Filter inductor applied to large current

Abstract

The invention relates to the technical field of electrical equipment, in particular to a filter inductor applied to large current, the filter inductor comprises a bearing platform, a connecting mechanism, a coil mechanism, a splitting piece and a quick-release connecting piece, and an operator adjusts the number of coils on the coil mechanism through the splitting piece; the device can be used after being installed on the bearing platform through the quick-release connecting piece, the requirements of different devices can be effectively met, meanwhile, wiring platforms of different structures can be conveniently installed through the connecting mechanism, the applicability of the device is guaranteed, the space of the device is reduced, the loss is reduced, and the cost is reduced. Stability and long-term reliability of the inductor under the large-current working condition are guaranteed, good practicability and economical efficiency are achieved, and popularization and use of equipment are facilitated.

Description

Technical Field

[0001] The present invention relates to the technical field of electrical equipment, and particularly relates to a filter inductor for high-current applications. Background Art

[0002] A filter is a filter circuit composed of capacitors, inductors, and resistors. By using components such as capacitors, inductors, and resistors, signals of specific frequencies are effectively filtered or enhanced to achieve the purpose of purifying signals, suppressing interference, and improving signal quality.

[0003] However, at the same time, due to the fixed structure, when installing and designing the installation, it is necessary to consider the usage requirements of different inductors, resulting in the installation of filters of different types, sizes, and volumes on one device, greatly increasing the usage cost caused by calling or purchasing equipment. At the same time, special connection terminals also need to be added to the connecting cables, which is not conducive to the implementation of the universality of the equipment. Summary of the Invention

[0004] In order to solve the above problems existing in the prior art, the purpose of the present invention is to provide a filter inductor for high-current applications that can be modularly installed and is easy to adapt to different usage requirements, effectively solving the fixation of connecting cables.

[0005] The technical solution adopted by the present invention is as follows: A filter inductor for high-current applications includes a bearing platform, on which there is a circuit board. On the circuit board, there are symmetrically arranged resistors and capacitors. The resistors and capacitors are connected through internal circuits of the circuit board. There are several contact areas on the circuit board that connect the internal circuits and are symmetrically arranged. The contact areas are provided with notch connection grooves at the circuit board. A coil mechanism, the coil mechanism includes a circular magnet, on which there are symmetrically arranged coil groups wound around the body of the circular magnet. The coil groups include several single-turn notched coils. Fixed convex mouths and fixed concave mouths are respectively arranged at both ends of the single-turn notched coils. Adjacent single-turn notched coils are connected in sequence by sliding the fixed convex mouths into the fixed concave mouths. The head and tail ends of the two coil groups are connected to the adjacent notch connection grooves through quick-release connectors.

[0006] In an embodiment, several contact fixing grooves are provided around the contact areas on the circuit board. A connection mechanism is provided on the contact areas. The connection mechanism includes a fixed bracket, the fixed bracket presents a C-shaped structure, both ends of the fixed bracket pass through the contact fixing grooves, and two wire-passing circular openings are provided in the middle of the fixed bracket for fixing the connecting cables.

[0007] In one embodiment, a fixing nut is provided inside the round through-wire opening, and a through-wire tube is provided on the side of the other round through-wire opening close to the circuit board. The through-wire tube is connected to a fixing bracket through a connecting plate. A plurality of moving grooves are provided on the outer peripheral side of the through-wire tube, and the plurality of moving grooves are arranged in a circumferential array. Fixing rods are provided in the moving grooves. Each fixing rod includes a long rod portion, an extrusion protrusion is provided in the middle of the long rod portion, a rotating fixing shaft is provided on the side of the long rod portion close to the extrusion protrusion, and the rotating fixing shaft is rotatably connected to both sides of the moving groove. A pressure plate is provided between the through-wire tube and the circuit board, and a pressure spring is provided between the pressure plate and the circuit board. A restraint ring is sleeved on the outer peripheral side of the through-wire tube, and a plurality of connecting columns are provided directly between the restraint ring and the pressure plate.

