Capacitor assembly, circuit board assembly and display device

Abstract

The present application provides a capacitor assembly, a circuit board assembly and a display device. The capacitor assembly includes: a capacitor; a first pin; a second pin, the second pin and the first pin are respectively connected to two opposite ends of the capacitor, the second pin, the first pin and the capacitor form a storage space; and a vibration damper, the vibration damper is arranged in the storage space, the vibration damper includes a first support member, the first support member has a first free end, a first connecting portion and a second free end connected in sequence, the first free end is used to support the capacitor, the second free end is away from the capacitor compared to the first free end, and the first free end can move relative to the second free end. The capacitor assembly provided in the present application can reduce the vibration frequency of the capacitor through the vibration damper to suppress or even eliminate the howling generated during the operation of the capacitor.

Description

Technical Field

[0001] The present application relates to the field of display panels, and in particular to a capacitor assembly, a circuit board assembly and a display device. Background Art

[0002] With the advancement of technology, electronic devices with display devices have become daily necessities in people's lives. Display devices will make a "chirping" sound during operation, and this phenomenon is called "howling". One of the reasons for the "howling" is the vibration of the capacitor. It can be seen that due to the existence of "howling", the quality of the display device in the related art is not high. Summary of the invention

[0003] In a first aspect, the present application provides a capacitor component, which includes a capacitor, a first pin, a second pin and a damper, wherein the second pin and the first pin are respectively connected to two opposite ends of the capacitor, the second pin, the first pin and the capacitor form a accommodating space, the damper is arranged in the accommodating space, the damper includes a first supporting member, the first supporting member has a first free end, a first connecting portion and a second free end connected in sequence, the first free end is used to support the capacitor, the second free end is away from the capacitor compared to the first free end, and the first free end can move relative to the second free end.

[0004] Wherein, the shock absorber also includes a second support member, the second support member has a third free end, a second connecting portion and a fourth free end connected in sequence, the third free end is spaced apart from the first free end and is used to support the capacitor, the second connecting portion is connected to the first connecting portion, the fourth free end is away from the capacitor compared to the third free end, and the third free end can move relative to the fourth free end.

[0005] There are two or more vibration dampers, and the vibration dampers are evenly spaced apart in the extension direction of the first pin.

[0006] Wherein, the number of the dampers is two or more, and the capacitor component has a first area, a middle area and a second area in sequence in the direction from the first pin to the second pin, wherein the first area is arranged adjacent to the first pin, the second area is arranged adjacent to the second pin, and the middle area is sandwiched between the first area and the second area, wherein the distribution density of the dampers in the first area is a first density, the distribution density in the second area is a second density, and the distribution density in the middle area is a third density, wherein the first density is greater than the third density, and the second density is greater than the third density.

[0007] Among them, the first pin includes a first pin body and a first bending portion, the first bending portion is connected to the first pin body, and is directed toward the second pin compared to the first pin body, the second pin includes a second pin body and a second bending portion, the second bending portion is connected to the second pin body, and is directed toward the first pin compared to the second pin body, when the shock absorber includes a second support member, the first free end and the third free end are spaced apart in the direction from the first pin to the second pin, the second free end is fixedly connected to the surface of the first bending portion facing the capacitor, and the fourth free end is fixedly connected to the surface of the second bending portion facing the capacitor.

[0008] Among them, the first pin includes a first pin body and a first bending portion, the first bending portion is connected to the first pin body and faces the second pin compared to the first pin body, the second pin includes a second pin body and a second bending portion, the second bending portion is connected to the second pin body and faces the first pin compared to the second pin body, when the shock absorber includes a second support member, the first free end and the third free end are spaced apart in the extension direction of the first pin, the second free end is fixedly connected to the surface of the first bending portion facing the capacitor and the surface of the second bending portion facing the capacitor, and the fourth free end is fixedly connected to the surface of the first bending portion facing the capacitor and the surface of the second bending portion facing the capacitor.

[0009] The first free end and the third free end are fixedly connected to the capacitor, and the first free end and the third free end jointly support the capacitor.

[0010] The first supporting member elastically abuts against the capacitor and the first bending portion, and the second supporting member elastically abuts against the capacitor and the second bending portion.

[0011] In a second aspect, the present application further provides a circuit board assembly, which includes a circuit board and a capacitor assembly as described in the first aspect, wherein the capacitor assembly is electrically connected to the circuit board.

[0012] In a third aspect, the present application further provides a display device, comprising a display panel and a circuit board assembly as described in the second aspect, wherein the circuit board assembly is electrically connected to the display panel.

[0013] The capacitor assembly provided in the first aspect of the present application includes a capacitor, a first pin, a second pin and a vibration damper, wherein the vibration damper is arranged in the accommodation space formed by the capacitor, the first pin and the second pin, and the vibration damper is used to damp the vibration of the capacitor. Since the vibration damper supports the capacitor, the vibration amplitude and frequency of the capacitor are reduced. In addition, when the capacitor is working, the vibration of the capacitor drives the vibration damper to move, so that the vibration damper will vibrate with the capacitor, thereby transferring the deformation generated by the vibration of the capacitor to the air in the accommodation space, that is, the kinetic energy of the vibration of the vibration damper is converted into heat energy and dissipated into the air through the friction between the vibration damper and the air. In addition, the air in the accommodation space is repeatedly compressed and released as the vibration damper vibrates. During this process, friction occurs between the air and the vibration damper and the air molecules themselves, which will form a damping force on the vibration of the vibration damper, suppressing the amplitude and frequency of the vibration of the vibration damper. Therefore, the capacitor assembly provided by the present application can reduce the vibration frequency of the capacitor through the vibration damper to suppress or even eliminate the howling generated during the operation of the capacitor. When the capacitor component is applied to a display device, the quality of the display device is higher.

[0014] The circuit board assembly provided in the second aspect of the present application includes a circuit board and a capacitor assembly as described in the first aspect, wherein the capacitor assembly is applied to the circuit board assembly, and the vibration damper can not only reduce the vibration amplitude and frequency of the capacitor, but also play a buffering role between the capacitor and the circuit board to suppress or even eliminate the resonance between the capacitor and the circuit board, thereby suppressing or even eliminating the howling generated by the capacitor when working on the circuit board.

[0015] The display device provided in the third aspect of the present application includes a display panel and a circuit board assembly as described in the second aspect. The circuit board assembly is applied to the display device, and the vibration amplitude and frequency of the capacitor and the circuit board are reduced by the vibration absorber, and the resonance between the capacitor and the circuit board is suppressed or even eliminated, thereby suppressing or even eliminating the howling generated by the capacitor when working in the display device. BRIEF DESCRIPTION OF THE DRAWINGS

[0016] In order to more clearly illustrate the technical solutions of the embodiments of the present application, the drawings required for use in the implementation will be briefly introduced below. Obviously, the drawings described below are some implementation methods of the present application. For ordinary technicians in this field, other drawings can be obtained based on these drawings without paying creative work.

[0017] Figure 1 It is a schematic diagram of the structure of a chip multilayer capacitor in the related art.

[0018] Figure 2It is a schematic diagram of vibration of a chip multilayer capacitor in the related art.

[0019] Figure 3 This is a schematic structural diagram of a capacitor assembly provided in the first embodiment of the present application.

[0020] Figure 4 A schematic structural diagram of a capacitor assembly provided in the second embodiment of the present application.

[0021] Figure 5 for Figure 3 A schematic diagram of the elastic deformation of a shock absorber provided in an embodiment.

[0022] Figure 6 for Figure 4 A schematic diagram of the elastic deformation of a shock absorber provided in an embodiment.

