The P65 3D Pen features a heated nozzle that can reach temperatures up to 240C (464F), allowing for smooth and consistent extrusion of plastic filament.
The P65 3D Pen features a heated nozzle that can reach temperatures up to 240C (464F), allowing for smooth and consistent extrusion of plastic filament.
The pen's extrusion system ensures a steady and controlled flow of melted filament, resulting in high-quality prints with precise layer adhesion.
| Micro-Controller | The P65 3D Pen is equipped with a micro-controller that regulates temperature, motor speed, and other essential functions, ensuring a seamless user experience. |
Key Features
The pen's contoured body and balanced weight distribution provide a comfortable grip, reducing fatigue and allowing users to work for extended periods.
The heated nozzle's temperature can be adjusted between 180C to 240C (356F to 464F), accommodating various types of plastic filament.
The pen's motor speed can be adjusted to suit different printing styles and filament types.
| Real-Time Temperature Monitoring | The device features a built-in thermometer that continuously monitors the nozzle's temperature, ensuring optimal printing conditions. |
The P65 3D Pen supports wireless connectivity via Bluetooth or Wi-Fi, enabling users to print wirelessly from their devices.
The pen's compact design and lightweight construction make it easy to transport and store.
Specifications
Up to 0.1 mm (0.004 in)
PLA, ABS, PETG, and TPU
180C to 240C (356F to 464F)
USB-C, DC 5V, 2A
170 mm x 40 mm x 25 mm (6.7 in x 1.6 in x 1 in)
250 grams (8.8 oz)
Applications
| The Ganesha P65 3D Pen is an ideal tool for |
Artists and designers seeking to explore new creative possibilities
Educators looking to integrate 3D printing into their curriculum
Professionals requiring rapid prototyping and conceptual modeling
Hobbyists interested in exploring the world of 3D printing
Overall, the Ganesha P65 3D Pen is a cutting-edge IoT device that offers an intuitive and creative way to bring ideas to life in three dimensions.
Ganesha P65 3D Pen DocumentationOverview
The Ganesha P65 3D Pen is a cutting-edge IoT component designed for 3D printing and drawing applications. It features a compact design, high precision, and ease of use, making it an ideal choice for professionals and hobbyists alike. This documentation provides a comprehensive guide to using the Ganesha P65 3D Pen in various contexts, along with code examples to get you started.Technical SpecificationsCommunication Interface: UART (serial communication)
Power Supply: 5V DC
Printing Resolution: Up to 50 microns
Printing Speed: Up to 150 mm/s
Material Compatibility: PLA, ABS, PETG, and moreCode Examples### Example 1: Basic 3D Printing using PythonIn this example, we will use the Python programming language to control the Ganesha P65 3D Pen and print a simple 3D object.Hardware Requirements:Ganesha P65 3D Pen
Microcontroller (e.g., Arduino or Raspberry Pi)
USB-TTL Serial Cable
Power Supply (5V DC)Software Requirements:Python 3.x
PySerial library (for serial communication)Code:
```python
import serial# Initialize serial communication with the 3D pen
ser = serial.Serial('/dev/ttyUSB0', 9600, timeout=1)# Set the pen to standby mode
ser.write(b'M21
') # M21: Standby mode# Set the pen to extrude mode
ser.write(b'M82
') # M82: Extrude mode# Move the pen to the starting position (x, y, z)
ser.write(b'G1 F3000 X0 Y0 Z0
') # G1: Move to (x, y, z) at F3000 mm/min# Print a simple 3D object (e.g., a cube)
ser.write(b'G1 F3000 X10 Y10 Z10
') # Move to (10, 10, 10)
ser.write(b'G1 F3000 X20 Y20 Z20
') # Move to (20, 20, 20)
ser.write(b'G1 F3000 X30 Y30 Z30
') # Move to (30, 30, 30)# Set the pen to standby mode
ser.write(b'M21
')# Close the serial connection
ser.close()
```
This code example demonstrates how to control the Ganesha P65 3D Pen using Python and the PySerial library. It sets the pen to standby mode, moves it to a starting position, prints a simple 3D object, and then returns to standby mode.### Example 2: 3D Drawing using ArduinoIn this example, we will use the Arduino platform to control the Ganesha P65 3D Pen and draw a simple 2D shape.Hardware Requirements:Ganesha P65 3D Pen
Arduino Board (e.g., Arduino Uno or Arduino Mega)
USB-TTL Serial Cable
Power Supply (5V DC)Software Requirements:Arduino IDECode:
```c++
#include <SoftwareSerial.h>// Define the serial communication pins
#define RX_PIN 2
#define TX_PIN 3
SoftwareSerial penSerial(RX_PIN, TX_PIN);void setup() {
// Initialize serial communication with the 3D pen
penSerial.begin(9600);// Set the pen to standby mode
penSerial.println("M21");
}void loop() {
// Set the pen to draw mode
penSerial.println("M81");// Move the pen to the starting position (x, y)
penSerial.println("G1 F3000 X0 Y0");// Draw a simple 2D shape (e.g., a circle)
for (int i = 0; i < 360; i++) {
float x = 10 cos(i PI / 180);
float y = 10 sin(i PI / 180);
penSerial.print("G1 F3000 X");
penSerial.print(x);
penSerial.print(" Y");
penSerial.println(y);
delay(10);
}// Set the pen to standby mode
penSerial.println("M21");
}
```
This code example demonstrates how to control the Ganesha P65 3D Pen using Arduino and the SoftwareSerial library. It sets the pen to standby mode, moves it to a starting position, draws a simple 2D shape, and then returns to standby mode.### Example 3: Real-time 3D Modeling using Node.js and WebSocketIn this example, we will use Node.js and WebSocket to create a real-time 3D modeling application that controls the Ganesha P65 3D Pen.Hardware Requirements:Ganesha P65 3D Pen
Computer (running Node.js and WebSocket server)
USB-TTL Serial Cable
Power Supply (5V DC)Software Requirements:Node.js
WebSocket library (e.g., ws)
Serial communication library (e.g., serialport)Code:
```javascript
const WebSocket = require('ws');
const serialport = require('serialport');// Initialize serial communication with the 3D pen
const penSerial = new serialport('/dev/ttyUSB0', { baudRate: 9600 });// Initialize WebSocket server
const wss = new WebSocket.Server({ port: 8080 });// Handle WebSocket connections
wss.on('connection', (ws) => {
console.log('Client connected');// Handle incoming messages from the client
ws.on('message', (message) => {
console.log(`Received message: ${message}`);// Parse the incoming message (e.g., 3D model coordinates)
const coords = JSON.parse(message);// Move the pen to the specified coordinates
penSerial.write(`G1 F3000 X${coords.x} Y${coords.y} Z${coords.z}
`);
});// Handle errors and disconnections
ws.on('error', (error) => {
console.error('Error occurred:', error);
});ws.on('close', () => {
console.log('Client disconnected');
});
});
```
This code example demonstrates how to create a real-time 3D modeling application using Node.js, WebSocket, and serial communication. It sets up a WebSocket server, handles incoming messages from connected clients, and controls the Ganesha P65 3D Pen to move to the specified coordinates.These code examples provide a starting point for using the Ganesha P65 3D Pen in various contexts, from basic 3D printing to real-time 3D modeling applications. By leveraging the pen's capabilities and exploring different programming languages and platforms, you can unlock new possibilities in 3D printing and beyond.