Inductive hybrid device

Abstract

Inductive hybrid device (100) comprising: a magnetic core (110) provided with a plurality of winding set regions (111A - 111F); and a plurality of coil winding sets (130A - 130F) wound in the corresponding winding set regions (111A - 111F), and a distance (113) between the coil winding sets (130A - 130F) of two adjacent winding set regions (111A - 111F), wherein the winding direction of the coil winding set (130A - 130F) wound around the magnetic core (110) of the corresponding winding set region (111A - 111F) differs from the winding directions of the coil winding sets (130A - 130F) wound around the magnetic core (110) of the adjacent winding set regions (111A - 111F), and the coil winding set (130A - 130F) of the corresponding winding set region (111A - 111F) is symmetrical to the coil winding sets (130A - 130F) of the winding set areas (111A - 111F) adjacent to it, characterized in that a first coil winding set and a second coil winding set of the coil winding sets (130A - 130F) are each wound in a first winding set region and a second winding set region adjacent thereto of the corresponding winding set regions (111A - 111F), wherein, when a current flows through the mutually adjacent ends of the respective first coil winding set and the respective second coil winding set to the other ends of the corresponding first coil winding set and the corresponding second coil winding set, the respective first coil winding set and the respective second coil winding set form a common mode inductance.

Description

Field of the invention

[0001] The present invention relates to an inductor and, more particularly, to an inductive hybrid device. State of the art

[0002] Nowadays, electronic device companies are flourishing. Electronic devices usually require an external power supply to operate. However, the power transmission between electronic devices and power supplies often generates electromagnetic interference (such as noise). Therefore, to filter out electromagnetic interference, an electronic filter (such as a line filter) is usually placed between an electronic device and a power supply. In a line filter, the elements used to filter electromagnetic interference are mainly common-mode inductors and differential-mode inductors, and the main element used to provide other functions (such as current limiting or reducing attenuation in the frequency response, etc.) may be a non-inductive resistor.

[0003] The development of power filters is focused on miniaturization and high frequency. When a common-mode inductor and a differential-mode inductor are used simultaneously, a separate magnetic core must be provided for each, which takes up too much space inside the power filter, making it impossible for the power filter to meet the requirements of miniaturized products. Furthermore, when different magnetic cores are used for the common-mode inductor and the differential-mode inductor, the voltage drop across the coil winding sets prevents the common-mode inductor and the differential-mode inductor from forming a non-inductive resistance in the power filter.

[0004] Patent application publication JP 2000 - 348 943 A discloses an inductive hybrid device having the features of the preambles of claims 1, 11, 18 and 19. Another inductive hybrid device is known from patent application publication JP 2006 - 100 465 A. Object of the invention

[0005] The invention is based on the object of avoiding the above-mentioned disadvantages and providing an inductive hybrid device in which multiple sets of coil windings are wound around a single magnetic core so that a common-mode inductance, a differential-mode inductance and a non-inductive resistance can be formed by using only a single core and thus the circuit size of the line filter can be reduced and less space is required in the interior of the line filter to meet the requirements of miniaturized power supply filters.

[0006] This object is achieved by inductive hybrid devices having the features of claims 1, 11, 18 and 19. Further embodiments of the inductive hybrid device according to claim 1 are the subject of dependent claims 2 to 10. Further embodiments of the inductive hybrid device according to claim 11 are the subject of dependent claims 12 to 17. The inductive hybrid device according to claim 1 comprises a magnetic core and a plurality of coil winding sets, wherein the magnetic core is provided with a plurality of winding set regions, the plurality of coil winding sets are wound in the corresponding plurality of winding set regions, and a distance exists between the coil winding sets of two adjacent winding set regions,wherein the winding direction of the coil winding set wound around the magnetic core of the corresponding winding set region differs from the winding directions of the plurality of coil winding sets wound around the magnetic core of the plurality of adjacent winding set regions, and the coil winding set of the corresponding winding set region is symmetrical to the plurality of coil winding sets of the plurality of adjacent winding set regions, and wherein a first coil winding set and a second coil winding set of the coil winding sets are each wound in a first winding set region and a second winding set region adjacent thereto of the corresponding winding set regions, wherein,when a current flows through the mutually adjacent ends of the respective first coil winding set and the respective second coil winding set to the other ends of the corresponding first coil winding set and the corresponding second coil winding set, the respective first coil winding set and the respective second coil winding set form a common-mode inductance.

[0007] According to some embodiments, a plurality of coil winding sets are wound around a single magnetic core, wherein the winding direction of each coil winding set differs from the winding directions of the adjacent coil winding sets, so that during power generation, a common-mode inductance, a differential-mode inductance, and a non-inductive resistance can be formed according to the different combinations of the coil winding sets, and thus the circuit size of the line filter can be reduced and less space is required in the interior of the line filter to meet the requirements of miniaturized power supply filters. Brief description of the drawings Fig. 1 shows a schematic representation of the inductive hybrid device according to some embodiments of the present invention; Fig. 2 shows a schematic equivalent circuit diagram of the inductive hybrid device according to some embodiments of the present invention; Fig. 3 shows an application circuit for common mode noise suppression of the inductive hybrid device according to some embodiments of the present invention; Fig. 4 shows an application circuit for push-pull noise suppression of the inductive hybrid device according to some embodiments of the present invention; Fig. 5 shows a non-inductive resistance-based application circuit of the inductive hybrid device according to some embodiments of the present invention; Fig. 6 shows a schematic representation of the inductive hybrid device according to some embodiments of the present invention; Fig. 7 shows a schematic representation of the inductive hybrid device according to some embodiments of the present invention; Fig. 8 shows a schematic sectional view of the partial structure according to some embodiments of the present invention; Fig. 9 shows a schematic equivalent circuit diagram of the inductive hybrid device according to some embodiments of the present invention. Detailed description of the implementation examples

[0008] It will be Fig. 1, which shows a schematic representation of the inductive hybrid device 100 according to some embodiments of the present invention. The inductive hybrid device 100 includes a magnetic core 110 and a plurality of coil winding sets 130A-130D, wherein the magnetic core 110 is provided with a plurality of winding set regions 111A-111D, and the plurality of coil winding sets 130A-130D are wound in the corresponding plurality of winding set regions 111A-111D. Fig. 1, for example, four winding set sections 111A-111D and four coil winding sets 130A-130D are provided, but in the present invention, the number of these two is not to be understood as being limited thereto. The number of winding set sections 111A-111D and the number of coil winding sets 130A-130D can be less than four or more than four. The magnetic core 110 can be made of a sintered magnetic metal oxide consisting of an iron oxide mixture, such as a sintered magnetic manganese-zinc-iron oxide and a nickel-zinc-iron oxide. The coil winding sets 130A-130D can be coil winding sets formed by winding metal wires around the magnetic core 110. The metal wires can be single-core copper wires, multi-core stranded copper wires, etc.