[0023] Figure 7 for Figure 4 A schematic diagram of the distribution of vibration dampers in a capacitor assembly provided in an implementation manner.

[0024] Figure 8 for Figure 4 Another schematic diagram of the distribution of vibration dampers in a capacitor assembly provided in an embodiment.

[0025] Fig. 9 A schematic structural diagram of a capacitor assembly provided in the third embodiment of the present application.

[0026] Fig.10 This is a schematic structural diagram of a capacitor assembly provided in the fourth embodiment of the present application.

[0027] Fig.11 for Fig.10 A schematic cross-sectional view of a capacitor assembly along line II in an embodiment.

[0028] Fig.12 for Fig.10 A schematic cross-sectional view of a capacitor assembly in an embodiment along the direction opposite to line II.

[0029] Fig.13 for Fig. 9 A schematic structural diagram of a capacitor assembly in which a vibration absorber is fixedly connected to a capacitor in an embodiment.

[0030] Fig.14 for Fig.13 A schematic structural diagram of the elastic abutment pins and the capacitor of the vibration damper in the capacitor assembly provided in the embodiment.

[0031] Fig.15 It is a schematic diagram of the structure of a circuit board assembly provided in one embodiment of the present application.

[0032] Fig.16A circuit block diagram of a display device provided in one embodiment of the present application.

[0033] Figure numerals: display device 1; circuit board assembly 10; display panel 20; capacitor assembly 100; circuit board 200; conductive member 300; capacitor 110; first pin 120; second pin 130; damper 140; accommodating space 150; first area 160; middle area 170; second area 180; dielectric 111; inner electrode 112; outer electrode 113; first pin body 121; first bending portion 122; second pin body 131; second bending portion 132; first support member 141; second support member 142; first free end 1411; first connecting portion 1412; second free end 1413; third free end 1421; second connecting portion 1422; fourth free end 1423. DETAILED DESCRIPTION

[0034] The following will be combined with the drawings in the embodiments of the present application to clearly and completely describe the technical solutions in the embodiments of the present application. Obviously, the described embodiments are only part of the embodiments of the present application, not all of the embodiments. Based on the embodiments in the present application, all other embodiments obtained by ordinary technicians in this field without creative work are within the scope of protection of this application.

[0035] The terms "first", "second", etc. in the specification and claims of this application and the above-mentioned drawings are used to distinguish different objects, rather than to describe a specific order. In addition, the terms "including" and "having" and any variations thereof are intended to cover non-exclusive inclusions. For example, a process, method, system, product or device that includes a series of steps or units is not limited to the listed steps or units, but optionally includes steps or units that are not listed, or optionally includes other steps or units inherent to these processes, methods, products or devices.

[0036] Reference to "embodiment" or "implementation" herein means that a particular feature, structure, or characteristic described in conjunction with the embodiment or implementation may be included in at least one embodiment of the present application. The appearance of the phrase in various locations in the specification does not necessarily refer to the same embodiment, nor is it an independent or alternative embodiment that is mutually exclusive with other embodiments. It is explicitly and implicitly understood by those skilled in the art that the embodiments described herein may be combined with other embodiments.

[0037] Please refer to Figure 1 and Figure 2 , Figure 1 It is a schematic diagram of the structure of a chip multilayer capacitor in the related art; Figure 2Schematic diagram of vibration of chip multilayer capacitor in related art. The capacitor 110 generally includes a dielectric 111, an inner electrode 112 and an outer electrode 113. The capacitor 110 is made of dielectric diaphragms with inner electrodes 112 printed on them, stacked in an offset manner, and sintered at high temperature once to form a chip in which the inner electrode 112 is wrapped by the dielectric 111, and then the outer electrodes 113 are sealed at both ends of the chip. When the capacitor 110 is powered on, the voltage will generate an electric field on the inner electrode 112 (such as Figure 2 and the electric field acts on the inner electrode 112 to form a mechanical force (such as Figure 2 F11, F12, F13, F21, F22 and F23 in FIG. 1 ), that is, the conversion between electrical energy and mechanical energy occurs, which is also called the inverse piezoelectric effect. The mechanical force formed by the electric field on the inner electrode 112 causes the inner electrode 112 to expand and contract slightly (such as Figure 2 d), although the expansion and contraction of the inner electrode 112 is small and changes at the nanometer level, the inner electrode 112 will expand and contract repeatedly during the power-on process, thereby accelerating the vibration frequency of the capacitor 110, so that the capacitor 110 emits a whistling sound. It should be noted that the expansion and contraction of the inner electrode 112 is mainly in the stacking direction of the inner electrode 112, that is, the vibration of the capacitor 110 in the stacking direction of the inner electrode 112 is the main reason for the capacitor 110 to produce a whistling sound.

[0038] The present application provides a capacitor assembly 100. Figure 3 , Figure 3 A schematic diagram of the structure of a capacitor assembly provided in the first embodiment of the present application. The capacitor assembly 100 includes a capacitor 110, a first pin 120, a second pin 130 and a damper 140. The second pin 130 and the first pin 120 are respectively connected to two opposite ends of the capacitor 110, and the second pin 130, the first pin 120 and the capacitor 110 form a housing space 150. The damper 140 is disposed in the housing space 150, and the damper 140 includes a first support member 141, the first support member 141 has a first free end 1411, a first connecting portion 1412 and a second free end 1413 connected in sequence, the first free end 1411 is used to support the capacitor, the second free end 1413 is away from the capacitor compared to the first free end 1411, and the first free end 1411 can move relative to the second free end 1413.

[0039] The capacitor 110 provided in the present application is a chip-type multilayer ceramic capacitor (Multi-layer Ceramic Capacitors, MLCC). The capacitor 110 is a static charge storage medium. The capacitor 110 has a wide range of uses and is an indispensable electronic component in the fields of electronics and electricity. The capacitor 110 is mainly used in circuits such as power filtering, signal filtering, signal coupling, resonance, filtering, compensation, charging and discharging, energy storage, and DC isolation.

[0040] The first pin 120 and the second pin 130 are respectively connected to two opposite ends of the capacitor 110. Specifically, the first pin 120 and the second pin 130 are connected to the capacitor 110 through the external electrodes 113 connected to the two opposite ends of the capacitor 110, and the first pin 120 and the second pin 130 are used to support the capacitor 110. The connection between the first pin 120 and the second pin 130 and the capacitor 110 is an electrical connection, that is, the first pin 120 and the second pin 130 are conductive materials, such as copper, iron or aluminum.

[0041] The vibration damper 140 is disposed in the accommodation space 150, and the vibration damper 140 is used to support the capacitor 110. The vibration damper 140 is elastic. In one embodiment, the vibration damper 140 is made of an elastic material, so that the vibration damper 140 can move with the vibration of the capacitor 110. For example, the vibration damper 140 can be rubber, latex or elastic fiber. In another embodiment, the vibration damper 140 is made of a material with relatively high hardness, and the material of the vibration damper 140 itself is not very elastic, or even has no elasticity. The vibration damper 140 has elasticity due to its own shape, so that the vibration damper 140 can move with the vibration of the capacitor 110. For example, the vibration damper 140 can be iron, steel or hard plastic. The vibration damper 140 can be "C" shaped, "Z" shaped or "O" shaped. In one embodiment, the vibration absorber 140 is non-conductive, which can prevent the vibration absorber 140 from affecting the magnetic circuit or electrical performance of the capacitor 110, and is conducive to the vibration absorber 140 to reduce the vibration of the capacitor 110, thereby suppressing or even eliminating the howling.

