The advantages of Active Isolated Power Systems are as follows:

Active Isolated Power Systems are used in group 2 rooms in the medical field and consist of isolated power panels and auxiliary devices such as isolation transformer, insulation monitoring device, alarm dashboard and test combinations.

Active Isolation Power Systems ensure that when the insulation fault occurs, the protection equipment does not trip the system and cut the power, the medical electrical equipment continues to function, the fault currents are reduced to non-critical values, and there is no electrical problem.

In isolated power systems, isolation level is continuously monitored and converted to an alarm signal by detecting the error at an adjustable level of not less than 50 kΩ. The alarm is monitored in two separate alarm panels and is located in a section where the nurses or technical personnel can easily hear, control and intervene in the other rooms via the control panels in the operating rooms. Alarm panels used for remote monitoring are located in the staff room of the guard or the technical service room.

Transformer temperature and load current information is continuously monitored by Active Isolation Power Systems and isolation and alarming are provided immediately when the nominal values ​​are exceeded. There is no interruption in the power supply. System continuity is ensured by avoiding a second isolation fault that may occur in the system.

The transfer quality isolated power panes with fault detection system are the most comprehensive isolated power panes created from equipment that enables quick line-based detection of any insulation failure in group 2 rooms.

Isolated power systems equipped with insulation fault testers, insulation fault testers and toroidal current transformers ensure the fastest possible intervention in the shortest possible time thanks to the fast communication and inspection capacities of the isolation traces, insulation monitoring devices and load current traces, .

The process is completed by detecting an error in the insulation monitoring device and then detecting the error signal as a result of evaluating the test currents of the test current generator and the test currents of the measurement current transformers as a response signal and transferring it to the remote monitoring devices.