[0009] As in Fig. 1, two adjacent winding set regions 111A-111D are defined at different positions of the magnetic core 110 and do not overlap each other, and the plurality of coil winding sets 130A-130D are each wound one-to-one in the corresponding winding set region 111A-111D (for example, the coil winding set 130A is wound in the winding set region 111A, the coil winding set 130B is wound in the winding set region 111B, the coil winding set 130C is wound in the winding set region 111C, and the coil winding set 130D is wound in the winding set region 111D), so that the coil winding sets 130A-130D are each separated by a distance 113.In particular, the winding set region 111A is adjacent to the winding set region 111B and the winding set region 111C, wherein the coil winding set 130A wound in the winding set region 111A is separated by a distance 113 from the coil winding set 130B wound in the winding set region 111B and from the coil winding set 130C wound in the winding set region 111C. The winding set region 111D is adjacent to the winding set region 111B and the winding set region 111C, wherein the coil winding set 130D wound in the winding set region 111D is separated by a distance 113 from the coil winding set 130B wound in the winding set region 111B and from the coil winding set 130C wound in the winding set region 111C. In other words, the adjacent coil winding sets 130A-130D are each spaced apart by a distance 113 (i.e., the adjacent coil winding sets 130A-130D are each separated by a distance 113).Therefore, there is a lower stray capacitance value between the coil winding sets 130A-130D wound between any two adjacent winding set regions 111A-111D (or between the adjacent coil winding sets 130A-130D), so that the inductive hybrid device 100 can have a good high-frequency filtering capability and at the same time a good low-frequency filtering capability.

[0010] As in Fig. 1, the winding direction of the coil winding set 130A-130D wound around the magnetic core 110 of the corresponding winding set region 111A-111D differs from the winding direction of the plurality of coil winding sets 130A-130D wound around the magnetic core 110 of the plurality of adjacent winding set regions 111A-111D. For example, the winding set region 111A is adjacent to the winding set region 111B, and the winding of the coil winding set 130A wound around the magnetic core 110 and that of the coil winding set 130B wound around the magnetic core 110 are performed in directions approximating each other. The winding set portion 111A is adjacent to the winding set portion 111C, and the winding of the coil winding set 130A wound around the magnetic core 110 and that of the coil winding set 130C wound around the magnetic core 110 are performed in directions away from each other.In other words, the winding direction of the coil winding set 130A is different from the winding directions of the coil winding set 130B and the coil winding set 130C.

[0011] It will be Fig. 1. Specifically, the coil winding set 130A is wound from the center of the left side of the magnetic core 110, first from the top of the magnetic core 110 to the bottom of the magnetic core 110, then from the bottom of the magnetic core 110 to the top of the magnetic core 110, and then further upward to the top of the magnetic core 110 (i.e., the winding is performed from bottom left to top right). The coil winding set 130B is wound from the center of the right side of the magnetic core 110, first from the top of the magnetic core 110 to the bottom of the magnetic core 110, then from the bottom of the magnetic core 110 to the top of the magnetic core 110, and then further upward to the top of the magnetic core 110 (i.e., the winding is performed from bottom right to top left) to approach the coil winding set 130A.The coil winding set 130C is wound from the center of the left side of the magnetic core 110, first from the top of the magnetic core 110 to the bottom of the magnetic core 110, and then from the bottom of the magnetic core 110 to the top of the magnetic core 110, and then further down to the bottom of the magnetic core 110 (ie, the winding is from the top left to the bottom right), so that it is away from the coil winding set 130A.

[0012] It will be Fig. 1. In some embodiments, the coil winding sets 130A-130D of the non-adjacent winding set regions 111A-111D may have parallel winding directions. For example, the winding set region 111A and the winding set region 111D are not adjacent to each other, and the winding direction of the coil winding set 130A and that of the coil winding set 130D are parallel to each other. For example, the coil winding set 130D is wound from the center of the right side of the magnetic core 110, first from the top of the magnetic core 110 to the bottom of the magnetic core 110, and then from the bottom of the magnetic core 110 to the top of the magnetic core 110, and then further downward to the bottom of the magnetic core 110 (ie, the winding is from the top right to the bottom left), with the winding direction of the coil winding set 130A being from the bottom left to the top right.That is, the winding direction of the coil winding set 130A wound around the magnetic core 110 and the winding direction of the coil winding set 130D wound around the magnetic core 110 are parallel to each other.

[0013] As in Fig. 1, the coil winding set 130A-130D of the corresponding winding set region 111A-111D is symmetrical to the plurality of coil winding sets 130A-130D of the adjacent plurality of winding set regions 111A-111D. For example, the adjacent ends of the coil winding sets 130A-130D of two adjacent winding set regions 111A-111D extend outward along one axis from the bottom (or along another axis from the top) of the magnetic core 110, and the non-adjacent ends extend outward along the other axis from the top (or along the other axis from the bottom) of the magnetic core 110. In some embodiments, the two axes may be perpendicular to each other. For example, the winding set area 111A is adjacent to the winding set area 111B and the winding set area 111C, with the adjacent ends (terminals TA2,TB2) of the coil winding set 130A of the winding set region 111A and the coil winding set 130B of the winding set region 111B extend outward from the bottom of the magnetic core 110 along a central axis 115A of the magnetic core 110, and the non-adjacent ends (terminals TA1, TB1) extend outward along another central axis 115B of the magnetic core 110, wherein the mutually adjacent ends (terminals TA1, TB1) of the coil winding set 130A of the winding set region 111A and the coil winding set 130C of the winding set region 111C extend outward from the top of the magnetic core 110 along the central axis 115B of the magnetic core 110, and the non-adjacent ends (terminals TA2, TB2) extend outwards along the central axis 115A of the magnetic core 110,wherein the central axis 115A and the central axis 115B are perpendicular to each other and pass through the main body and the center of the magnetic core 110.

[0014] It will be Fig. 1. In some embodiments, the coil winding sets 130A-130D of the adjacent winding set regions 111A-111D have the same number of coil turns. Since the coil winding sets 130A-130D of the adjacent winding set regions 111A-111D are symmetrical to each other, they may have the same number of coil turns. For example, the winding set region 111A is adjacent to the winding set region 111B and the winding set region 111C, and the number of coil turns of the coil winding set 130A, the coil winding set 130B, and the coil winding set 130C is each five. However, in the present invention, the number of coil turns is not limited to this. The number of coil turns may be more than five or less than five.The winding set region 111D is adjacent to the winding set region 111B and the winding set region 111C, and the number of coil turns of the coil winding set 130D, the coil winding set 130B, and the coil winding set 130C is each five. However, in the present invention, the number of coil turns is not limited to this. The number of coil turns may be more than five or less than five. In some embodiments, the coil winding sets 130A-130D of the winding set regions 111A-111D may all have the same number of coil turns.

[0015] In some embodiments, the magnetic core 110 may be implemented as a closed magnetic core or a non-closed magnetic core. In some embodiments, when the magnetic core 110 is implemented as a closed magnetic core, the closed magnetic core may be a circular magnetic core, an elliptical magnetic core, a rectangular magnetic core, an EE core, or a closed magnetic core of another shape.