[0042] In this embodiment (see Figure 3), the shock absorber 140 includes a first support member 141. The first support member 141 has a first free end 1411, a first connecting portion 1412 and a second free end 1413 connected in sequence. The first free end 1411 is used to support the capacitor 110. The second free end 1413 is away from the capacitor 110 compared to the first free end 1411. The first free end 1411 can move relative to the second free end 1413. The first connecting portion 1412 can be, but is not limited to, connecting the first free end 1411 and the second free end 1413 through a bending shape or an arc shape, as long as the first free end 1411 can move relative to the second free end 1413. In the capacitor assembly 100 provided in the embodiment of the present application, the first free end 1411 supports the capacitor 110, and the first free end 1411 can move relative to the second free end 1413, without causing the first free end 1411 to be disconnected from the first connecting portion 1412, but rather is achieved by elastic deformation generated by the elasticity of the first support member 141 itself. The first free end 1411 can move closer to the second free end 1413, or move away from the second free end 1413.

[0043] The capacitor assembly 100 provided in the present application includes a capacitor 110, a first pin 120, a second pin 130 and a vibration damper 140, wherein the vibration damper 140 is disposed in a housing space 150 formed by the capacitor 110, the first pin 120 and the second pin 130, and the vibration damper 140 is used to dampen the vibration of the capacitor 110. Since the vibration damper supports the capacitor, the vibration amplitude and frequency of the capacitor are reduced. In addition, when the capacitor 110 is working, the vibration of the capacitor 110 drives the vibration damper 140 to move, so that the vibration damper 140 will vibrate with the capacitor 110, thereby transferring the deformation generated by the vibration of the capacitor 110 to the air in the housing space 150, that is, the kinetic energy of the vibration of the vibration damper 140 is converted into heat energy and dissipated into the air through the friction between the vibration damper 140 and the air. In addition, the air in the accommodating space 150 is repeatedly compressed and released as the vibration of the vibration absorber 140 occurs. During this process, friction occurs between the air and the vibration absorber 140 and between the air molecules themselves, which forms a damping force on the vibration of the vibration absorber 140, suppressing the amplitude and frequency of the vibration of the vibration absorber 140. Therefore, the capacitor assembly 100 provided in the present application can reduce the vibration frequency of the capacitor 110 through the vibration absorber 140 to suppress or even eliminate the howling generated during the operation of the capacitor 110. When the capacitor assembly 100 is applied to a display device, the quality of the display device is higher.

[0044] Please refer to Figure 4 , Figure 4 A schematic diagram of the structure of a capacitor assembly provided in the second embodiment of the present application. In this embodiment, the capacitor assembly 100 includes a capacitor 110, a first pin 120, a second pin 130 and a damper 140. The second pin 130 and the first pin 120 are respectively connected to two opposite ends of the capacitor 110, and the second pin 130, the first pin 120 and the capacitor 110 form a housing space 150. The damper 140 is arranged in the housing space 150 and is used to dampen the vibration of the capacitor 110. Among them, the damper 140 includes a first support member 141 and a second support member 142. The first support member 141 has a first free end 1411, a first connecting portion 1412 and a second free end 1413 connected in sequence. The first free end 1411 is used to support the capacitor 110. The second free end 1413 is away from the capacitor 110 compared to the first free end 1411. The first free end 1411 can move relative to the second free end 1413. When the vibration absorber 140 includes a second support member 142, the second support member 142 has a third free end 1421, a second connecting portion 1422, and a fourth free end 1423 connected in sequence. The third free end 1421 is spaced apart from the first free end 1411 and is used to support the capacitor 110. The second connecting portion 1422 is connected to the first connecting portion 1412. The fourth free end 1423 is away from the capacitor 110 compared to the third free end 1421. The third free end 1421 can move relative to the fourth free end 1423.

[0045] In this embodiment (see Figure 4 ), the vibration absorber 140 includes a first support member 141 and a second support member 142. The first support member 141 has a first free end 1411, a first connecting portion 1412 and a second free end 1413 connected in sequence. The first free end 1411 is used to support the capacitor 110. The second free end 1413 is away from the capacitor 110 compared to the first free end 1411. The first free end 1411 can move relative to the second free end 1413. The second support member 142 has a third free end 1421, a second connecting portion 1422 and a fourth free end 1423 connected in sequence. The third free end 1421 is spaced apart from the first free end 1411 and is used to support the capacitor 110. The second connecting portion 1422 is connected to the first connecting portion 1412. The fourth free end 1423 is away from the capacitor 110 compared to the third free end 1421. The third free end 1421 can move relative to the fourth free end 1423 .

[0046] In this embodiment, the first connection portion 1412 may be, but is not limited to, connected to the first free end 1411 and the second free end 1413 by a bending shape or an arc shape, as long as the first free end 1411 can move relative to the second free end 1413. In the capacitor assembly 100 provided in the embodiment of the present application, the first free end 1411 supports the capacitor 110, and the first free end 1411 can move relative to the second free end 1413, and the first free end 1411 does not break away from the connection with the first connection portion 1412, but is realized by elastic deformation generated by the elasticity of the first support member 141 itself. The first free end 1411 can move closer to the second free end 1413 or move away from the second free end 1413. The second connection portion 1422 may be, but is not limited to, connected to the third free end 1421 and the fourth free end 1423 by a bending shape or an arc shape, as long as the third free end 1421 can move relative to the fourth free end 1423. The third free end 1421 moves relative to the fourth free end 1423, but does not cause the third free end 1421 to be disconnected from the second connection portion 1422, but is achieved by elastic deformation due to the elasticity of the second support member 142. The third free end 1421 can move closer to the fourth free end 1423 or move away from the fourth free end 1423.

[0047] In this embodiment, the third free end 1421 is used to support the capacitor 110, and the third free end 1421 and the capacitor 110 move together, that is, the third free end 1421 and the capacitor 110 can move together relative to the fourth free end 1423. Since the third free end 1421 and the first free end 1411 are spaced apart, and the third free end 1421 and the first free end 1411 are both used to support the capacitor 110, the third free end 1421 and the first free end 1411 jointly support the capacitor 110. At the same time, the second connecting portion 1422 is connected to the first connecting portion 1412, so that the second supporting member 142 and the first supporting member 141 can vibrate with the capacitor 110 at the same time, that is, when the third free end 1421 moves relative to the fourth free end 1423, the first free end 1411 also moves relative to the second free end 1413. The second support member 142 and the first support member 141 jointly support the capacitor 110 and vibrate along with the vibration of the capacitor 110 , so that the capacitor 110 is more stable during the vibration process.

