Debugging device

Abstract

The application relates to the field of filter debugging, and provides a debugging device, which comprises a supporting frame, a position adjusting structure and a debugging tool, one end of the position adjusting structure is rotationally connected to the supporting frame, the position adjusting structure comprises a plurality of rotating arms which are rotationally connected in sequence; and the debugging tool is installed at the other end of the position adjusting structure. The debugging device can conveniently, quickly and flexibly adjust the position of the debugging tool via the position adjusting structure, can conveniently align the debugging tool to each tuning part of the filter respectively to deform the tuning part, thereby can complete the debugging operation of each tuning part of the filter via one debugging tool, and does not need to frequently disassemble, shift and reinstall the filter or the debugging tool, so that the debugging operation convenience and the debugging efficiency of the debugging device can be effectively improved.

Description

Technical Field

[0001] This application belongs to the field of filter debugging technology, and in particular relates to a debugging device. Background Technology

[0002] Existing filters typically consist of a cavity and a cover plate that encloses the cavity. The cover plate has multiple tuning sections, which can be deformed under stress to adjust the resonant frequency. Based on this, the industry usually uses tuning tools to deform the tuning sections. During the tuning process, operators need to frequently disassemble, reposition, and reinstall the filter and / or tuning tools so that the tools can be aligned with each tuning section of the filter to deform it. This inevitably leads to cumbersome, inconvenient, and inefficient tuning operations. Summary of the Invention

[0003] The purpose of this application is to provide a debugging device to solve the problems that existing debugging tools are cumbersome, inconvenient, and have low debugging efficiency.

[0004] To achieve the above objectives, the technical solution adopted in this application embodiment is: a debugging device, comprising:

[0005] Support frame;

[0006] An adjustment structure, one end of which is rotatably connected to the support frame, the adjustment structure comprising a plurality of rotating arms rotatably connected in sequence;

[0007] The debugging tool is installed at the other end of the adjustment structure.

[0008] In some embodiments, the rotation axes of each of the rotating arms are parallel to each other.

[0009] In some embodiments, the rotating arm rotatably connected to the support frame is a first rotating arm, the first rotating arm having a first rotating hole, and the hole wall of the first rotating hole having a limiting hole communicating with the outside;

[0010] The support frame is provided with a first rotating part that passes through and is installed in the first rotating hole. The outer periphery of the first rotating part is provided with an annular groove that extends circumferentially thereon. The annular groove is aligned with the limiting hole.

[0011] The debugging equipment also includes a limiting member that passes through and is installed in the limiting hole. The end of the limiting member is fitted into the annular groove to prevent the first rotating arm from disengaging from the first rotating part.

[0012] In some embodiments, of the two rotating arms rotatably connected to each other, one rotating arm has two oppositely arranged support portions and a first rotating shaft installed between the two support portions, and the other rotating arm has a second rotating portion located between the two support portions and rotatably connected to the first rotating shaft.

[0013] In some embodiments, the rotating arm for mounting the debugging tool is a second rotating arm, the second rotating arm having a through mounting hole, the debugging tool being mounted in the mounting hole and capable of reciprocating along the through direction of the mounting hole.

[0014] In some embodiments, the second rotating arm is provided with a gear in the mounting hole, and the rotation axis of the gear is perpendicular to the through direction of the mounting hole;

[0015] The debugging tool has a rack on its side facing the gear, the rack extending along the through direction of the mounting hole and meshing with the gear.

[0016] In some embodiments, the rack is detachably connected to the debugging body of the debugging tool.

[0017] In some embodiments, limiting blocks are provided on opposite sides of the gear, and the two limiting blocks are respectively positioned on opposite sides of the rack.

[0018] In some embodiments, the second rotating arm is provided with a positioning block that is securely disposed relative to the wall of the mounting hole;

[0019] The debugging tool is provided with a sliding groove extending along the through direction of the mounting hole, and the sliding groove is slidably engaged with the positioning block.

[0020] In some embodiments, the debugging device further includes a balance spring extending along the through direction of the mounting hole, the balance spring being connected between the positioning block and the corresponding groove wall of the slide.

[0021] In some embodiments, the tuning tool includes a tuning body mounted on the tuning structure, a tuning rod rotatably connected to one end of the tuning body, and a tuning fixture mounted on the end of the tuning rod away from the tuning body, the tuning fixture being used to deform the tuning section of the filter.

[0022] The advantages of the debugging equipment provided in this application are as follows:

[0023] The debugging device provided in this application embodiment can reliably connect and support one end of the adjustment structure to a support frame, and install the debugging tool at the other end of the adjustment structure. This allows the adjustment structure to rotate around the support frame, reliably connecting and supporting the adjustment structure between the support frame and the debugging tool. Furthermore, the adjustment structure includes multiple rotating arms connected in sequence, allowing any two adjacent rotating arms to rotate relative to each other. By rotating some or all of the rotating arms, the position of the end of the adjustment structure furthest from the support frame can be conveniently, quickly, and flexibly adjusted through multiple rotations. This allows for convenient, quick, and flexible adjustment of the debugging tool's position, enabling it to reach any desired debugging position and facilitating its alignment with each tuning section of the filter to deform the tuning section. Therefore, the debugging of each tuning section of the filter can be completed with a single debugging tool, eliminating the need for frequent disassembly, relocation, and reinstallation of the filter or debugging tool. This effectively improves the convenience and efficiency of the debugging operation. Attached Figure Description

[0024] To clearly illustrate the technical solutions in the embodiments of this application, the drawings used in the description of the embodiments or the prior art will be briefly introduced below. Obviously, the drawings described below are only some embodiments of this application. For those skilled in the art, other drawings can be obtained based on these drawings without creative effort.