[0008] In one embodiment, the quick-release connector includes clamping blocks symmetrically arranged in the notch connection groove. Extrusion semi-circular plates are provided on the opposite sides of the two groups of clamping blocks, and the extrusion semi-circular plates can undergo elastic deformation. The two adjacent extrusion semi-circular plates are in mutual contact. The quick-release connector further includes a power-on plate provided between the coil group and the circuit board. One end of the power-on plate is provided with a first bent fixing plate. The coil mechanism has an L-shaped structure. One end of the first bent fixing plate passes between two adjacent extrusion semi-circular plates. The other end of the coil group away from the first bent fixing plate is provided with a second bent fixing plate. The second bent fixing plate passes between another two adjacent extrusion semi-circular plates. An extension column is provided on the second bent fixing plate, and the extension column passes into the fixing notch at one end of the coil group. The fixing convex mouth at the other end of the coil group is connected to the power-on plate by a contact member.

[0009] In one embodiment, the contact member includes a serrated plate. The serrated plate is provided on the side of the power-on plate far from the circuit board. The power-on plate and the serrated plate are spaced apart by spacer columns. A plurality of moving notches are provided on the serrated plate in a comb-shaped structure. A rotating rocker is provided in the moving notch. A rotating connecting shaft passing through all the serrated plates is provided in the middle of the serrated plate. The rotating rocker is rotatably connected to the rotating connecting shaft. A thrust spring is provided at one end of the rotating rocker, and the thrust spring abuts against the serrated plate. The fixing convex mouth at the end of the coil group abuts against the rotating rocker and then is connected to the power-on plate.

[0010] In one embodiment, a protective sleeve is provided outside the coil group. The protective sleeve abuts against the outer peripheral side of the single-turn notch coil and supports the coil group.

[0011] In one embodiment, a connecting fixing rod is provided in the middle of the round magnet. The connecting fixing rod is fixedly connected to the circuit board, and the connecting fixing rod clamps the round magnet and fixes it between two coil groups.

[0012] In one embodiment, a splitting member is further provided on one side of the coil group. The splitting member includes a guiding tube. A clamping clip is provided on the single-turn notched coil. The clamping clip has a C-shaped structure. The middle part of the clamping clip clamps the single-turn notched coil. The guiding tube penetrates through and is slidably connected to the clamping clips on several single-turn notched coils.

[0013] In one embodiment, a rotating peeling column is provided in the middle of the clamping clip. The rotating peeling column is rotatably connected to the clamping clip. The splitting member further includes a rotating shaft. The rotating shaft penetrates through and is slidably connected to the rotating peeling column. The rotating shaft penetrates through and is slidably connected to the rotating peeling column. The two ends of the rotating peeling column are provided with fitting inclined surfaces. Fixed notches are provided on the fitting inclined surfaces. The fitting inclined surfaces between adjacent rotating peeling columns are mutually abutted and fitted.

[0014] In one embodiment, abrasive paste; or a friction surface; or wax liquid is provided between the rotating peeling column and the rotating shaft to increase the friction force for fixation.

[0015] The beneficial effects of the present invention are as follows: The present invention is a filter inductor that can be modularly installed and is convenient for adapting to different usage requirements, effectively solving the problem of fixing the connecting cable in high-current applications. The specific beneficial effects are as follows: After the operator first determines the required inductance, the number of single-turn notched coils in the coil group is adjusted. First, rotate the rotating peeling column at the end far from the second bending fixing plate. The fitting inclined surfaces between the two groups of rotating peeling columns are offset, so that one rotating peeling column is far away from the multiple groups of rotating peeling columns at the other end until the fixed notches of the two groups of rotating peeling columns are mutually abutted. Then, by continuing to rotate, the next group of rotating peeling columns can be further peeled off. Due to different torques, the next rotating peeling column can be sequentially rotated and separated, avoiding disconnection of the single-turn notched coils in the middle of the coil group. During the process of the rotating peeling columns moving away from each other, the clamping clips at the edge are driven to disengage from the guiding tube, and at the same time, the fixed notches on the clamping clips clamping the single-turn notched coils are disengaged from the fixed protrusions on the adjacent single-turn notched coils, so that the winding length of the coil group can be shortened. The number of turns of the winding coil directly determines the actual size of the inductance. By adjustably reducing the number of winding turns and through measurement, the inductance change caused by reducing one turn to multiple turns can be obtained. During use, disassembly and adjustment are carried out to achieve precise change of multi-stage control of the inductance. In order to assist in connecting the two ends of the coil group to the circuit board when the single-turn notched coil on the coil group is detached, during detachment, the fixed notch on the single-turn notched coil at the end of the coil group is connected by an extension post to the second bent fixing plate to the circuit board, and the fixed convex notch at the other end abuts against the adjacent rotating rocker. The rotating rocker is expanded by the thrust of the thrust spring to increase the angle with the serrated plate. The other end of the rotating rocker abuts against the energizing plate to contact the energizing plate. Since the energizing plate contacts the circuit board through the first bent fixing plate, when adjusting the number of single-turn notched coils in the coil group, the connection of both ends to the circuit board is synchronously achieved.

