Components

Features 2.13' capacitive touch e-Paper display, 5-point touch, 250×122 pixels Supports waken up by user-defined gesture No backlight, keeps displaying last content for a long time even when power down Ultra low power consumption, basically power is only required for refreshing Standard Raspberry Pi 40PIN GPIO extension header, supports Raspberry Pi Zero / Zero W Comes with development resources and manual (examples for Raspberry Pi) Included 1x 2.13inch Touch e-Paper HAT 1x ABS case 1x Screwdriver 1x Thermal tape 1x Rubber feet 4pcs 2x Screws Downloads Documentation

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The YDLIDAR X2 Lidar is a 360-degree two-dimensional distance measurement product. This product is based on the principle of triangulation, and is equipped with relevant optics, electricity, and algorithm design to realize high-frequency and high-precision distance measurement. While the distance is measured, 360 degrees of scanning distance measurement is achieved by continuously obtaining the angle information through the 360 degree rotation of the motor. Features Scanning angle: 360° Scanning range radius: 8 m Ranging resolution: 2% Scan frequency: 5-8 Hz Sampling rate: 3000 Hz Max current: 500 mA Laser wavelength: 775-795 nm Laser power: 3-5 mW Applications Robot navigation and obstacle avoidance Robot ROS teaching and research Regional security Environmental Scan and 3D Reconstruction Home service robot/robot vacuum cleaner navigation and obstacle avoidance Downloads Datasheet User Manual Development Manual SDK Tool ROS

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This is a 100mm long 4-conductor cable with 1mm JST termination. It’s designed to connect Qwiic enabled components but can be used for other applications as well. Each Qwiic Cable's wires have been colour-coded to Red, Black, Blue, and Yellow.

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This exceptional GPS/GNSS antenna is designed for both GPS and GLONASS reception. The magnetic mount allows it to be easily mounted to a metal base such as a ground plate or car roof. The antenna is terminated with a 3m cable and standard SMA connector. Features Dimensions: 50x38x17mm Weight: 75g including 3m cable Frequency Range: 1575 - 1610MHz GPS Center Frequency: 1575.42MHz GLONASS Center Frequency: 1602MHz LNA Voltage: 3 to 5VDC LNA Gain: 28dB LNA Current: 10mA Termination Connector: SMA Impedance: 50Ω Right-hand polarization Cable Length: 3 meter

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This board allows the Raspberry Pi Pico (connected via pin header) to drive two motors simultaneously with full forward, reverse & stop control, making it ideal for Pico controlled buggy projects. Alternatively, the board can be used to power a stepper motor. The board features the DRV8833 motor driver IC, which has built-in short circuit, over current and thermal protection. The board has 4 external connections to GPIO pins and a 3 V and GND supply from the Pico. This allows for additional IO options for your buggy builds that can be read or controlled by the Pico. In addition there is an on/off switch and power status LED, allowing you to see at a glance if the board is powered up and save your batteries when your project is not in use. To use the motor driver board, the Pico should have a soldered pin header and be inserted firmly into the connector. The board produces a regulated supply that is fed into the 40-way connector to power the Pico, removing the need to power the Pico directly. The motor driver board is powered via either screw terminals or a servo style connector. Kitronik has developed a micro-python module and sample code to support the use of the Motor Driver board with the Pico. This code is available in the GitHub repo. Features A compact yet feature-packed board designed to sit at the heart of your Raspberry Pi Pico robot buggy projects. The board can drive 2 motors simultaneously with full forward, reverse, and stop control. It features the DRV8833 motor driver IC, which has built-in short circuit, over current and thermal protection. Additionally, the board features an on/off switch and power status LED. Power the board via a terminal block style connector. The 3V and GND pins are also broken out, allowing external devices to be powered. Code it with MicroPython via an editor such as the Thonny editor. Dimensions: 63 mm (L) x 35 mm (W) x 11.6 mm (H) Download Datasheet

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Features Piezo Buzzer: Acts as a simple audio output Micro USB Port Programmable Button 12 x LED: Provides visual output on board Specifications Microcontroller ATmega328P Programming IDE Arduino IDE Operating Voltage 5 V Digital I/O 20 PWM 6 Analog Input 6 (10-bit) UART 1 SPI 1 I2C 1 External Interrupt 2 Flash Memory 32 KB SRAM 2 KB EEPROM / Data Flash 1 KB Clock Speed 16 MHz DC Current I/O Pin 20 mA Power Supply USB only DC Current for 5 V USB Source DC Current for 3.3 V 500 mA USB to Serial Chip CH340G Programmable LED 12 at digital Pin 2 to 13 Programmable Push Button 1 at digital Pin 2 Piezo Buzzer 1 at digital Pin 8 Arduino vs Maker Uno

