity to projects requiring low power. This open source board can be connected to the Arduino IoT Cloud.
Better and More Efficient
The MKR WAN 1310, brings in a series of improvements when compared to its predecessor, the MKR WAN 1300. While still based on the Microchip SAMD21 low power processor, the Murata CMWX1ZZABZ LoRa module, and the MKR family’s characteristic crypto chip (the ECC508), the MKR WAN 1310 includes a new battery charger, a 2 MByte SPI Flash, and improved control of the board’s power consumption.
Improved Battery Power
The latest modifications have considerably improved the battery life on the MKR WAN 1310. When properly configured, the power consumption is now as low as 104 uA! It is also possible to use the USB port to supply power (5 V) to the board; run the board with or without batteries – the choice is yours.
On-board Storage
Data logging and other OTA (Over The Air) functions are now possible since the inclusion of the on board 2 MByte Flash. This new exciting feature will let you transfer configuration files from the infrastructure onto the board, create your own scripting commands, or simply store data locally to send it whenever the connectivity is best. Whilst the MKR WAN 1310’s crypto chip adds further security by storing credentials & certificates in the embedded secure element.
These features make it the perfect IoT node and building block for low-power wide-area IoT devices.
Specifications
The Arduino MKR WAN 1310 is based on the SAMD21 microcontroller.
Microcontroller
SAMD21 Cortex-M0+ 32-bit low power ARM MCU (datasheet)
Radio module
CMWX1ZZABZ (datasheet)
Board power supply (USB/VIN)
5 V
Secure element
ATECC508 (datasheet)
Supported batteries
Rechargeable Li-Ion, or Li-Po, 1024 mAh minimum capacity
Circuit operating voltage
3.3 V
Digital I/O pins
8
PWM pins
13 (0 .. 8, 10, 12, 18 / A3, 19 / A4)
UART
1
SPI
1
I²C
1
Analog input pins
7 (ADC 8/10/12 bit)
Analog output pins
1 (DAC 10 bit)
External interrupts
8 (0, 1, 4, 5, 6, 7, 8, 16 / A1, 17 / A2)
DC current per I/O pin
7 mA
CPU flash memory
256 KB (internal)
QSPI flash memory
2 MByte (external)
SRAM
32 KB
EEPROM
No
Clock speed
32.768 kHz (RTC), 48 MHz
LED_BUILTIN
6
USB
Full-Speed USB Device and embedded Host
Antenna gain
2 dB (bundled pentaband antenna)
Carrier frequency
433/868/915 MHz
Dimensions
67.64 x 25 mm
Weight
32 g
Downloads
Eagle Files
Schematics
Fritzing
Pinout
The best way to start exploring the world of connected devices using the Arduino MKR WiFi 1010. The MKR IoT bundle contains all you need to build your first connected devices. Follow the 5 step by step tutorials we have prepared for you and combining the electronic components included in the bundle, you’ll quickly learn how to build devices that connect to the Arduino IoT cloud. All you need to start with IoT This bundle is contains all the hardware and software required to build your first IoT devices with no extra fees. Build 5 IoT projects All the components needed to start your journey into building your own IoT projects. Learn about the Arduino IoT cloud Not only learn about electronic but also about the possibilities the Arduino IoT cloud can offer. Included 1x Arduino MKR1000 WiFi (with mounted headers) 6x Phototransistors 1x Tilt Sensor 1x Temperature sensor (TMP36) 3x Potentiometer 1x Piezo capsule 10x Pushbuttons 1x DC Motor 1x Small servo motor 1x Alphanumeric LCD (16x2 characters) 1x Optocouplers (4N35) 1x H-bridge motor driver (L293D) 2x Mosfet transistors (IRF520) 5x Capacitors 100uF 70x Solid core jumper wires 1x Micro USB cable 1x Breadboard 1x LED (bright white) 3x LEDs (blue) 1x LED (RGB) 8x LED 5 mm (red) 8x LED 5 mm (green) 8x LED 5 mm (yellow) 1x Male pins strip (4x1) 1x Stranded jumper wires (red) 1x Stranded jumper wires (black) 5x Diode 20x 220 Ω resistors 5x 560 Ω resistors 5x 1 KΩ resistors 5x 4.7 KΩ resistors 20x 10 KΩ resistors 5x 1 MΩ resistors 5x 10 MΩ resistors
This portable WiFi weather station is the perfect blend of functionality and style, offering real-time updates on temperature, humidity, and time – all at a single glance.