[0016] In the future, to adapt to different inductance requirements, after detaching the first bent fixing plate and the second bent fixing plate from the clamped extrusion semi-circular plate and detaching the circular magnet from the connecting fixing rod, different coil groups with different winding numbers and circular magnets of different sizes can be replaced, which is beneficial to modular assembly and is also convenient for replacement and adjustment.

[0017] To adapt to different wiring requirements, such as rigid wires, flexible wires, and wires with terminals: when facing wires with terminals, they can be fixed by fixing nuts; when facing rigid wires or flexible wires, the rigid wires or flexible wires are passed through the through-tube until they contact the pressure plate, and then continue to pass through the pressure spring below the extrusion pressure plate until the constraint ring contacts the long rod part, causing the long rod part to move inward, so that the extrusion protrusion squeezes the wire. Then, when pulling out of the through-tube, the wire drives the extrusion protrusion to rotate inward, further squeezing the wire, and the fixation of the wire can be achieved.

[0018] The device has a simple structure. By effectively setting a modular coil group, the adjustment of different inductances can be realized, further achieving the applicability to different equipment requirements. At the same time, modular structural installation can be realized, effectively solving the problem of fixing cable connection, and having good practicality and economy, which is beneficial to the popularization and use of the device. BRIEF DESCRIPTION OF THE DRAWINGS

[0019] The present invention will be further described in detail below with reference to the drawings and specific implementation methods.

[0020] Figure 1 is a three-dimensional structural schematic diagram of the present invention; Figure 2 is a three-dimensional structural schematic diagram of the circuit board of the present invention; Figure 3 is a three-dimensional structural schematic diagram of the circular magnet of the present invention; Figure 4 is a three-dimensional structural schematic diagram of the quick-release connector of the present invention; Figure 5 is a three-dimensional structural schematic diagram of the coil group of the present invention; Figure 6 is a partially exploded three-dimensional structural schematic diagram of the disassembled parts of the present invention; Figure 7 It is a three-dimensional structural schematic diagram of the rotary peeling column of the present invention; Figure 8 It is the second three-dimensional structural schematic diagram of the quick-release connector of the present invention; Figure 9 It is the third three-dimensional structural schematic diagram of the quick-release connector of the present invention; Figure 10 It is the three-dimensional structural schematic diagram of the connection mechanism of the present invention; Figure 11 It is the partial exploded three-dimensional structural schematic diagram of the connection mechanism of the present invention; Figure 12 It is the second partial exploded three-dimensional structural schematic diagram of the connection mechanism of the present invention; Figure 13 It is the fourth three-dimensional structural schematic diagram of the quick-release connector of the present invention.

