How to make a temperature control system in industrial environment with Namino Red

1. Introduction to temperature control

Temperature control is essential in many industries, such as food, chemical, pharmaceutical, and metallurgy. A temperature control system makes it possible to regulate and monitor thermal values, ensuring that processes take place under optimal conditions. Mect temperature controllers, such as the MPT91 M1 and MPT390 M6, are professional instruments designed to integrate seamlessly with automation systems.

2. Components needed

To make a temperature control system with Namino Red, the following components are needed:

• Namino Red board: a powerful and versatile board with analog and digital inputs and outputs, compatible with Arduino Uno shields and designed for industrial automation.
• Mect temperature controller: for example, the MPT91 M1 or MPT390 M6, which offer advanced features such as dual displays, analog and serial outputs, and the ability to program automatic control functions.
• Temperature sensors: such as thermocouples or resistance thermometers (e.g., PT1000).
• Actuators: such as air conditioners, fans or electric heaters.
• Programming software: such as the Arduino IDE or PlatformIO.

3. Hardware configuration

• Connecting temperature sensors: connect temperature sensors to the analog inputs of the Namino Red board. The terminals on the board are also designed to accommodate current (0-20mA) or voltage (0-10V) signals.
• Connecting the Mect temperature controller: the Mect temperature controller is connected to the Namino Rosso board via the analog or serial outputs. The MPT91 M1, for example, provides an analog output that can be used to send control signals to actuators.
• Connecting actuators: actuators, such as air conditioners or fans, are connected to the outputs of the Namino Red board. These outputs can be configured to handle digital or analog signals.

4. Programming the Namino Red board

Programming the Namino Red board is done through the Arduino IDE or PlatformIO. Here is an example of basic code for temperature control:

```cpp const int inputSensor = A0; // Temperature sensor input const int outputActuator = 9; // Output for actuator

void setup() { pinMode(inputSensor, INPUT); pinMode(outputActuator, OUTPUT); }

void loop() { int temperature = analogRead(inputSensor); int value = map(temperature, 0, 1023, 0, 255);

if (value > 127) { digitalWrite(outputActuator, HIGH); } else { digitalWrite(outputActuator, LOW); }

delay(100); } ```

This example code reads the signal from the temperature sensor and adjusts the actuator according to the sensed values. For more complex systems, PID (Proportional-Integral-Derivative) algorithms can be implemented for more precise regulation.

5. Testing and calibration

After hardware configuration and programming, it is critical to test the system to ensure that it is working properly. Perform tests under different load conditions and calibrate the system to optimize performance. Mect temperature controllers, such as the MPT91 M1, offer self-learning (self-tuning) functions that simplify calibration.

6. Implementation and monitoring

Once the system has been tested, it can be implemented in an industrial environment. Use the Mect temperature controller to monitor temperature values and ensure that the system maintains the desired conditions. The dual display of the MPT390 M6 allows multiple parameters to be displayed simultaneously, ensuring constant monitoring.

Building a temperature control system with Namino Rosso and Mect temperature controllers is a combination of innovation and reliability. The Namino Rosso board, with its versatility and compatibility with Arduino, integrates seamlessly with Mect controllers, offering a compact and powerful solution for managing thermal processes in an industrial environment.

For more information about Mect products or the Namino Red board, please feel free to contact our experts.