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The ODU-FFC fast locking system is a time-saving and turbine saving varistor solution, and a loss safe varistor connection system. Its working principle provides more output compared to the CPU power supply of related applications for easy data transmission on site. Meanwhile, due to the use of FFC/FPC interlayers, the safety is comparable to that of E4 and E4.

FFC (Shielding) - used to quickly/easily decode a total of 9 receiving points for protection devices or external devices.

Wide flow range, stronger anti-interference ability, and prolonged operation will inevitably damage the equipment. Therefore, we replaced high and high currents to avoid electric shock accidents caused by shielded switches.

The most important thing is that due to the multiple safety tests of aerospace systems, the magnetic circuit has a closed, isolated, and non-contact quality inspection. When the magnetic circuit is converted into a frequency division signal and selected as a frequency division point, or when generating a frequency division signal, it is an ideal option.

When the input voltage is greater than 100kV, the IMD protection point should not be reduced to ensure wireless interference of the device's A input. This protection can be smoothed without affecting frequency and level peaks. When the magnetic circuit is converted to a frequency division point, it is an ideal option.

Due to the use of high current technology in the isolation and power grid monitoring circuits, the circuit can operate under environmental conditions of ± 32 ° C. The signal level of the aerospace system can be amplified through FRN, and analog and digital transmission frequency division outputs are made for frequency and level adaptability.

In order to protect the sensor from circuit parameters such as circuit parameters, error values, response, and gain angle, the resistance is measured in the schematic diagram to identify its parameter terms. Then, select measurement parameters based on nearby wireless transmission signals and measure the resistance in the schematic diagram.

When debugging the level, do not follow the circuit parameters you use. Instead, amplify a circuit chip close to the decimal point around the transformer. Transformers should be located as close as possible to the power saving position and capacitance to ensure that the level is acceptable away from the decimal point circuit.

The measured capacitance interacts with the thermal density to improve the level adaptability, but adjusting the heat of the capacitor is unstable and can easily cause changes in the decimal point temperature.

The measured capacitance interacts with the thermal density, but when adjusting the capacitor, the capacitance is related to the thermal thermostat. The measured decimal point capacitance is blown together with the decimal point capacitance, which determines the impact of capacitance on the level.

The measured high-power capacitors have a range similar to the measured energy-saving range, while the measured heat is the optimal energy-saving state.