[0016] It will be Fig. 1. In some embodiments, the magnetic core 110 can be divided by its central axis 115A, 115B into a first region 1151 and a second region 1153. Here, to simplify the description, Fig. 1, only the first region 1151 and the second region 1153, which are formed by dividing the magnetic core 110 by the central axis 115A, are shown. The coil winding sets 130A, 130C of the corresponding winding set regions 111A, 111C located in the first region 1151 are each symmetrical about the central axis 115A to the coil winding sets 130B, 130D of the corresponding winding set regions 111B, 111D located in the second region 1153. For example, the winding set region 111A located in the first region 1151 is symmetrical about the central axis 115A to the winding set region 111B located in the second region 1153, and the winding set region 111C located in the first region 1151 is symmetrical about the central axis 115A to the winding set region 111D located in the second region 1153.In other words, the ends near the central axis 115A (terminals TA2, TB2, TC2, TD2) of the corresponding coil winding sets 130A - 130D of the corresponding winding set sections 111A - 111D extend outward along the central axis 115A from the bottom of the magnetic core 110, and the other ends remote from the central axis 115A (terminals TA1, TB1, TC1, TD1) of the corresponding coil winding sets 130A - 130D of the corresponding winding set sections 111A - 111D extend outward along the central axis 115B from the top of the magnetic core 110, so that the coil winding set 130A of the winding set section 111A is symmetrical about the central axis 115A to the coil winding set 130B of the winding set area 111B and the coil winding set 130C of the winding set area 111C is symmetrical about the central axis 115A to the coil winding set 130D of the winding set area 111D.

[0017] It will be Fig. 1. In some embodiments, the number of winding set regions 111A, 111C and the number of coil winding sets 130A, 130C of the first region 1151 are each two, and the number of winding set regions 111B, 111D and the number of coil winding sets 130B, 130D of the second region 1153 are each two, so that the combination of different coil winding sets 130A-130D enables the inductive hybrid device 100 to provide different functions (e.g., providing common-mode inductance, differential-mode inductance, or non-inductive resistance).

[0018] It will be Fig. 1. In some embodiments, terminals TA1-TD2 serve to couple the coil winding sets to external circuit elements or electrical signals. For example, terminals TA1 and TA2 are terminals of coil winding set 130A for external connection, terminals TB1 and TB2 are terminals of coil winding set 130B for external connection, terminals TC1 and TC2 are terminals of coil winding set 130C for external connection, and terminals TD1 and TD2 are terminals of coil winding set 130D for external connection. Thus, after coil winding sets 130A-130D are coupled to the corresponding circuit elements or electrical signals via the corresponding terminals TA1-TD2, the inductive hybrid device 100 can be used for various circuit structures.

[0019] It is based on the Fig. 1 to 3 are referred to. Fig. 2 shows a schematic equivalent circuit diagram of the inductive hybrid device 100 according to some embodiments of the present invention; Fig. 3 shows an application circuit for common-mode noise suppression of the inductive hybrid device 100 according to some embodiments of the present invention. In some embodiments, a first coil winding set and a second coil winding set of the coil winding sets 130A-130D are each wound in a first winding set region and an adjacent second winding set region of the corresponding winding set regions 111A-111D. When a current flows through the adjacent ends of the first coil winding set and the second coil winding set to the other ends of the first coil winding set and the second coil winding set, the first coil winding set and the second coil winding set form a common-mode inductance.

[0020] For example, coil winding set 130A, coil winding set 130C, winding set region 111A, and winding set region 111C are used to illustrate the first coil winding set, the second coil winding set, the first winding set region, and the second winding set region. Terminal TA1 is coupled to the positive power signal V+ of the positive terminal 201 of the power supply 200, terminal TC1 is coupled to the negative power signal V- of the negative terminal 203 of the power supply 200, terminal TA2 is coupled to the input terminal (hereinafter referred to as first input terminal 301) of the external circuit to be filtered (hereinafter referred to as external circuit 300), and terminal TC2 is coupled to the other input terminal of the external circuit 300 (hereinafter referred to as second input terminal 303).When the external circuit 300 is coupled to a reference ground signal GND (e.g., the case of the external circuit 300 is grounded), stray signals (such as common-mode noise) are generated between the positive power signal V+ and the negative power signal V- of the power supply 200 and the reference ground signal GND because a stray capacitance C exists between the external circuit 300 and the coupled reference ground signal GND.

[0021] Thus, when common mode noise occurs, a current flows (such as the common mode current, ie the current direction A1 (in Fig. 3 by a dot-dash line) of the stray current generated at the positive terminal 201 of the power supply 200 by the stray capacitance C is the same as the current direction A2 (in Fig. 3 by a two-dot chain line) of the stray current generated at the negative terminal 203 of the power supply 200 by the stray capacitance C) flows from the terminal TA1 to the terminal TA2 of the coil winding set 130A and then through the reference ground signal GND of the external circuit 300 back to the power supply 200, and flows from the terminal TC1 to the terminal TC2 of the coil winding set 130C and then through the reference ground signal GND of the external circuit 300 back to the power supply 200, thereby generating magnetic fields in the same direction at the coil winding set 130A and the coil winding set 130C and increasing the inductance amount of the coil winding set 130A and the coil winding set 130C, that is, the inductive reactance for suppressing the common mode current is increased (that is, the coil winding set 130A and the coil winding set 130C in this case are common-mode inductance) to achieve the effect of filtering out noise.

[0022] It is based on the Fig. 1, Fig. 2 and Fig. 4 referred to. Fig. 4 shows an application circuit for differential-mode noise suppression of the inductive hybrid device 100 according to some embodiments of the present invention. In some embodiments, a first coil winding set and a second coil winding set of the coil winding sets 130A-130D are each wound in a first winding set region and a non-adjacent second winding set region of the corresponding winding set regions 111A-111D. The winding direction of the first coil winding set and the winding direction of the second coil winding set are parallel to each other. If the same magnetic field direction results from the current in the first coil winding set and the second coil winding set, the first coil winding set and the second coil winding set form a differential-mode inductance.

[0023] For example, coil winding set 130A, coil winding set 130D, winding set region 111A, and winding set region 111D are used to illustrate the first coil winding set, the second coil winding set, the first winding set region, and the second winding set region, respectively. Terminal TA1 is coupled to the positive power signal V+ of the positive terminal 201 of the power supply 200, terminal TD2 is coupled to the negative power signal V- of the negative terminal 203 of the power supply 200, terminal TA2 is coupled to the first input terminal 301 of the external circuit 300, and terminal TD1 is coupled to the second input terminal 303 of the external circuit 300. Noise is generated between the power cable signals (positive power signal V+ and negative power signal V-). This noise (more precisely differential mode noise) usually occurs when a power cable is connected in series.

[0024] When a differential mode noise occurs, a current flows (such as the differential mode current, ie the current direction A3 (in Fig. 4 by a dashed two-dot line) of the noise current acting as a push-pull current is the same as the current direction A4 (in Fig. 4 by a dot-dash line) of the current of the power supply 200) from the terminal TA1 to the terminal TA2 of the coil winding set 130A and thus through the external circuit 300 and then flows from the external circuit 300 from the terminal TD1 to the terminal TD2 of the coil winding set 130D, so that in the coil winding set 130A and the coil winding set 130D, which have parallel winding directions (for example, the winding direction of the coil winding set 130A is from bottom left to top right and the winding direction of the coil winding set 130D is from top right to bottom left), magnetic fields are generated in the same direction (i.e., a same magnetic field direction is generated) and the amount of inductance of the coil winding set 130A and the coil winding set 130D is increased, i.e., the inductive reactance for suppressing the differential mode current is increased (iethe coil winding set 130A and the coil winding set 130D are designed as push-pull inductance in this case) to achieve the effect of filtering out noise.