[0021] Description of the drawings: 1. Loading platform; 11. Circuit board; 12. Resistor; 13. Capacitor; 14. Contact area; 141. Contact fixing groove; 15. Circular magnet; 151. Connecting fixing rod; 16. Notch connecting groove; 17. Protective sleeve; 2. Connection mechanism; 21. Fixed bracket; 22. Wire-passing round hole; 23. Fixed nut; 24. Wire-passing tube; 241. Connecting plate; 242. Moving groove; 243. Fixed rod; 2431. Extrusion protrusion; 2432. Long rod part; 2433. Rotary fixing shaft; 25. Constraint ring; 251. Pressure plate; 252. Pressure spring; 253. Connecting column; 3. Coil mechanism; 31. Single-turn notched coil; 311. Fixed notch; 312. Fixed convex notch; 32. Rotary shaft; 33. Guide tube; 34. Clamping clip; 35. Rotary peeling column; 351. Fitting inclined plane; 352. Fixed notch; 4. Split part; 5. Quick-release connector; 51. Power-on plate; 52. Serrated plate; 521. Rotary connecting shaft; 522. Rotary tipping plate; 523. Thrust spring; 524. Moving notch; 53. First bending fixing plate; 531. Second bending fixing plate; 532. Extension column; 54. Spacing column; 55. Clamping block; 551. Extrusion semi-circular plate. Detailed implementation manners

[0022] In order to make the objectives, technical solutions and advantages of the present invention clearer, the present invention will be further described in detail below with reference to the drawings and embodiments. It should be understood that the specific embodiments described herein are only used to explain the present invention and are not used to limit the present invention, that is, the described embodiments are only part of the embodiments of the present invention, rather than all the embodiments. Usually, the components of the embodiments of the present invention described and illustrated in the drawings here can be arranged and designed in various different configurations.

[0023] Accordingly, the following detailed description of the embodiments of the present invention provided in the accompanying drawings is not intended to limit the scope of the claimed invention, but merely represents selected embodiments of the present invention. All other embodiments obtained by those skilled in the art based on the embodiments of the present invention without creative efforts fall within the scope of protection of the present invention.

[0024] The following will be combined with Figures 1 - 13 to illustrate the specific implementation manner of the present invention. A filter inductor for high-current applications includes a carrying platform 1. The carrying platform 1 includes a circuit board 11. On the circuit board 11, a symmetrically arranged resistor 12 and capacitor 13 are provided. The resistor 12 and the capacitor 13 are connected through the internal circuit of the circuit board 11. Specifically, the internal circuit of the circuit board 11 mainly uses the above-mentioned and the following elements to realize the function of the high-current filter inductor, which is not the inventive point of the present invention, so it will not be elaborated here; specifically, four groups of contact areas 14 that connect the internal circuit and are symmetrically arranged are provided on the circuit board 11. The contact area 14 is provided with a notch connection groove 16 at the circuit board 11; Coil mechanism 3, the coil mechanism 3 includes a circular magnet 15, and a coil group is provided on the circular magnet 15, which is wound around the body of the circular magnet 15 and symmetrically arranged. The coil group includes a number of single-turn notched coils 31, which can be increased or decreased according to the actual situation. Fixed convex ports 312 and fixed concave ports 311 are respectively arranged at both ends of the single-turn notched coil 31. Adjacent single-turn notched coils 31 are sequentially connected by sliding the fixed convex port 312 into the fixed concave port 311. The head and tail ends of the two coil groups are connected to adjacent notch connection grooves 16 through a quick-release connector 5. The quick-release connector 5 includes clamping blocks 55 symmetrically arranged in the notch connection groove 16. Elastic deformation can occur in the extrusion semi-circular plates 551 provided on the opposite sides of the two clamping blocks 55. The two adjacent extrusion semi-circular plates 551 are in mutual contact. The quick-release connector 5 further includes a power-on plate 51 provided between the coil group and the circuit board 11. One end of the power-on plate 51 is provided with a first bending fixing plate 53. The coil mechanism 3 presents an L-shaped structure. One end of the first bending fixing plate 53 passes between two adjacent extrusion semi-circular plates 551. The other end of the coil group away from the first bending fixing plate 53 is provided with a second bending fixing plate 531. The second bending fixing plate 531 passes between another two adjacent extrusion semi-circular plates 551. An extension column 532 is provided on the second bending fixing plate 531. The extension column 532 passes into the fixed concave port 311 at one end of the coil group. The fixed convex port 312 at the other end of the coil group is connected to the power-on plate 51 by a contact member; the contact member includes a serrated plate 52, which is an insulating member. The serrated plate 52 is arranged on the side of the power-on plate 51 far from the circuit board 11. The power-on plate 51 and the serrated plate 52 are spaced by a spacer column 54. A number of movable notches 524 are provided on the serrated plate 52 in a comb-shaped structure. A rotating rocker 522 is arranged in the movable notch 524. A rotating connection shaft 521 passing through all the serrated plates 52 is provided in the middle of the serrated plate 52, which is also an insulating member. The rotating rocker 522 is rotatably connected to the rotating connection shaft 521. One end of the rotating rocker 522 is provided with a thrust spring 523. The thrust spring 523 abuts against the serrated plate 52. After the fixed convex port 312 at the end of the coil group abuts against the rotating rocker 522, it is connected to the power-on plate 51; Beneficially, several contact fixing grooves 141 are provided around the contact area 14 of the circuit board 11. A connection mechanism 2 is provided on the contact area 14. The connection mechanism 2 includes a fixed bracket 21. The fixed bracket 21 presents a C-shaped structure. Both ends of the fixed bracket 21 extend into the contact fixing grooves 141. Two sets of wire-passing round openings 22 are provided in the middle of the fixed bracket 21 for fixing and connecting cables. Specifically, a fixing nut 23 is provided in one wire-passing round opening 22, and a wire-passing tube 24 is provided on the side of the other wire-passing round opening 22 close to the circuit board 11. The wire-passing tube 24 is connected to the fixed bracket 21 through a connecting plate 241. A number of movable grooves 242 are provided on the outer peripheral side of the wire-passing tube 24. The number of movable grooves 242 presents a circumferential array. A fixed rod 243 is provided in the movable groove 242. The fixed rod 243 includes a long rod portion 2432. An extrusion protrusion 2431 is provided in the middle of the long rod portion 2432. A rotary fixing shaft 2433 is provided on the side of the long rod portion 2432 close to the extrusion protrusion 2431. The rotary fixing shaft 2433 is rotatably connected to both sides of the movable groove 242. A pressure plate 251 is provided between the wire-passing tube 24 and the circuit board 11. A pressure spring 252 is provided between the pressure plate 251 and the circuit board 11. A restraint ring 25 is sleeved on the outer peripheral side of the wire-passing tube 24. A number of connecting columns 253 are provided between the restraint ring 25 and the pressure plate 251.