[0048] Please refer to Figure 5 , Figure 5 for Figure 3 Schematic diagram of the elastic deformation of the shock absorber provided in the implementation manner. The first free end 1411 moves relative to the second free end 1413, and the stroke L1 of the first free end 1411 relative to the second free end 1413 satisfies: 1mm≤L1≤1.5mm. For example, L1=1mm, or L1=1.1mm, or L1=1.2mm, or L1=1.3mm, or L1=1.4mm, or L1=1.5mm. The stroke L1 of the first free end 1411 relative to the second free end 1413 is introduced below. When the first support member 141 is in a natural state (state a), the distance between the first free end 1411 and the second free end 1413 is L 11 When the first support member 141 is in the maximum compression state (state b), the distance between the first free end 1411 and the second free end 1413 is L 12 When the first support member 141 is in the maximum tension state (state c), the distance between the first free end 1411 and the second free end 1413 is L 13 Then, the maximum travel of the first free end 1411 moving toward the second free end 1413 is: L1 = L 11 -L 12 The maximum travel of the first free end 1411 moving in a direction away from the second free end 1413 is L1 = L 13 -L 11. In the present embodiment, both the maximum stroke L1 of the first free end 1411 moving toward the direction close to the second free end 1413 and the maximum stroke L1 of the first free end 1411 moving away from the second free end 1413 satisfy 1mm≤L1≤1.5mm. It should be noted that the maximum stroke of the first free end 1411 moving toward the direction close to the second free end 1413 may be equal to or unequal to the maximum stroke of the first free end 1411 moving away from the second free end 1413. If the stroke L1 of the first free end 1411 moving relative to the second free end 1413 is greater than 1.5mm, the vibration amplitude of the capacitor 110 will be too large, which may cause the first free end 1411 to contact or even collide with the second free end 1413, affecting the vibration reduction effect of the first support member 141. If the stroke L1 of the first free end 1411 relative to the second free end 1413 is less than 1 mm, the first support member 141 will not be able to provide a sufficiently strong damping force during the vibration of the capacitor 110, which will affect the vibration reduction effect of the first support member 141. By limiting the stroke L1 of the first free end 1411 relative to the second free end 1413, the first support member 141 can provide a sufficiently strong damping force during the vibration of the capacitor 110, thereby reducing the vibration amplitude and frequency of the capacitor 110, and suppressing or even eliminating the howling caused by the vibration of the capacitor 110.

[0049] Please refer to Figure 6 , Figure 6 for Figure 4 Schematic diagram of elastic deformation of shock absorber provided in the embodiment. The first free end 1411 moves relative to the second free end 1413, and the travel L1 of the first free end 1411 relative to the second free end 1413 satisfies: 1mm≤L1≤1.5mm. The travel L2 of the third free end 1421 relative to the fourth free end 1423 satisfies: 1mm≤L2≤1.5mm.

[0050] For example, L1=1 mm, or L1=1.1 mm, or L1=1.2 mm, or L1=1.3 mm, or L1=1.4 mm, or L1=1.5 mm. The following describes the travel L1 of the first free end 1411 relative to the second free end 1413. When the first support member 141 is in the natural state (state A), the distance between the first free end 1411 and the second free end 1413 is L 11 When the first support member 141 is in the maximum compression state (state B), the distance between the first free end 1411 and the second free end 1413 is L 12When the first support member 141 is in the maximum tension state (state C), the distance between the first free end 1411 and the second free end 1413 is L 13 Then, the maximum travel L1 of the first free end 1411 moving toward the second free end 1413 is: L1 = L 11 -L 12 The maximum travel of the first free end 1411 moving in a direction away from the second free end 1413 is: L1 = L 13 -L 11 . In the present embodiment, both the maximum stroke L1 of the first free end 1411 moving toward the direction close to the second free end 1413 and the maximum stroke L1 of the first free end 1411 moving away from the second free end 1413 satisfy 1mm≤L1≤1.5mm. It should be noted that the maximum stroke of the first free end 1411 moving toward the direction close to the second free end 1413 may be equal to or unequal to the maximum stroke of the first free end 1411 moving away from the second free end 1413. If the stroke L1 of the first free end 1411 moving relative to the second free end 1413 is greater than 1.5mm, the vibration amplitude of the capacitor 110 will be too large, which may cause the first free end 1411 to contact or even collide with the second free end 1413, affecting the vibration reduction effect of the first support member 141. If the stroke L1 of the first free end 1411 relative to the second free end 1413 is less than 1 mm, the first support member 141 will not be able to provide a sufficiently strong damping force during the vibration of the capacitor 110, which will affect the vibration reduction effect of the first support member 141. By limiting the stroke L1 of the first free end 1411 relative to the second free end 1413, the first support member 141 can provide a sufficiently strong damping force during the vibration of the capacitor 110, thereby reducing the vibration amplitude and frequency of the capacitor 110, and suppressing or even eliminating the howling caused by the vibration of the capacitor 110.

[0051] For example, L2=1mm, or L2=1.1mm, or L2=1.2mm, or L2=1.3mm, or L2=1.4mm, or L2=1.5mm. The following is an introduction to the travel L2 of the third free end 1421 relative to the fourth free end 1423. When the second support member 142 is in the natural state (state A), the distance between the third free end 1421 and the fourth free end 1423 is L 21 When the second support member 142 is in the maximum compression state (state B), the distance between the third free end 1421 and the fourth free end 1423 is L 22When the second support member 142 is in the maximum tension state (state C), the distance between the third free end 1421 and the fourth free end 1423 is L 23 Then, the maximum travel L2 of the third free end 1421 moving toward the fourth free end 1423 is: L2 = L 21 -L 22 The maximum travel L2 of the third free end 1421 moving in a direction away from the fourth free end 1423 is: L2 = L 23 -L 21 . In this embodiment, both the maximum stroke L2 of the third free end 1421 moving toward the direction close to the fourth free end 1423 and the maximum stroke L2 of the third free end 1421 moving away from the fourth free end 1423 satisfy 1mm≤L2≤1.5mm. It should be noted that the maximum stroke of the third free end 1421 moving toward the direction close to the fourth free end 1423 may be equal to or unequal to the maximum stroke of the third free end 1421 moving away from the fourth free end 1423. If the stroke L2 of the third free end 1421 moving relative to the fourth free end 1423 is greater than 1.5mm, the vibration amplitude of the capacitor 110 will be too large, which may cause the third free end 1421 to contact or even collide with the fourth free end 1423, affecting the vibration reduction effect of the second support member 142. If the stroke L2 of the third free end 1421 relative to the fourth free end 1423 is less than 1 mm, the second support member 142 will not be able to provide a sufficiently strong damping force during the vibration of the capacitor 110, which will affect the vibration reduction effect of the second support member 142. By limiting the stroke L2 of the third free end 1421 relative to the fourth free end 1423, the second support member 142 can provide a sufficiently strong damping force during the vibration of the capacitor 110, thereby reducing the vibration amplitude and frequency of the capacitor 110, and suppressing or even eliminating the howling caused by the vibration of the capacitor 110.

[0052] Please refer to Figure 4 and Figure 7 , Figure 7 for Figure 4A distribution diagram of a vibration damper in a capacitor assembly provided in an embodiment. In this embodiment, the vibration damper 140 includes a first support member 141, or the vibration damper 140 includes a first support member 141 and a second support member 142. The first support member 141 has a first free end 1411, a first connecting portion 1412 and a second free end 1413 connected in sequence. The first free end 1411 is used to support the capacitor 110. The second free end 1413 deviates from the capacitor 110 compared to the first free end 1411. The first free end 1411 can move relative to the second free end 1413. When the vibration damper 140 includes a second support member 142, the second support member 142 has a third free end 1421, a second connecting portion 1422 and a fourth free end 1423 connected in sequence. The third free end 1421 is spaced apart from the first free end 1411 and is used to support the capacitor 110. The second connecting portion 1422 is connected to the first connecting portion 1412. The fourth free end 1423 is away from the capacitor 110 compared to the third free end 1421. The third free end 1421 can move relative to the fourth free end 1423. In addition, in this embodiment, the number of the dampers 140 is two or more, and the dampers 140 are evenly spaced in the extending direction of the first pin 120. It should be noted that the schematic diagram of this embodiment is based on the number of the dampers 140 being two or more and being combined with Figure 4 The implementation method is illustrated in FIG. 1 , and it can be understood that Figure 7 The structural schematic diagram of the capacitor assembly 100 described in the figure does not limit the capacitor assembly 100 provided in the present application.