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Standard 2x16 LCD (see Elektor Labs Preferred Parts - ELPP) with the following specifications: 2 rows, 16 characters wide 5 x 7 dots font and cursor Yellow-green LCD with yellow-green LED backlight HD44780 equivalent LCD controller High contrast Readable in sunlight 16 pin Connection port is 2.54 mm (0.1') pitch, single row for easy breadboarding and wiring pinning (left-to-right): 1-14,A,K Single LED backlight included; Easily dimmed with a resistor or via PWM; Uses much less power than electroluminescent backlights Can be fully controlled with only 6 digital lines(in 4-bit bus mode) 5V DC operating voltage Module dimension: 80 x 36 x 10 mm Viewing area size: 64.5x 15 mm

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Based on the SparkFun GPS-RTK2 designs, the SparkFun GPS-RTK-SMA raises the bar for high-precision GPS and is the latest in a line of powerful RTK boards featuring the ZED-F9P module from u-blox. The ZED-F9P is a top-of-the-line module for high accuracy GNSS and GPS location solutions, including RTK capable of 10mm, three-dimensional accuracy. With this board, you will be able to know where your (or any object's) X, Y, and Z location is within roughly the width of your fingernail! The ZED-F9P is unique in that it is capable of both rover and base station operations. Utilizing our handy Qwiic system, no soldering is required to connect it to the rest of your system. However, we still have broken out 0.1'-spaced pins if you prefer to use a breadboard. We've included a rechargeable backup battery to keep the latest module configuration and satellite data available for up to two weeks. This battery helps 'warm start' the module decreasing the time-to-first-fix dramatically. This module features a survey-in mode allowing the module to become a base station and produce RTCM 3.x correction data. Based on your feedback, we switched out the u.FL connector and included an SMA connector in this version of the board. The number of configuration options of the ZED-F9P is incredible! Geofencing, variable I²C address, variable update rates, even the high precision RTK solution can be increased to 20Hz. The GPS-RTK2 even has five communications ports which are all active simultaneously: USB-C (which enumerates as a COM port), UART1 (with 3.3V TTL), UART2 for RTCM reception (with 3.3V TTL), I²C (via the two Qwiic connectors or broken out pins), and SPI. SparkFun has also written an extensive Arduino library for u-blox modules to easily read and control the GPS-RTK-SMA over our Qwiic Connect System. Leave NMEA behind! Start using a much lighter weight binary interface and give your microcontroller (and its one serial port) a break. The SparkFun Arduino library shows how to read latitude, longitude, even heading and speed over I²C without the need for constant serial polling. Features Concurrent reception of GPS, GLONASS, Galileo and BeiDou Receives both L1C/A and L2C bands Voltage: 5 V or 3.3 V, but all logic is 3.3 V Current: 68 mA - 130 mA (varies with constellations and tracking state) Time to First Fix: 25 s (cold), 2 s (hot) Max Navigation Rate: PVT (basic location over UBX binary protocol) - 25 Hz RTK - 20 Hz Raw - 25 Hz Horizontal Position Accuracy: 2.5 m without RTK 0.010 m with RTK Max Altitude: 50 km Max Velocity: 500 m/s Weight: 6.8 g Dimensions: 43.5 mm x 43.2 mm 2 x Qwiic Connectors

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The Arduino Nano is a complete Arduino-compatible single board computer that can be plugged directly into a 32-pin socket, a breadboard or a corresponding carrier board. It offers the complete Arduino functionality in very compact dimensions. Via the micro-USB socket, you can supply the board and circuit with power as well as conveniently transfer new programs to the controller. Technical details Pin headers for direct use on the pinboard Ideal for prototyping Programmable via free Arduino IDE Connection via mini USB socket Chipset CH340G Interfaces: I²C, UART, SPI Size: 45 x 18 mm Microcontroller ATmega328P-AU Operating Voltage 5 V Flash Memory 32 KB (2 KB used for Bootloader) SRAM 2 KB EEPROM 1 KB Digital Pins 22 (6 with PWM) Analog Pins 8 DC Current per I/O Pin 40 mA Input Voltage 7-12 V Downloads Datasheet User Guide