[0025] In implementation, when facing a wire with terminals, it can be fixed through the fixing nut 23; when facing a hard wire, when facing a hard wire and a soft wire, they are passed into the wire-passing tube 24 until they contact the pressure plate 251, and then continue to pass through the pressure spring 252 below the pressure plate 251 until the restraint ring 25 contacts the long rod portion 2432, then the long rod portion 2432 is constrained to move inward, so that the extrusion protrusion 2431 extrudes the wire, and then it moves out of the wire-passing tube 24. The wire drives the extrusion protrusion 2431 to rotate inward, further extruding the wire, and thus the fixation of the wire can be achieved.

[0026] Beneficially, a protective sleeve 17 is provided outside the coil group. The protective sleeve 17 abuts against the outer peripheral side of the single-turn notch coil 31 and supports the coil group. At the same time, it can be fixed to the circuit board 11. The attached drawing adopts a simple drawing method, and specifically refer to the actual usage method. At the same time, a connection fixing rod 151 is provided in the middle of the circular magnet 15. The connection fixing rod 151 is fixedly connected to the circuit board 11. The connection fixing rod 151 clamps the circular magnet 15 and fixes it between two coil groups, which is convenient for replacing the circular magnet 15 and the coil group below.

[0027] Beneficially, a splitting member 4 is further provided on one side of the coil group. The splitting member 4 includes a guiding tube 33. A clamping clip 34 is provided on the single-turn notched coil 31. The clamping clip 34 has a C-shaped structure. The middle part of the clamping clip 34 clamps the single-turn notched coil 31. The guiding tube 33 penetrates through and is slidably connected to the clamping clips 34 on a plurality of single-turn notched coils 31. A rotating peeling column 35 is provided in the middle of the clamping clip 34. The rotating peeling column 35 is rotatably connected to the clamping clip 34. The splitting member 4 further includes a rotating shaft 32. The rotating shaft 32 penetrates through and is slidably connected to the rotating peeling column 35. The rotating shaft 32 penetrates through and is slidably connected to the rotating peeling column 35. Fitting inclined surfaces 351 are provided at both ends of the rotating peeling column 35. Fixed notches 352 are provided on the fitting inclined surfaces 351. The fitting inclined surfaces 351 between adjacent rotating peeling columns 35 are mutually abutted and fitted.