[0025] Figure 1 A three-dimensional schematic diagram of the debugging equipment and filter provided in the embodiments of this application;

[0026] Figure 2 for Figure 1 A three-dimensional sectional view of the provided debugging equipment and filters;

[0027] Figure 3 for Figure 2 The provided sectional view along AA;

[0028] Figure 4 for Figure 2 A magnified view of region B is provided.

[0029] Figure 5 for Figure 2 A magnified view of region C is provided.

[0030] Figure 6 An exploded view of the debugging equipment provided in an embodiment of this application.

[0031] The following are the labeling elements in the figure:

[0032] 10' - Filter, 11' - Tuning section, 111' - Adjustment element;

[0033] 10-Support frame, 11-Workbench, 12-Support rod, 13-First rotating part, 131-Annular groove; 20-Adjustment structure, 21-Rotating arm, 211-First rotating arm, 2111-First rotating hole, 2112-Limiting hole, 212-Support part, 213-First rotating shaft, 214-Second rotating part, 2141-Second rotating hole, 215-Second rotating arm, 2151-Mounting hole, 2152-Gear, 2153-Second rotating shaft, 2154-Limiting block, 2155-Positioning block, 2156-First fastening hole, 2157-Second fastening hole, 2158-Supporting hole; 30-Adjustment tool, 31-Rack, 32-Slide groove, 33-Adjustment body, 34-Adjustment rod, 35-Adjustment fixture; 40-Limiting component; 50-Fastener; 60-Balance spring; 70-Clamping device. Detailed Implementation

[0034] To make the technical problems, technical solutions, and beneficial effects to be solved by this application clear, the application will be described in detail below with reference to the accompanying drawings and embodiments. It should be understood that the specific embodiments described herein are merely illustrative of this application and are not intended to limit this application.

[0035] In the description of this application, it should be understood that the terms "length", "width", "upper", "lower", "front", "rear", "left", "right", "vertical", "horizontal", "top", "bottom", "inner", "outer", etc., indicate the orientation or positional relationship based on the orientation or positional relationship shown in the accompanying drawings, and are only for the convenience of describing this application and simplifying the description, and do not indicate or imply that the device or element referred to must have a specific orientation, or be constructed and operated in a specific orientation, and therefore should not be construed as a limitation of this application.

[0036] Furthermore, the terms "first" and "second" are used for descriptive purposes only and should not be construed as indicating or implying relative importance or implicitly specifying the number of technical features indicated. Thus, a feature defined as "first" or "second" may explicitly or implicitly include one or more of that feature. In the description of this application, "multiple" means two or more, unless otherwise explicitly specified.

[0037] In this application, unless otherwise expressly specified and limited, the terms "installation," "connection," "linking," and "fixing," etc., should be interpreted broadly. For example, they can refer to a fixed connection, a detachable connection, or an integral part; they can refer to a mechanical connection or an electrical connection; they can refer to a direct connection or an indirect connection through an intermediate medium; they can refer to the internal communication of two components or the interaction between two components. Those skilled in the art can understand the specific meaning of the above terms in this application according to the specific circumstances.

[0038] Existing filters typically consist of a cavity and a cover plate that encloses the cavity. The cover plate has multiple tuning sections, which can be deformed under stress to adjust the resonant frequency. Based on this, the industry usually uses tuning tools to deform the tuning sections. However, during the tuning process, operators need to frequently disassemble, reposition, and reinstall the filter and / or tuning tools so that the tools can be individually aligned with each tuning section of the filter to deform it. This inevitably leads to cumbersome and inconvenient tuning operations, resulting in low tuning efficiency.

[0039] Therefore, this application provides a debugging device to solve the problems of cumbersome and inconvenient debugging operations and low debugging efficiency of existing debugging tools.

[0040] The specific implementation of this application will be described in detail below with reference to specific embodiments:

[0041] Please see Figure 1 , Figure 2 , Figure 3 Some embodiments of this application provide a debugging device, including a support frame 10, an adjustment structure 20, and a debugging tool 30. One end of the adjustment structure 20 is rotatably connected to the support frame 10, and the adjustment structure 20 includes a plurality of rotating arms 21 rotatably connected in sequence. The debugging tool 30 is installed at the other end of the adjustment structure 20.

[0042] It should be noted that the support frame 10 has a certain structural strength and rigidity, and is used to support the adjustment structure 20 and the adjustment tool 30. This embodiment does not limit the specific construction of the support frame 10; for example, such as... Figure 1 , Figure 2 As shown, the support frame 10 includes a workbench 11 and a support rod 12 erected on the workbench 11. The end of the support rod 12 away from the workbench 11 can be connected to and support the adjustment structure 20.

