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Ultrabase 235235mm 3D Printer Platform Tempered Heated Bed Glass Plate with Microporous Coating

Ultrabase 235235mm 3D Printer Platform Tempered Heated Bed Glass Plate with Microporous Coating Ultrabase 235235mm 3D Printer Platform Tempered Heated Bed Glass Plate with Microporous Coating
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Size

235mm x 235mm

Material

Tempered Glass

Coating

Microporous

Heated Bed Temperature Range

20C to 120C

Power Requirements

12V or 24V (dependent on printer model)

Compatibility

Compatible with various 3D printer models (check manufacturer specifications for compatibility)

Applications

The Ultrabase 235235mm 3D Printer Platform is suitable for a wide range of 3D printing applications, including

Hobbyist printing

Prototyping

Production printing

Educational institutions

Research and development

Installation and Maintenance

For optimal performance, it is recommended to follow the manufacturer's installation and maintenance guidelines, including

Proper cleaning and maintenance of the print bed

Regular calibration of the heated bed

Ensuring proper power supply and wiring

By following these guidelines, users can ensure optimal performance and extend the lifespan of the Ultrabase 235235mm 3D Printer Platform.

Pin Configuration

  • Ultrabase 235235mm 3D Printer Platform Tempered Heated Bed Glass Plate with Microporous Coating - Pinout Explanation and Connection Guide
  • The Ultrabase 3D Printer Platform features a heated bed glass plate with a microporous coating, designed for optimal printing performance. The platform comes equipped with a set of pins that enable connection to the 3D printer's control system. This documentation provides a detailed explanation of each pin and a step-by-step connection guide.
  • Pinout Diagram:
  • The Ultrabase 3D Printer Platform has a total of 6 pins, arranged in two rows:
  • Row 1:
  • 1. VCC (Red Wire)
  • 2. GND (Black Wire)
  • 3. TH ( Thermistor Pin)
  • Row 2:
  • 1. HBP (Heated Bed Power +)
  • 2. HBN (Heated Bed Power -)
  • 3. Signals (Not Used)
  • Pin Explanation and Connection Guide:
  • 1. VCC (Red Wire)
  • Pin Function: Power supply for the heated bed
  • Connection: Connect to the 3D printer's power supply (normally 12V or 24V) using a red wire
  • Important: Ensure the power supply is rated for the heated bed's maximum current draw
  • 2. GND (Black Wire)
  • Pin Function: Ground connection for the heated bed
  • Connection: Connect to the 3D printer's ground (GND) using a black wire
  • Important: A secure ground connection is crucial for the heated bed's safe operation
  • 3. TH (Thermistor Pin)
  • Pin Function: Thermistor signal output for temperature sensing
  • Connection:
  • + Connect to the 3D printer's thermistor input (normally labeled as "TB" or "Thermistor") using a thermistor cable
  • + Ensure the thermistor cable is properly secured to prevent damage or disconnection
  • 4. HBP (Heated Bed Power +)
  • Pin Function: Heated bed power positive connection
  • Connection:
  • + Connect to the 3D printer's heated bed power output (normally labeled as "HB" or "Heated Bed") using a red wire
  • + Ensure a secure connection to prevent overheating or electrical arcing
  • 5. HBN (Heated Bed Power -)
  • Pin Function: Heated bed power negative connection
  • Connection:
  • + Connect to the 3D printer's heated bed power output (normally labeled as "HB" or "Heated Bed") using a black wire
  • + Ensure a secure connection to prevent overheating or electrical arcing
  • 6. Signals (Not Used)
  • Pin Function: Not used for this specific component
  • Connection: Leave unconnected
  • Connection Sequence:
  • 1. Connect the VCC (red wire) to the 3D printer's power supply
  • 2. Connect the GND (black wire) to the 3D printer's ground
  • 3. Connect the TH (thermistor pin) to the 3D printer's thermistor input
  • 4. Connect the HBP (heated bed power +) to the 3D printer's heated bed power output
  • 5. Connect the HBN (heated bed power -) to the 3D printer's heated bed power output
  • Important Safety Notes:
  • Ensure proper electrical connections to prevent electrical shock, overheating, or fire hazards
  • Verify the 3D printer's power supply and heated bed power output are compatible with the Ultrabase 3D Printer Platform
  • Follow proper safety guidelines when working with electrical components and 3D printing equipment

