Temperature controller regulate and maintain a desired temperature in various environments by using feedback mechanisms. They are integral to controlling processes in both simple and complex systems, ensuring accurate and stable thermal regulation.
Measurement: Temperature controllers use sensors, like thermocouples or RTDs, to measure the current temperature.
Comparison: The controller compares the measured temperature with the setpoint temperature.
Control: Based on the difference between the two temperatures, the controller adjusts heating or cooling elements to regulate the temperature.
On/Off Controllers: These simple controllers turn the heating or cooling element fully on or off, depending on the temperature difference.
Proportional (P) Controllers: These controllers adjust power proportionally to the difference between the measured and setpoint temperatures.
Proportional-Integral-Derivative (PID) Controllers: PID controllers offer precise control by combining three actions: proportional, integral, and derivative.
Household: Thermostats for homes, ovens, refrigerators, and water heaters rely on temperature controllers.
Industrial: Temperature controllers regulate processes in manufacturing, chemical processing, food production, and plastics.
Scientific: Laboratory equipment, incubators, and environmental chambers often depend on accurate temperature control.
Food Service: Sous vide cookers and commercial ovens use advanced temperature controllers for precise cooking.