[0028] Meanwhile, abrasive paste; or a friction surface; or wax liquid is provided between the rotating peeling column 35 and the rotating shaft 32 to increase the frictional force for fixation. The rotational torque increases sequentially to prevent the rotating peeling column 35 in the middle from rotating during the rotation of one end.

[0029] In implementation, first rotate the rotating peeling column 35 at the end far from the second bending fixing plate 531. The fitting inclined surfaces 351 between the two groups of rotating peeling columns 35 are displaced, causing the rotating peeling column 35 at one end to move away from the multiple groups of rotating peeling columns 35 at the other end until the fixed notches 352 of the two groups of rotating peeling columns 35 are mutually abutted. Then, by continuing to rotate, the next group of rotating peeling columns 35 can be further peeled off. Due to the different torques, the next rotating peeling column 35 can be sequentially rotated and separated, preventing the single-turn notched coils 31 in the middle of the coil group from being disconnected. During the process of the rotating peeling columns 35 moving away from each other, the clamping clips 34 at the edge are driven to disengage from the guiding tube 33, and at the same time, the fixed notches 311 on the clamping clips 34 clamping the single-turn notched coils 31 are disengaged from the fixed protrusions 312 on the adjacent single-turn notched coils 31, thus shortening the winding length of the coil group.

[0030] The working principle of the present invention: After the staff first determines the required inductance, they adjust the number of single-turn notched coils 31 in the coil group. First, they rotate the rotating stripping column 35 away from one end of the second bent fixed plate 531, and the fitting inclined surface 351 between the two groups of rotating stripping columns 35 is offset, so that the rotating stripping columns 35 at one end are away from the multiple groups of rotating stripping columns 35 at the other end, until the fixed notches 352 of the two groups of rotating stripping columns 35 abut against each other, and then the next group of rotating stripping columns 35 can be further stripped by continuing to rotate. Due to the difference in torque, the next rotating stripping column 35 can be rotated and separated in sequence, avoiding the occurrence of a problem in the coil group. The single-turn gap coil 31 at the bottom is disconnected, and in the process of rotating the stripping rods 35 away from each other, the clamping clip 34 at the edge is driven to separate from the guide tube 33, and at the same time, the clamping clip 34 clamps the fixed notch 311 on the single-turn gap coil 31 to separate from the fixed protrusion 312 on the adjacent single-turn gap coil 31, so that the winding length of the coil group can be shortened. The number of winding coils directly determines the actual size of the inductance. By reducing the number of winding turns, the inductance change caused by reducing one turn to multiple turns can be obtained through measurement. When in use, it can be disassembled and adjusted to achieve accurate changes in multi-stage control of inductance. In order to assist the single-turn notch coil 31 on the coil group to be detached, the two ends of the coil group are connected to the circuit board 11. When detached, the fixed recess 311 on the single-turn notch coil 31 at the end of the coil group is connected to the second bent fixed plate 531 to the circuit board 11 by the extension column 532, and the fixed protrusion 312 at the other end abuts against the adjacent rotating seesaw 522, so that the rotating seesaw 522 is expanded by the thrust of the thrust spring 523 to expand the angle with the serrated plate 52, and the other end of the rotating seesaw 522 abuts against the power-on plate 51 to contact the power-on plate 51. Since the power-on plate 51 contacts the circuit board 11 through the first bent fixed plate 53, when the number of single-turn notch coils 31 is adjusted in the coil group, the connection of the two ends to the circuit board 11 is achieved simultaneously.

[0031] In the future, in order to adapt to different inductance requirements, the first bent fixing plate 53 and the second bent fixing plate 531 can be separated from the clamped extruded semicircular plate 551, and the circular magnet 15 can be separated from the connecting fixing rod 151, so that the coil groups with different winding numbers and the circular magnets 15 of different sizes can be replaced, which is beneficial to modular assembly and easy to replace and adjust.

