Simulation device of contact face overheating fault of sulfur hexafluoride gas insulation electric device
A technology of sulfur hexafluoride gas and electrical equipment, which is applied in the directions of measuring devices, measuring electricity, measuring electrical variables, etc., can solve the problem of inability to simulate local overheating faults, and achieve the effects of simple structure, accuracy and safety.
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Embodiment 1
[0025] Such as Figure 1~3 shown, a SF 6 The simulation device for overheating failure of gas-insulated electrical equipment mainly includes switching power supply 1, solid state relay 2, overheating failure simulation element 3, intelligent digital display temperature regulator 4 and gas chromatograph 5.
[0026] The input terminal of the switching power supply 1 (commercially available product) is connected to the 220V / 50Hz mains through a wire, and the positive pole of the output terminal of the switching power supply 1 (voltage 12V, maximum current 10A) is connected to the The positive pole of the output terminal of the solid state relay 2 is connected, the negative pole of the output terminal of the solid state relay 2 is connected to the positive pole of the temperature sensor terminal 11 of the overheating fault simulation component 3 through a wire, and the negative pole of the output terminal of the switching power supply 1 is connected through a wire It is connected...
Embodiment 2
[0032] a SF 6 The simulation device for overheating faults of gas-insulated electrical equipment is the same as in Embodiment 1, wherein: the shape of the cylinder body 8 is 45 cm in inner diameter, 1.2 cm in thickness, and 70 cm in height. A through hole with a diameter of 1.7 cm (i.e. a suction hole) is provided at the lower part of the side wall of the cylinder body 8 . On the upper part of the other side wall of the cylinder body 8, a through hole (i.e. an air intake hole) with a diameter of 1.7 cm is arranged. On the side wall between the suction hole and the air inlet hole of the cylinder 8, a through hole (ie, a vacuum pressure gauge hole) with a diameter of 1.7 cm is arranged. Two circular through holes with a diameter of 0.6 cm are arranged at the center of the bottom end of the cylinder body 8 . Two circular through-holes with a diameter of 0.6 cm are arranged above the side wall air extraction holes of the cylinder body 8 . The material of the heating element 9 i...
Embodiment 3
[0034] a SF 6The simulation device for overheating faults of gas-insulated electrical equipment is the same as in Embodiment 1, wherein: the shape of the cylinder 8 is 50 cm in inner diameter, 1.5 cm in thickness, and 80 cm in height. A through hole with a diameter of 12 cm (i.e. a suction hole) is provided on the lower part of the side wall of the cylinder body 8 . On the upper part of the other side wall of the cylinder body 8, a through hole (i.e. an air intake hole) with a diameter of 2 cm is arranged. On the side wall between the air extraction hole and the air intake hole of the cylinder 8, a through hole (ie a vacuum pressure gauge hole) with a diameter of 2 cm is set. Two circular through holes with a diameter of 0.7 cm are arranged at the center of the bottom end of the cylinder body 8 . Two circular through-holes with a diameter of 0.7 cm are arranged above the side wall air extraction holes of the cylinder body 8 . The material of the heating element 9 is electro...
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