Featuring a clear digital display, the station ensures that weather and time data are always easy to read and understand. Its minimalist design integrates seamlessly into any environment, adding a touch of modern sophistication without drawing unnecessary attention.
Features
Multi-Function Display: Shows weather, atmospheric pressure, min/max temperature, wind speed, city, country/region, date, day of the week, outdoor temperature & humidity – all at a glance.
Custom GIF Animations: Upload your own GIFs for a personalized display experience.
WiFi Connectivity: Automatically connects to the Internet to retrieve real-time weather and time data.
Power Supply: USB-C
Durable Plastic Casing
Dimensions: 45 x 35 x 40 mm
As compared to the (US Letter/A4 sized) AxiDraw V3, the AxiDraw V3/A3 has extended travel range, designed for use with paper sizes up to and including 11 × 17 inch ('tabloid' or 'ledger') and A3. It can work with any paper up to and including that size, including envelopes, regular US letter (8 1/2 × 11 inch) or A4 (297 × 210 mm) sized paper, note cards, business cards, or a whole array of smaller items. The AxiDraw comes with a mounting easel (board with clips) that can be used for holding paper, cards, and envelopes of various sizes. The AxiDraw V3/A3 also comes standard with AxiDraw Outrigger Feet pre-installed, for greater stance and stability while plotting. The unique design of the AxiDraw features a drawing head that extends beyond the body of the machine, making it possible to also draw on flat objects bigger than the machine itself. For example, you can set it right on top of a box to write an address or add decorations. You can even set it on top of a poster board, chalkboard, or whiteboard to draw graphics in place. The pen holder fits a wide variety of pens, including Sharpie fine and ultra-fine point markers, most rollerball and fountain pens, small-bodied whiteboard markers, and so forth. It can even hold a fountain pen at a proper angle of 45° to the paper. You can also use implements that aren't pens, such as pencils, chalk, charcoal, brushes, and many others. However, you'll get the best results with instruments such as fountain pens and rollerball pens, which do not require the user to apply pressure. Getting Started The AxiDraw comes fully assembled, tested, and ready to use, right out of the box. A universal-input plug-in power supply is included with the AxiDraw, as is a USB cable, and an optional paper-holding easel. Assuming that you've installed the software first, you can be up and plotting within minutes of opening the box. The comprehensive PDF user guide walks you through every step of the process. To operate AxiDraw, you will need a reasonably modern computer with an available USB port (Mac, Windows or Linux), plus internet access to download necessary software. Pens and paper are not included. (You can use your own! AxiDraw does not require proprietary pens or paper.) AxiDraw is normally controlled through a set of extensions to Inkscape, the excellent, popular and free vector graphics program. Basic operation is much like that of a printer driver: you import or make a drawing in Inkscape, and use the extensions to plot your text or artwork. It's all handled through a straightforward graphical user interface, and works cleanly on Mac, Windows and Linux. Specifications Performance Usable pen travel (inches): 16.93 × 11.69 inches Usable pen travel (millimeters): 430 × 297 mm Vertical pen travel: 0.7 inch (17 mm) Maximum XY travel speed: 15 inches (38 cm) per second Native XY resolution: 2032 steps per inch (80 steps per mm) Reproducibility (XY): Typically better than 0.005 inches (0.1 mm) at low speeds. Physical Major structural components are machined and/or folded aluminum. Holds