Micro:bit USB Cable Type C to Micro USB 0.3m - Green This USB-C to Micro USB Cable is a great way to power and transfer data to your micro:bit. It’s 0.3m long (11.8 inches), making it easy to use without extra cable clutter. With USB 2.0 speeds up to 480Mb/s, it ensures fast and reliable data transfer. The cable is made from strong PVC and features embossed logos for extra durability. Officially licensed by the micro:bit foundation, it’s a perfect fit for your micro:bit projects in a stylish green color.

Micro:bit USB-C Cable Type C to Micro USB - Black The USB-C to Micro USB Cable is perfect for powering and transferring data to your micro:bit. It’s 0.3m long (11.8 inches), making it a compact and easy-to-use connection. With USB 2.0 speeds up to 480Mb/s, it offers fast and reliable data transfer. The cable is made from strong PVC and has embossed logos for extra durability. Officially licensed by the micro:bit foundation, it’s a great choice for all your micro:bit projects in a stylish black design.

MindPlus Coding Kit for Arduino MindPlus Coding Kit for Arduino is the perfect solution to introduce your kids to the world of coding. This versatile kit, featuring 18 modules with Bluetooth, WiFi, and more, provides an interactive and educational coding experience. With Mind+ graphical programming and Arduino IDE support, it's designed for beginners to seamlessly transition from block-based coding to actual code. The UNO R3 controller ensures high-quality performance, making learning coding joyful and accessible. Suitable for kids of various ages, this kit opens the door to creativity and logic thinking skills. Start the coding journey with MindPlus! Offline Programming Editor Mind+ is a programming tool, which allows you to build a program by dragging and snapping coding blocks. With tons of tutorials, sample projects and a large community, it is one of the best tools for you to learn programing from absolutely zero! Create Interactive Projects with Hardware Mind+ supports a wide range of hardware including Arduino, micro:bit or even a series of ESP32-based educational microcontrollers, which makes it possible to let the program change your real life. Not only that you can use microcontrollers to interact with PC in real time, but also you can upload the code and let them work as standalone smart devices. Features: 18 modules with functions involving Bluetooth, WiFi, display, etc. 25 Interesting projects to explore IoT, smart home, etc. The teaching contents are instructed in detail from the perspectives of materials, hardware connections, hardware working principles, and programming, enabling beginners to master how to use Arduino and integrally learn network Internet and data analysis. Then draw inferences about it. Applications: Introduction to coding: Suitable for beginners, especially kids aged 10 and above. Versatile coding experience: Offers 18 modules with functions like Bluetooth, WiFi, and display. Interactive learning: Engages users in hands-on projects, covering IoT, smart home, algorithms, and more.

Mini Base Board (B) Designed for Raspberry Pi Compute Module The Mini Base Board (B) Designed for Raspberry Pi Compute Module—also known as CM4-IO-BASE-B—is a compact and efficient IO baseboard tailored specifically for the Raspberry Pi Compute Module 4 (CM4). This baseboard provides the essential interfaces required to harness the full potential of the CM4, making it ideal for embedded and industrial applications. Powered via a 5V/2.5A USB Type-C port, the board ensures stable and reliable performance while maintaining a small footprint, making it perfect for space-constrained projects and prototyping setups. Features: USB Type-C power input (5V/2.5A) for reliable operation Compact form factor ideal for embedded and space-limited applications Breaks out essential IO interfaces from CM4 Suitable for industrial, prototyping, and custom development projects Simplified design for ease of integration and rapid deployment Plug-and-play compatibility with CM4 module

MPU-6050 Triple-Axis Accelerometer Gyroscope Module The MPU6050 is an IMU (Inertial Estimation Unit) sensor, a portion of the Micro-Electro-Mechanical Systems (MEMS) family. It highlights a 3-axis accelerometer and a 3-axis gyroscope. The MPU-6050 module in addition called a magnetometer sensor. It can identify acceleration up in three measurements (X, Y, and Z) and also measure angular velocity around those axes. This motion-tracking device is often used in applications such as detecting the orientation of a device, detecting movement, and measuring angular velocity. The Inertial measurement unit sensor contains some additional circuitry for interfacing with a microcontroller or other device. The MPU6050 offers precise tracking for both quick and gradual movements. It includes a user-programmable gyroscope with a full-scale range of ±250, ±500, ±1000, and ±2000°/sec (DPS). Additionally, it features a user-programmable accelerometer with a full-scale range of ±2g, ±4g, ±8g, and ±16g. Read our blog explaining the Interfacing mpu6050 with Raspberry Pi , It covers step by step process. Key Features: I2C Digital Output of 6/9-axis MotionFusion data in various formats such as Euler Angle, Quaternion, Rotation Matrix, or Raw Data. Chip built-in 16-bit AD converter, 16-bit data output. Voltage Range: 2.3V to 3.4V. Selectable Jumpers: CLK, FSYNC, AD0. Gyro: ±250 to ±2000dps sensitivity. Accelerometer: ±2g to ±16g programmable range. DMP™ Engine: Offloads MotionFusion, sync, and gesture detection. Embedded Algorithms: Run-time bias and compass calibration. Digital Temperature Sensor: Output for temperature monitoring. Differences Between MPU6000, MPU6050 and MPU6500: MPU6000 Sensor: Offers an 8 kHz sampling rate, supporting both SPI and I2C interfaces. However, the I2C interface might be insufficient for handling an 8 kHz gyro update due to its slower nature. It boasts improved vibration sensitivity compared to the MPU6500. MPU6050 Sensor: It offers an 8 kHz sampling rate and utilizes the I2C interface communication protocol. It exhibits superior vibration sensitivity compared to the MPU6500. MPU6500 Sensor: It offers a 32 kHz sampling rate and compatibility with both I2C and SPI interfaces. Due to increased sensitivity to vibrations, it may require additional vibration isolation methods for optimal performance. Pinout:

MPU-6050 Triple-Axis Accelerometer & Gyroscope Module The MPU-6050 Triple-Axis Accelerometer & Gyroscope Module is a 6-axis motion tracking device that consists of a 3-axis accelerometer and a 3-axis gyroscope. It can measure acceleration in 3 dimensions (X, Y, and Z) as well as angular velocity about those axes. The sensor is often used in applications such as detecting the orientation of a device, detecting movement and measuring angular velocity. The module you mentioned likely contains the MPU-6050 sensor and some additional circuitry for interfacing with a microcontroller or other device. For precision tracking of both fast and slow motions, the MPU-60X0 features a user-programmable gyroscope full-scale range of ±250, ±500, ±1000, and ±2000°/sec (DPS). The parts also have a user-programmable accelerometer full-scale range of ±2g, ±4g, ±8g, and ±16g. The MPU-6000 family is comprised of two parts, the MPU-6000 and MPU-6050. These parts are identical to each other with two exceptions. The MPU-6050 supports I2C communications at up to 400kHz and has a VLOGIC pin that defines its interface voltage levels; the MPU-6000 supports SPI at up to 20MHz in addition to I2C and has a single supply pin, VDD, which is both the device’s logic reference supply and the analog supply for the part.

MPU-9250 6-Axis Attitude Gyro and Accelero Sensor Module (Without Magnetometer) MPU9250 6-Axis Attitude Gyro Accelerator Sensor Module features the MPU-9250, which is a multi-chip module (MCM) consisting of two dies integrated into a single QFN package. One die houses the 3-Axis accelerometer and gyroscope. Hence, the MPU-9250 is a 6-axis Motion Tracking device that combines a 3-axis accelerometer and gyroscope and a Digital Motion Processor (DMP). It is based on I2C Address, Address: 0x68 by default, 0x69 if AD0 is pulled high. The MPU-9250 also features an embedded temperature sensor. This module includes pull-up resistors on the SDA, SCL, and nCS lines, pull-down resistors on the FSYNC and AD0 lines, and an onboard 3.3V voltage regulator allowing you to power the module from 5V sources such as an Arduino. If you desire to power the module from 3.3V you can bridge the solder jumper next to the voltage regulator to bypass the regulator. Applications FPV, RC, and Robots systems GPS navigation systems Impact recognition and logging Gaming and virtual reality input devices Motion-activated functions Intelligent power saving for handheld devices Vibration monitoring and compensation Free-fall detection 6D-orientation detection