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The temperature sensor used in LSN50v2-D20 is DS18B20, which can measure -55°C ~ 125°C with accuracy ±0.5°C (max ±2.0 °C). The sensor cable is made by Silica Gel, and the connection between the metal probe and cable is double compressed for waterproof, moisture-proof, and anti-rust for long-term usage. The LSN50v2-D20 supports a temperature alarm feature, the user can set a temperature alarm for instant notice. It is powered by an 8500mAh Li-SOCI2 battery, It is designed for long-term use up to 10 years. Each LSN50v2-D20 is pre-load with a set of unique keys for LoRaWAN registration, register these keys to the local LoRaWAN server and it will auto-connect after power on. Features LoRaWAN v1.0.3 Class A Ultra-low power consumption External DS18B20 Probe (default 2meters) Measure range -55°C ~ 125°C Temperature alarm AT Commands to change parameters Uplink on periodically or Interrupt Downlink to change configure Applications Wireless Alarm and Security Systems Home and Building Automation Automated Meter Reading Industrial Monitoring and Control Long-range Irrigation Systems

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The Mendocino Motor AR O-8 is a magnetically levitated, solar powered electric motor as a kit.Light Becomes MovementThe solar-powered Mendocino motor seems to float in the air. At first glance, you can't see why the rotor is turning at all. This is the magic of the motor.The Lorentz force is a very small electrical force. In a classroom setting, it is detected by a current swing in the magnetic field. With the Mendocino motor, we have succeeded in developing a beautiful application that uses this weak force for propulsion. Due to its concealed base magnet, the motor will fascinate technically inclined observers.In bright sunlight, the motor can reach a speed of up to 1,000 rpm. More impressive, however, is that even the faint glow of an ample tea light (D = 6 cm with a flame height of about 2 cm) is sufficient to drive the motor. The motor is not yet an alternative source of energy, even though it looks tempting. Presumably, it will remain an attractive model until a resourceful mind disproves this assumption.Dimensions All solar cells 65 x 20 mm Mirror diameter: 25 mm Rotor weight: approx. 150 g Model length: 160 mm Model width: 85 mm Frame height: approx. 85 mm Frame material: black acrylic Tube made of highly polished aluminum Mirror color: silver The Mendocino motor’s easy-to-follow instruction manual includes more than 70 illustrations. It describes a safe and practical approach to construction but also gives you the freedom to try your solutions.Partly Pre-Assembled KitA portion of the kit comes pre-assembled. Bonding the borosilicate glass pane to the acrylic surface requires specialized knowledge and aids. We do not want to impose this on the hobbyist. For instance, the base magnet is attached to the aluminum tube.As a hobbyist, you will need some know-how and appropriate tools: carpet knife, soldering iron and tin, hot glue, pliers, and a clamp or ferrule to fix the supplied assembly aid. A lot of fun is guaranteed!

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LILYGO T-Display-GD32 RISC-V Development Board Specifications Chipset GD32VF103CBT6 FLASH 128 kB SRAM 32 kB On-board clock 108 MHz crystal oscillator Working Voltage 2.7 V - 3.6 V Button BOOT - RESET LCD ST7789 1.14' IPS 240 x 135 USB to TTL CP2104 Modular interface TIMER, UART, SPI, I2C, PWM, ADC, DAC, CAN, USBOTG Working Temperature Range -40 ~ +85°C Weight 10 g Size 51.49 mm x 25.2 mm x 10 mm Peripheral Button, RGB LED, SD slot, LCD Power Supply Input USB 5 V @ 1 A Charging Current 500 mA Battery Input 3.7-4.2 V USB USB-C Downloads GitHub

