Self-driven cooling type dry-type transformer and self-cooling method thereof
A dry-type transformer and cooling technology, applied in the field of transformers, can solve the problems of high efficiency, low carbon, green environmental protection, reducing the environmental protection of dry-type transformers, and low efficiency of natural air cooling, so as to reduce the failure rate of heat dissipation and improve Effect of service life and improvement of output force
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Embodiment 1
[0053] see Figure 1-10 A self-driven cooling dry-type transformer and a self-cooling method thereof, comprising a transformer body 1 and a high-voltage coil 2 respectively installed on the transformer body 1, a low-voltage coil 3 located in the high-voltage coil 2, and a tight-fitting coil located inside the low-voltage coil 3. The solid iron core 4, the inner wall of the high voltage coil 2 is fixedly connected with a thermal conduction jacket 5, the outer diameter side of the low voltage coil 3 is fixedly connected with a thermal conduction inner jacket 501, and a breathing type is arranged on the lower side between the thermal conduction jacket 5 and the thermal conduction inner jacket 501. The air flow assembly 6, the inner and outer walls of the breathing air flow assembly 6 are connected with an electric drive contraction assembly 7 that is electrically connected to the transformer body 1; please refer to Figure 3-5 , a heat shrink ring 8 is fixedly connected to the up...
Embodiment 2
[0059] see Figure 1-10 , and the same or corresponding parts as in Embodiment 1 are given the corresponding reference numerals as in Embodiment 1. For the sake of simplicity, only the differences from Embodiment 1 are described below. The difference between this embodiment 2 and embodiment 1 is: please refer to figure 2 , a self-cooling method for a self-driven cooling dry-type transformer, comprising the following steps:
[0060] S1. When the transformer body 1 is used continuously, the high-voltage coil 2 and the low-voltage coil 3 generate a higher temperature;
[0061] S2. The thermal conduction outer jacket 5 and the thermal conduction inner jacket 501 conduct heat conduction on the high-voltage coil 2 and the low-voltage coil 3, and generate a thermal effect on the thermal induction energizing ring 701;
[0062] S3. After the thermal induction energizing ring 701 receives heat transfer, energizes the electrostrictive elastic ring 703 and the electrostrictive elastic ...
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