pens and other drawing instruments up to 5/8' (16 mm) diameter. Overall dimensions: Approximately 26 × 18.5 × 4 inches (66 × 47 × 10 cm) Maximum height with cable guides: Approximately 11 inches (29 cm) Footprint: Approximately 26 × 5 inches (66 x 13 cm) Physical weight: 5.5 Lb (2.5 kg) Software Compatible with Mac, Windows, and Linux Drive directly from within Inkscape, using the AxiDraw extension. Comprehensive user guide available for download. Driver software software free to download and open source Internet access is required to download software. Additionally, AxiDraw Merge software available at no cost to AxiDraw owners. Programming interfaces Note: Programming is not required to use the AxiDraw. Stand-alone command line interface (CLI) Available AxiDraw Python API
RESTful API available for full machine control, stand-alone or accessible by running RoboPaint in the background. Simplified 'GET-only' API available as well, for use in programming environments (such as Scratch, Snap) that permit only retrieval of URLs. Direct EiBotBoard (EBB) command protocol available for use in any programming environment that supports communication with USB-based serial ports. Code that generates SVG files can also be used to (indirectly) control the machine. Included AxiDraw V3/A3 writing and drawing machine (fully assembled, tested, and ready to use) Multi-plug power supply with EU adapter USB cable Easel (Board and clips) for paper holding Downloads User Guide
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
The uArm Swift Pro is a high quality robotic arm that can be used in a wide range of applications. The uArm Swift Pro was developed and optimized for use in education, which means that many packages are already available for open source platforms such as ROS. The uArm Swift Pro has a position repeatability of 0.2 mm and is also equipped with a stepper motor and a 12-bit encoder. These are just a few reasons that make the uArm Swift Pro an excellent choice for educational use. Another great feature is the 3D printing kit that converts the uArm Swift Pro into a 3D printer in less than 1 minute.
The uArm supports the following development platforms/systems:
UFACTORY SDK
Arduino
Python
ROS
GRABCAD
OpenMV
Smartphone App
The smartphone app for iOS is already available in the App Store and enables easy control and monitoring of the robotic arm. The app for Android is in development and will be available soon.
An example of the Machine Vision
The following GIF shows the uArm in combination with the OpenMV Machine Vision Cam M7 and the facial recognition applications that can be implemented in MicroPython.
Specifications
Degrees of Freedom: 4
Repeatability: Up to 0.2 mm
Payload: 500 g
Working Range: 50-320 mm
Positioning Speed: 100 m/s
Position Feedback: 12-bit Encoder
Dimensions: 150 x 140 x 281mm
Weight: 2.2 kg
Included
UFactory uArm Swift Pro Body
Bluetooth & Vacuum Gripper
Downloads
Datasheet
The Dragino MS14N-S supports generic OpenWrt Linux version or modified OpenWrt version such as Arduino Yun. It has USB host port and has full Ethernet and 802.11 b/g/n WiFi capabilities.
Applications for MS14N include remote control of robots, data logging, web applications for data presentation, mesh networking over WiFi and many more.
Hardware System
CPU: AR9331
DDR RAM: 64 MB
LASH: 16 MB
Interfaces
2x 10 M/100 M RJ45 interface
1x power input: 9 ~ 12 VDC
1x USB Host Port
1x internet USB interface
14x screw terminal positions
WiFi Specs
Protocol: 802.11 b/g/n
Frequency: 2,412 - 2,472 GHz
Power: 100 mW
Valentine's Hearts, 28 blinking LEDs, romantic LED lighting Valentine's Hearts – 28 blinking LEDs for a romantic atmosphere. The perfect Valentine's gift to express your love. Battery-powered and portable, ideal for Valentine's Day.
