A compact, solderless breadboard for prototyping and testing electronic circuits.
A compact, solderless breadboard for prototyping and testing electronic circuits.
A set of high-quality jumper wires for connecting components to the Pico W board.
A USB-A to micro-USB cable for programming and powering the Pico W board.
A external antenna for improving Wi-Fi and Bluetooth signal quality.
A comprehensive user manual that provides detailed instructions for getting started with the Raspberry Pi Pico W board.
Covers topics such as setting up the board, writing code in MicroPython, and using the board's wireless capabilities.
Functionality
| The Raspberry Pi Pico W Ultimate Kit with Manual is designed to provide users with a complete solution for developing a wide range of projects, including |
Technical Specifications
| + Processor | Dual-core ARM Cortex-M0+ |
| + Clock Speed | Up to 133 MHz |
| + SRAM | 264KB |
| + Flash Memory | 2MB |
| + Operating Temperature | -20C to 85C |
| + Wi-Fi | 802.11 b/g/n |
| + Bluetooth | 5.0 |
| + USB-Powered | 5V, 1A |
| + Battery-Powered | 2x AAA batteries (not included) |
| + Microcontroller Board | 51mm x 21mm |
| + Breadboard | 56mm x 42mm |
Conclusion
The Raspberry Pi Pico W Ultimate Kit with Manual is a comprehensive bundle that provides everything needed to get started with IoT development, robotics, and other projects that require wireless connectivity. With its powerful microcontroller board, range of accessories, and detailed user manual, this kit is an excellent choice for both beginners and experienced developers.
Raspberry Pi Pico W Ultimate Kit with ManualOverviewThe Raspberry Pi Pico W Ultimate Kit is a comprehensive kit that includes the Raspberry Pi Pico W, a powerful microcontroller board, along with various accessories and a manual. The Raspberry Pi Pico W is a miniature Wi-Fi enabled microcontroller board, perfect for IoT projects, robotics, and prototyping. This kit provides everything you need to get started with building innovative projects.Key FeaturesRaspberry Pi Pico W microcontroller board
Wi-Fi connectivity
264KB of SRAM and 2MB of flash memory
26 GPIO pins
USB 1.1 host and device
UART, SPI, and I2C interfaces
Manual for easy learning and referenceCode Examples### Example 1: Blinking an LED using GPIOThis example demonstrates how to use the Raspberry Pi Pico W's GPIO pins to control an LED.Hardware RequirementsRaspberry Pi Pico W
Breadboard
LED
Resistor (1k)
Jumper wiresCode
```python
import machine
import time# Initialize the LED pin as an output
led = machine.Pin(25, machine.Pin.OUT)while True:
# Turn the LED on
led.value(1)
time.sleep(0.5)
# Turn the LED off
led.value(0)
time.sleep(0.5)
```
ExplanationIn this example, we import the `machine` and `time` modules. We then initialize pin 25 as an output using `machine.Pin(25, machine.Pin.OUT)`. The `while` loop toggles the LED on and off by setting the pin value to 1 (high) and 0 (low) respectively, with a 0.5-second delay between each toggle.### Example 2: Connecting to Wi-Fi and Sending Data to a ServerThis example demonstrates how to use the Raspberry Pi Pico W's Wi-Fi capabilities to connect to a network and send data to a server.Hardware RequirementsRaspberry Pi Pico W
Wi-Fi router
Server (e.g., using Node.js and Express.js)Code
```python
import machine
import urequests
import wlan# Initialize Wi-Fi
wlan.init()
wlan.connect("your_wifi_ssid", "your_wifi_password")# Wait for Wi-Fi connection
while not wlan.isconnected():
machine.sleep(0.1)print("Connected to Wi-Fi!")# Define the server URL and data to send
url = "http://your_server_url.com/data"
data = {"sensor_data": 42}# Send a POST request to the server
response = urequests.post(url, json=data)# Check the response status
if response.status_code == 200:
print("Data sent successfully!")
else:
print("Error sending data:", response.status_code)
```
ExplanationIn this example, we import the `machine`, `urequests`, and `wlan` modules. We initialize Wi-Fi using `wlan.init()` and connect to a network using `wlan.connect("your_wifi_ssid", "your_wifi_password")`. We then wait for the Wi-Fi connection to establish using a `while` loop. Once connected, we define the server URL and data to send, and use `urequests.post()` to send a POST request to the server. Finally, we check the response status code to ensure data was sent successfully.Note: Replace `"your_wifi_ssid"` and `"your_wifi_password"` with your actual Wi-Fi network credentials, and `"http://your_server_url.com/data"` with your actual server URL.This comprehensive kit and its accompanying manual provide a solid foundation for exploring the world of IoT and microcontroller-based projects. With the Raspberry Pi Pico W Ultimate Kit, you can build innovative projects, from robotics and automation to smart home devices and wearables.