[0053] In this embodiment, the extending direction of the first pin 120 refers to the direction in which the damper 140 is not wrapped by the capacitor 110, the first pin 120 and the second pin 130, that is, Figure 7 The direction indicated by the middle indicator line D or the opposite direction.

[0054] In this embodiment, the number of the dampers 140 is two or more, and the dampers 140 are evenly spaced in the extension direction of the first pin 120. In one embodiment, the number of the dampers 140 is two, that is, the dampers 140 can be spaced at any position in the extension direction of the first pin 120. In another embodiment, the number of the dampers 140 is two or more, that is, the dampers 140 are evenly spaced in the extension direction of the first pin 120. Since the vibration of the capacitor 110 in the extension direction of the first pin 120 is relatively uniformly distributed, the uniform distribution of the vibration absorber 140 in the extension direction of the first pin 120 can increase the stability of the capacitor 110 during operation. When the capacitor 110 is working, the vibration of the capacitor 110 drives the multiple vibration absorbers 140 to move, so that the multiple vibration absorbers 140 will vibrate together with the capacitor 110, thereby transferring the deformation generated by the vibration of the capacitor 110 to the air in the accommodating space 150, that is, through the friction between the multiple vibration absorbers 140 and the air, the kinetic energy of the vibration of the multiple vibration absorbers 140 is converted into heat energy and dissipated into the air. At the same time, the air in the accommodating space 150 is repeatedly compressed and released as the multiple vibration absorbers 140 vibrate. In this process, friction occurs between the air and the multiple vibration absorbers 140 and the air molecules themselves, which will form a damping force on the vibration of the multiple vibration absorbers 140, suppressing the amplitude and frequency of the vibration of the multiple vibration absorbers 140. Since the plurality of vibration absorbers 140 jointly support the capacitor 110 , the amplitude and frequency of the vibration of the capacitor 110 are further reduced, which is more conducive to suppressing or even eliminating the howling generated during the operation of the capacitor 110 .

[0055] Please refer to Figure 4 and Figure 8 , Figure 8 for Figure 4Another distribution diagram of the vibration damper in the capacitor assembly provided in the embodiment. In this embodiment, the vibration damper 140 includes a first support member 141, or the vibration damper 140 includes a first support member 141 and a second support member 142. The first support member 141 has a first free end 1411, a first connecting portion 1412 and a second free end 1413 connected in sequence. The first free end 1411 is used to support the capacitor 110. The second free end 1413 deviates from the capacitor 110 compared to the first free end 1411. The first free end 1411 can move relative to the second free end 1413. When the vibration damper 140 includes a second support member 142, the second support member 142 has a third free end 1421, a second connecting portion 1422 and a fourth free end 1423 connected in sequence. The third free end 1421 is spaced apart from the first free end 1411 and is used to support the capacitor 110. The second connecting portion 1422 is connected to the first connecting portion 1412. The fourth free end 1423 is away from the capacitor 110 compared to the third free end 1421. The third free end 1421 can move relative to the fourth free end 1423. In addition, in this embodiment, the number of the dampers 140 is two or more. The capacitor component 100 has a first area 160, a middle area 170 and a second area 180 in sequence in the direction from the first pin 120 to the second pin 130. The first area 160 is arranged adjacent to the first pin 120. The second area 180 is arranged adjacent to the second pin 130. The middle area 170 is sandwiched between the first area 160 and the second area 180. The distribution density of the dampers 140 in the first area 160 is the first density. The distribution density in the second area 180 is the second density. The distribution density in the middle area 170 is the third density. The first density is greater than the third density, and the second density is greater than the third density. It should be noted that the schematic diagram of this embodiment is based on the number of the dampers 140 being two or more combined with Figure 4 The implementation method is illustrated in FIG. 1 , and it can be understood that Figure 8 The structural schematic diagram of the capacitor assembly 100 described in the figure does not limit the capacitor assembly 100 provided in the present application.

[0056] Since the capacitor 110 usually needs to be electrically connected to a circuit board through the first pin 120 and the second pin 130 to work, the first pin 120 and the second pin 130 on the capacitor 110 will contact the circuit board, so that the vibration of the capacitor 110 is transmitted to the circuit board through the first pin 120 and the second pin 130, which will cause the vibration of the circuit board to resonate with the vibration of the capacitor 110, so that the vibration amplitude near the first pin 120 and the second pin 130 increases. That is, the vibration amplitude of the capacitor 110 in the first area 160 and the second area 180 is greater than the density of the middle area 170.

[0057] In this embodiment, the vibration absorbers 140 are arranged at non-uniform intervals in the direction from the first pin 120 to the second pin 130. Specifically, the first density of the vibration absorbers 140 distributed in the first area 160 is greater than the third density of the vibration absorbers 140 distributed in the middle area 170, that is, the number of vibration absorbers 140 distributed per unit area in the first area 160 is greater than the number of vibration absorbers 140 distributed per unit area in the middle area 170. The second density of the vibration absorbers 140 distributed in the second area 180 is greater than the third density of the vibration absorbers 140 distributed in the middle area 170, that is, the number of vibration absorbers 140 distributed per unit area in the second area 180 is greater than the number of vibration absorbers 140 distributed per unit area in the middle area 170. By distributing the vibration absorbers 140 more densely in the first area 160 and the second area 180 relative to the middle area 170, it is possible to reduce vibration of the capacitor 110 in the first area 160 and the second area 180 where the vibration amplitude is larger, thereby more efficiently reducing the deformation of the capacitor 110, thereby suppressing the amplitude and frequency of vibration of the capacitor 110 during operation, making the capacitor 110 more stable during operation, thereby suppressing or even eliminating the howling generated by the capacitor 110 during operation.

[0058] Please refer to Fig. 9 , Fig. 9A schematic diagram of the structure of a capacitor assembly provided in the third embodiment of the present application. In this embodiment, the vibration absorber 140 includes a first support member 141, or the vibration absorber 140 includes a first support member 141 and a second support member 142. The first support member 141 has a first free end 1411, a first connecting portion 1412 and a second free end 1413 connected in sequence. The first free end 1411 is used to support the capacitor 110. The second free end 1413 is away from the capacitor 110 compared to the first free end 1411. The first free end 1411 can move relative to the second free end 1413. When the vibration absorber 140 includes a second support member 142, the second support member 142 has a third free end 1421, a second connecting portion 1422 and a fourth free end 1423 connected in sequence. The third free end 1421 is spaced apart from the first free end 1411 and is used to support the capacitor 110. The second connecting portion 1422 is connected to the first connecting portion 1412. The fourth free end 1423 is away from the capacitor 110 compared to the third free end 1421. The third free end 1421 can move relative to the fourth free end 1423. In addition, in the present embodiment, the first pin 120 includes a first pin body 121 and a first bending portion 122. The first bending portion 122 is connected to the first pin body 121 and faces the second pin 130 compared to the first pin body 121. The second pin 130 includes a second pin body 131 and a second bending portion 132. The second bending portion 132 is connected to the second pin body 131 and faces the first pin 120 compared to the second pin body 131. When the damper 140 includes a second support member 142, the first free end 1411 and the third free end 1421 are spaced apart in the direction from the first pin 120 to the second pin 130. The second free end 1413 is fixedly connected to the surface of the first bending portion 122 facing the capacitor 110. The fourth free end 1423 is fixedly connected to the surface of the second bent portion 132 facing the capacitor 110. It should be noted that the schematic diagram of this embodiment is that the first free end 1411 and the third free end 1421 are spaced apart and combined in the direction from the first pin 120 to the second pin 130. Figure 4 The implementation method is illustrated in FIG. 1 , and it can be understood that Fig. 9 The structural schematic diagram of the capacitor assembly 100 described in the figure does not limit the capacitor assembly 100 provided in the present application.

