Low-distributed capacitance layout method for primary winding of high-frequency integrated transformer
A technology that integrates transformers and primary windings. It is applied in transformers/inductor coils/windings/connections, instruments, electrical digital data processing, etc., to reduce losses, improve operating performance, and improve operating reliability.
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specific Embodiment approach 1
[0039] Specific implementation mode one: the following combination Figure 6 ~ Figure 13 Describe this embodiment, the low-distributed capacitance layout method of the primary winding of the high-frequency integrated transformer described in this embodiment, the method is: each primary winding is divided into p parts, and N primary windings are arranged in a layer-by-layer staggered layout. The side windings are wound in p layers, N>2, p≥2, and each primary winding is wound in a Z-shaped structure.
[0040] The number of turns of each layer of the primary winding is a=W / p, and W is the number of turns of each primary winding.
[0041] The N primary windings in each layer are arranged in the same order from inside to outside on the winding frame, and the arrangement order is the first primary winding PW 1 → The second primary winding PW 2 →...→Nth primary winding PW N , or the Nth primary winding PW N →...→2nd primary winding PW 2 →The first primary winding PW 1 .
[004...
specific Embodiment approach 2
[0072] Specific implementation mode two: the following combination Figure 14 and Figure 15 This embodiment is described. This embodiment further describes the first embodiment. The secondary winding of the transformer is equally divided into p-1 parts, and is wound between two adjacent layers of primary windings in a centralized layout.
[0073] like Figure 14 (a) is the interleaved single-layer primary winding layout method of the integrated transformer when the N primary windings adopt a two-layer structure (p=2) (PW in the figure 1 ,PW 2 ,...,PW N The order of arrangement can also be reversed, becoming: PW N ,...,PW 2 ,PW 1 ). Among them, the N primary windings are divided into two parts with the same structure, each part is equivalent to a single-layer structure, and the secondary winding (SW 1 ~SW n ) is wound centrally in the middle of the two primary windings to increase their spacing. There is another implementation of the proposed method, such as Figure...
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