[0025] It is based on the Fig. 1, Fig. 2 and Fig. 5 is referred to. Fig. Figure 5 shows a non-inductive resistance-based application circuit of the inductive hybrid device 100 according to some embodiments of the present invention. In some embodiments, a first coil winding set and a second coil winding set of the coil winding sets 130A-130D are each wound in a first winding set region and an adjacent second winding set region of the corresponding winding set regions 111A-111D, wherein the adjacent ends of a respective first coil winding set and a respective second coil winding set are coupled to each other, wherein, when a current flows from the other end of the first coil winding set to the other end of the second coil winding set, the first coil winding set and the second coil winding set form a non-inductive resistance.

[0026] For example, coil winding set 130A, coil winding set 130B, winding set region 111A, and winding set region 111B are used to illustrate the first coil winding set, the second coil winding set, the first winding set region, and the second winding set region. Terminal TA1 is coupled to the positive power signal V+ of the positive terminal 201 of the power supply 200, and terminal TB1 is coupled to the first input terminal 301 of the external circuit 300. When current limiting or reducing the attenuation in the frequency response (e.g., increasing the load) is required in the external circuit 300, the terminal TA2 is coupled to the terminal TB2 (ie, the terminal TA2 and the terminal TB2 are short-circuited), with the current flowing from the terminal TA1 through the coil winding set 130A and the coil winding set 130B and then to the external circuit 300.Since magnetic fields are generated in opposite directions in coil winding set 130A and coil winding set 130B, the magnetic fields cancel each other out without generating inductive reactance. In other words, in this case, coil winding set 130A and coil winding set 130B function as a resistor without inductive reactance (e.g., only the resistance of the coil is present) or with only inductances generated by small stray inductances. That is, coil winding set 130A and coil winding set 130B form a concrete non-inductive resistor that fulfills the functions required by external circuit 300 (e.g., current limiting and reducing attenuation in the frequency response).

[0027] In some embodiments, the current may be direct current or alternating current. In other words, the inductive hybrid device 100 may be used in a direct current system or an alternating current system. In some embodiments, the inductive hybrid device 100 may be used for π-filters or T-filters.

[0028] It will be Fig. 6, which shows a schematic representation of the inductive hybrid device 100 according to some embodiments of the present invention. In some embodiments, the coil winding set 130E-130F of a corresponding winding set region 111E-111F comprises multiple coils, however, in the present invention, the number of coils is not limited thereto. The coil winding set 130E-130F of a corresponding winding set region 111E-111F may also comprise only one coil. Each coil has multiple coil turns, starting ends extending from the top of the magnetic core 110, and ending ends extending from the bottom of the magnetic core 110. Fig. 6. For example, the coil winding set 130E of the winding set area 111E includes a first coil 131E and a second coil 132E, and the coil winding set 130F of the winding set area 111F includes a third coil 131F and a fourth coil 132F. Fig. 6 shows that each winding set section comprises only two coils, but in the present invention, the number of coils is not limited to this. Each winding set section may comprise one or more coils.

[0029] The first coil 131E has a plurality of first coil turns 1311E, first starting ends TE1 extending from the top of the magnetic core 110, and first ending ends TE2 extending from the bottom of the magnetic core 110. The second coil 132E has a plurality of second coil turns 1321E, second starting ends TE3 extending from the top of the magnetic core 110, and second ending ends TE4 extending from the bottom of the magnetic core 110. The third coil 131F has a plurality of third coil turns 1311F, third starting ends TF1 extending from the top of the magnetic core 110, and third ending ends TF2 extending from the bottom of the magnetic core 110. The fourth coil 132F has a plurality of fourth coil turns 1321F, fourth starting ends TF3 extending from the top of the magnetic core 110, and fourth ending ends TF4 extending from the bottom of the magnetic core 110.

[0030] In some embodiments, the initial ends of the coils of a respective coil winding set are joined together to form one terminal for that coil winding set. The final ends of the coils of the respective coil winding set are joined together to form the other terminal for that coil winding set.

[0031] In some embodiments, the starting ends of the coils of a respective coil winding set are adjacent to each other and the final ends of the coils of the respective coil winding set are adjacent to each other. Fig. 6. For example, both the first starting end TE1 and the second starting end TE3 are located at the left end of the winding set area 111E, both the first ending end TE2 and the second ending end TE4 are located at the right end of the winding set area 111E, both the third starting end TF1 and the fourth starting end TF3 are located at the right end of the winding set area 111F, and both the third ending end TF2 and the fourth ending end TF4 are located at the left end of the winding set area 111F.

[0032] In some embodiments, the coils of a respective coil winding set wound around the magnetic core 110 have the same winding direction. Fig. 6. For example, the first coil 131E and the second coil 132E of the coil winding set 130E both start from the first starting end TE1 and the second starting end TE3, respectively, and are first wound along the left end of the winding set portion 111E toward the right end of the winding set portion 111E (from left to right) from the top surface of the magnetic core 110 to the bottom surface of the magnetic core 110, and then from the bottom surface of the magnetic core 110 to the top surface of the magnetic core 110, with the winding process being completed at the first end TE2 and the second end TE4. For example, the third coil 131F and the fourth coil 132F of the coil winding set 130F both start from the third starting end TF1 and the second starting end TE3, respectively.from the fourth starting end TF3 and are first wound along the right end of the winding set portion 111F toward the right end of the winding set portion 111F (from right to left) from the top side of the magnetic core 110 to the bottom side of the magnetic core 110 and then from the bottom side of the magnetic core 110 to the top side of the magnetic core 110, with the winding process being terminated at the third final end TF2 and the fourth final end TF4.

[0033] In some embodiments, the coil turns of the coils of a respective coil winding set are parallel to each other. Fig. 6. For example, each first coil turn 1311E of the first coil 131E is parallel to each second coil turn 1321E of the second coil 132E, and each third coil turn 1311F of the third coil 131F is parallel to each fourth coil turn 1321F of the fourth coil 132F.

[0034] In some embodiments, the coil turns of the coils of a respective coil winding set are spaced apart from each other. Fig. 6 referred to. For example, the arrangement order of the first coil turn 1311E and the second coil turn 1321E from the left end to the right end of the winding set area 111E (from left to right) is shown as follows: the first coil turn 1311E, the second coil turn 1321E, the first coil turn 1311E, the second coil turn 1321E, the first coil turn 1311E, the second coil turn 1321E, the first coil turn 1311E, the second coil turn 1321E, etc., and the arrangement order of the third coil turn 1311F and the fourth coil turn 1321F from the right end to the left end of the winding set area 111F end (from right to left) is shown as follows: the fourth coil turn 1321F, the third coil turn 1311F, fourth coil turn 1321F, third coil turn 1311F, fourth coil turn 1321, third coil turn 1311F, fourth coil turn 1321F, third coil turn 1311F, etc.