[0043] One end of the adjustment structure 20 is connected to the support frame 10, and the other end of the adjustment structure 20 is equipped with an adjustment tool 30. The adjustment structure 20 can provide support for the adjustment tool 30.

[0044] like Figure 5As shown, the tuning tool 30 is used to connect to the tuning section 11' of the filter 10' and deform the tuning section 11'. This embodiment does not limit the specific construction of the tuning tool 30. This embodiment also does not limit the method by which the tuning tool 30 deforms the tuning section 11'. For example, the tuning tool 30 can deform the tuning section 11' by clamping the adjusting member 111' on the tuning section 11'. For example, the tuning tool 30 can deform the tuning section 11' by abutting and pressing against the tuning section 11' near its end. In this case, the tuning section 11' may or may not have the adjusting member 111'.

[0045] It should also be noted that the adjustment structure 20 includes multiple rotating arms 21, which are sequentially rotatably connected, allowing any two adjacent rotating arms 21 to rotate relative to each other. Furthermore, one end of the adjustment structure 20 is rotatably connected to the support frame 10; that is, the rotating arm 21 at one end of the adjustment structure 20 is rotatably connected to the support frame 10, thus allowing the adjustment structure 20, especially the rotating arm 21, to rotate around the support frame 10. For example, as... Figure 1 , Figure 2 , Figure 3 As shown, two rotating arms 21 are provided, one of which is the first rotating arm 211, and the other is the second rotating arm 215. The end of the first rotating arm 211 away from the second rotating arm 215 is rotatably connected to the support frame 10. The end of the first rotating arm 211 near the second rotating arm 215 is rotatably connected to the end of the second rotating arm 215 near the first rotating arm 211. The end of the second rotating arm 215 away from the first rotating arm 211 is used to install the debugging tool 30. Based on this, by rotating part or all of the rotating arms 21, the position of the end of the adjustment structure 20 away from the support frame 10 can be conveniently, quickly, and flexibly adjusted through multiple rotations. This allows the position of the debugging tool 30 to be conveniently, quickly, and flexibly adjusted, enabling the debugging tool 30 to reach any desired debugging position. It also facilitates the alignment of the debugging tool 30 with each tuning part 11' of the filter 10' to deform the tuning part 11'. Therefore, the tuning of each tuning section 11' of the filter 10' can be completed using a single tuning tool 30, without the need for frequent disassembly, relocation, and reinstallation of the filter 10' or the tuning tool 30. This effectively improves the convenience and efficiency of the tuning operation. The rotation of each rotating arm 21 can be driven manually or electrically; this embodiment does not impose any restrictions on this.

[0046] In summary, the debugging device provided in this application embodiment can reliably connect and support the adjustment structure 20 between the support frame 10 and the debugging tool 30 by rotatably connecting one end of the adjustment structure 20 to the support frame 10 and installing the debugging tool 30 at the other end of the adjustment structure 20, so that the adjustment structure 20 can rotate around the support frame 10. In addition, by including multiple rotating arms 21 rotatably connected in sequence in the adjustment structure 20, any two adjacent rotating arms 21 can also rotate relative to each other. Based on this, by rotating part or all of the rotating arms 21, the position of the end of the adjustment structure 20 away from the support frame 10 can be conveniently, quickly and flexibly adjusted through multiple rotations, thereby conveniently, quickly and flexibly adjusting the position of the debugging tool 30, so that the debugging tool 30 can reach any desired debugging position, and the debugging tool 30 can be easily aligned with each tuning part 11' of the filter 10' to deform the tuning part 11'. Therefore, the debugging of each tuning section 11' of the filter 10' can be completed by a single debugging tool 30, without the need for frequent disassembly, relocation and reinstallation of the filter 10' or the debugging tool 30, thereby effectively improving the convenience and efficiency of debugging operation of the debugging equipment.

[0047] Furthermore, the rotational arrangement of each rotating arm 21 allows the range of motion of each rotating arm 21 driving the adjustment tool 30 to rotate to be superimposed in a coordinated manner. Therefore, the adjustment tool 30 can reach any desired adjustment position of the filter 10'. Based on this, the adjustment equipment provided in this application embodiment has no high requirements on the size, shape, or setting position of the tuning part 11' of the filter 10', and can be applied to most filters 10', especially miniaturized filters 10'. This can effectively improve the performance and versatility of the adjustment equipment and effectively expand the scope of application of the adjustment equipment.

[0048] Please see Figure 1 , Figure 2 In some embodiments of this application, two adjacent rotating arms 21 are detachably rotatably connected.

[0049] By adopting the above scheme, the number of rotating arms 21 connected in sequence can be increased or decreased as needed to adjust the range of motion of the debugging tool 30 accordingly, thereby adapting to the debugging operations of filters 10' of different sizes and models, and effectively expanding the applicable range of the debugging equipment.

[0050] Please see Figure 1 , Figure 2 , Figure 5 In some embodiments of this application, the rotation axes of each rotating arm 21 are parallel to each other.

[0051] It should be noted that the rotation axis of the rotating arm 21 can be the rotation axis of the rotating arm 21 around the support frame 10, or it can be the rotation axis of the rotating arm 21 around an adjacent rotating arm 21. By making the rotation axes parallel to each other, the range of motion of each rotating arm 21 can be made to fall basically on the same plane.