[0032] In order to adapt to different wiring requirements, such as hard wires, soft wires and wires with terminals: when facing wires with terminals, they can be fixed by fixing the nut 23; when facing hard wires or soft wires, the hard wires or soft wires are passed into the wire tube 24 until they contact the pressure plate 251, and then continue to pass the pressure spring 252 under the extrusion pressure plate 251 until the restraining ring 25 contacts the long rod 2432, and the long rod 2432 is restrained to move inward, so that the extrusion protrusion 2431 squeezes the wire, and then it is separated from the wire tube 24 outward, and the wire drives the extrusion protrusion 2431 to rotate inward, further squeezing the wire, and the wire can be fixed.

[0033] In the description of the present invention, it should be noted that, unless otherwise clearly specified and limited, the terms "installed", "connected", "connected", etc. should be understood in a broad sense, for example, it can be a fixed connection, a detachable connection, or an integral connection; it can be a mechanical connection or an electrical connection; it can be a direct connection, or it can be an indirect connection through an intermediate medium, or it can be the internal communication of two components. For ordinary technicians in this field, the specific meanings of the above terms in the present invention can be understood according to specific circumstances.

[0034] The above contents are merely examples and explanations of the structure of the present invention. The technicians in the technical field of the present invention may make various modifications or additions to the specific embodiments described or replace them in a similar manner. As long as they do not deviate from the structure of the invention or exceed the scope defined by the claims, they should all fall within the protection scope of the present invention.

Claims

1. A filter inductor for high current applications, characterized in that: The invention comprises a carrying platform (1), wherein the carrying platform (1) comprises a circuit board (11), wherein the circuit board (11) is provided with symmetrically arranged resistors (12) and capacitors (13), wherein the resistors (12) and capacitors (13) are connected by a path through an internal circuit of the circuit board (11), wherein the circuit board (11) is provided with a plurality of contact areas (14) connected to the internal circuit and arranged symmetrically, wherein the contact areas (14) are provided with a notch connection groove (16) on the circuit board (11); A coil mechanism (3) comprises a circular magnet (15), a coil group is arranged on the circular magnet (15) and is symmetrically arranged around the circular magnet (15), the coil group comprises a plurality of single-turn gap coils (31), two ends of the single-turn gap coils (31) are respectively provided with a fixed protrusion (312) and a fixed recess (311), adjacent single-turn gap coils (31) are connected in sequence by sliding into the fixed recess (311) through the fixed protrusion (312), and the head and tail ends of the two groups of coil groups are connected to adjacent recess connection grooves (16) through a quick-release connector (5).

2. The filter inductor for high current application according to claim 1, characterized in that: The circuit board (11) is provided with a plurality of electric contact fixing grooves (141) around the contact area (14); a connecting mechanism (2) is provided on the contact area (14); the connecting mechanism (2) comprises a fixing bracket (21); the fixing bracket (21) presents a C-shaped structure; both ends of the fixing bracket (21) pass through the electric contact fixing grooves (141); and two groups of wire-passing circular openings (22) are provided in the middle of the fixing bracket (21) for fixing connecting cables.

3. The filter inductor for high current application according to claim 2, characterized in that: A fixing nut (23) is arranged in one of the circular openings (22) for passing a wire, a wire tube (24) is arranged on one side of the other circular opening (22) close to the circuit board (11), the wire tube (24) is connected to the fixing bracket (21) via a connecting plate (241), a plurality of movable grooves (242) are arranged on the outer side of the wire tube (24), the plurality of movable grooves (242) are arranged in a circular array, a fixing rod (243) is arranged in the movable groove (242), the fixing rod (243) comprises a long rod portion (2432), a pressing protrusion (2431) is arranged in the middle of the long rod portion (2432), A rotating fixed shaft (2433) is provided on one side of the long rod portion (2432) close to the extrusion protrusion (2431), and the rotating fixed shaft (2433) is rotatably connected to the two sides of the movable groove (242). A pressure plate (251) is provided between the wire tube (24) and the circuit board (11), and a pressure spring (252) is provided between the pressure plate (251) and the circuit board (11). A restraining ring (25) is sleeved on the outer side of the wire tube (24), and a plurality of connecting columns (253) are directly provided between the restraining ring (25) and the pressure plate (251).