[0035] It is based on the Fig. 7 and Fig. 8 is referred to. Fig. 7 shows a schematic representation of the inductive hybrid device 100 according to some embodiments of the present invention; Fig. Figure 8 shows a schematic sectional view of the substructure 35 according to some embodiments of the present invention. In some embodiments, the coil turns of the coils of a respective coil winding set overlap each other. For example, the first coil 131E and the second coil 132E of the coil winding set 130E can be combined and implemented as a single multi-stranded litz wire, and the third coil 131F and the fourth coil 132F of the coil winding set 130F can be combined and implemented as a single multi-stranded litz wire. In this case, the first coil turn 1311E may overlap the second coil turn 1321E such that it lies above or below the second coil turn 1321E and the third coil turn 1311F may overlap the fourth coil turn 1321F such that it lies above or below the fourth coil turn 1321F. Fig. 8. For example, the substructure 35 has a first coil winding 1311E and a second coil winding 1321E. Fig. 8 it can be seen that the first coil turn 1311E overlaps the second coil turn 1321E.

[0036] In some embodiments, since the first coil 131E and the second coil 132E of the coil winding set 130E can be combined and implemented as a single multi-strand stranded wire, the first starting end TE1 and the second starting end TE3 can overlap each other and the first ending end TE2 and the second ending end TE4 can overlap each other (e.g., the first starting end TE1 can overlap the second starting end TE3 to be above or below the second starting end TE3 and the first ending end TE2 can overlap the second ending end TE4 to be above or below the second ending end TE4). Similar to the first start end TE1, second start end TE3, first end end TE2 and second end end TE4, the third start end TF1 and the fourth start end TF3 overlap each other and the third end end TF2 and the fourth end end TF4 overlap each other.That is, the starting ends of the coils of each coil winding set overlap each other and the ending ends of the coils of each coil winding set overlap each other.

[0037] In some embodiments, the winding direction of a coil winding set wound around the magnetic core 110 of the corresponding winding set region is opposite to the winding directions of the coil winding sets wound around the magnetic core 110 of the winding set regions adjacent thereto. Fig. 6. For example, the winding set region 111E is adjacent to the winding set region 111F, the first coil 131E and the second coil 132E of the coil winding set 130E are wound along the first direction D1 in the winding set region 111E, and the third coil 131F and the fourth coil 132F of the coil winding set 130F are wound along the second direction D2 in the winding set region 111F, the first direction D1 and the second direction D2 being opposite to each other. For example, the first direction D1 runs from the left end of the winding set region 111E to the right end of the winding set region 111E (from left to right), and the second direction D2 runs from the right end of the winding set region 111F to the left end of the winding set region 111F (from right to left).

[0038] In some embodiments, the coil turns of the coil of each coil winding set may have the same number of coil turns. For example, the number of the first coil turn 1311E and the second coil turn 1321E are each four, and the number of the third coil turn 1311F and the fourth coil turn 1321F are each four. However, in the present invention, the number of coil turns is not limited thereto. The number of coil turns can be adjusted to suit actual needs. In this way, the noise suppression (e.g., common-mode noise or differential-mode noise) or current limiting performance of the inductive hybrid device 100 can be improved.

[0039] It will be Fig. 6. In some embodiments, a third coil winding set and a fourth coil winding set of the coil winding sets are each wound in a third winding set region and a fourth winding set region adjacent thereto of the corresponding winding set regions, wherein the starting ends of the coils of the respective third coil winding set are adjacent to the ending ends of the coils of the respective fourth coil winding set, and the ending ends of the coils of the respective third coil winding set are adjacent to the starting ends of the coils of the respective fourth coil winding set.

[0040] For example, the coil winding set 130E, the coil winding set 130F, the winding set area 111E and the winding set area 111F are used to illustrate the third coil winding set, the fourth coil winding set, the third winding set area and the fourth winding set area.

[0041] For example, the left end of the winding set region 111E is adjacent to the left end of the winding set region 111F (specifically, the left end of the winding set region 111E and the left end of the winding set region 111F are separated by a distance 113), and the right end of the winding set region 111E is adjacent to the right end of the winding set region 111F (specifically, the right end of the winding set region 111E and the right end of the winding set region 111F are separated by a distance 113). Since the first starting end TE1 and the second starting end TE3 are located at the left end of the winding set area 111E and the third ending end TF2 and the fourth ending end TF4 are located at the left end of the winding set area 111F, the first starting end TE1 and the second starting end TE3 are adjacent to the third ending end TF2 and the fourth ending end TF4, respectively.Similarly, the first tail end TE2 and the second tail end TE4 are located at the right end of the winding set area 111E, and the third start end TF1 and the fourth start end TF3 are located at the right end of the winding set area 111F, so that the first tail end TE2 and the second tail end TE4 are adjacent to the third start end TF1 and the fourth start end TF3, respectively.

[0042] It will be Fig. 6. In some embodiments, the first starting end TE1, the second starting end TE3, the third starting end TF1, and the fourth starting end TF3 are located on the same axis (hereinafter referred to as the first axis L1), and the first ending end TE2, the second ending end TE4, the third ending end TF2, and the fourth ending end TF4 are located on the same axis (hereinafter referred to as the second axis L1), wherein the first axis L1 and the second axis L2 are perpendicular to each other.

[0043] The start ends (namely, the first start end TE1, the second start end TE3, the third start end TF1, and the fourth start end TF3) and the end ends (namely, the first end end TE2, the second end end TE4, the third end end TF2, and the fourth end end TF4) are components through which the coils (namely, the first coil 131E, the second coil 132E, the third coil 131F, and the fourth coil 132F) can be coupled to external circuit elements or electrical signals.For example, the first starting end TE1 and the first ending end TE2 are terminals of the first coil 131E for external connection, the second starting end TE3 and the second ending end TE4 are terminals of the second coil 132E for external connection, the third starting end TF1 and the third ending end TF2 are terminals of the third coil 131F for external connection, and the fourth starting end TF3 and the fourth ending end TF4 are terminals of the fourth coil 132F for external connection. In this way, after a coil is coupled to the corresponding circuit element or electrical signal via the corresponding starting end and ending end, the inductive hybrid device 100 can be used for various circuit structures. Here, the starting end and ending end only represent the beginning and ending of the respective coil winding and do not serve to restrict the current direction.

[0044] It is based on the Fig. 3, Fig. 6 and Fig. 9 is referred to. Fig. 9 shows a schematic equivalent circuit diagram of the inductive hybrid device 100 according to some embodiments of the present invention. When a current flows from the terminal end (namely, first terminal end TE2) of the first coil (one of the coils, namely, the first coil 131E) of the third coil winding set (namely, the coil winding set 130E) and from the terminal end (namely, third terminal end TF2) of the third coil (one of the coils, namely, the third coil 131F) of the fourth coil winding set (namely, the coil winding set 130F) to the starting end (namely, first starting end TE1) of the first coil and the starting end (namely, third starting end TF1) of the third coil, respectively, the first coil and the third coil form a common-mode inductance.