MyCobot 280 Raspberry Pi 2023 All-in-one Suite – 6 DOF Collaborative Robotic Arm ( Raspberry Pi Version) The MyCobot 280 Raspberry Pi 2023 – 6DOF Collaborative Robotic Arm (Raspberry Pi Version) is a smart and flexible robotic arm built for collaboration and education. Here’s a closer look: Hands-on Learning & Research: The MyCobot 280 Raspberry Pi 2023 features six degrees of freedom (DOF) for precise and flexible movement. Designed as the ultimate robotic companion, it supports Raspberry Pi 4B and integrates various actuators and sensors, unlocking endless possibilities in robot programming, control logic development, and ROS simulations. Build, explore, and enjoy learning with the MyCobot 280! Endless Possibilities The MyCobot 280 Pi features native Raspberry Pi hardware interfaces, multiple end effectors, LEGO-compatible terminal pins, and a range of sensors. With color visual tracking, QR code & gesture recognition, and voice broadcast, this Raspberry Pi robotic arm opens the door to an exciting world of robot programming! Powered by Raspberry Pi 4B With the Raspberry Pi 4B, the MyCobot Pi robotic arm delivers faster processing and enhanced computing power compared to earlier models. Equipped with a 64-bit 1.5GHz quad-core CPU and Broadcom VideoCore VI GPU @ 500MHz, it ensures smooth and efficient performance for robotics applications. Advanced Configuration The MyCobot Pi collaborative robotic arm features a smart and sophisticated design, making it ideal for custom development and advanced applications. Human-Friendly Collaborative Design Built for safe interaction, the MyCobot Pi works seamlessly alongside humans, boosting productivity in collaborative environments. What You'll Get with MyCobot 280 Raspberry Pi Robot: Adaptive Gripper: The Adaptive Gripper is perfect for advanced manufacturing and robotic research. It adjusts to an object’s shape for a secure grip, letting you focus on the task instead of the grasp. It can also detect if a part is picked and verify its size. Artificial Intelligence Kit: The Artificial Intelligence Kit 2023 features 5 advanced visual recognition algorithms and 7 hardware upgrades, supporting 6 Elephant Robotics arms. It offers learning from 8 key perspectives and includes visualization software for an enhanced robotics experience. Flat Base: The myCobot-Flat Base is a sturdy foundation for collaborative robots, providing strong support for the robotic arm. It ensures stability, allowing you to focus on innovation and research. G Shape Base: The G Shape Base securely holds the robotic arm, allowing you to focus on operation, creation, and research. Designed for desktop edges, it offers flexibility and stability in any setup. Robot Dimension and Working Range:

NB-IoT / Cat-M(eMTC) / GNSS HAT for Raspberry Pi Introducing the Telecommunication HAT, a versatile device offering a range of communication functionalities. This HAT incorporates three key features: NB-IoT (NarrowBand-Internet of Things), Cat-M (also known as eMTC, enhanced Machine Type Communication), and GNSS (Global Navigation Satellite System). With the rapid advancements in telecommunication technology, traditional 2G/3G networks are gradually fading away. The future landscape will be dominated by IoT technologies, combining low bandwidth options like NB-IoT/Cat-M with high bandwidth standards such as 4G/5G. Designed to operate globally, this HAT supports NB-IoT and Cat-M bands, while also providing positioning capabilities through GNSS. Its compact size, minimal latency, and extensive coverage make it the perfect choice for a wide range of IoT applications, including intelligent instruments, asset tracking, remote monitoring, e-health, and more. Features: Standard Raspberry Pi 40PIN GPIO extension header, supports Raspberry Pi series boards Supports communication protocols such as TCP/UDP/HTTP/HTTPS/TLS/DTLS/PING/LWM2M/COAP/MQTT Supports GNSS positioning (GPS, GLONASS, BeiDou, and Galileo) Onboard USB interface, to test AT Commands, get GPS positioning data, and so on Breakout UART control pins, to connect with host boards like Arduino/STM32 Onboard voltage translator, 3.3V by default, allows to be switched to 5V via onboard jumper SIM card slot, supports ONLY 1.8V SIM card (3V SIM card is not available) 3x LED indicators, easy to monitor the working status Baudrate: 300~3686400 bps Common baudrate auto-negotiation: 9600/19200/38400/57600/115200 bps Comes with development resources and manual (examples for Raspberry Pi/Arduino/STM32)

NE555 + CD4017 Water Flowing Light LED Module DIY Kit This is NE555 + CD4017 Water Flowing Light LED Module DIY Kit. It has a double-sided board with a surface mount and a through-hole configuration. It is designed for users with advanced soldering skills. You must solder some components on the top surface and some components on the bottom side of the board. The module has a very simple assembly process that will take anywhere between 30 minutes to an hour. This kit is mainly composed of clock generation circuit and decimal counter circuit. The NE555 is the core self-excited multivibrator. The power supply charges the capacitor C1 through R2, R3 and R4. When C1 starts charging, the NE555 2 pin also At low level, the output pin 3 is high. When the power supply is charged to C2 to the 2/3 power supply voltage through R2, R3, and R4, the output pin 3 level changes from high to low. NE555 internal discharge tube guide Pass, capacitor C1 is discharged through pin 7 of R4, R3, NE555, until the voltage across C1 is lower than 1/3 of the power supply voltage, the level of the 3 pin of NE555 changes from low level to high level. C1 is charged again. This cycle forms an oscillation. The charging time is: 0.695 (R2+R3+R4)C1, the discharge time is: 0.695 (R4+R3)C1, the R4 can be adjusted to control the output frequency of the oscillator, and the clock oscillation signal of NE555 is continuously added to the 14th pin of CD4017. Ten LEDs are connected to the 10 outputs of the CD4017. When the 10 outputs of the CD4017 alternately generate a high level under the action of the clock signal, D1--D10 are sequentially illuminated to form a water-light effect. Adjust the R4 to adjust the flow speed of the LED light.