[0052] By adopting the above scheme, the rotation axes of each rotating arm 21 can be made parallel to each other, so that the range of motion of each rotating arm 21 is basically on the same plane. Based on this, the position of the adjustment tool 30 can be flexibly adjusted by the adjustment structure 20 so that the adjustment tool 30 can be aligned with each tuning part 11' of the filter 10'. The position adjustment of the adjustment structure 20 on the adjustment tool 30 is constrained to the same plane, so that the adjustment structure 20 is mainly used to adjust the planar position of the adjustment tool 30. This makes it easier to reduce the displacement influence of the adjustment structure 20 on the adjustment tool 30 in other directions (especially the direction intersecting the plane), and makes it easier for the adjustment tool 30 to accurately control its displacement in the direction away from or close to the tuning part 11'. This makes it easier for the adjustment tool 30 to accurately control its adjustment effect on the tuning part 11', thereby effectively improving the adjustment effect and adjustment accuracy of the adjustment equipment.

[0053] Please see Figure 2 , Figure 3 , Figure 6 In some embodiments of this application, the rotating arm 21 rotatably connected to the support frame 10 is a first rotating arm 211. The first rotating arm 211 is provided with a first rotating hole 2111, and the hole wall of the first rotating hole 2111 is provided with a limiting hole 2112 communicating with the outside. The support frame 10 is provided with a first rotating part 13 that passes through and is installed in the first rotating hole 2111. The outer periphery of the first rotating part 13 is provided with an annular groove 131 that extends along its circumference. The annular groove 131 is aligned with the limiting hole 2112. The debugging device also includes a limiting member 40 that passes through and is installed in the limiting hole 2112. The end of the limiting member 40 is engaged in the annular groove 131 to restrict the first rotating arm 211 from disengaging from the first rotating part 13.

[0054] It should be noted that the first rotating arm 211 has a first rotating hole 2111 at its end near the support frame 10. The first rotating hole 2111 is located on the side of this end facing the support frame 10 and is a circular hole. The first rotating hole 2111 may be through-hole or not, and this embodiment does not impose any restrictions on this. Correspondingly, the support frame 10 has a first rotating part 13 protruding on the side facing the first rotating arm 211. The first rotating part 13 is cylindrical and is installed through the first rotating hole 2111. Based on this, the first rotating arm 211 can be rotatably connected to the first rotating part 13 via the first rotating hole 2111, thereby achieving a rotatable connection to the support frame 10.

[0055] It should also be noted that the first rotating hole 2111 has a limiting hole 2112 on its wall, which extends outward and connects to the outside of the first rotating arm 211. The number of limiting holes 2112 can be one or more. When there are multiple limiting holes 2112, they are spaced apart circumferentially along the first rotating hole 2111.

[0056] Correspondingly, an annular groove 131 is provided on the outer periphery of the first rotating part 13, and the annular groove 131 extends along the circumference of the first rotating part 13. When the first rotating part 13 is installed in the first rotating hole 2111, the annular groove 131 is aligned with each limiting hole 2112.

[0057] Each limiting member 40 is correspondingly provided with a limiting hole 2112, and each limiting member 40 is installed through and in the corresponding limiting hole 2112. The end of each limiting member 40 extends inward from the opening of the limiting hole 2112 and engages with the annular groove 131. Based on this, the engagement of the limiting member 40 with the annular groove 131 restricts the axial movement of the first rotating arm 211 along the first rotating part 13, particularly restricting the first rotating arm 211 from disengaging from the first rotating part 13. Furthermore, during the rotation of the first rotating arm 211 around the first rotating part 13, the limiting member 40 can move within the annular groove 131; that is, the engagement of the limiting member 40 with the annular groove 131 does not interfere with the rotation of the first rotating arm 211 around the first rotating part 13.

[0058] Among them, such as Figure 6 As shown, in one possible implementation, the annular groove 131 can be a complete ring. Since the limiting member 40 can move circumferentially within the annular groove 131, the first rotating arm 211 has the largest possible range of rotation around the first rotating part 13. Alternatively, in another possible implementation, the annular groove 131 can be an open ring. Since the annular groove 131 can constrain the movement range of the limiting member 40, the range of rotation of the first rotating arm 211 around the first rotating part 13 will be constrained, thereby limiting the first rotating arm 211 from rotating beyond the desired adjustment range around the first rotating part 13.

[0059] The limiting component 40 can be a bolt.

[0060] By adopting the above solution, the first rotating part 13 of the support frame 10 can be inserted into the first rotating hole 2111 of the first rotating arm 211, thus conveniently and quickly realizing the rotational connection between the first rotating arm 211 and the support frame 10. Furthermore, based on the alignment of the annular groove 131 of the first rotating part 13 with each limiting hole 2112 of the first rotating arm 211, each limiting member 40 can be inserted into each limiting hole 2112, so that the end of the limiting member 40 can engage with the annular groove 131. Based on this, without interfering with the rotation of the first rotating arm 211 around the first rotating part 13, the engagement of the limiting member 40 with the annular groove 131 reliably restricts the axial movement of the first rotating arm 211 along the first rotating part 13, especially restricting the first rotating arm 211 from disengaging from the first rotating part 13. This stabilizes the rotational connection between the first rotating arm 211 and the support frame 10, and correspondingly improves the stability of the rotation of the first rotating arm 211 around the first rotating part 13.

