The board's main processor is a low-power Arm® Cortex®-M0 32-bit SAMD21. The WiFi and Bluetooth® connectivity is performed with a module from u-blox, the NINA-W10, a low-power chipset operating in the 2.4GHz range. On top of that, secure communication is ensured through the Microchip® ECC608 crypto chip. Besides that, you can find a 6 axis IMU, which makes this board perfect for simple vibration alarm systems, pedometers, the relative positioning of robots, etc. WiFi and Arduino IoT Cloud You can get your board to connect to any kind of existing WiFi network, or use it to create your own Arduino Access Point. The specific set of examples we provide for the Nano 33 IoT can be consulted at the WiFiNINA library reference page. It is also possible to connect your board to different Cloud services, Arduino's own among others. Here are some examples of how to get the Arduino boards to connect to: Arduino's own IoT Cloud: Arduino's IoT Cloud is a simple and fast way to ensure secure communication for all of your connected Things. Check it out here. Blynk: a simple project from our community connecting to Blynk to operate your board from a phone with little code. IFTTT: see an in-depth case of building a smart plug connected to IFTTT. AWS IoT Core: we made this example on how to connect to Amazon Web Services. Azure: visit this GitHub repository explaining how to connect a temperature sensor to Azure's Cloud. Firebase: you want to connect to Google's Firebase, this Arduino library will show you how. Microcontroller SAMD21 Cortex®-M0+ 32bit low power ARM MCU Radio Module u-blox NINA-W102 Secure Element ATECC608A Operating Voltage 3.3 V Input Voltage 21 V Digital I/O Pins 14 PWM Pins 11 DC Current per I/O Pin 7 mA Analog Input Pins 8 Analog Output Pins 1 External Interrupts all digital pins UART 1 SPI 1 I2C 1 Flash Memory 256 KB SRAM 32 KB EEPROM none Clock Speed 48 MHz LED_Builtin 13 USB Native in the SAMD21 Processor IMU LSM6DS3 Length 45 mm Width 18 mm Weight 5 g

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Pico Breakout Garden Base sits underneath your Pico and lets you connect up to six of our extensive selection of Pimoroni breakouts to it. Whether it's environmental sensors so you can keep track of the temperature and humidity in your office, a whole host of little screens for important notifications and readouts, and, of course, LEDs. Scroll down for a list of breakouts that are currently compatible with our C++/MicroPython libraries!As well as a labelled landing area for your Pico, there's also a full set of broken out Pico connections, in case you need to attach even more sensors, wires, and circuitry. We've thrown in some rubber feet to keep the base nice and stable and to stop it from scratching your desk, or there are M2.5 mounting holes at the corners so that you can bolt it onto a solid surface if you prefer.The six sturdy black slots are edge connectors that connect the breakouts to the pins on your Pico. There's two slots for SPI breakouts, and four slots for I²C breakouts. Because I²C is a bus, you can use multiple I²C devices at the same time, providing they don't have the same I²C address (we've made sure that all of our breakouts have different addresses, and we print them on the back of the breakouts so they're easy to find).As well as being a handy way to add functionality to your Pico, Breakout Garden is also very useful for prototyping projects without the need for complicated wiring, soldering, or breadboards, and you can grow or change up your setup at any time.Features Six sturdy edge-connector slots for breakouts 4x I²C slots (5 pins) 2x SPI slot (7 pins) Landing area with female headers for Raspberry Pi Pico 0.1” pitch, 5 or 7 pin connectors Broken-out pins Reverse polarity protection (built into breakouts) 99% assembled – just need to stick on the feet! Compatible with Raspberry Pi Pico