Downloads
Manual
When playing a board game, do you find it annoying when you push away all the pawns with the dice? Or when friends try to cheat by manipulating the dice? With this soldering kit, this is a thing of the past. Instead of pressing a button, you activate this microprocessor-controlled dice by shaking. The 7 flashing LEDs run out slowly and the final combination is displayed flashing. The kit works with one CR2025 or one CR2032 button cell (not included).
Downloads
Manual
The CubeCell series is designed primarily for LoRa/LoRaWAN node applications.
Built on the ASR605x platform (ASR6501, ASR6502), these chips integrate the PSoC 4000 series MCU (ARM Cortex-M0+ Core) with the SX1262 module. The CubeCell series offers seamless Arduino compatibility, stable LoRaWAN protocol operation, and straightforward connectivity with lithium batteries and solar panels.
The HTCC-AB02 is a developer-friendly board, ideal for quickly testing and validating communication solutions.
Features
Arduino compatible
Based on ASR605x (ASR6501, ASR6502), those chips are already integrated the PSoC 4000 series MCU (ARM Cortex M0+ Core) and SX1262
LoRaWAN 1.0.2 support
Ultra low power design, 3.5 uA in deep sleep
Onboard SH1.25-2 battery interface, integrated lithium battery management system (charge and discharge management, overcharge protection, battery power detection, USB/battery power automatic switching)
Good impendence matching and long communication distance
Onboard solar energy management system, can directly connect with a 5.5~7 V solar panel
Micro USB interface with complete ESD protection, short circuit protection, RF shielding, and other protection measures
Integrated CP2102 USB to serial port chip, convenient for program downloading, debugging information printing
Onboard 0.96-inch 128x64 dot matrix OLED display, which can be used to display debugging information, battery power, and other information
Specifications
Main Chip
ASR6502 (48 MHz ARM Cortex-M0+ MCU)
LoRa Chipset
SX1262
Frequency
863~870 MHz
Max. TX Power
22 ±1 dBm
Max. Receiving Sensitivity
−135 dBm
Hardware Resource
2x UART1x SPI2x I²C1x SWD3x 12-bit ADC input8-channel DMA engine16x GPIO
Memory
128 Kb FLASH16 Kb SRAM
Power consumption
Deep sleep 3.5 uA
Interfaces
1x Micro USB1x LoRa Antenna (IPEX)2x (15x 2.54 Pin header) + 3x (2x 2.54 Pin header)
Battery
3.7 V lithium battery (power supply and charging)
Solar Energy
VS pin can be connected to 5.5~7 V solar panel
USB to Serial Chip
CP2102
Display
0.96" OLED (128 x 64)
Operating temperature
−20~70°C
Dimensions
51.9 x 25 x 8 mm
Included
1x CubeCell HTCC-AB02 Development Board
1x Antenna
1x 2x SH1.25 battery connector
Downloads
Datasheet
Schematic
Quick start
GitHub
Arduino Alvik is a powerful and versatile robot specifically designed for programming and robotics education.
Powered by the Arduino Nano ESP32, Arduino Alvik offers diverse learning paths through different programming languages, including MicroPython, Arduino C, and block-based coding, enabling different possibilities to explore robotics, IoT and AI.
Arduino Alvik simplifies coding and complex robot projects, enabling users of all levels to immerse themselves in the exciting world of programming and robotics. It’s also a cross-discipline tool that bridges the gap between education and the future of robotics with CSTA and NGSS-Aligned free courses. This innovative and versatile robot makes learning and creating more accessible and fun than ever before.
Features
Powered by the versatile Nano ESP32, Alvik streamlines the learning curve in robotics with its comprehensive programming suite that includes MicroPython and Arduino language. Designed to accommodate users of all skill levels, Alvik soon plans to introduce block-based coding, further enhancing accessibility for younger students and providing an engaging entry point into robotics design.
Alvik’s Time of Flight, RGB color and line-following array sensors, along with its 6-axis gyroscope and accelerometer, allow users to tackle a range of innovative, real-world projects. From an obstacle avoidance robot to a smart warehouse automation robot car, the possibilities are endless!