[0061] Please see Figure 2 , Figure 3 , Figure 6 In some embodiments of this application, among the two rotating arms 21 that are rotatably connected to each other, one rotating arm 21 is provided with two oppositely arranged support portions 212 and a first rotating shaft 213 installed between the two support portions 212, and the other rotating arm 21 is provided with a second rotating portion 214 located between the two support portions 212 and rotatably connected to the first rotating shaft 213.

[0062] It should be noted that among the two rotating arms 21 rotatably connected to each other, one rotating arm 21 has two opposing support parts 212 near the end of the other rotating arm 21. Specifically, the two support parts 212 are arranged opposite each other along the rotation axis between the two rotating arms 21. A first rotating shaft 213 is installed between the two support parts 212, and the central axis of the first rotating shaft 213 basically corresponds to the rotation axis between the two rotating arms 21. Correspondingly, the other rotating arm 21 has a second rotating part 214 near the end of one of the rotating arms 21. The second rotating part 214 has a through second rotating hole 2141. The second rotating part 214 is installed between the two support parts 212, and the first rotating shaft 213 passes through the second rotating hole 2141 to be rotatably connected to the first rotating shaft 213.

[0063] By adopting the above solution, the rotational connection between the two rotating arms 21 can be conveniently, quickly, and reliably achieved by installing the second rotating part 214 of one rotating arm 21 between the two support parts 212 of the other rotating arm 21 and rotatably connecting it to the first rotating shaft 213 between the two support parts 212. Furthermore, since the two support parts 212 can limit the movement of the second rotating part 214, the stability of the second rotating part 214 rotating around the first rotating shaft 213 can be correspondingly improved.

[0064] Please see Figure 1 , Figure 2 , Figure 5 In some embodiments of this application, the rotating arm 21 used for installing the debugging tool 30 is a second rotating arm 215. The second rotating arm 215 is provided with a through mounting hole 2151. The debugging tool 30 is installed in the mounting hole 2151 and can reciprocate along the through direction of the mounting hole 2151.

[0065] It should be noted that the second rotating arm 215 is provided with a through mounting hole 2151, and the through direction of the mounting hole 2151 corresponds to the preset moving direction of the adjustment tool 30. For example, the preset moving direction of the adjustment tool 30 is parallel to the rotation axis of the adjustment structure 20, and specifically, the preset moving direction of the adjustment tool 30 is parallel to the rotation axis of the second rotating arm 215. Based on this, the alignment position of the adjustment tool 30 corresponding to the tuning part 11' can be adjusted by rotating the adjustment structure 20, and then the tuning part 11' can be deformed by reciprocating the adjustment tool 30 along the through direction of the mounting hole 2151.

[0066] It should also be noted that the tuning tool 30 is mounted in the mounting hole 2151 of the second rotating arm 215, which provides support for the tuning tool 30. The tuning tool 30 can reciprocate along the through direction of the mounting hole 2151. Based on this, when the tuning tool 30 is aligned with the tuning part 11' of the filter 10', the tuning tool 30 can cause the tuning part 11' to reciprocate along the through direction of the mounting hole 2151, thereby deforming the tuning part 11' and achieving convenient, quick, and precise adjustment of the resonant frequency.

[0067] The adjustment tool 30 can be moved manually or electrically along the through direction of the mounting hole 2151; this embodiment does not impose any restrictions on this.

[0068] By adopting the above scheme, the debugging tool 30 can be installed in the mounting hole 2151 of the second rotating arm 215, so that the second rotating arm 215 can reliably support the debugging tool 30 and the adjustment structure 20 can flexibly adjust the position of the debugging tool 30, thereby enabling the debugging tool 30 to be aligned with each tuning part 11' of the filter 10'. When the debugging tool 30 is aligned with the tuning part 11' of the filter 10', the debugging tool 30 can also be moved back and forth along the through direction of the mounting hole 2151, so that the debugging tool 30 can cause the tuning part 11' to be deformed conveniently, quickly and accurately by moving the tuning part 11' back and forth along the through direction of the mounting hole 2151, thereby achieving convenient, quick and accurate adjustment of the resonant frequency.

[0069] Please see Figure 2 , Figure 3 , Figure 4 , Figure 5 In some embodiments of this application, the second rotating arm 215 is provided with a gear 2152 in the mounting hole 2151, and the rotation axis of the gear 2152 is perpendicular to the through direction of the mounting hole 2151; the debugging tool 30 is provided with a rack 31 on its side facing the gear 2152, the rack 31 extends along the through direction of the mounting hole 2151 and meshes with the gear 2152.