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Master FPGA programming with the Red Pitaya Academy Pro Box. Learn Verilog and build a real-time audio processing system using Red Pitaya – with a full online course and hands-on project materials. The Academy Pro Box "Learn FPGA Programming with Verilog" is a complete learning solution for students, engineers and developers looking to gain hands-on experience with FPGA programming in Verilog. Combining theory with practice, the programme integrates a well-established Udemy course on Verilog fundamentals with nine exclusive practical modules developed by Elektor & Red Pitaya, designed specifically for the Red Pitaya STEMlab platform. Participants work with real hardware – delivered as part of the box – including the Red Pitaya STEMlab 125-14 Starter Kit and essential electronic components, enabling them to apply their knowledge immediately through real-world test setups. This combination of guided theory and structured experimentation ensures not only a strong understanding of FPGA principles, but also the ability to implement and verify designs independently. The box is aimed at professionals and advanced learners who want to go beyond simulation and gain practical skills in digital design. By the end of the programme, participants will have completed working FPGA projects, using industry-relevant tools and workflows – making this a valuable resource for academic & career development and technical innovation. What you’ll learn? Fundamentals of FPGA and Verilog Programming How to simulate, synthesize & implement digital circuits How to interface audio hardware with your FPGA Real-time Digital Signal Processing (DSP) techniques How to build, test, and customize audio filters Perfect for Professionals looking to level up their skills in Digital System Design Designers aiming to accelerate time-to-market for their applications Engineers pushing the boundaries of technological innovation Support when you need it In-depth troubleshooting in the course Community forums & Red Pitaya documentation Udemy Q&A and hardware support email What's inside the Box (Course)? Red Pitaya STEMlab 125-14 Starter Kit (valued at €550) 1x STEMlab 125-14 board 1x USB power supply (EU, UK & US) 1x microSD card (16 GB) with pre-installed OS 1x Ethernet cable Extra: 2x Oscilloscope Probes Extra: 2x SMA to BNC adapters Microphone & speaker set with cables Step-by-step project guide Downloadable code templates and schematics Lifetime access to a complete, self-paced Udemy course on Verilog Learning Material (of this Box/Course) 9 Practical Modules with Red Pitaya ▶  Click here to open Introduction Setting Up the Vivado Development Environment Project Setup & Vivado Integration Synthesis, Implementation & Bitstream Generation FPGA Image Overview First FPGA Projects – LEDs Full Audio Pass-Through Module 5 kHz Low-Pass Filter (4-Pole Cascade) Real-Time Microphone Input → Speaker Output Verilog Course with 28 Lessons on Udemy ▶  Click here to open Installing Vivado Vivado Design Flow Part 1 Vivado Design Flow Part 2 Commonly Asked Question’s from previous Module Fundamentals of Verilog Commonly Asked Question’s from previous Module Modeling Styles Assignment Operators in Verilog FAQ Behavioral Modeling Style Commonly Asked Question's from previous Module Gate Level Modeling Style Switch level Modeling Style Structural Modeling Style Schematic based Design Entry with IP integrator and Xilinx IP's Memories Commonly Asked Question's from previous Module Finite State Machines Commonly Asked Question's from previous Module Writing Testbenches Hardware Debugging with Vivado Required Hardware v File I/0 Projects RTL for Synthesis FPGA Architecture Fundamentals Commonly Asked Question's from previous Module Interview Preparations Next Step What is Elektor Academy Pro? Elektor Academy Pro delivers specialized learning solutions designed for professionals, engineering teams, and technical experts in the electronics and embedded systems industry. It enables individuals and organizations to expand their practical knowledge, enhance their skills, and stay ahead of the curve through high-quality resources and hands-on training tools. From real-world projects and expert-led courses to in-depth technical insights, Elektor empowers engineers to tackle today’s electronics and embedded systems challenges. Our educational offerings include Academy Books, Pro Boxes, Webinars, Conferences, and industry-focused B2B magazines – all created with professional development in mind. Whether you're an engineer, R&D specialist, or technical decision-maker, Elektor Academy Pro bridges the gap between theory and practice, helping you master emerging technologies and drive innovation within your organization.

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The Soldered CONNECT Programmer is designed to make programming boards based on ESP8266 and ESP32 microcontrollers extremely simple. It contains all the necessary electronics and logic, allowing programming to be done by simply plugging a USB cable into the CONNECT Programmer and connecting it to the programming header. The onboard circuitry handles timing and signal sequencing automatically, placing the ESP microcontroller into bootloader mode without the need for manual intervention. Features IC: CH340 Pin layout: GPIO0, RESET, RX, TX, 3V3, GND LEDs: RX, TX, power Interface: USB-C Dimensions: 38 x 22 mm Downloads Datasheet GitHub

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The Mixer Geek Theremin+ is a fun and innovative electronic musical instrument inspired by the classic Theremin. Unlike traditional instruments, the Theremin+ is played without physical contact, using hand movements in the air to control pitch and volume. The Theremin+ offers an exciting and hands-on way to explore music and sound experimentation. Features Ready to use out of the box Equipped with a loudspeaker and full-color screen Intuitive button-based navigation and confirmation Choose from over 70 tones Multiple customizable function settings Displays waveform, time, frequency, volume, and corresponding piano pitch (display can be turned off) Powered via USB-C port; compatible with power banks Compact design with removable telescopic antenna for easy storage Connects to headphones, external speakers, or recording devices Dimensions: 98 x 70 x 18 mm Included 1x Theremin+ Musical Instrument 2x Antennas 1x USB-C cable