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The ESP32-S3 Parallel TFT not only offers more SRAM and ROM (compared to the S2 version), but with Bluetooth 5.0 it is also suitable for applications such as local monitoring and controlling.The built-in LCD driver ILI9488 uses 16-bit parallel lines to communicate with ESP32-S3, the main clock can be up to 20 MHz, which makes the display smooth enough for video displays. With this display, you can create more IoT display projects.Features Controller: ESP32-S3-WROOM-1, PCB Antenna, 16 MB Flash, 2 MB PSRAM, ESP32-S3-WROOM-1-N16R2 Wireless: Wifi & Bluetooth 5.0 LCD: 3.5-inch TFT LCD Resolution: 480x320 Color: RGB LCD Interface: 16-bit parallel LCD Driver: ILI9488 Touch Panel: Capacitive Touch Panel Driver: FT6236 USB: Dual USB Type-C (one for USB-to-UART and one for native USB) UART to UART Chip: CP2104 Power Supply: USB Type-C 5.0 V (4.0 V~5.25 V) Button: Flash button and reset button Mabee Interface: 1x I²C, 1x GPIO Backlight Controller: Yes MicroSD: Yes Arduino support: Yes Type-C Power Delivery: Not supported Operation temperature: -40℃ to +85℃ Dimension: 66 x 84.3 x 12 mm Weight: 52 g Downloads ESP32-S3 Datasheet GitHub Wiki LVGL Demo Code

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Portenta H7 follows the Arduino MKR form factor, but enhanced with the Portenta family 80-pin high-density connector. Program it with high-level languages and AI while performing low-latency operations on its customizable hardware. Portenta H7 simultaneously runs high level code along with real time tasks. The design includes two processors that can run tasks in parallel. For example, is possible to execute Arduino compiled code along with MicroPython one, and have both cores to communicate with one another. The Portenta functionality is two-fold, it can either be running like any other embedded microcontroller board, or as the main processor of an embedded computer. Portenta can easily run processes created with TensorFlow Lite, you could have one of the cores computing a computer vision algorithm on the fly, while the other could be making low-level operations like controlling a motor, or acting as a user interface. Use Portenta when performance is key, among other cases, we envision it to be part of: High-end industrial machinery Laboratory equipment Computer vision PLCs Industry-ready user interfaces Robotics controller Mission-critical devices Dedicated stationary computer High-speed booting computation (ms) Two Parallel Cores H7's main processor is the dual core STM32H747 including a Cortex M7 running at 480 MHz and a Cortex-M4 running at 240 MHz. The two cores communicate via a Remote Procedure Call mechanism that allows calling functions on the other processor seamlessly. Both processors share all the in-chip peripherals and can run: Arduino sketches on top of the ARM Mbed OS Native Mbed applications MicroPython / JavaScript via an interpreter TensorFlow Lite Graphics Accelerator Probably one of the most exciting features of the Portenta H7 is the possibility of connecting an external monitor to build your own dedicated embedded computer with a user interface. This is possible thanks to the STM32H747 processor's on-chip GPU, the Chrom-ART Accelerator. Besides the GPU, the chip includes a dedicated JPEG encoder and decoder. A new standard for pinouts The Portenta family adds two 80-pin high density connectors at the bottom of the board. This ensures scalability for a wide range of applications by simply upgrading your Portenta board to the one suiting your needs. On-board Connectivity The onboard wireless module allows to simultaneously manage WiFi and Bluetooth connectivity. The WiFi interface can be operated as an Access Point, as a Station or as a dual mode simultaneous AP/STA and can handle up to 65 Mbps transfer rate. Bluetooth interface supports Bluetooth Classic and Bluetooth Low Energy. It is also possible to expose a series of different wired interfaces like UART, SPI, or I²C, both through some of the MKR styled connectors, or through the new Arduino industrial 80-pin connector pair. The 80-pin connector pair provides additional features including Ethernet. USB-C Multipurpose Connector The board's programming connector is a USB-C port that can also be used to power the board, as a USB Hub, to connect a DisplayPort monitor, or to deliver power to OTG connected devices. Specifications The Arduino Portenta H7 is based on the STM32H747 microcontroller, XI series. Microcontroller STM32H747XI dual Cortex-M7+M4 32bit low power ARM MCU (datasheet) Radio module Murata 1DX dual WiFi 802.11b/g/n 65 Mbps and Bluetooth (Bluetooth Low Energy. 5 via Cordio stack, Bluetooth Low Energy 4.2 via Arduino Stack) (datasheet) Secure element (default) NXP SE0502 (datasheet) Board power supply (USB/VIN) 5 V Supported battery Li-Po Single Cell, 3.7 V, 700 mAh Minimum (integrated charger) Circuit operating voltage 3.3 V Display connector MIPI DSI host & MIPI D-PHY to interface with low-pin count large display GPU Chrom-ART graphical hardware Accelerator Timers 22x timers and watchdogs UART 4x ports (2 with flow control) Ethernet PHY 10 / 100 Mbps (through expansion port only) SD card Interface for SD Card connector (through expansion port only) Operational temperature -40 °C to +85 °C MKR headers Use any of the existing industrial MKR shields on it High-density connectors Two 80-pin connectors will expose all of the board's peripherals to other devices Camera interface 8-bit, up to 80 MHz ADC 3x ADCs with 16-bit max. resolution (up to 36 channels, up to 3.6 MSPS) DAC 2x 12-bit DAC (1 MHz) USB-C Host / Device, DisplayPort out, High / Full Speed, Power delivery Downloads Datasheet Schematics Pinout