[0045] For example, the first terminal end TE2 of the first coil 131E is coupled to the positive power signal V+ of the positive terminal 201 of the power supply 200, the third terminal end TF2 of the third coil 131F is coupled to the negative power signal V- of the negative terminal 203 of the power supply 200, the first starting end TE1 of the first coil 131E is coupled to the first input terminal 301 of the external circuit 300, and the third starting end TF1 of the third coil 131F is coupled to the second input terminal 303 of the external circuit 300.Thus, when common-mode noise occurs, the common-mode current flows from the first terminal end TE2 to the first starting end TE1 of the first coil 131E and then returns to the power supply 200 through the reference ground signal GND of the external circuit 300, and flows from the third terminal end TF2 to the third starting end TF1 of the third coil 131F and then returns to the power supply 200 through the reference ground signal GND of the external circuit 300, thereby generating magnetic fields in the same direction at the first coil 131E and the third coil 131F and increasing the amount of inductance of the first coil 131E and the third coil 131F, that is, increasing the inductive reactance for suppressing the common-mode current (that is, the first coil 131E and the third coil 131F are formed as a common-mode inductance in this case), to achieve the effect of filtering out noise.

[0046] Similarly, in some embodiments, the second coil and the fourth coil form a common mode inductance when a current flows from the starting end (namely, second starting end TE3) of the second coil (namely, second coil 132E) of the third coil winding set (namely, coil winding set 130E) and from the starting end (namely, fourth starting end TF3) of the fourth coil (namely, fourth coil 132F) of the fourth coil winding set (namely, coil winding set 130F) to the ending end (namely, second ending end TE4) of the second coil and to the ending end (namely, fourth ending end TF4) of the fourth coil, respectively. Since a common mode inductance is formed here in the second coil 132E and the fourth coil 132F in the same way as in the first coil 131E and the third coil 131F, it will not be described again here in order to keep the description of this case brief.

[0047] It is based on the Fig. 4, Fig. 6 and Fig. 9. When a current flows from the terminal end (namely, first terminal end TE2) of the first coil (one of the coils, namely, the first coil 131E) of the third coil winding set (namely, the coil winding set 130E) and from the terminal end (namely, fourth terminal end TF4) of the fourth coil (one of the coils, namely, the fourth coil 132F) of the fourth coil winding set (namely, the fourth coil winding set 130F) to the starting end (namely, first starting end TE1) of the first coil and the starting end (namely, fourth starting end TF3) of the fourth coil, respectively, the current results in the same magnetic field direction at the first coil and the fourth coil, and these two form a differential mode inductance.

[0048] For example, the first terminal TE2 is coupled to the positive power signal V+ of the positive terminal 201 of the power supply 200, the fourth terminal TF3 is coupled to the negative power signal V- of the negative terminal 203 of the power supply 200, the first terminal TE1 is coupled to the first input terminal 301 of the external circuit 300, and the fourth terminal TF4 is coupled to the second input terminal 303 of the external circuit 300. Thus, when differential mode noise occurs, the differential mode current flows from the first terminal TE2 to the first input end TE1 of the first coil 131E and thus through the external circuit 300, and then flows from the external circuit 300 from the fourth terminal TF4 to the fourth input end TF3 of the fourth coil 132F, so that magnetic fields in the same direction are generated at the first coil 131E and the fourth coil 132F (i.e.,a same magnetic field direction is generated) and the inductance amount of the first coil 131E and the fourth coil 132F is increased, that is, the inductive reactance for suppressing the differential mode current is increased (that is, the first coil 131E and the fourth coil 132F are formed as differential mode inductance in this case) to achieve the effect of filtering out noise.

[0049] Similarly, in some embodiments, the first coil and the fourth coil result in the same magnetic field direction due to the current and these two form a differential inductance when a current flows from the end end (namely second end end TE4) of the second coil (namely second coil 132E) of the third coil winding set (namely coil winding set 130E) and from the end end (namely third end end TF2) of the third coil (namely third coil 131F) of the fourth coil winding set (namely coil winding set 130F) to the start end (namely second start end TE3) of the second coil or to the start end (namely third start end TF1) of the third coil.Since a common mode inductance is formed here in the second coil 132E and the third coil 131F in the same way as in the first coil 131E and the fourth coil 132F, it will not be described again here in order to keep the description of this case brief.

[0050] It is based on the Fig. 5, Fig. 6 and Fig. 9. The starting ends (namely, the first starting end TE1 and the second starting end TE3) of the coils (namely, the first coil 131E and the second coil 132E) of the third coil winding set (namely, the coil winding set 130E) are coupled to each other. When a current flows through one of the final ends (e.g., the first final end TE2 or the second final end TE4) of the coils of the third coil winding set, the coils of the third coil winding set form a non-inductive resistance due to the current.

[0051] For example, the first terminal TE2 is coupled to the positive power signal V+ of the positive terminal 201 of the power supply 200, and the second terminal TE4 is coupled to the first input terminal 301 of the external circuit 300. When current limiting or reducing the attenuation in the frequency response (e.g., increasing the load) is to be performed on the external circuit 300, the first starting end TE1 is coupled to the second starting end TE3 (i.e., the first starting end TE1 and the second starting end TE3 are short-circuited), and the current flows from the first terminal TE2 through the first coil 131E and the second coil 132E and then to the external circuit 300. Since magnetic fields are generated in opposite directions at the first coil 131E and the second coil 132E, the magnetic fields cancel each other out without generating an inductive reactance.In other words, in this case, the first coil 131E and the second coil 132E act as a resistor without inductive reactance (for example, only the resistance of the coils is present) or only with inductances generated by small stray inductances, i.e., the first coil 131E and the second coil 132E form a concrete non-inductive resistor that fulfills the functions required by the external circuit 300 (e.g., current limiting and reducing attenuation in the frequency response).

[0052] Similarly, the starting ends (namely, the third starting end TF1 and the fourth starting end TF3) of the coils (namely, the third coil 131F and the fourth coil 132F) of the fourth coil winding set (namely, the coil winding set 130F) are coupled to each other. When a current flows through one of the final ends (e.g., the third final end TF2 or the fourth final end TF4) of the coils of the fourth coil winding set, the coils of the fourth coil winding set form a non-inductive resistance due to the current. Since a non-inductive resistance is formed at the third coil 131F and the fourth coil 132F in the same way as at the first coil 131E and the second coil 132E, it will not be described again here to keep the description of this case brief.

[0053] From the above, it can be seen that the inductive hybrid device 100 has a simple coil winding set structure. Thus, automatic winding can be realized using a winding machine, which increases the production efficiency of the product and also reduces mutual interference between the coil winding sets.