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The AD584 4-ch Voltage Reference Module is designed to provide stable and accurate reference voltages of 2.5 V, 5 V, 7.5 V, and 10 V. It incorporates the AD584 integrated circuit, known for its high accuracy and stability. Features Multiple Output Voltages: The module can output four different reference voltages (2.5 V, 5 V, 7.5 V, and 10 V) accessible through a single port. Microcontroller-based Switching: An onboard microcontroller facilitates switching between the four voltage outputs, with LED indicators displaying the active selection. User-Friendly Operation: A single button allows for easy cycling through the available reference voltages. Transparent Housing: The module is encased in a transparent housing, offering protection while allowing users to view the internal components. Power Supply Options: It can be powered via a built-in lithium battery (not included) or through a 5 V DC input. A charging indicator provides status updates during charging. Output Interface: Equipped with 4mm banana sockets for secure and reliable connections. Included 1x AD584 4-ch Voltage Reference Module with Housing Downloads Datasheet

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If you want to push the resolution limits of the V-One, these dispensing tips will help enable your experimental projects. This pack contains 4 extra fine nozzles with an internal diameter of 0.150 mm (6 mil). Do not use with solder paste! It will clog!

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This IPS 7.9-inch HDMI touch display with 400 x 1280 resolution, 170° wide viewing angle and built-in ferrite Hi-Fi speaker can be used as a secondary screen for chassis and also supports Raspberry Pi and Jetson Nano. Features 7.9-inch IPS display with a hardware resolution of 400 x 1280. Zinc alloy case, toughened glass panel with up to 6H hardness. When working as a computer monitor, it supports Windows without a driver. When working with Raspberry Pi, it supports Raspberry Pi OS / Ubuntu / Kali and Retropie, driver-free. When working with Jetson Nano, it supports Ubuntu, driver-free. Support backlight control for power saving. Support 5-point capacitive touch control. Specifications Display size 7.9" Viewing angle 170° Resolution 400 x 1280 pixels Display area 191.08 x 60.40 mm IPS version solor gamut 62% NTSC Max brightness 550 cd/m² Backlight adjustment Adjusted by the key/HID software Contrast 900:1 Color depth 16.7M Refresh rate 60 Hz Power port USB-C Display port HDMI interface Dimensions 211 x 73 x 20 mm Included 1x 7.9-inch Side Monitor 1x HDMI to Micro HDMI adapter 1x USB Type-A to Type-C cable (1 m) 1x HDMI flat cable (1 m) 2x Nonskid rubber feet Downloads Wiki

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This set contains 3 nozzles for Hot Air Rework Stations such as ZD-8922 or ZD-8968. Included 1x Hot air nozzle 79-3911 1x Hot air nozzle 79-3912 1x Hot air nozzle 79-3913

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ArdiPi is the ultimate Arduino Uno alternative packed with powerful specs and exciting features in the Arduino Uno form factor. You can enjoy a low-cost solution with access to the largest support communities for Raspberry Pi. ArdiPi variant is powered by Raspberry Pi Pico W. The built-in Wi-Fi and Bluetooth connectivity makes the board ideal for IoT projects or projects requiring wireless communication. Features Arduino Uno form factor, so you can connect 3.3 V compatible Arduino shields SD card slot for storage and data transfer Drag-and-drop programming using mass storage over USB Multifunction GPIO breakout supporting general I/O, UART, I²C, SPI, ADC & PWM functions. Multi-tune Buzzer to add audio alert into the project SWD pins breakout for serial debugging Multi-platform support like Arduino IDE, MicroPython, and CircuitPython. Comes with HID support, so the device can simulate a mouse or keyboard Specifications Powered by RP2040 microcontroller which is a dual-core Arm Cortex-M0+ processor, 2 MB of onboard flash storage, 264 kB of RAM On-board single-band 2.4 GHz wireless interfaces (802.11n) for WiFi and Bluetooth 5 (LE) WPA3 & Soft access point supporting up to four clients Operating voltage of pins 3.3 V and board supply 5 V 25 Multipurpose GPIOs breakout in Arduino style for easy peripheral interfacing I²C, SPI, and UART communications protocol support 2 MB of onboard Flash memory Cross-platform development and multiple programming language support

