Large-capacity reactor composed of multi-turn mutually insulated copper skins and its manufacturing method
A reactor and large-capacity technology, which is applied in the manufacture of inductors/transformers/magnets, cooling of transformers/inductors, circuits, etc., can solve problems such as labor-intensive, high manufacturing costs, and time-consuming, and achieve reduced manufacturing costs, high efficiency, and The effect of improving the ability to carry overcurrent
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Embodiment 1
[0010] Embodiment 1: with reference to attached figure 1 and 2 . A reactor composed of multiple layers of mutually insulated copper skins, which includes a reactor 1, the coil in the winding package 2 of the reactor 1 is composed of multiple layers of mutually insulated copper skins 3, and the winding method is composed of long strips and mutually insulated copper skins. The insulating copper skin 3 surrounds the iron core frame 10 , and a plurality of insulating insulating strips 4 are interposed between the mutually insulating copper skins 3 and the mutually insulating copper skins 3 . The isolated insulating strips 4 are vertically arranged with a space between them, and the space between the two isolated insulating strips 4 forms a cooling air channel 9 . The isolating insulating strips 4 between the multi-layer mutually insulated copper skins 3 are distributed in a staggered manner. The isolation insulating strip 4 is a wooden strip. The chassis in the reactor 1 is a ...
Embodiment 2
[0011] Embodiment 2: On the basis of Embodiment 1, a method for manufacturing a reactor composed of multiple layers of mutually insulated copper skins, it includes a reactor 1, and the winding package 2 in the reactor 1 is mutually insulated by multiple layers The copper skin 3 is surrounded by multiple insulating strips 4 vertically placed between the mutually insulated copper skins 3 and the mutually insulated copper skins 3, and the multiple isolating insulating strips 4 between each layer are interlaced with the isolating insulating strips 4 of the adjacent layer distribution, thereby forming a plurality of mutually insulated copper-skin cooling air channels 9, the end faces of the plurality of mutually insulated copper-skin cooling air channels 9 are opposite to the cold air guide chamber 5 type chassis surface with multiple cold air exhaust outlets 8, and the plurality of cold air When the cold air blown out from the air outlet 8 passes through the plurality of mutually i...
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