IELHK111-1REC4-62-12.0-AEK-01-

Circuit Breakers are essential components of electrical systems and are used to prevent overloading of electricity flowing through the wiring, as well as to protect the wiring itself from being damaged or destroyed. IELHK111-1REC4-62-12.0-AEK-01 is one such model of circuit breakers. This type of breaker is designed to handle both AC and DC current and has a high breaking capacity.

The IELHK111-1REC4-62-12.0-AEK-01 is traditionally used in a wide variety of applications. These include low voltage circuits, high voltage applications, residential applications, and circuit breaker panel substrates. It is also used to disconnect the entire system in case of an emergency, such as a power cut or a fire. The circuit breaker can open and close its circuit very quickly, making it very suitable for use in applications where a high current needs to be disconnected rapidly in an emergency.

The working principle of this type of circuit breaker is based on the magnetic principle. The current in the circuit causes the rotor to start rotating in a magnetic field. When the short circuit occurs, the current will increase rapidly, and the rotating rotor will stop the current from continuing to flow. At this moment, the contact point of the circuit breaker will open and the electrical current will instantly stop.

In addition, the IELHK111-1REC4-62-12.0-AEK-01 circuit breaker also features trip settings that are adjustable using a rotary dial. This allows for fine-tuning of the trip settings, depending on the type of application and the desired response. This is especially useful in applications where a different type of current needs to be tripped and disconnected at different times.

Overall, the IELHK111-1REC4-62-12.0-AEK-01 Circuit Breaker is a reliable and highly effective device designed to ensure the safety of all electrical systems. By using the rotary dial for adjustable trip settings, it is also able to be tailored to specific applications, ensuring that every system is appropriately protected from potential overloads or voltage spikes.