4. The filter inductor for high current application according to claim 1, characterized in that: The quick-release connector (5) comprises clamping blocks (55) symmetrically arranged on the notched connection groove (16); extrusion semicircular plates (551) are arranged on opposite sides of two groups of the clamping blocks (55); the extrusion semicircular plates (551) can be elastically deformed; two groups of adjacent extrusion semicircular plates (551) abut against each other; the quick-release connector (5) further comprises a power-carrying plate (51) arranged between the coil group and the circuit board (11); one end of the power-carrying plate (51) is provided with a first bent fixing plate (53); the coil mechanism (3) presents an L-shaped structure; the first bent fixing plate (53) is provided at one end of the coil group; and One end of the fixing plate (53) is passed between two adjacent groups of extruded semicircular plates (551); the other end of the coil group away from the first bent fixing plate (53) is provided with a second bent fixing plate (531); the second bent fixing plate (531) is passed between another two adjacent groups of extruded semicircular plates (551); an extension column (532) is provided on the second bent fixing plate (531); the extension column (532) is passed into a fixed recess (311) at one end of the coil group; and the fixed protrusion (312) at the other end of the coil group is connected to the power-on plate (51) by a contact piece.

5. The filter inductor for high current application according to claim 4, characterized in that: The contact member comprises a sawtooth plate (52), wherein the sawtooth plate (52) is arranged on a side of the power-carrying plate (51) far from the circuit board (11), the power-carrying plate (51) and the sawtooth plate (52) are spaced by a spacer column (54), the sawtooth plate (52) is provided with a plurality of movable notches (524) in a comb-shaped structure, a rotating seesaw (522) is arranged in the movable notch (524), a rotating connecting shaft (521) penetrating all the sawtooth plates (52) is arranged in the middle of the sawtooth plate (52), the rotating seesaw (522) is rotatably connected to the rotating connecting shaft (521), a thrust spring (523) is arranged at one end of the rotating seesaw (522), the thrust spring (523) abuts against the sawtooth plate (52), and the fixed protrusion (312) at the end of the coil group abuts against the rotating seesaw (522) and then connects to the power-carrying plate (51).

6. The filter inductor for high current application according to claim 1, characterized in that: A protective cover (17) is provided on the outside of the coil group, and the protective cover (17) abuts against the outer side of the single-turn notch coil (31) and supports the coil group.

7. The filter inductor for high current application according to claim 6, characterized in that: A connecting and fixing rod (151) is provided in the middle of the circular magnet (15), the connecting and fixing rod (151) is fixedly connected to the circuit board (11), and the connecting and fixing rod (151) clamps the circular magnet (15) and fixes it between two coil groups.

8. The filter inductor for high current application according to claim 1, characterized in that: A split piece (4) is also provided on one side of the coil group, and the split piece (4) includes a guide tube (33). A clamping clamp (34) is provided on the single-turn gap coil (31), and the clamping clamp (34) presents a C-shaped structure. The middle part of the clamping clamp (34) clamps the single-turn gap coil (31), and the guide tube (33) passes through and is slidably connected to the clamping clamps (34) on a plurality of the single-turn gap coils (31).

9. The filter inductor for high current application according to claim 8, characterized in that: A rotating peeling column (35) is provided in the middle of the clamping clamp (34), and the rotating peeling column (35) is rollingly connected to the clamping clamp (34). The splitting piece (4) also includes a rotating shaft (32), and the rotating shaft (32) passes through and is slidably connected to the rotating peeling column (35). Both ends of the rotating peeling column (35) are provided with fitting inclined surfaces (351), and the fitting inclined surfaces (351) are provided with fixed notches (352). The fitting inclined surfaces (351) between adjacent rotating peeling columns (35) fit each other and abut against each other.

10. The filter inductor for high current application according to claim 9, characterized in that: Abrasive paste, a friction surface, or wax liquid is provided between the rotating stripping column (35) and the rotating shaft (32) to increase friction for fixation.

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