[0070] It should be noted that a gear 2152 is installed in the mounting hole 2151 within the second rotating arm 215. The gear 2152 can rotate around its rotation axis, which is perpendicular to the through direction of the mounting hole 2151. This embodiment does not limit the installation method of the gear 2152 within the mounting hole 2151; alternatively, such as... Figure 2 , Figure 3 , Figure 6 As shown, a second rotating shaft 2153 is mounted on the second rotating arm 215. A portion of the second rotating shaft 2153 is located within the mounting hole 2151. A gear 2152 is securely mounted on the second rotating shaft 2153. The gear 2152 and the second rotating shaft 2153 rotate synchronously. At least one end of the second rotating shaft 2153 protrudes to the outside of the second rotating arm 215, so that the gear 2152 can be driven to rotate by driving the second rotating shaft 2153 to rotate.

[0071] Correspondingly, the portion of the adjustment tool 30 installed in the mounting hole 2151 has a rack 31 on its side facing the gear 2152. The rack 31 extends along the through direction of the mounting hole 2151, and the rack 31 is aligned and meshes with the gear 2152. Based on this, in one possible operating mode, the gear 2152 can be rotated manually or electrically, so that the rack 31 and the adjustment tool 30 can be moved along the through direction of the mounting hole 2151 through the meshing between the gear 2152 and the rack 31. During this process, the amount of movement of the adjustment tool 30 along the through direction of the mounting hole 2151 can be precisely controlled through the meshing relationship between the gear 2152 and the rack 31.

[0072] Therefore, by adopting the above scheme, the gear 2152 can be rotated manually or electrically, and the rack 31 and the adjustment tool 30 can be moved along the through direction of the mounting hole 2151 through the meshing between the gear 2152 and the rack 31. This allows for convenient and quick reciprocating movement of the adjustment tool 30 along the through direction of the mounting hole 2151. Furthermore, the amount of movement of the adjustment tool 30 along the through direction of the mounting hole 2151 can be precisely controlled through the meshing relationship between the gear 2152 and the rack 31. This allows for precise control of the deformation adjustment amount of the tuning part 11' by the adjustment tool 30, thereby improving the adjustment accuracy of the resonant frequency by the adjustment tool 30 and effectively improving the adjustment effect and accuracy of the adjustment equipment.

[0073] Of course, in another possible operation, it can be changed to: manually or electrically drive the rack 31 and the adjustment tool 30 to move along the through direction of the mounting hole 2151, and drive the gear 2152 to rotate accordingly through the meshing between the gear 2152 and the rack 31, so as to achieve relatively precise control of the amount of movement of the adjustment tool 30 along the through direction of the mounting hole 2151 through the rotation of the gear 2152 and the sound produced when the gear 2152 and the rack 31 are engaged.

[0074] Please see Figure 2 , Figure 4 In some embodiments of this application, the rack 31 is detachably connected to the debugging body 33 of the debugging tool 30.

[0075] It should be noted that the debugging tool 30 is provided with a debugging body 33 installed in the mounting hole 2151 of the second rotating arm 215. The rack 31 is detachably connected to the debugging body 33. Optionally, the rack 31 can be detachably connected to the debugging body 33 by means of, but not limited to, screw connection.

[0076] By adopting the above solution, the rack 31 can be detachably connected to the debugging body 33 of the debugging tool 30, thereby ensuring and improving the ease of disassembly and assembly of the rack 31. In this way, when the rack 31 wears out, it is especially convenient to maintain and replace the rack 31, which helps to ensure and improve the meshing accuracy between the rack 31 and the gear 2152, helps to ensure and improve the adjustment accuracy of the deformation of the tuning part 11' and the resonant frequency by the debugging tool 30, and helps to ensure and improve the debugging effect and debugging accuracy of the debugging equipment.

[0077] Please see Figure 2 , Figure 3 , Figure 6 In some embodiments of this application, the gear 2152 is provided with limiting blocks 2154 on opposite sides along its own rotation axis, and the two limiting blocks 2154 are respectively limited to opposite sides of the rack 31.

[0078] It should be noted that a limiting block 2154 is provided on each of the opposite sides of the gear 2152. The limiting block 2154 may rotate synchronously with the gear 2152 or it may not rotate with the gear 2152. This embodiment does not limit the specific installation method of the limiting block 2154. Optionally, such as Figure 3 , Figure 6 As shown, the limiting block 2154 can be installed on the second rotating shaft 2153 together with the gear 2152. If the limiting block 2154 needs to rotate synchronously with the gear 2152, it is securely connected to the second rotating shaft 2153. If the limiting block 2154 does not need to rotate with the gear 2152, it is sleeved on the second rotating shaft 2153.

[0079] The limiting block 2154 protrudes from the gear 2152 on the side near the rack 31. When the rack 31 meshes with the gear 2152, the two limiting blocks 2154, located on opposite sides of the gear 2152, can respectively limit the rack 31 on opposite sides. Based on this, during the period when the rack 31 meshes with the gear 2152 and moves along the through direction of the mounting hole 2151, the two limiting blocks 2154 can limit the rack 31 on both sides, effectively constraining and guiding the movement direction and path of the rack 31.