[0059] In this embodiment, the first bending portion 122 is used to fix the second free end 1413, and the first bending portion 122 supports the first support member 141 through the second free end 1413. The second bending portion 132 is used to fix the fourth free end 1423, and the second bending portion 132 supports the second support member 142 through the fourth free end 1423. Therefore, the first bending portion 122 and the second bending portion 132 jointly support the vibration absorber 140, and the vibration absorber 140 supports the capacitor 110, thereby increasing the stability of the vibration of the vibration absorber 140 and the capacitor 110 together, which is beneficial for the vibration absorber 140 to reduce the vibration amplitude and frequency of the capacitor 110, thereby suppressing or even eliminating the howling caused by the vibration of the capacitor 110.

[0060] For example, the second free end 1413 may be fixed to the first bending portion 122 by, but not limited to, bonding or welding. The fourth free end 1423 may be fixed to the second bending portion 132 by, but not limited to, bonding or welding.

[0061] In this embodiment, the capacitor 110 usually needs to be installed on the circuit board through conductive parts 300 such as solder and conductive glue. The first bending portion 122 and the second bending portion 132 can increase the installation area of ​​the capacitor 110, making the subsequent installation and application of the capacitor 110 more stable and firm.

[0062] Please refer to Fig.10 , Fig.11 and Fig.12 , Fig.10 A schematic diagram of the structure of a capacitor assembly provided in a fourth embodiment of the present application; Fig.11 for Fig.10 A schematic cross-sectional view of a capacitor assembly along line II in an embodiment; Fig.12 for Fig.10A schematic cross-sectional view of a capacitor assembly in the embodiment in the opposite direction of line II. In this embodiment, the vibration absorber 140 includes a first support member 141, or the vibration absorber 140 includes a first support member 141 and a second support member 142. The first support member 141 has a first free end 1411, a first connecting portion 1412 and a second free end 1413 connected in sequence. The first free end 1411 is used to support the capacitor 110. The second free end 1413 is away from the capacitor 110 compared to the first free end 1411. The first free end 1411 can move relative to the second free end 1413. When the vibration absorber 140 includes a second support member 142, the second support member 142 has a third free end 1421, a second connecting portion 1422 and a fourth free end 1423 connected in sequence. The third free end 1421 is spaced apart from the first free end 1411 and is used to support the capacitor 110. The second connecting portion 1422 is connected to the first connecting portion 1412. The fourth free end 1423 is away from the capacitor 110 compared to the third free end 1421. The third free end 1421 can move relative to the fourth free end 1423. In addition, in the present embodiment, the first pin 120 includes a first pin body 121 and a first bending portion 122. The first bending portion 122 is connected to the first pin body 121 and faces the second pin 130 compared to the first pin body 121. The second pin 130 includes a second pin body 131 and a second bending portion 132. The second bending portion 132 is connected to the second pin body 131 and faces the first pin 120 compared to the second pin body 131. When the shock absorber 140 includes a second support member 142, the first free end 1411 and the third free end 1421 are spaced apart in the extension direction of the first pin 120. The second free end 1413 is fixedly connected to the surface of the first bending portion 122 facing the capacitor 110 and the surface of the second bending portion 132 facing the capacitor 110. The fourth free end 1423 is fixedly connected to the surface of the first bending portion 122 facing the capacitor 110 and the surface of the second bending portion 132 facing the capacitor 110. It should be noted that the schematic diagram of this embodiment is that the first free end 1411 and the third free end 1421 are spaced apart and combined in the extension direction of the first pin 120. Figure 4 The embodiment is illustrated in the figure. It can be understood that the schematic diagram in the embodiment does not limit the capacitor assembly 100 provided in the present application.

[0063] The first free end 1411 and the third free end 1421 are spaced apart from each other in the extending direction of the first pin 120. Fig.10 The direction indicated by the middle indicator line D or the opposite direction.

[0064] In this embodiment, the first bending portion 122 and the second bending portion 132 jointly fix the second free end 1413, and the first bending portion 122 and the second bending portion 132 jointly support the first support member 141 through the second free end 1413. The first bending portion 122 and the second bending portion 132 are used to fix the fourth free end 1423, and the first bending portion 122 and the second bending portion 132 jointly support the second support member 142 through the fourth free end 1423. Therefore, the first bending portion 122 and the second bending portion 132 jointly support the vibration absorber 140, and the vibration absorber 140 supports the capacitor 110, thereby increasing the stability of the vibration of the vibration absorber 140 and the capacitor 110, which is beneficial for the vibration absorber 140 to reduce the vibration amplitude and frequency of the capacitor 110, thereby suppressing or even eliminating the howling caused by the vibration of the capacitor 110.

[0065] For example, the second free end 1413 may be fixed to the first bending portion 122 and the second bending portion 132 by bonding or welding, but not limited thereto. The fourth free end 1423 may be fixed to the first bending portion 122 and the second bending portion 132 by bonding or welding, but not limited thereto.

[0066] In this embodiment, the capacitor 110 usually needs to be installed on the circuit board through conductive parts 300 such as solder and conductive glue. The first bending portion 122 and the second bending portion 132 can increase the installation area of ​​the capacitor 110, making the subsequent installation and application of the capacitor 110 more stable and firm.

[0067] Please refer to Fig.13 , Fig.13 for Fig. 9A schematic diagram of a structure in which a damper is fixedly connected to a capacitor in a capacitor assembly provided in an embodiment. In this embodiment, the first pin 120 includes a first pin body 121 and a first bent portion 122. The first bent portion 122 is connected to the first pin body 121 and faces the second pin 130 compared to the first pin body 121. The second pin 130 includes a second pin body 131 and a second bent portion 132. The second bent portion 132 is connected to the second pin body 131 and faces the first pin 120 compared to the second pin body 131. When the damper 140 includes a second support member 142, the first free end 1411 and the third free end 1421 are spaced apart in the direction from the first pin 120 to the second pin 130. The second free end 1413 is fixedly connected to the surface of the first bent portion 122 facing the capacitor 110. The fourth free end 1423 is fixedly connected to the surface of the second bent portion 132 facing the capacitor 110. Alternatively, when the shock absorber 140 includes a second support member 142, the first free end 1411 and the third free end 1421 are spaced apart in the extension direction of the first pin 120. The second free end 1413 is fixedly connected to the surface of the first bending portion 122 facing the capacitor 110 and the surface of the second bending portion 132 facing the capacitor 110, respectively. The fourth free end 1423 is fixedly connected to the surface of the first bending portion 122 facing the capacitor 110 and the surface of the second bending portion 132 facing the capacitor 110, respectively. In addition, in the present embodiment, the first free end 1411 and the third free end 1421 are fixedly connected to the capacitor 110, and the first free end 1411 and the third free end 1421 jointly support the capacitor 110. It should be noted that the schematic diagram of the present embodiment is based on the first free end 1411 and the third free end 1421 being fixedly connected to the capacitor 110 and combined to Fig. 9 The implementation method is illustrated in FIG. 1 , and it can be understood that Fig.11 The structural schematic diagram of the capacitor assembly 100 described in the figure does not limit the capacitor assembly 100 provided in the present application.

