12V 1A Transformer - 1000mA
12V 1A Transformer - 1000mA
The 12V 1A Transformer - 1000mA is a compact, high-efficiency step-down transformer designed to convert Alternating Current (AC) voltage from a higher level to a lower level, specifically 12V AC output at a maximum current rating of 1A (1000mA). This transformer is ideal for use in a wide range of applications, including IoT devices, embedded systems, and other electronic projects requiring a stable and reliable 12V power supply.
The primary function of this transformer is to step-down the input AC voltage to a lower output voltage, while providing electrical isolation between the primary and secondary windings. This ensures safe and efficient power conversion, minimizing the risk of electrical shock and protecting against voltage spikes.
| The 12V 1A Transformer - 1000mA is suitable for use in a wide range of IoT devices, embedded systems, and other electronic projects, including |
By following the guidelines and precautions outlined above, the 12V 1A Transformer - 1000mA can provide a reliable and efficient 12V power supply for a wide range of applications.
12V 1A Transformer - 1000mA DocumentationOverviewThe 12V 1A Transformer - 1000mA is a step-down transformer designed to convert high-voltage AC power to a lower-voltage AC output, typically used for powering small devices, sensors, and microcontrollers in IoT applications. This transformer provides a safe and efficient way to power devices that require a stable 12V DC power supply.SpecificationsInput Voltage: 230V AC (50-60 Hz)
Output Voltage: 12V AC
Output Current: 1A (1000mA)
Power Rating: 12VA
Efficiency: >85%
Operating Temperature: -20C to +70C
Dimensions: 38 x 25 x 25 mmPinoutThe transformer has four pins:Primary (Input):
+ Pin 1: Live (Brown)
+ Pin 2: Neutral (Blue)
Secondary (Output):
+ Pin 3: 12V AC (Red)
+ Pin 4: 0V (Black)Example Usage### Example 1: Powering an Arduino BoardIn this example, we will power an Arduino Uno board using the 12V 1A Transformer - 1000mA. We will use a voltage regulator (e.g., 7812) to convert the 12V AC output to 12V DC required by the Arduino board.Schematic
```circuitikz
documentclass{standalone}
usepackage{circuitikz}
egin{document}
egin{circuitikz}
draw (0,0) node[transformer] (T) {};
draw (T.1) node:right {230V AC};
draw (T.2) node:right {0V};
draw (T.3) node:left {12V AC};
draw (T.4) node:left {0V};
draw (2,0) node[voltage regulator] (VREG) {};
draw (VREG.in) node[left] {12V AC};
draw (VREG.out) node[right] {12V DC};
draw (VREG.gnd) node[ground] {};
draw (4,0) node[arduino] (ARDUINO) {};
draw (ARDUINO.vcc) node[left] {12V DC};
draw (ARDUINO.gnd) node[ground] {};
end{circuitikz}
end{document}
```Code
```cpp
void setup() {
// Initialize Arduino board
}void loop() {
// Your Arduino code here
}
```### Example 2: Powering a DC FanIn this example, we will power a 12V DC fan using the 12V 1A Transformer - 1000mA. We will use a bridge rectifier (e.g., DB107) to convert the 12V AC output to 12V DC required by the fan.Schematic
```circuitikz
documentclass{standalone}
usepackage{circuitikz}
egin{document}
egin{circuitikz}
draw (0,0) node[transformer] (T) {};
draw (T.1) node:right {230V AC};
draw (T.2) node:right {0V};
draw (T.3) node:left {12V AC};
draw (T.4) node:left {0V};
draw (2,0) node[bridge rectifier] (BR) {};
draw (BR.ac1) node[left] {12V AC};
draw (BR.ac2) node[left] {12V AC};
draw (BR.dc+) node[right] {12V DC};
draw (BR.dc-) node[ground] {};
draw (4,0) node[dc fan] (FAN) {};
draw (FAN.vcc) node[left] {12V DC};
draw (FAN.gnd) node[ground] {};
end{circuitikz}
end{document}
```Note: In this example, we assume the fan is connected to a suitable power switch or controller to regulate its speed.