[0080] By adopting the above scheme, based on the meshing of rack 31 and gear 2152, two limiting blocks 2154 respectively set on opposite sides of gear 2152 can limit the relative sides of rack 31. Based on this, during the period when rack 31 meshes with gear 2152 and moves along the through direction of mounting hole 2151, the limiting effect of the two limiting blocks 2154 can effectively constrain and guide the moving direction and moving path of rack 31, thereby effectively constraining and guiding the moving direction and moving path of debugging tool 30. This can help improve the moving stability and moving accuracy of debugging tool 30, improve the adjustment accuracy of the deformation of tuning part 11' and resonant frequency by debugging tool 30, and improve the debugging effect and debugging accuracy of debugging equipment.

[0081] Please see Figure 2 , Figure 3 , Figure 6 In some embodiments of this application, the second rotating arm 215 is further provided with a support hole 2158 that is connected to the mounting hole 2151 and corresponds to the limiting block 2154. The support hole 2158 is used to adapt to the mounting limiting block 2154.

[0082] By adopting the above scheme, the limiting block 2154 can be installed through the support hole 2158 to reliably and stably support the limiting block 2154, the second rotating shaft 2153, and the gear 2152. This can improve the rotational smoothness of the second rotating shaft 2153 and the gear 2152, reduce the risk of wobbling of the second rotating shaft 2153 and the gear 2152, and further improve the driving accuracy of the gear 2152 on the rack 31. This can also help ensure and improve the adjustment accuracy of the deformation and resonant frequency of the tuning part 11' by the tuning tool 30, and help ensure and improve the tuning effect and tuning accuracy of the tuning equipment.

[0083] Furthermore, based on the previous embodiment, the support hole 2158, which is adapted to be installed with the limiting block 2154, can also cooperate with the limiting block 2154 to limit the corresponding side of the rack 31 during the period when the rack 31 meshes with the gear 2152 and moves along the through direction of the mounting hole 2151. This effectively constrains and guides the movement direction and path of the rack 31, thereby effectively constraining and guiding the movement direction and path of the debugging tool 30. This can effectively improve the movement stability and movement accuracy of the debugging tool 30, effectively improve the adjustment accuracy of the deformation of the tuning part 11' and the resonant frequency by the debugging tool 30, and effectively improve the debugging effect and debugging accuracy of the debugging equipment.

[0084] Please see Figure 2 , Figure 3 , Figure 4 , Figure 6In some embodiments of this application, the second rotating arm 215 is provided with a positioning block 2155 that is stably disposed relative to the wall of the mounting hole 2151; the debugging tool 30 is provided with a sliding groove 32 that extends along the through direction of the mounting hole 2151, and the sliding groove 32 is slidably engaged with the positioning block 2155.

[0085] It should be noted that the second rotating arm 215 is provided with a positioning block 2155, which is stably set relative to the wall of the mounting hole 2151, meaning that the positioning block 2155 does not move with the movement of the adjustment tool 30. This embodiment does not limit the specific implementation of "the positioning block 2155 being stably set relative to the wall of the mounting hole 2151," and alternatively, such as... Figure 4 As shown, the second rotating arm 215 has a first fastening hole 2156 on the wall of the mounting hole 2151, and the positioning block 2155 has a second fastening hole 2157. The debugging equipment also includes a fastener 50 that passes through and is installed in the first fastening hole 2156. The end of the fastener 50 is securely connected to the second fastening hole 2157, so that the positioning block 2155 is securely set relative to the wall of the mounting hole 2151. The fastener 50 can be a bolt.

[0086] It should also be noted that the debugging tool 30 is provided with a sliding groove 32 on the side facing the positioning block 2155. The sliding groove 32 extends along the through direction of the mounting hole 2151. The sliding groove 32 slides in cooperation with the positioning block 2155. Specifically, during the reciprocating movement of the debugging tool 30 along the through direction of the mounting hole 2151, the sliding groove 32 can slide back and forth relative to the positioning block 2155.

[0087] By adopting the above solution, a relatively stable positioning block 2155 can be provided on the second rotating arm 215, and a sliding groove 32 that slides with the positioning block 2155 can be provided on the debugging tool 30. This allows the sliding groove 32 to slide back and forth relative to the positioning block 2155 during the reciprocating movement of the debugging tool 30 along the through direction of the mounting hole 2151. Based on this, the sliding engagement between the sliding groove 32 and the positioning block 2155 can constrain and guide the movement direction, path, and stroke of the debugging tool 30, thereby improving the smoothness and accuracy of the debugging tool 30's movement and correspondingly improving the adjustment tool 30's performance on the tuning section 11' (e.g., Figure 5 The deformation amount and resonant frequency adjustment accuracy (as shown). Furthermore, based on the sliding fit between the positioning block 2155 and the slide groove 32, the adjustment tool 30 can be effectively prevented from completely disengaging from the mounting hole 2151, thereby ensuring that the adjustment tool 30 can be permanently and reliably installed in the mounting hole 2151 and can reliably reciprocate along the through direction of the mounting hole 2151.

[0088] Please see Figure 2 , Figure 4 , Figure 6 In some embodiments of this application, the debugging device further includes a balance spring 60 extending along the through direction of the mounting hole 2151, the balance spring 60 being connected between the positioning block 2155 and the corresponding groove wall of the slide 32.