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If you’re looking for a simple way to start soldering or just want to make your own Dasduino, this soldering set is a great opportunity. "Make your own Dasduino CORE" is an educational set for learning the skill of soldering, with which you end up with a functional microcontroller board. As with the other SMD versions of the Dasduino CORE boards we offer, the possibilities are endless. It is based on the ATmega328P microcontroller, and all SMD components are already soldered on the board. The set also includes a THT socket for the microcontroller, which simplifies the replacement of the microcontroller should it ever become necessary. Included 1x PCB 7x Capacitors (100nF) 4x Capacitors (2.2uF) 2x Capacitors (22pF) 5x Resistors (2.2 kOhm) 5x Resistors (10 kOhm) 3x Resistors (1 kOhm) 1x Resistor (100 kOhm) 1x Resistor (100 ohm) 1x JST battery connector 1x LED (purple) 1x LED (white) 1x LED (blue) 1x LED (red) 1x LED (orange) 1x Socket for ATmega328P 1x ATmega328P microcontroller

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Inky Frame 4.0' features a vibrant E Ink display with 640 x 400 pixels of tightly packed seven colour goodness – that's almost as many pixels as on the 5.7' Inky Frame, but squished tidily into a smaller footprint. There's five buttons with LED indicators for interacting with the display, two Qw/ST connectors for plugging in breakouts and a micro SD card slot for storage of capybara photos or other vital files. Every Inky Frame comes with a pair of sleek little metal legs so you can stand it up on your desk. There's also a battery connector so you can power it without annoying trailing wires, and some neato power saving features that mean you can run it from batteries for ages. Inky Frame 4.0' is great for: An ultra readable, low power consumption home automation dashboard Displaying stylised photos, pop art images or favourite comic panels. Showing cute graphs and readouts from local or wirelessly connected sensors Displaying fascinating data from online APIs. Features Raspberry Pi Pico W Aboard Dual Arm Cortex M0+ running at up to 133 Mhz with 264 kB of SRAM 2 MB of QSPI flash supporting XiP Powered and programmable by USB micro-B 2.4 GHz wireless 4.01' EPD display (640 x 400 pixels) E Ink Gallery Palette 4000 ePaper ACeP (Advanced Color ePaper) 7-color with black, white, red, green, blue, yellow, orange. Ultra wide viewing angles Ultra low power consumption Dot pitch – 0.135 x 0.135 mm 5x Tactile buttons with LED indicators Two Qw/ST connectors for attaching breakouts microSD card slot Dedicated RTC chip (PCF85063A) for deep sleep/wake Fully assembled (no soldering required) C/C++ and MicroPython libraries Schematic Included 1x Inky Frame 4.0' (incl. Pico W) 2x Metal legs Downloads MicroPython (Learn) Getting Started with Inky Frame (Readme) Installing MicroPython (Readme) MicroPython FAQs (and troubleshooting) Download pirate-brand MicroPython (you'll want the Inky Frame.uf2) MicroPython examples PicoGraphics function reference C/C++ C examples Picographics function reference

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The Arduino Nano 33 BLE Sense Rev2 with headers is Arduino’s 3.3 V AI enabled board in the smallest available form factor with a set of sensors that will allow you without any external hardware to start programming your next project, right away. With the Arduino Nano 33 BLE Sense Rev2, you can: Build wearable devices that using AI can recognize movements. Build a room temperature monitoring device that can suggest or modify changes in the thermostat. Build a gesture or voice recognition device using the microphone or the gesture sensor together with the AI capabilities of the board. Differences between Rev1 and Rev2 Replacement of IMU from LSM9DS1 (9 axis) for a combination of two IMUs (BMI270 – 6 axis IMU and BMM150 – 3 axis IMU) Replacement of temperature and humidity sensor from HTS221 for HS3003 Replacement of microphone from MP34DT05 to MP34DT06JTR Replacement of power supply MPM3610 for MP2322 Addition of VUSB soldering jumper on the top side of the board New test point for USB, SWDIO and SWCLK Specifications Microcontroller nRF52840 (datasheet) Operating Voltage 3.3 V Input Voltage (limit) 21 V DC Current per I/O Pin 15 mA Clock Speed 64 MHz CPU Flash Memory 1 MB (nRF52840) SRAM 256 KB (nRF52840) EEPROM None Digital Input / Output Pins 14 PWM Pins All digital pins UART 1 SPI 1 I²C 1 Analog Input Pins 8 (ADC 12 bit 200 k samples) Analog Output Pins Only through PWM (no DAC) External Interrupts All digital pins LED_BUILTIN 13 USB Native in the nRF52840 Processor IMU BMI270 (datasheet) and BMM150 (datasheet) Microphone MP34DT06JTR (datasheet) Gesture, light, proximity, color APDS9960 (datasheet) Barometric pressure LPS22HB (datasheet) Temperature, humidity HS3003 (datasheet) Downloads Datasheet Schematics