[0068] In this embodiment, the first free end 1411 and the third free end 1421 are fixedly connected to the capacitor 110, and the first free end 1411 and the third free end 1421 jointly support the capacitor 110. That is, the first support member 141 is fixedly connected to the capacitor 110 through the first free end 1411, and the first support member 141 supports the capacitor 110 through the first free end 1411. The second support member 142 is fixed to the capacitor 110 through the third free end 1421, and the second support member 142 supports the capacitor 110 through the third free end 1421. Therefore, the vibration damper 140 is fixedly connected to the capacitor 110 and supports the capacitor 110. When the capacitor 110 is working, the vibration of the capacitor 110 drives the first free end 1411 to move relative to the second free end 1413, and the vibration of the capacitor 110 drives the third free end 1421 to move relative to the fourth free end 1423, so that the vibration absorber 140 will vibrate together with the capacitor 110, thereby transferring the deformation generated by the vibration of the capacitor 110 to the vibration absorber 140, and the kinetic energy of the vibration of the vibration absorber 140 is converted into heat energy and dissipated into the air through the friction between the vibration absorber 140 and the air. At the same time, the air in the accommodating space 150 is repeatedly compressed and released with the vibration of the first support member 141 and the second support member 142. In this process, friction occurs between the air and the vibration absorber 140 and the air molecules themselves, which will form a damping force on the vibration of the vibration absorber 140, suppressing the amplitude and frequency of the vibration of the vibration absorber 140. Since the first free end 1411 and the third free end 1421 of the vibration absorber 140 are fixedly connected to the capacitor 110 and support the capacitor 110, the vibration frequency of the capacitor 110 is reduced, thereby suppressing or even eliminating the howling generated by the capacitor 110 during operation.

[0069] Please refer to Fig.14 , Fig.14 for Fig.13A schematic diagram of the structure of the elastically abutting pin and capacitor of the shock absorber in the capacitor assembly provided in the embodiment. In the present embodiment, the first pin 120 includes a first pin body 121 and a first bent portion 122. The first bent portion 122 is connected to the first pin body 121 and faces the second pin 130 compared to the first pin body 121. The second pin 130 includes a second pin body 131 and a second bent portion 132. The second bent portion 132 is connected to the second pin body 131 and faces the first pin 120 compared to the second pin body 131. When the shock absorber 140 includes a second support member 142, the first free end 1411 and the third free end 1421 are spaced apart in the direction from the first pin 120 to the second pin 130. The second free end 1413 is fixedly connected to the surface of the first bent portion 122 facing the capacitor 110. The fourth free end 1423 is fixedly connected to the surface of the second bent portion 132 facing the capacitor 110. Alternatively, when the damper 140 includes a second support member 142, the first free end 1411 and the third free end 1421 are spaced apart in the extension direction of the first pin 120. The second free end 1413 is fixedly connected to the surface of the first bending portion 122 facing the capacitor 110 and the surface of the second bending portion 132 facing the capacitor 110, respectively. The fourth free end 1423 is fixedly connected to the surface of the first bending portion 122 facing the capacitor 110 and the surface of the second bending portion 132 facing the capacitor 110, respectively. The first free end 1411 and the third free end 1421 are fixedly connected to the capacitor 110, and the first free end 1411 and the third free end 1421 jointly support the capacitor 110. In addition, in this embodiment, the first support member 141 elastically abuts against the capacitor 110 and the first bending portion 122. The second support member 142 elastically abuts against the capacitor 110 and the second bending portion 132. It should be noted that the schematic diagram of this embodiment is that the damper 140 elastically abuts against the capacitor 110 and the first pin 120 and the second pin 130 are combined to Fig.11 The implementation method is illustrated in FIG. 1 , and it can be understood that Fig.12 The structural schematic diagram of the capacitor assembly 100 described in the figure does not limit the capacitor assembly 100 provided in the present application.

[0070] In this embodiment, the vibration damper 140 elastically abuts against the capacitor 110 and the first bending portion 122 through the first supporting member 141, and elastically abuts against the capacitor 110 and the second bending portion 132 through the second supporting member 142. Specifically, when the capacitor 110 is not working, the first free end 1411 has the potential energy to move away from the second free end 1413, and the third free end 1421 has the potential energy to move away from the fourth free end 1423. Therefore, the vibration damper 140 has the elastic potential energy to support the capacitor 110 in the direction away from the vibration damper 140. When the capacitor 110 is working, it is usually connected to a circuit board for operation, so the vibration of the capacitor 110 will be transmitted toward the circuit board. Since the vibration absorber 140 has elastic potential energy opposite to the vibration propagation, the elasticity of the vibration absorber 140 that can recover through deformation will form resistance to the vibration of the capacitor 110, which can further suppress the amplitude and frequency of the vibration of the capacitor 110, thereby suppressing or even eliminating the howling generated by the capacitor 110 during operation.

[0071] The present application also provides a circuit board assembly 10. Fig.15 , Fig.15 1 is a schematic diagram of the structure of a circuit board assembly provided in one embodiment of the present application. The circuit board assembly 10 comprises a circuit board 200 and a capacitor assembly 100 as described in any one of the above embodiments, and the capacitor assembly 100 is electrically connected to the circuit board 200 .

[0072] In this embodiment, the circuit board assembly 10 can be used for power filtering, signal filtering, signal coupling, resonance, filtering, compensation, charging and discharging, energy storage, DC isolation, etc.

[0073] When the capacitor 110 is working, it will produce a howl due to its own high vibration frequency. At the same time, when the capacitor 110 is powered on and working on the circuit board 200, the capacitor 110 will also drive the circuit board 200 to vibrate, so that the capacitor 110 and the circuit board 200 will produce a howl due to vibration.

[0074] In this embodiment, the capacitor assembly 100 is electrically connected to the circuit board 200 through the conductive member 300, so that the capacitor assembly 100 is electrically connected to the circuit board 200. The conductive member 300 can be, but is not limited to, soldering or conductive adhesive bonding. In one embodiment, the first pin body 121 and the second pin body 131 are electrically connected to the circuit board 200 through the conductive member 300 to form a side connection of the capacitor assembly 100. In another embodiment, the first pin body 121 and the second pin body 131 are electrically connected to the circuit board 200 through the conductive member 300 to form a side connection of the capacitor assembly 100. In addition, the first bending portion 122 and the second bending portion 132 are electrically connected to the circuit board 200 through the conductive member 300 to form a bottom connection of the capacitor assembly 100, so that the connection between the capacitor assembly 100 and the circuit board 200 is more firm and stable.

[0075] In this embodiment, the vibration damper 140 can not only reduce the vibration amplitude and frequency of the capacitor 110, but also play a buffering role between the capacitor 110 and the circuit board 200 to suppress or even eliminate the resonance between the capacitor 110 and the circuit board 200, thereby suppressing or even eliminating the howling generated when the capacitor 110 works on the circuit board 200.

[0076] The present application also provides a display device 1. Fig.16 , Fig.16 The circuit block diagram of a display device provided in one embodiment of the present application is as follows: The display device 1 comprises a display panel 20 and the above-mentioned circuit board assembly 10 , and the circuit board assembly 10 is electrically connected to the display panel 20 .

[0077] In this embodiment, the vibration amplitude and frequency of the capacitor 110 and the circuit board 200 are reduced by the vibration absorber 140, and the resonance between the capacitor 110 and the circuit board 200 is suppressed or even eliminated, thereby suppressing or even eliminating the howling generated by the capacitor 110 when working in the display device 1.

[0078] In one embodiment, the circuit board 200 includes a filter circuit. The capacitor 110 works on the circuit board 200 as a part of the filter circuit. The filter circuit in the circuit board 200 filters the input first current to obtain a second current, and provides the second current to the display panel 20, thereby driving the display panel 20 to work.