Code Examples

Ultrabase 235235mm 3D Printer Platform Tempered Heated Bed Glass Plate with Microporous Coating
Overview
The Ultrabase 235235mm 3D Printer Platform Tempered Heated Bed Glass Plate with Microporous Coating is a high-quality, durable, and heat-resistant component designed for 3D printing applications. This heated bed glass plate features a microporous coating, which provides excellent adhesion and release properties for 3D printing materials. The tempered glass construction ensures excellent thermal resistance, and the microporous coating enhances print quality and reduces warping.
Technical Specifications
Dimensions: 235mm x 235mm
 Material: Tempered glass
 Heating element: Built-in heating element with a maximum temperature of 120C
 Microporous coating: Enhances adhesion and release properties for 3D printing materials
 Power rating: 12V, 20A
 Thermal resistance: Excellent heat resistance and distribution
Code Examples
Example 1: Arduino-based 3D Printer Control
In this example, we will demonstrate how to use the Ultrabase 235235mm 3D Printer Platform Tempered Heated Bed Glass Plate with Microporous Coating with an Arduino-based 3D printer control system.
```c++
#include <Arduino.h>
#define HEATER_PIN 9  // Pin for the heated bed
#define TEMPERATURE_PIN A0  // Pin for the temperature sensor
const int targetTemperature = 100;  // Desired temperature in Celsius
void setup() {
  pinMode(HEATER_PIN, OUTPUT);
  pinMode(TEMPERATURE_PIN, INPUT);
}
void loop() {
  int temperature = analogRead(TEMPERATURE_PIN);
  temperature = temperature  0.488;  // Convert analog reading to Celsius
if (temperature < targetTemperature) {
    digitalWrite(HEATER_PIN, HIGH);  // Turn on the heated bed
  } else {
    digitalWrite(HEATER_PIN, LOW);  // Turn off the heated bed
  }
delay(1000);  // Wait 1 second before checking the temperature again
}
```
Example 2: MicroPython-based 3D Printer Control (Using Raspberry Pi or ESP32/ESP8266)
In this example, we will demonstrate how to use the Ultrabase 235235mm 3D Printer Platform Tempered Heated Bed Glass Plate with Microporous Coating with a MicroPython-based 3D printer control system running on a Raspberry Pi or ESP32/ESP8266 microcontroller.
```python
import machine
import utime
heater_pin = machine.Pin(18, machine.Pin.OUT)  # Pin for the heated bed
temperature_pin = machine.ADC(0)  # Pin for the temperature sensor
target_temperature = 100  # Desired temperature in Celsius
while True:
    temperature = temperature_pin.read_u16()  0.488  # Read temperature sensor value
if temperature < target_temperature:
        heater_pin.value(1)  # Turn on the heated bed
    else:
        heater_pin.value(0)  # Turn off the heated bed
utime.sleep(1)  # Wait 1 second before checking the temperature again
```
Example 3: Marlin Firmware Configuration
In this example, we will demonstrate how to configure the Ultrabase 235235mm 3D Printer Platform Tempered Heated Bed Glass Plate with Microporous Coating using the Marlin firmware.
In the Marlin firmware configuration file (e.g., `Configuration.h`), add the following lines to enable the heated bed:
```c++
#define TEMP_BED_PIN  A0  // Pin for the temperature sensor
#define HEATER_BED_PIN 9  // Pin for the heated bed
#define BED_HEATING  1  // Enable heated bed
```
In the ` Thermal.cpp` file, add the following lines to configure the heated bed temperature:
```c++
#if BED_HEATING
  #define BED.getTargetTemp() 100  // Desired temperature in Celsius
#endif
```
Note: These code examples are for illustrative purposes only and may require modifications to work with your specific 3D printer setup and configuration.