[0054] According to some embodiments, a plurality of coil winding sets are wound around a single magnetic core, wherein the winding direction of each coil winding set differs from the winding directions of the adjacent coil winding sets, so that during power generation, a common-mode inductance, a differential-mode inductance, and a non-inductive resistance can be formed according to the different combinations of the coil winding sets, and thus the circuit size of the line filter can be reduced and less space is required in the interior of the line filter to meet the requirements of miniaturized power supply filters. List of reference symbols 100 inductive hybrid device 110 magnetic core 111A - 111F Winding set range 113 Distance 115A - 115B central axis 1151 first area 1153 second area 130A - 130F coil winding set TA1, TA2, TB1, TB2, TC1, TC2, TD1, TD2 connection 131E first coil 1311E first coil turn TE1 first start end TE2 first final end 132E second coil 1321E second coil winding TE3 second start end TE4 second final end 131F third coil 1311F third coil winding TF1 third beginning end TF2 third final ending 132F fourth coil 1321F fourth coil winding TF3 fourth beginning end TF4 fourth finale 35 Substructure L1 first axis L2 second axis 200 Power supply 201 positive connection V+ positive power signal 203 negative connection V- negative power signal 300 external circuit 301 first input connection 303 second input connection C Stray capacitance GND reference ground signal A1 - A4 current direction D1 first direction D2 second direction