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Inventor 2040 W is a multi-talented board that does (almost) everything you might want a robot, prop or other mechanical thing to do. Drive a couple of fancy motors with encoders attached? Yep! Add up to six servos? Sure? Attach a little speaker so you can make noise? No problem! It's also got a battery connector so you can power your inventions from AA/AAA or LiPo batteries and carry your miniature automaton/animated top hat/treasure chest that growls at your enemies around with you untethered.You also get a ton of options for hooking up sensors and other gubbins – there's two Qw/ST connectors (and an unpopulated Breakout Garden slot) for attaching breakouts, three ADC pins for analog sensors, photoresistors and such, and three spare digital GPIO you could use for LEDs, buttons or digital sensors. Speaking of LEDs, the board features 12 addressable LEDs (AKA Neopixels) – one for each servo and GPIO/ADC channel.Features Raspberry Pi Pico W Aboard Dual Arm Cortex M0+ running at up to 133 Mhz with 264 kB of SRAM 2 MB of QSPI flash supporting XiP Powered and programmable by USB micro-B 2.4 GHz wireless 2 JST-SH connectors (6 pin) for attaching motors Dual H-Bridge motor driver (DRV8833) Per motor current limiting (425 mA) Per motor direction indicator LEDs 2 pin (Picoblade-compatible) connector for attaching speaker JST-PH (2 pin) connector for attaching battery (input voltage 2.5-5.5 V) 6 sets of header pins for connecting 3 pin hobby servos 6 sets of header pins for GPIO (3 of which are ADC capable) 12x addressable RGB LEDs/Neopixels User button Reset button 2x Qw/ST connectors for attaching breakouts Unpopulated headers for adding a Breakout Garden slot Fully assembled No soldering required (unless you want to add the Breakout Garden slot). C/C++ and MicroPython libraries Schematic Downloads Download pirate-brand MicroPython Getting Started with Raspberry Pi Pico Motor function reference Servo function reference MicroPython examples C++ examples

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The SparkFun MicroMod mikroBUS Carrier Board takes advantage of the MicroMod, Qwiic, and mikroBUS ecosystems making it easy to rapidly prototype with each of them, combined. The MicroMod M.2 socket and mikroBUS 8-pin header provide users the freedom to experiment with any Processor Board in the MicroMod ecosystem and any Click board in the mikroBUS ecosystem, respectively. This board also features two Qwiic connectors to seamlessly integrate hundreds of Qwiic sensors and accessories into your project. The mikroBUS socket comprises a pair of 8-pin female headers with a standardized pin configuration. The pins consist of three groups of communications pins (SPI, UART and I²C), six additional pins (PWM, Interrupt, Analog input, Reset and Chip select), and two power groups (3.3 V and 5 V). While a modern USB-C connector makes programming easy, the Carrier Board is also equipped with a MCP73831 Single-Cell Lithium-Ion/Lithium-Polymer Charge IC so you can charge an attached single-cell LiPo battery. The charge IC receives power from the USB connection and can source up to 450 mA to charge an attached battery. Features M.2 MicroMod (Processor Board) Connector USB-C Connector 3.3 V 1 A Voltage Regulator 2x Qwiic Connectors mikroBUS Socket Boot/Reset Buttons Charge Circuit JTAG/SWD PTH Pins Downloads Schematic Eagle Files Board Dimensions Hookup Guide Getting Started with Necto Studio mikroBUS Standard Qwiic Info Page GitHub Hardware Repo

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The Ynvisible Segment E-Paper Displays are thin & flexible, sunlight readable, very easy to operate, and that they are the most energy-efficient display technology on the market for most applications. Get started today! Evaluate the ultra-low-power, thin and flexible Segment E-Paper Displays. The kit contains display designs and includes a manual display driver as well as a display driver with I²C interface. Display parameters White Reflectance 40% Contrast Ratio (Yb/Yd) 1:3 Angle Dependency No, lambertian Thickness 300 µm Graphical layout Segments Segment dimensions 1-100 mm Response time 100-1000 ms Power parameters Driving voltage 1.5 V Driving method Direct drive Energy consumption 1 mJ/cm^2 Pulse energy 0.25 mJ/cm^2 Image retention w/o power 1-5 minutes Operating conditions -20°C - +60°C Activations/Cycles 1.000.000 Included Ynvisible Segment Displays (‍Segmented e-paper displays with different layouts, shapes, and symbols, suitable for testing and evaluation.) 3 single-digit display 1 double-digit display 5 single-segment/icon displays 4 progress bars (7-segment and 3-segment) Manual Display Clicker (Manual display controller for ON/OFF operations) Display Driver and Software Library (Dedicated display driver with I²C communication interface. Compatible with Arduino and other easy-to-use development boards.) Flexible Display Adapter (‍For convenient connection of the flexible displays on a plastic substrate to rigid electronics (such as development boards), using a FFC/FPC connector.) Downloads Datasheet Guide & Instructions