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The universal 4 Pin connector is a white 4-pin buckled connector used on Stem, Twigs and Grove cables. The pin spacing is 2 mm. There are 10 connectors per bag. They can be used in DIY projects.

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Alchitry Elements are expansion boards similar to shields for an Arduino or HATs for a Raspberry Pi, but these are meant for your Au and Cu FPGA Development Boards. This Element is equipped with four connectors on top and four on the bottom for maximum stackability that snaps to an Au or Cu board.

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This kit includes 2 servo motors and a Monk Makes ServoSix interface board for use with Raspberry Pi. It also includes a Raspberry Leaf GPIO template, a bunch of female-to-female header pins and a 4xAA battery box.Features of the Servo Six board Screw terminals for servo power supply Reverse-polarity protection for the servo power supply 470 µF 16 V capacitor for servo supply 470 Ω current limiting resistors for servo control lines (to protect GPIO pins) Power indicator LE DownloadsInstructions

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Thanks to the onboard rechargeable battery, you'll have backup power enabling the GPS to get a hot lock within seconds! Additionally, this u-blox receiver supports I²C (u-blox calls this Display Data Channel), making it perfect for the Qwiic compatibility, so we don't have to use up our precious UART ports. Utilizing our handy Qwiic system, no soldering is required to connect it to the rest of your system. However, we still have broken out 0.1'-spaced pins if you prefer to use a breadboard. The NEO-M9N module detects jamming and spoofing events and can reports them to the host so that the system can react to such events. A SAW (Surface Acoustic Wave) filter combined with an LNA (Low Noise Amplifier) in the RF path is integrated into the NEO-M9N module, allowing normal operation even under strong RF interferences. U-blox based GPS products are configurable using the popular but dense, windows program called u-centre. Plenty of different functions can be configured on the NEO-M9N: baud rates, update rates, geofencing, spoofing detection, external interrupts, SBAS/D-GPS, etc. All of this can be done within the SparkFun Arduino Library! The SparkFun NEO-M9N GPS Breakout is also equipped with an on-board rechargeable battery that provides power to the RTC on the NEO-M9N. This reduces the time-to-first fix from a cold start (~24s) to a hot start (~2s). The battery will maintain RTC and GNSS orbit data without being connected to power for plenty of time. Features Integrated Chip Antenna 92-Channel GNSS Receiver 1.5m Horizontal Accuracy 25Hz Max Update Rate (4 concurrent GNSS) Time-To-First-Fix: Cold: 24 s Hot: 2 s Max Altitude: 80,000 m Max G: ≤4 Max Velocity: 500 m/s Velocity Accuracy: 0.05 m/s Heading Accuracy: 0.3 degrees Time Pulse Accuracy: 30 ns 3.3 V VCC and I/O Current Consumption: ~31 mA Tracking GPS+GLONASS Software Configurable Geofencing Odometer Spoofing Detection External Interrupt Pin Control Low Power Mode Many others! Supports NMEA, UBX, and RTCM protocols over UART or I²C interfaces

