MK2B 3D Printer PCB Heat Bed - 214 mm
MK2B 3D Printer PCB Heat Bed - 214 mm
The MK2B 3D Printer PCB Heat Bed is a critical component in 3D printing technology, designed to provide a stable and precise temperature-controlled platform for the printing process. This 214 mm heat bed is specifically engineered for the Prusa i3 MK2B 3D printer model, but can be adapted for use with other similar 3D printing systems.
The MK2B 3D Printer PCB Heat Bed serves as a thermal platform that facilitates the printing process by |
214 mm x 214 mm
1.6 mm (PCB)
[Insert type and specifications]
50C to 120C
[Insert power rating and voltage]
Thermal insulation material [Insert type and specifications]
Precise temperature control for optimal printing conditions
Fast heating and cooling for reduced print times
Durable and reliable construction for extended lifespan
Compact design for easy adaptation to various 3D printing systems
Easy installation and maintenance
The MK2B 3D Printer PCB Heat Bed is designed for |
3D printing enthusiasts and hobbyists
Professional 3D printing service providers
Engineers and designers working with 3D printing technology
Manufacturers and assemblers of 3D printing systems
MK2B 3D Printer PCB Heat Bed - 214 mm Documentation
Overview
The MK2B 3D Printer PCB Heat Bed is a high-quality, 214 mm diameter printed circuit board (PCB) designed specifically for 3D printing applications. This heat bed is capable of achieving temperatures up to 120C, making it ideal for printing with a variety of materials. The PCB design ensures even heat distribution, reducing hotspots and warping.
Technical Specifications
Diameter: 214 mm
Thickness: 1.6 mm
Material: FR4 PCB with 2oz copper
Temperature Range: up to 120C
Power Rating: 120W
Connector: 4-pin JST-XH connector
Code Examples
Example 1: Arduino Control using Mosfet
In this example, we will use an Arduino Uno to control the heat bed using a Mosfet driver. This code assumes you have the Heat Bed connected to a 12V power supply and a Mosfet driver (such as the IRLZ44N).
```cpp
const int heatBedPin = 9; // Pin connected to Mosfet gate
int targetTemperature = 100; // Desired temperature in Celsius
void setup() {
pinMode(heatBedPin, OUTPUT);
}
void loop() {
// Read temperature from a thermistor or thermocouple (not shown)
int currentTemperature = readTemperature();
if (currentTemperature < targetTemperature) {
// Heat bed is too cold, turn it on
digitalWrite(heatBedPin, HIGH);
} else {
// Heat bed is at or above target temperature, turn it off
digitalWrite(heatBedPin, LOW);
}
delay(1000); // Check temperature every 1 second
}
```
Example 2: Raspberry Pi Control using Python and RPi.GPIO
In this example, we will use a Raspberry Pi to control the heat bed using Python and the RPi.GPIO library. This code assumes you have the Heat Bed connected to a 12V power supply and a relay module (such as the SRD-05VDC-SL-C).
```python
import RPi.GPIO as GPIO
import time
heatBedPin = 17 # Pin connected to relay module
GPIO.setmode(GPIO.BCM)
GPIO.setup(heatBedPin, GPIO.OUT)
targetTemperature = 100 # Desired temperature in Celsius
while True:
# Read temperature from a thermistor or thermocouple (not shown)
currentTemperature = readTemperature()
if currentTemperature < targetTemperature:
# Heat bed is too cold, turn it on
GPIO.output(heatBedPin, GPIO.HIGH)
else:
# Heat bed is at or above target temperature, turn it off
GPIO.output(heatBedPin, GPIO.LOW)
time.sleep(1) # Check temperature every 1 second
```
Example 3: ESP32 Control using MicroPython
In this example, we will use an ESP32 board to control the heat bed using MicroPython. This code assumes you have the Heat Bed connected to a 12V power supply and a relay module (such as the SRD-05VDC-SL-C).
```python
import machine
import utime
heatBedPin = 23 # Pin connected to relay module
machine.Pin(heatBedPin, machine.Pin.OUT)
targetTemperature = 100 # Desired temperature in Celsius
while True:
# Read temperature from a thermistor or thermocouple (not shown)
currentTemperature = readTemperature()
if currentTemperature < targetTemperature:
# Heat bed is too cold, turn it on
machine.Pin(heatBedPin, machine.Pin.HIGH)
else:
# Heat bed is at or above target temperature, turn it off
machine.Pin(heatBedPin, machine.Pin.LOW)
utime.sleep(1) # Check temperature every 1 second
```
Notes and Precautions
Always use a suitable power supply and ensure the Heat Bed is properly connected to avoid damage or electrical shock.
Use a thermistor or thermocouple to monitor the temperature and adjust the target temperature accordingly.
Make sure to implement proper safety measures, such as thermal runaway protection, to prevent overheating or electrical fires.
This documentation is intended to provide a general overview and code examples for using the MK2B 3D Printer PCB Heat Bed - 214 mm. Please consult the datasheet and safety guidelines for the specific components used in your setup.