[0079] The filter circuit includes a high-pass filter circuit, a low-pass filter circuit and a band-pass filter circuit. The following describes in detail the case where the filter circuit is a high-pass filter circuit, a low-pass filter circuit, or a band-pass filter circuit.

[0080] In one embodiment, the circuit board 200 includes a filter circuit, and the filter circuit is a high-pass filter circuit. Specifically, the cutoff frequency of the high-pass filter circuit is f0, and the frequency f1 of the first current is: fa≤f1≤fb, wherein fa<fb, fa≤f0≤fb, then the frequency f2 of the second current is: f0≤f2≤fb. For example, in one embodiment, the cutoff frequency f0 of the high-pass filter circuit is f0=50Hz, the frequency f1 of the first current is in the range of: 20Hz≤f1≤200Hz, and the frequency f2 of the second current is in the range of: 50Hz≤f2≤200Hz. In other words, the high-pass filter circuit of the circuit board 200 filters the current frequency from 20Hz~200Hz to 50Hz~200Hz. In another embodiment, the cutoff frequency f0 of the high-pass filter circuit is 100 Hz, the frequency f1 of the first current is in the range of 20 Hz ≤ f1 ≤ 200 Hz, and the frequency f2 of the second current is in the range of 100 Hz ≤ f2 ≤ 200 Hz. In other words, the high-pass filter circuit of the circuit board 200 filters the current frequency from 20 Hz to 200 Hz to 100 Hz to 200 Hz.

[0081] In another embodiment, the circuit board 200 includes a filter circuit, and the filter circuit is a low-pass filter circuit. Specifically, the cut-off frequency of the low-pass filter circuit is f0, and the frequency f1 of the first current is: fa≤f1≤fb, wherein fa<fb, fa≤f0≤fb, then the frequency f2 of the second current is: fa≤f2≤f0. For example, in one embodiment, the cut-off frequency f0 of the low-pass filter circuit is f0=150Hz, the range of the frequency f1 of the first current is: 20Hz≤f1≤200Hz, and the range of the frequency f2 of the second current is: 20Hz≤f2≤150Hz. In other words, the low-pass filter circuit of the circuit board 200 filters the current frequency from 20Hz~200Hz to 20Hz~150Hz. In another embodiment, the cut-off frequency f0 of the low-pass filter circuit is 120 Hz, the frequency f1 of the first current is in the range of 20 Hz ≤ f1 ≤ 200 Hz, and the frequency f2 of the second current is in the range of 20 Hz ≤ f2 ≤ 120 Hz. In other words, the low-pass filter circuit of the circuit board 200 filters the current frequency from 20 to 200 Hz to 20 to 120 Hz.

[0082] In another embodiment, the circuit board 200 includes a filter circuit, and the filter circuit is a bandpass filter circuit. Specifically, the high-pass cutoff frequency of the bandpass filter circuit is f01, the low-pass cutoff frequency of the bandpass filter circuit is f02, and the frequency f1 of the first current is: fa≤f1≤fb, wherein fa<fb, fa≤f01≤f02≤fb, then, the frequency f2 of the second current is: f01≤f2≤f02. For example, in one embodiment, the high-pass cutoff frequency f01 of the bandpass filter circuit is 50Hz, the low-pass cutoff frequency f02 of the bandpass filter circuit is 150Hz, the range of the frequency f1 of the first current is: 20Hz≤f1≤200Hz, the range of the frequency f2 of the second current is: 50Hz≤f2≤150Hz, in other words, the bandpass filter circuit of the circuit board 200 filters the current frequency from 20Hz~200Hz to 50Hz~150Hz.

[0083] It should be noted that this embodiment only illustrates some applications of the display device 1 and does not limit the application scope of the display device 1 .

[0084] Although the embodiments of the present application have been shown and described above, it can be understood that the above embodiments are exemplary and cannot be understood as limitations on the present application. Ordinary technicians in the field can change, modify, replace and modify the above embodiments within the scope of the present application, and these improvements and modifications are also regarded as the scope of protection of the present application.

Claims

1. A capacitor component, characterized in that: The capacitor assembly comprises: capacitance; A first pin and a second pin, wherein the first pin comprises a first pin body and a first bending portion, wherein the first bending portion is connected to the first pin body and faces the second pin compared to the first pin body; The second pin and the first pin are respectively connected to two opposite ends of the capacitor, the second pin, the first pin and the capacitor form an accommodation space, the second pin includes a second pin body and a second bending portion, the second bending portion is connected to the second pin body and faces the first pin compared to the second pin body; and A vibration absorber, wherein the vibration absorber is arranged in the accommodating space, and the vibration absorber includes a first supporting member, wherein the first supporting member has a first free end, a first connecting portion and a second free end connected in sequence, wherein the first free end is used to support the capacitor, and the second free end is away from the capacitor compared to the first free end, and the second free end is fixedly connected to the surface of the first bending portion facing the capacitor, or the second free end is fixedly connected to the surfaces of the first bending portion and the second bending portion facing the capacitor, and the first connecting portion connects the first free end and the second free end through a bending shape or an arc shape, and the first free end can move relative to the second free end.

2. The capacitor assembly according to claim 1, wherein: The vibration absorber further comprises: A second support member, the second support member has a third free end, a second connecting portion and a fourth free end connected in sequence, the third free end is spaced apart from the first free end and is used to support the capacitor, the second connecting portion is connected to the first connecting portion, the fourth free end is away from the capacitor compared to the third free end, and the third free end can move relative to the fourth free end.

3. The capacitor assembly according to claim 2, wherein: The number of the vibration dampers is two or more, and the vibration dampers are evenly spaced in the extension direction of the first pin.

4. The capacitor assembly according to claim 2, wherein: The number of the dampers is two or more, and the capacitor component has a first area, a middle area and a second area in sequence in the direction from the first pin to the second pin, wherein the first area is arranged adjacent to the first pin, the second area is arranged adjacent to the second pin, and the middle area is sandwiched between the first area and the second area, wherein the distribution density of the dampers in the first area is a first density, the distribution density in the second area is a second density, and the distribution density in the middle area is a third density, wherein the first density is greater than the third density, and the second density is greater than the third density.

5. The capacitor assembly according to claim 2, characterized in that: When the shock absorber includes a second support member, the first free end and the third free end are spaced apart in the direction from the first pin to the second pin, the second free end is fixedly connected to the surface of the first bending portion facing the capacitor, and the fourth free end is fixedly connected to the surface of the second bending portion facing the capacitor.

6. The capacitor assembly according to claim 2, wherein: When the shock absorber includes a second support member, the first free end and the third free end are spaced apart in the extension direction of the first pin, the second free end is fixedly connected to the surface of the first bending portion facing the capacitor and the surface of the second bending portion facing the capacitor, and the fourth free end is fixedly connected to the surface of the first bending portion facing the capacitor and the surface of the second bending portion facing the capacitor.

7. The capacitor assembly according to claim 5 or 6, characterized in that: The first free end and the third free end are fixedly connected to the capacitor, and the first free end and the third free end jointly support the capacitor.

8. The capacitor assembly according to claim 7, characterized in that: The first supporting member elastically abuts against the capacitor and the first bending portion, and the second supporting member elastically abuts against the capacitor and the second bending portion.

9. A circuit board assembly, characterized in that: The circuit board assembly comprises: Circuit boards; and The capacitor assembly according to any one of claims 1 to 8, wherein the capacitor assembly is electrically connected to the circuit board.

10. A display device, characterized in that: The display device comprises: display panel; and The circuit board assembly as claimed in claim 9, wherein the circuit board assembly is electrically connected to the display panel.

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