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Lora technology and Lora devices have been widely used in the field of the Internet of Things (IoT), and more and more people are joining and learning Lora development, making it an indispensable part of the IoT world. To help beginners learn and develop Lora technology better, a Lora development board has been designed specifically for beginners, which uses RP2040 as the main control and is equipped with the RA-08H module that supports Lora and LoRaWAN protocols to help users realize development. RP2040 is a dual-core, high-performance, and low-power ARM Cortex-M0+ architecture chip, suitable for IoT, robots, control, embedded systems, and other application fields. RA-08H is made from the Semtech-authorized ASR6601 RF chip, which supports the 868 MHz frequency band, has a 32 MHz MCU built-in, which has more powerful functions than ordinary RF modules, and also supports AT command control. This board retains various functional interfaces for development, such as the Crowtail interface, the common PIN to PIN header that leads out GPIO ports, and provides 3.3 V and 5 V outputs, suitable for the development and use of commonly used sensors and electronic modules on the market. In addition, the board also reserves RS485 interface, SPI, I²C, and UART interfaces, which can be compatible with more sensors/modules. In addition to the basic development interfaces, the board also integrates some commonly used functions, such as a buzzer, a custom button, red-yellow-green three-color indicator lights, and a 1.8-inch SPI interface LCD screen with a resolution of 128x160. Features Uses RP2040 as the main controller, with two 32-bit ARM Cortex M0+ processor cores (dual-core), and provides more powerful performance Integrates the RA-08H module with 32 MHz MCU, supports the 868 MHz frequency band and AT command control Abundant external interface resources, compatible with Crowtail series modules and other common interface modules on the market Integrates commonly used functions like buzzer, LED light, LCD display and custom button, making it more concise and convenient when creating projects Onboard 1.8-inch 128x160 SPI-TFT-LCD, ST7735S driver chip Compatible with Arduino/Micropython, easy to carry out different projects Specifications Main Chip Raspberry Pi RP2040, built-in 264 KB SRAM, onboard 4 MB Flash Processor Dual Core Arm Cortex-M0+ @ 133 MHz RA-08H Frequency band 803-930 MHz RA-08H Interface External antenna, SMA interface or IPEX first-generation interface LCD Display Onboard 1.8-inch 128x160SPI-TFT-LCD LCD Resolution 128x160 LCD Driver ST7735S (4-wire SPI) Development environment Arduino/MicroPython Interfaces 1x passive buzzer 4x user-defined buttons 6x programmable LEDs 1x RS485 communication interface 8x 5 V Crowtail interfaces (2x analog interfaces, 2x digital interfaces, 2x UART, 2x I²C) 12x 5 V universal pin header IO 14x 3.3 V universal pin header IO 1x 3.3 V/5 V switchable SPI 1x 3.3 V/5 V switchable UART 3x 3.3 V/5 V switchable I²C Working input voltage USB 5 V/1 A Operating temperature -10°C ~ 65°C Dimensions 102 x 76.5 mm (L x W) Included 1x Lora RA-08H Development Board 1x Lora Spring Antenna (868 MHz) 1x Lora Rubber Antenna (868 Mhz) Downloads Wiki

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This high-quality sensor kit has been specially developed for the most common open-source platforms. It is compatible with single-board computers (Raspberry Pi, Banana Pi, CubieBoard, CubieTruck, Beaglebone, pcDuino) and microcontrollers (Arduino, ATmega, AVR, PIC, STM32, etc.). It contains a total of 40 different sensors. You can either solder the sensors or stick them on a board to work on different circuits or experiments. Comprehensive sensor set with 40 sensors including analogue- and voltage-converter High-quality, reliable sensors Universally applicable Kit contents KY-001 Temperature sensor module KY-002 Vibration switch module KY-003 Hall magnetic field sensor module KY-004 Button module KY-005 Infrared transmitter module KY-006 Passive Piezo buzzer module KY-009 RGB LED SMD module KY-010 Light barrier module KY-011 2-color (Red+Green) 5 mm LED module KY-012 Active Piezo buzzer module KY-013 Temperature sensor module KY-015 combi sensor temperature+humidity KY-016 RGB 5 mm LED module KY-017 Tilt switch module KY-018 Photoresistor module KY-019 5 V relais module KY-020 Tilt switch module KY-021 Mini magnetic reed module KY-022 Infrared receiver module KY-023 Joystick module (XY-axis) KY-024 Linear magnetic hall sensor KY-025 Reed module KY-026 Flame sensor module KY-027 Magic light cup module KY-028 Temperature sensor module (Thermistor) KY-029 2-color (Red+Green) 3 mm LED module KY-031 Knock sensor module KY-032 Obstacle detect module KY-033 Tracking sensor module KY-034 7 clour LED flash module KY-035 Bihor magnetic sensor module KY-036 Metal-touch sensor module KY-037 Microphone sensor module (high sensitivity) KY-038 Microphone sound sensor module KY-039 Heartbeat sensor module KY-040 Rotary Encoder KY-050 Ultrasonic distance sensor KY-051 Voltage Translator / Level Shifter KY-052 Pressure sensor / Temperatur sensor (BMP180) KY-053 Analog-digital converter A detailed list with a short description of the functions, programming examples and software, can be found at http://sensorkit.en.joy-it.net.

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