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Features Implements CAN V2.0B at up to 1 Mb/s Industrial standard 9 pin sub-D connector OBD-II and CAN standard pinout selectable. Changeable chip select pin Changeable CS pin for TF card slot Changeable INT pin Screw terminal that easily to connect CAN_H and CAN_L Arduino Uno pin headers Micro SD card holder 2 Grove connectors (I2C and UART) SPI Interface up to 10 MHz Standard (11 bit) and extended (29 bit) data and remote frames Two receive buffers with prioritized message storage

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This Grove - PIR Motion Sensor(Passive Infrared Sensor) can detect infrared signals caused by motion. If the PIR sensor notices the infrared energy, the motion detector is triggered and the sensor outputs HIGH on its SIG pin. The detecting range and response speed can be adjusted by 2 potentiometers soldered on its circuit board, The response speed is from 0.3s - 25s, and max 6 meters of detecting range. The Grove - PIR Motion Sensor(Passive Infrared Sensor) is an easy-to-use motion sensor with Grove compatible interface. Simply connecting it to Base Shield and programming it, it can be used as a suitable motion detector for Arduino projects. For example, the PIR Motion Sensor is commonly used in security alarm systems and automatic lighting applications. Features Grove compatible interface Voltage range: 3 V – 5 V Size: 20 mm x 40 mm Detecting angle: 120 degree Detecting Max distance: 6m (3m by default) Adjustable detecting distance and holding time Applications Motion Sensor Motion Detector Security Alarm System Human Detection System Technical Specifications Dimensions 40 mm x 20 mm x 15 mm Weight 12 g Battery Exclude Voltage range 3 V – 5 V Detecting angle 120 degree Detecting distance max 6m (3m by default)

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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

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The DiP-Pi WiFi Master is an Advanced WiFi connectivity System with sensors embedded interfaces that cover most of possible needs for IoT application based on Raspberry Pi Pico. It is powered directly from the Raspberry Pi Pico VBUS. The DiP-Pi WiFi Master contains Raspberry Pi Pico embedded RESET button as also ON/OFF Slide Switch that is acting on Raspberry Pi Pico Power Sources. The DiP-Pi WiFi Master is equipped with WiFi ESP8266 Clone module with embedded antenna. This feature open a wide range of IoT applications based on it. In Addition to all above features DiP-Pi WiFi Master is equipped with embedded 1-wire, DHT11/22 sensors, and micro–SD Card interfaces. Combination of the extended powering, battery, and sensors interfaces make the DiP-Pi WiFi Master ideal for IoT applications like data logger, plants monitoring, refrigerators monitoring etc. DiP-Pi WiFi Master is supported with plenty of ready to use examples written in Micro Python or C/C++. Specifications General Dimensions 21 x 51 mm Raspberry Pi Pico pinout compatible Independent Informative LEDs (VBUS, VSYS, V3V3) Raspberry Pi Pico RESET Button ON/OFF Slide Switch acting on Raspberry Pi Pico Powering Source Embedded 3.3 V @ 600 mA LDO ESP8266 Clone WiFi Connectivity ESP8266 Firmware Upload Switch Embedded 1-wire Interface Embedded DHT-11/22 Interface Powering Options Raspberry Pi Pico micro-USB (via VBUS) Embedded Peripherals and Interfaces Embedded 1-wire interface Embedded DHT-11/22 Interface Micro SD Card Socket Programmer Interface Standard Raspberry Pi Pico C/C++ Standard Raspberry Pi Pico Micro Python Case Compatibility DiP-Pi Plexi-Cut Case Informative LEDs VB (VUSB) VS (VSYS) V3 (V3V3) System Protection Direct Raspberry Pi Pico Hardware Reset Button PPTC 500 mA @ 18 V fuse on EPR EPR/LDO Over Temperature protection EPR/LDO Over Current protection System Design Designed and Simulated with PDA Analyzer with one of the most advanced CAD/CAM Tools – Altium Designer Industrial Originated PCB Construction 2 ozcopper PCB manufactured for proper high current supply and cooling 6 mils track/6 mils gap technology 2 layers PCB PCB Surface Finishing – Immersion Gold Multi-layer Copper Thermal Pipes for increased System Thermal Response and better passive cooling Downloads Datasheet Manual

