Mini USB Nebulizer Circuit 5VDC 2W 108Khz
Mini USB Nebulizer Circuit 5VDC 2W 108Khz
The Mini USB Nebulizer Circuit 5VDC 2W 108Khz is a compact, low-power nebulizer circuit designed for use in various IoT applications, including medical devices, environmental monitoring systems, and industrial automation. This component is a tiny, highly efficient nebulizing solution that can be powered via a standard USB connection.
| The Mini USB Nebulizer Circuit 5VDC 2W 108Khz is designed to convert a liquid substance into a fine mist or aerosol. This is achieved through the creation of high-frequency ultrasonic vibrations, typically in the range of 108 kHz, which are transmitted to the liquid through a piezoelectric element. The resulting mist can be used in a variety of applications, such as |
portable inhalers, nebulizers, and respirators
particle detection, air quality monitoring systems
cleaning, coating, and surface treatment processes
5VDC
2W
108 kHz
Adjustable mist output
High-reliability, low-noise design
[insert temperature range]
[insert temperature range]
[insert dimensions]
| The Mini USB Nebulizer Circuit 5VDC 2W 108Khz is suitable for use in a variety of IoT applications, including |
humidifiers, aromatherapy devices, and personal care products
| The Mini USB Nebulizer Circuit 5VDC 2W 108Khz complies with relevant industry standards and regulations, including |
RoHS and REACH compliance
CE and FCC certification (pending)
To order the Mini USB Nebulizer Circuit 5VDC 2W 108Khz, please contact [insert company name] sales team or visit our website at [insert website URL].
Mini USB Nebulizer Circuit 5VDC 2W 108Khz DocumentationOverviewThe Mini USB Nebulizer Circuit 5VDC 2W 108Khz is a compact, low-power nebulizer circuit that operates on 5VDC and consumes 2W of power. The circuit generates a high-frequency output of 108Khz, making it suitable for various applications such as aromatherapy, humidification, and medical devices.Pinout and ConnectionsThe Mini USB Nebulizer Circuit 5VDC 2W 108Khz has the following pinout:VCC: 5VDC power input
GND: Ground connection
OUT: Nebulizer output (108Khz)Arduino Example: Basic Nebulizer ControlIn this example, we will demonstrate how to control the nebulizer circuit using an Arduino board.Hardware Requirements:Arduino Board (e.g., Arduino Uno)
Mini USB Nebulizer Circuit 5VDC 2W 108Khz
Breadboard and jumper wiresSoftware:```c++
const int nebulizerPin = 2; // Nebulizer output pinvoid setup() {
pinMode(nebulizerPin, OUTPUT);
}void loop() {
// Turn on the nebulizer
digitalWrite(nebulizerPin, HIGH);
delay(5000); // Nebulize for 5 seconds
// Turn off the nebulizer
digitalWrite(nebulizerPin, LOW);
delay(5000); // Wait for 5 seconds
}
```In this example, we connect the nebulizer output (OUT) to digital pin 2 of the Arduino board. We then use the `digitalWrite()` function to turn the nebulizer on and off in a repeating cycle.Raspberry Pi Example: Nebulizer Control using PythonIn this example, we will demonstrate how to control the nebulizer circuit using a Raspberry Pi and Python.Hardware Requirements:Raspberry Pi Board (e.g., Raspberry Pi 4)
Mini USB Nebulizer Circuit 5VDC 2W 108Khz
Breadboard and jumper wiresSoftware:```python
import RPi.GPIO as gpio
import time# Set up GPIO mode
gpio.setmode(gpio.BCM)# Set nebulizer pin as output
nebulizer_pin = 17
gpio.setup(nebulizer_pin, gpio.OUT)try:
while True:
# Turn on the nebulizer
gpio.output(nebulizer_pin, gpio.HIGH)
time.sleep(5) # Nebulize for 5 seconds
# Turn off the nebulizer
gpio.output(nebulizer_pin, gpio.LOW)
time.sleep(5) # Wait for 5 secondsexcept KeyboardInterrupt:
gpio.cleanup()
```In this example, we connect the nebulizer output (OUT) to GPIO pin 17 of the Raspberry Pi. We then use the RPi.GPIO library to control the nebulizer output using Python.Note: Make sure to install the RPi.GPIO library and import it correctly before running the code.Additional NotesWhen using the Mini USB Nebulizer Circuit 5VDC 2W 108Khz, ensure that the power supply is stable and can provide the required 5VDC and 2W of power.
The nebulizer circuit may require calibration and adjustments depending on the specific application and environment.
Always follow proper safety precautions when working with electronic circuits and devices.