Soldron Portable SMPS Variable Wattage Micro Soldering Station
Soldron Portable SMPS Variable Wattage Micro Soldering Station
The Soldron Portable SMPS Variable Wattage Micro Soldering Station is a compact, portable, and feature-rich soldering station designed for professionals and hobbyists working with IoT projects, electronics, and SMD components. This station offers precise temperature control, adjustable power output, and a range of innovative features, making it an ideal choice for a variety of soldering applications.
The Soldron Portable SMPS Variable Wattage Micro Soldering Station is a self-contained soldering system that provides a reliable and efficient way to solder electronic components. The station consists of a power source, temperature control unit, and a soldering iron. The device is designed to operate with a wide range of soldering tips, allowing users to adapt to different soldering tasks.
100-240V AC, 50-60Hz
5-60W
150C - 450C
1C
0.5mm - 1.5mm soldering tips
120mm x 70mm x 50mm
250g
CE, FCC, RoHS compliant
The Soldron Portable SMPS Variable Wattage Micro Soldering Station is suitable for a wide range of applications, including |
IoT projects
Electronics assembly and repair
SMD component soldering
Prototyping and development
Hobbyist projects
PCB assembly and rework
The Soldron Portable SMPS Variable Wattage Micro Soldering Station is a versatile, feature-rich, and compact soldering solution designed for professionals and hobbyists working with IoT projects and electronics. Its precise temperature control, adjustable power output, and innovative features make it an ideal choice for a variety of soldering applications.
Soldron Portable SMPS Variable Wattage Micro Soldering Station Documentation
Overview
The Soldron Portable SMPS Variable Wattage Micro Soldering Station is a compact, portable soldering iron designed for precision soldering and desoldering tasks. This unit features a variable wattage control, allowing users to adjust the soldering iron's power output to suit specific components and applications.
Technical Specifications
Input Voltage: 100-240V AC, 50-60Hz
Output Power: 5-60W
Temperature Range: 200-450C (392-842F)
Tip Temperature Accuracy: 1C
Heating Element: High-quality ceramic heating element
Connection: Standard 1/16" (1.6mm) soldering iron tip
Dimensions: 140 x 80 x 60mm (5.5 x 3.1 x 2.4 inches)
Weight: 350g (12.3 oz)
Example 1: Basic Soldering Station Usage
In this example, we will demonstrate how to use the Soldron Portable SMPS Variable Wattage Micro Soldering Station as a standalone soldering station.
Connect the Soldering Iron
1. Plug in the soldering station to a suitable power source (100-240V AC, 50-60Hz).
2. Connect the soldering iron to the station using the standard 1/16" (1.6mm) tip.
3. Turn on the soldering station and allow it to reach the desired temperature (adjustable between 200-450C).
Adjusting the Power Output
The variable wattage control allows users to adjust the soldering iron's power output to suit specific components and applications. To adjust the power output, simply turn the Wattage Control Knob (located on the station) clockwise to increase the power output or counterclockwise to decrease it.
Example 2: Automated Soldering using an Arduino Board
In this example, we will demonstrate how to control the Soldron Portable SMPS Variable Wattage Micro Soldering Station using an Arduino board.
Hardware Requirements
Arduino Board (e.g., Arduino Uno or Arduino Mega)
Soldron Portable SMPS Variable Wattage Micro Soldering Station
Thermocouple (optional)
Software Requirements
Arduino IDE
Code Example
The following Arduino code snippet demonstrates how to control the soldering station's temperature and power output using an Arduino board.
```c
const int thermocouplePin = A0; // Thermocouple pin (optional)
const int relayPin = 2; // Relay pin to control the soldering station
void setup() {
pinMode(relayPin, OUTPUT);
Serial.begin(9600);
}
void loop() {
int desiredTemperature = 350; // Desired temperature in C
int currentTemperature = readThermocouple(); // Read thermocouple value (optional)
if (currentTemperature < desiredTemperature) {
digitalWrite(relayPin, HIGH); // Turn on the soldering station
delay(1000); // Wait for 1 second
} else {
digitalWrite(relayPin, LOW); // Turn off the soldering station
}
delay(1000); // Wait for 1 second before checking again
}
int readThermocouple() {
int thermocoupleValue = analogRead(thermocouplePin);
int temperature = thermocoupleValue 5 / 1024; // Convert thermocouple value to temperature
return temperature;
}
```
In this example, the Arduino board controls the soldering station's power output by turning the relay on and off. The thermocouple reading (optional) allows the Arduino board to adjust the power output based on the actual temperature.
Note: This code example assumes a basic understanding of Arduino programming and thermocouple usage. Make sure to adjust the code to suit your specific application and requirements.
Example 3: Using the Soldering Station with a Raspberry Pi
In this example, we will demonstrate how to control the Soldron Portable SMPS Variable Wattage Micro Soldering Station using a Raspberry Pi.
Hardware Requirements
Raspberry Pi (e.g., Raspberry Pi 4)
Soldron Portable SMPS Variable Wattage Micro Soldering Station
Relay module (e.g., 2-channel relay module)
Software Requirements
Raspbian OS
Python 3.x
Code Example
The following Python code snippet demonstrates how to control the soldering station's power output using a Raspberry Pi.
```python
import RPi.GPIO as GPIO
import time
GPIO.setmode(GPIO.BCM)
relay_pin = 17 # Relay pin to control the soldering station
GPIO.setup(relay_pin, GPIO.OUT)
while True:
GPIO.output(relay_pin, GPIO.HIGH) # Turn on the soldering station
time.sleep(1) # Wait for 1 second
GPIO.output(relay_pin, GPIO.LOW) # Turn off the soldering station
time.sleep(1) # Wait for 1 second
```
In this example, the Raspberry Pi controls the soldering station's power output by switching the relay on and off using the GPIO pins.
Note: This code example assumes a basic understanding of Raspberry Pi programming and GPIO usage. Make sure to adjust the code to suit your specific application and requirements.