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The board's main processor is a low-power ARM Cortex-M0 32-bit SAMD21, like in the other boards within the Arduino MKR family. The WiFi and Bluetooth connectivity is performed with a module from u-blox, the NINA-W10, a low-power chipset operating in the 2.4 GHz range. On top of that, secure communication is ensured through the Microchip ECC508 crypto chip. Besides that, you can find a battery charger, and an RGB LED on-board. Official Arduino WiFi Library You can get your board to connect to any kind of existing WiFi network, or use it to create your own Arduino Access Point. The specific set of examples we provide for the MKR WiFi 1010 can be consulted at the WiFiNINA library reference page. Compatible with other Cloud Services It is also possible to connect your board to different Cloud services, Arduino's own among others. Here are some examples of how to get the MKR WiFi 1010 to connect to: Blynk: a simple project from the Arduino community connecting to Blynk to operate your board from a phone with little code IFTTT: in-depth case of building a smart plug connected to IFTTT AWS IoT Core: Arduino made this example on how to connect to Amazon Web Services Azure: visit this GitHub repository explaining how to connect a temperature sensor to Azure's Cloud Firebase: you want to connect to Google's Firebase, this Arduino library will show you how Specifications Microcontroller SAMD21 Cortex-M0+ 32bit low power ARM MCU Radio Module u-blox NINA-W102 Power Supply 5 V Secure Element ATECC508 Supported Battery Li-Po Single Cell, 3.7 V, 1024 mAh Minimum Operating Voltage 3.3 V Digital I/O Pins 8 PWM Pins 13 UART 1 SPI 1 I2C 1 Analog Input Pins 7 Analog Output Pins 1 External Interrupts 10 Flash Memory 256 KB SRAM 32 KB EEPROM no Clock Speed 32.768 kHz, 48 MHz LED_Builtin 6 USB Full-Speed USB Device and embedded Host Length 61.5 mm Width 25 mm Weight 32 g

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These are some of our favourite sensors from each category. But wait, there's more! The SparkFun Sensor Kit now includes several of our sensor boards that feature the Qwiic Connect System for rapid prototyping! This version of the kit has received a complete overhaul! This huge assortment of sensors makes an amazing gift for that exceptional electronics enthusiast in your life! Included Large Piezo Vibration Sensor (With Mass): A flexible film able to sense for vibration, touch, shock, etc. When the film moves back and forth an AC wave is created, with a voltage of up to ±90. Reed Switch: Senses magnetic fields, makes for a great non-contact switch. 0.25' Magnet Square: Plays nicely with the reed switch. Embed the magnet into stuffed animals or inside a box to create a hidden actuator to the reed switch. 0.5' Force Sensitive Resistor: A force-sensing resistor with a 0.5' diameter sensing area. Great for sensing pressure (i.e., if it's being squeezed). Flex Sensor (2.2'): As the sensor is flexed, the resistance across the sensor increases. Useful for sensing motion or positioning. SoftPot: These are very thin variable potentiometers. By pressing on various positions along the strip, you vary the resistance. Mini Photocell: The photocell will vary its resistance based on how much light it's exposed to. Will vary from 1kΩ in the light to 10kΩ in the dark. PIR Motion Sensor: Easy-to-use motion detector with an analog interface. Power it with 5-12VDC, and you'll be alerted of any movement. QRD1114 Optical Detector/Phototransistor: An all-in-one infrared emitter and detector. Ideal for sensing black-to-white transitions or can be used to detect nearby objects. IR Diode: This LED can handle up to 50mA of current and outputs in the 940-950nm IR spectrum. Use to send signal to talk to the included IR receiver diode or just turn off your neighbor's TV. IR Receiver Diode: This simple IR receiver will detect an IR signal coming from a standard IR remote control or the IR diode included in the kit. Resistor 1.0M Ohm 1/4 Watt PTH: Two 1/4 Watt, +/- 5% tolerance PTH resistors. Commonly used in breadboards and perf boards. The large resistor helps dampen any voltage spikes when using the large piezo vibration sensor with a microcontroller. Resistor 10K Ohm 1/4 Watt PTH – 20 pack (Thick Leads): 1/4 Watt, +/- 5% tolerance PTH resistors. Commonly used in breadboards and perf boards, these 10KΩ resistors make excellent pullups, pulldowns, and current limiters. Resistor 330 Ohm 1/4 Watt PTH – 20 pack (Thick Leads): 1/4 Watt +/- 5% tolerance PTH resistors. Commonly used in breadboards and perf boards, these 330Ω resistors make excellent current-limiting resistors for LEDs. SparkFun 9DoF IMU Breakout – ISM330DHCX, MMC5983MA (Qwiic): This breakout board includes a 3-axis accelerometer, 3-axis gyroscope, and 3-axis magnetometer. Connect this board over I2C using a Qwiic cable or solder wires or headers to the SPI pins to get started using one of the three sensors or using all three together to determine 3D orientation. SparkFun Atmospheric Sensor Breakout – BME280 (Qwiic): The SparkFun BME280 Atmospheric Sensor Breakout is an easy way to measure barometric pressure, humidity, and temperature readings, all without taking up too much space. SparkFun Indoor Air Quality Sensor – ENS160 (Qwiic): The SparkFun ENS160 Indoor Air Quality Sensor is a digital multi-gas sensor solution with four sensor elements that can be used in a wide range of applications including building automation, smart home, and HVAC. SparkFun Capacitive Touch Slider – CAP1203 (Qwiic): This little board acts great as a non-mechanical button. Use the three pads on the board or connect your own input for a great touch button or slider with no moving parts. Flexible Qwiic Cable (100 mm): Use these to connect up to four Qwiic boards in your kit. RGB and Gesture Sensor (APDS-9960): This board does a little bit of everything. You can measure ambient light or color as well as detect proximity and do gesture sensing all over I2C. Soil Moisture Sensor (with screw terminals): Ever wonder if your plant needs water? This sensor outputs an analog signal based on the resistance of the soil. Since water is conductive, the soil water content will be reflected in the soil resistance. Sound Detector: Ever need to know if there is noise in an area? This board will not only tell you, but it will also output amplitude as well as the full audio signal. Break Away Headers (Straight): Solder these pins to any of the breakouts to prototype on a breadboard. You'll want to solder these to boards that do not have Qwiic connectors such as the gesture sensor and sound detector.