Alvik comes equipped with LEGO Technic connectors, allowing users to personalize the robot and expand its capabilities. Additionally, it features M3 screw connectors for custom 3D or laser-cutter designs.
The Servo, I²C Grove, and I²C Qwiic connectors allow users to expand Alvik’s potential and take robotics projects to a whole new level. Add motors for controlling movement and robotic arms, or integrate extra sensors for data collection and analysis.
Specifiations
Alvik main controller
Arduino Nano ESP32:
8 MB of RAM
u-blox NORA-W106 (ESP32-S3)
Processor up to 240 MHz
ROM 384 kB + SRAM 512 kB
16 MB External FLASH
Alvik on-board Core
STM32 Arm Cortex-M4 32 Bit
Power supply
Nano ESP32 USB-C rechargeable and replaceable 18650 Li-Ion battery (included)
Programming language
MicroPython, Arduino & block-based programming
Connectivity
Wi-Fi, Bluetooth LE
Inputs
Time of Flight Distance Sensor (up to 350 cm)RGB Color Sensor6-axis Gyroscope-Accelerometer3x Line follower Array7x Touchable Buttons
Outputs
2x RGB LEDs6 V Motors (No load speed 96 rpm, No load current 70 mA)
Extensions
4x LEGO Technic connectors8x M3 screw connectorsServo motorI²C GroveI²C Qwiic
Downloads
Datasheet
Documentation
The Nicla Sense ME is a tiny, low-power tool that sets a new standard for intelligent sensing solutions. With the simplicity of integration and scalability of the Arduino ecosystem, the board combines four state-of-the-art sensors from Bosch Sensortec:
BHI260AP motion sensor system with integrated AI
BMM150 magnetometer
BMP390 pressure sensor
BME688 4-in-1 gas sensor with AI and integrated high-linearity, as well as high-accuracy pressure, humidity and temperature sensors.
The Arduino Nicla Sense ME is the smallest Arduino form factor yet, with a range of industrial grade sensors packed into a tiny footprint. Measure process parameters such as temperature, humidity and movement. Featuring a 9-axis inertial measurement unit and the possibility for Bluetooth Low Energy connectivity, it can help you to create your next Bluetooth Low Energy enabled project. Make your own industrial grade wireless sensing network with the onboard BHI260AP, BMP390, BMM150 and BME688 Bosch sensors.
Features
Tiny size, packed with features
Low power consumption
Add sensing capabilities to existing projects
When battery-powered, becomes a complete standalone board
Powerful processor, capable of hosting intelligence on the Edge
Measures motion and environmental parameters
Robust hardware including industrial-grade sensors with embedded AI
BLE connectivity maximizes compatibility with professional and consumer equipment
24/7 always-on sensor data processing at ultra-low power consumption
Specifications
BHI260AP – Self-learning AI smart sensor with integrated accelerometer and gyroscope
BMP390 – Digital pressure sensor
BMM150 – Geomagnetic sensor
BME688 – Digital low power gas, pressure, temperature & humidity sensor with AI
Microcontroller
64 MHz ARM Cortex-M4 (nRF52832)
Sensors
I/O
Castellated pins with the following features:
1x I²C bus (with ext. ESLOV connector)
1x Serial port
1x SPI
2x ADC, programmable I/O voltage from 1.8-3.3 V
Connectivity
Bluetooth 4.2
Power
Micro USB (USB-B), Pin Header, 3.7 V Li-po battery with Integrated battery charger
Memory
512 KB Flash / 64 KB RAM
2 MB SPI Flash for storage
2 MB QSPI dedicated for BHI260AP
Interface
USB interface with debug functionality
Dimensions
22.86 x 22.86 mm
Weight
2 g
Downloads
Datasheet
This category offers a wide spectrum of platforms to choose from. They all have different features and you can choose the platform that best suits your needs or project.