Claims

[1] Inductive hybrid device (100) comprising: a magnetic core (110) provided with a plurality of winding set regions (111A - 111F); and a plurality of coil winding sets (130A - 130F) wound in the corresponding winding set regions (111A - 111F), and a distance (113) between the coil winding sets (130A - 130F) of two adjacent winding set regions (111A - 111F), wherein the winding direction of the coil winding set (130A - 130F) wound around the magnetic core (110) of the corresponding winding set region (111A - 111F) differs from the winding directions of the coil winding sets (130A - 130F) wound around the magnetic core (110) of the adjacent winding set regions (111A - 111F), and the coil winding set (130A - 130F) of the corresponding winding set region (111A - 111F) is symmetrical to the coil winding sets (130A - 130F) of the winding set areas (111A - 111F) adjacent to it, characterized by , that a first coil winding set and a second coil winding set of the coil winding sets (130A - 130F) are each wound in a first winding set region and a second winding set region adjacent thereto of the corresponding winding set regions (111A - 111F), wherein, when a current flows through the mutually adjacent ends of the respective first coil winding set and the respective second coil winding set to the other ends of the corresponding first coil winding set and the corresponding second coil winding set, the respective first coil winding set and the respective second coil winding set form a common mode inductance. [2] The inductive hybrid device (100) of claim 1, wherein all coil winding sets (130A - 130F) have the same number of coil turns. [3] The inductive hybrid device (100) according to claim 1, wherein the magnetic core (110) is a closed magnetic core or a non-closed magnetic core. [4] The inductive hybrid device (100) according to claim 3, wherein the closed magnetic core is a circular magnetic core, an elliptical magnetic core, or a rectangular magnetic core. [5] Inductive hybrid device (100) according to claim 1, wherein the magnetic core (110) is divided by its central axis (115A, 115B) into a first region (1151) and a second region (1153), wherein the coil winding sets (130A - 130F) of the winding set regions (111A - 111F) located in the first region (1151) are each symmetrical about the central axis (115A, 115B) to the coil winding sets (130A - 130F) of the winding set regions (111A - 111F) located in the second region (1153). [6] The inductive hybrid device (100) according to claim 5, wherein the number of the winding set regions (111A - 111F) and the number of the coil winding sets (130A - 130F) of the first region (1151) are each two, and the number of the winding set regions (111A - 111F) and the number of the coil winding sets (130A - 130F) of the second region (1153) are each two. [7] The inductive hybrid device (100) according to claim 1, wherein another first coil winding set and another second coil winding set of the coil winding sets (130A - 130F) are each wound in another first winding set region and an adjacent another second winding set region of the corresponding winding set regions (111A - 111F), wherein the mutually adjacent ends of a respective another first coil winding set and a respective another second coil winding set are coupled to each other, wherein, when a current flows from the other end of the respective another first coil winding set to the other end of the respective another second coil winding set, the respective another first coil winding set and the corresponding another second coil winding set form a non-inductive resistance. [8] Inductive hybrid device (100) according to claim 1, wherein the coil winding set (130A - 130F) of a corresponding winding set area (111A - 111F) comprises a plurality of coils (131E, 132E, 131F, 132F), each coil (131E, 132E, 131F, 132F) having a plurality of coil turns (1311E, 1321E, 1311F, 1321F), starting ends (TE1, TE3, TF1, TF3) extending from the top of the magnetic core (110) and ending ends (TE2, TE4, TF2, TF4) extending from the bottom of the magnetic core (110), the coil turns of the coils (131E, 132E, 131F, 132F) of a respective coil winding set (130A - 130F) are parallel to each other, the starting ends (TE1, TE3, TF1, TF3) of the coils (131E, 132E, 131F, 132F) of the respective coil winding set (130A - 130F) are adjacent to each other, the final ends (TE2, TE4, TF2, TF4) of the coils (131E, 132E, 131F, 132F) of the respective coil winding set (130A - 130F) are adjacent to each other and the coils (131E, 132E,131F, 132F) of the respective coil winding set (130A - 130F) have the same winding direction. [9] Inductive hybrid device (100) according to claim 8, wherein the coil turns (1311E, 1321E, 1311F, 1321F) of the coils (131E, 132E, 131F, 132F) of a respective coil winding set (130A - 130F) overlap each other. [10] The inductive hybrid device (100) according to claim 8, wherein the winding direction of a coil winding set (130A - 130F) wound around the magnetic core (110) of the corresponding winding set region (111A - 111F) is opposite to the winding directions of the coil winding sets (130A - 130F) wound around the magnetic core (110) of the winding set regions (111A - 111F) adjacent thereto. [11] Inductive hybrid device (100) comprising: a magnetic core (110) provided with a plurality of winding set regions (111A - 111F); and a plurality of coil winding sets (130A - 130F) wound in the corresponding winding set regions (111A - 111F), and a distance (113) between the coil winding sets (130A - 130F) of two adjacent winding set regions (111A - 111F), wherein the winding direction of the coil winding set (130A - 130F) wound around the magnetic core (110) of the corresponding winding set region (111A - 111F) differs from the winding directions of the coil winding sets (130A - 130F) wound around the magnetic core (110) of the adjacent winding set regions (111A - 111F), and the coil winding set (130A - 130F) of the corresponding winding set region (111A - 111F) is symmetrical to the coil winding sets (130A - 130F) of the winding set areas (111A - 111F) adjacent to it, wherein the coil winding set (130A - 130F) of a corresponding winding set area (111A - 111F) comprises a plurality of coils (131E, 132E, 131F, 132F), each coil (131E, 132E, 131F, 132F) having a plurality of coil turns (1311E, 1321E, 1311F, 1321F), starting ends (TE1, TE3, TF1, TF3) extending from the top of the magnetic core (110) and end ends (TE2, TE4, TF2, TF4) extending from the bottom of the magnetic core (110), wherein the coil turns of the coils (131E, 132E, 131F, 132F) of a respective coil winding set (130A - 130F) are parallel to each other, the starting ends (TE1, TE3, TF1, TF3) of the coils (131E, 132E, 131F, 132F) of the respective coil winding set (130A - 130F) are adjacent to each other, the final ends (TE2, TE4, TF2, TF4) of the coils (131E, 132E, 131F, 132F) of the respective coil winding set (130A - 130F) are adjacent to each other and the coils (131E, 132E, 131F,132F) of the respective coil winding set (130A - 130F) have the same winding direction, characterized by , that a third coil winding set and a fourth coil winding set of the coil winding sets (130A - 130F) each in a third winding set area and a fourth winding set region of the corresponding winding set regions (111A - 111F) adjacent thereto, wherein the starting ends (TE1, TE3, TF1, TF3) of the coils (131E, 132E, 131F, 132F) of the respective third coil winding set are adjacent to the final ends (TE2, TE4, TF2, TF4) of the coils (131E, 132E, 131F, 132F) of the respective fourth coil winding set and the final ends (TE2, TE4, TF2, TF4) of the coils (131E, 132E, 131F, 132F) of the respective third coil winding set are adjacent to the starting ends (TE1, TE3, TF1, TF3) of the coils (131E, 132E, 131F, 132F) of the respective fourth coil winding set are adjacent. [12] The inductive hybrid device (100) according to claim 11, wherein when a current flows from the terminal end (TE2) of the first coil (131E), namely one of the coils (131E, 132E, 131F, 132F), of the third coil winding set and from the terminal end (TF2) of the third coil (131F), namely one of the coils (131E, 132E, 131F, 132F), of the fourth coil winding set to the starting end (TE1) of the first coil (131E) and to the starting end (TF1) of the third coil (131F), respectively, the first coil (131E) and the third coil (131F) form a common mode inductance. [13] The inductive hybrid device (100) according to claim 11, wherein when a current flows from the starting end (TE3) of the second coil (132E), namely one of the coils (131E, 132E, 131F, 132F), of the third coil winding set and from the starting end (TF3) of the fourth coil (132F), namely one of the coils (131E, 132E, 131F, 132F), of the fourth coil winding set to the ending end (TE4) of the second coil (132E) and to the ending end (TF4) of the fourth coil (132F), respectively, the second coil (132E) and the fourth coil (132F) form a common mode inductance. [14] The inductive hybrid device (100) according to claim 11, wherein when a current flows from the terminal end (TE2) of the first coil (131E), namely one of the coils (131E, 132E, 131F, 132F), of the third coil winding set and from the terminal end (TF4) of the fourth coil (132F), namely one of the coils (131E, 132E, 131F, 132F), of the fourth coil winding set to the starting end (TE1) of the first coil (131E) and the starting end (TF3) of the fourth coil (132F), respectively, the first coil (131E) and the fourth coil (132F) have the same magnetic field direction due to the current, and these two form a differential inductance. [15] The inductive hybrid device (100) according to claim 11, wherein when a current flows from the end end (TE4) of the second coil (132E), namely one of the coils (131E, 132E, 131F, 132F), of the third coil winding set and from the end end (TF2) of the third coil (131F), namely one of the coils (131E, 132E, 131F, 132F), of the fourth coil winding set to the start end (TE3) of the second coil (132E) and to the start end (TF1) of the third coil (131F), respectively, the second coil (132E) and the third coil (131F) have the same magnetic field direction due to the current, and these two form a differential inductance. [16] The inductive hybrid device (100) according to claim 11, wherein the starting ends (TE1, TE3, TF1, TF3) of the coils (131E, 132E, 131F, 132F) of the third coil winding set are coupled to each other, wherein when a current flows in through one of the final ends (TE2, TE4, TF2, TF4) of the coils of the third coil winding set, the coils (131E, 132E, 131F, 132F) of the third coil winding set form a non-inductive resistance due to the current. [17] The inductive hybrid device (100) according to claim 11, wherein the starting ends (TE1, TE3, TF1, TF3) of the coils (131E, 132E, 131F, 132F) of the fourth coil winding set are coupled to each other, wherein when a current flows in through one of the final ends (TE2, TE4, TF2, TF4) of the coils (131E, 132E, 131F, 132F) of the fourth coil winding set, the coils (131E, 132E, 131F, 132F) of the fourth coil winding set form a non-inductive resistance due to the current. [18] Inductive hybrid device (100) comprising: a magnetic core (110) provided with a plurality of winding set regions (111A - 111F); and a plurality of coil winding sets (130A - 130F) wound in the corresponding winding set regions (111A - 111F), and a distance (113) between the coil winding sets (130A - 130F) of two adjacent winding set regions (111A - 111F), wherein the winding direction of the coil winding set (130A - 130F) wound around the magnetic core (110) of the corresponding winding set region (111A - 111F) differs from the winding directions of the coil winding sets (130A - 130F) wound around the magnetic core (110) of the adjacent winding set regions (111A - 111F), and the coil winding set (130A - 130F) of the corresponding winding set region (111A - 111F) is symmetrical to the coil winding sets (130A - 130F) of the winding set areas (111A - 111F) adjacent to it, characterized by , that a first coil winding set and a second coil winding set of the coil winding sets (130A - 130F) are each wound in a first winding set region and a second winding set region of the corresponding winding set regions (111A - 111F) not adjacent thereto, wherein the winding direction of the respective first coil winding set and the winding direction of the respective second coil winding set are parallel to one another, wherein, if the same magnetic field direction results from the current in the respective first coil winding set and second coil winding set, the respective first coil winding set and the respective second coil winding set form a differential inductance. [19] Inductive hybrid device (100) comprising: a magnetic core (110) provided with a plurality of winding set regions (111A - 111F); and a plurality of coil winding sets (130A - 130F) wound in the corresponding winding set regions (111A - 111F), and a distance (113) between the coil winding sets (130A - 130F) of two adjacent winding set regions (111A - 111F), wherein the winding direction of the coil winding set (130A - 130F) wound around the magnetic core (110) of the corresponding winding set region (111A - 111F) differs from the winding directions of the coil winding sets (130A - 130F) wound around the magnetic core (110) of the adjacent winding set regions (111A - 111F), and the coil winding set (130A - 130F) of the corresponding winding set region (111A - 111F) is symmetrical to the coil winding sets (130A - 130F) of the winding set areas (111A - 111F) adjacent to it, wherein the coil winding set (130A - 130F) of a corresponding winding set area (111A - 111F) comprises a plurality of coils (131E, 132E, 131F, 132F), each coil (131E, 132E, 131F, 132F) having a plurality of coil turns (1311E, 1321E, 1311F, 1321F), starting ends (TE1, TE3, TF1, TF3) extending from the top of the magnetic core (110) and end ends (TE2, TE4, TF2, TF4) extending from the bottom of the magnetic core (110), wherein the coil turns of the coils (131E, 132E, 131F, 132F) of a respective coil winding set (130A - 130F) are parallel to each other, the starting ends (TE1, TE3, TF1, TF3) of the coils (131E, 132E, 131F, 132F) of the respective coil winding set (130A - 130F) are adjacent to each other, the final ends (TE2, TE4, TF2, TF4) of the coils (131E, 132E, 131F, 132F) of the respective coil winding set (130A - 130F) are adjacent to each other and the coils (131E, 132E, 131F,132F) of the respective coil winding set (130A - 130F) have the same winding direction, characterized by , that the coil windings (1311E, 1321E, 1311F, 1321F) of the coils (131E, 132E, 131F, 132F) of a respective coil winding set (130A - 130F) are spaced apart from one another.

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