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The servo control is based on the SparkFun servo pHAT, and thanks to its I2C capabilities, this PWM add-on saves the Raspberry Pi's GPIO pins, allowing you to use them for other purposes. We have also provided a Qwiic connector for easy interfacing with the I²C bus using the Qwiic system. Whether you use the Auto pHAT with a Raspberry Pi, NVIDIA, Jetson Nano, Google Coral, or other SBC, it makes for a unique robotics addition and board with a 2x20 GPIO. The DC motor control comes from the same 4245 PSOC and 2-channel motor ports system used on the SparkFun Qwiic Motor Driver. This provides 1.2A steady-state drive per channel (1.5A peak) and 127 levels of DC drive strength. The SparkFun Auto pHAT also supports up to two motor encoders thanks to the onboard ATTINY84A to provide more precise movement to your creation! Additionally, the Auto pHAT has an on-board ICM-20948 9DOF IMU for all your motion-sensing needs. This enables your robot to access the 3-Axis Gyroscope with four selectable ranges, 3-Axis Accelerometer, again with four selectable ranges, and 3-axis magnetometer with an FSR of ±4900µT. Power to the SparkFun Auto pHAT can be supplied through a USB-C connector or external power. This will power either the motors only or power the motors and the Raspberry Pi that is connected to the HAT. We've even added power protection circuits to the design to avoid damage to power sources. Features 4245 PSOC and 2-channel motor ports programmable using Qwiic library Onboard ATTINY84A supports up to two DC motor encoders 5V pass-through from RPi Onboard ICM-20948 9DOF IMU for motion sensing accessible via Qwiic library PWM control for up to four servos Qwiic connector for expansion to full SparkFun Qwiic ecosystem Designed for stacking, full header support & can use additional pHATs on top of it Uninhibited access to the RPi camera connector & display connector. USB-C for powering 5V rail (Motors/Servos/back powering Pi) External power inputs broken out to PTH headers

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The JLINK V9 USB-JTAG Arm Emulator/Debugger is a high-performance and reliable tool for programming and debugging ARM Cortex-M, Cortex-A/R, and other supported microcontrollers via JTAG and SWD interfaces. Features Universal Compatibility: Supports a wide range of ARM-based MCUs and cores including Cortex-M0, M3, M4, M7, A5, A7, A9, and R4. High-Speed Performance: Fast data throughput for both flash programming and real-time debugging with minimal latency. Multi-Interface Support: Offers both JTAG and SWD modes, enabling flexible use in different development environments. Plug & Play via USB: Easy connection to your PC with USB 2.0 interface; no external power supply required. Robust Software Support: Fully compatible with SEGGER J-Link software tools and supported by major IDEs including Keil MDK, IAR EWARM, SEGGER Embedded Studio, and others. Included 1x JLINK V9 USB-JTAG Arm Emulator/Debugger 1x USB Cable 1x Connector Cable

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