[0089] It should be noted that the balance spring 60 extends along the through direction of the mounting hole 2151. Along this through direction, one end of the balance spring 60 is connected to the positioning block 2155, and the other end is connected to the groove wall of the slide 32 opposite to the positioning block 2155. The balance spring 60 is elastic and can undergo tensile or compressive deformation under force, thus generating elastic force.

[0090] By adopting the above solution, on the one hand, the balance spring 60, which is elastically connected between the corresponding groove walls of the positioning block 2155 and the slide 32, can balance the influence of gravity on the debugging tool 30 through its elastic force. This allows the debugging tool 30 to maintain a stable relative position and state relative to the positioning block 2155 when it moves back and forth along the through direction of the mounting hole 2151 without any driving force. This effectively reduces the risk of the debugging tool 30 moving to the lowest end relative to the positioning block 2155 under the influence of gravity. Based on this, when the new driving force drives the debugging tool 30 to move along the through direction of the mounting hole 2151, the debugging tool 30 can move to a new position along the through direction of the mounting hole 2151 based on the previous stopping position, without having to move from the lowest end to the new position each time. This can shorten the required travel distance for the debugging tool 30 to reach the new position, shorten the required debugging time, and improve the debugging efficiency.

[0091] On the other hand, during the reciprocating movement of the adjustment tool 30 along the through direction of the mounting hole 2151 under driving force, the balance spring 60 plays a buffering role between the corresponding groove walls of the positioning block 2155 and the slide 32, thereby balancing the movement state of the adjustment tool 30 relative to the positioning block 2155 and improving the smoothness of movement of the adjustment tool 30 relative to the positioning block 2155. This effectively improves the smoothness and accuracy of movement of the adjustment tool 30, and effectively improves the performance of the adjustment tool 30 on the tuning part 11' (e.g., Figure 5 The deformation amount and the adjustment accuracy of the resonant frequency (as shown in the figure) are as follows.

[0092] On the other hand, when the debugging tool 30 is driven to move back and forth along the through direction of the mounting hole 2151, the debugging tool 30 can slide back and forth relative to the positioning block 2155, thereby causing the balance spring 60 connected between the positioning block 2155 and the corresponding groove wall of the slide 32 to undergo tensile or compressive deformation and accumulate elastic force. Based on this, after the driving force on the debugging tool 30 is removed, the elastic force accumulated by the balance spring 60 can drive the debugging tool 30 to quickly and reliably reset relative to the positioning block 2155, thereby improving the convenience and efficiency of debugging operation of the debugging equipment.

[0093] Please see Figure 2 , Figure 4 , Figure 6 In some embodiments of this application, the number of balance springs 60 is two, and the two balance springs 60 are respectively disposed on opposite sides of the positioning block 2155 along the through direction of the mounting hole 2151.

[0094] By adopting the above scheme, a balance spring 60 can be evenly arranged on each of the opposite sides of the positioning block 2155. The two balance springs 60 apply a counter-force, which effectively balances and enhances the balancing, buffering, and resetting effects of the two balance springs 60 on the debugging tool 30. Based on this, on the one hand, when the debugging tool 30 is not driven by a driving force to move along the through direction of the mounting hole 2151, the debugging tool 30 can be made to be more stable and reliable in the current position and state. This makes it easier to shorten the time required for the debugging tool 30 to move along the through direction of the mounting hole 2151 during each debugging operation. The extended travel distance helps to shorten the required debugging time and improve debugging efficiency. On the other hand, during the reciprocating movement of the debugging tool 30 along the through direction of the mounting hole 2151 under the driving force, the debugging tool 30 can move more smoothly, thereby improving the smoothness and accuracy of the movement of the debugging tool 30 and improving the debugging accuracy. Furthermore, after the driving force on the debugging tool 30 is removed, the elastic force stored in the balance spring 60 drives the debugging tool 30 to quickly and reliably reset relative to the positioning block 2155, thereby improving the convenience and efficiency of debugging operation of the debugging equipment.

[0095] Of course, in other possible implementations, one balance spring 60 may be provided, and the balance spring 60 may be provided on one side of the positioning block 2155 along the through direction of the mounting hole 2151; or, three or more balance springs 60 may be provided; this embodiment does not limit this.

[0096] Please see Figure 2 , Figure 5 , Figure 6In some embodiments of this application, the debugging tool 30 includes a debugging body 33 mounted on the tuning structure 20, a debugging rod 34 rotatably connected to one end of the debugging body 33, and a debugging fixture 35 mounted on the end of the debugging rod 34 away from the debugging body 33. The debugging fixture 35 is used to deform the tuning part 11' of the filter 10'.

[0097] It should be noted that the debugging body 33 is used to install in the mounting hole 2151 of the adjustment structure 20, and serves to support the debugging rod 34 and the debugging fixture 35. The rack 31 and slide groove mentioned above can be provided on the debugging body 33.

[0098] One end of the adjustment rod 34 is rotatably connected to one end of the adjustment body 33. The adjustment rod 34 can rotate relative to the adjustment body 33 to adjust the orientation of the adjustment fixture 35, so that the adjustment fixture 35 can be aligned with the tuning part 11' in a suitable posture. This embodiment does not limit the specific implementation of "the adjustment rod 34 is rotatably connected to one end of the adjustment body 33".

[0099] In one possible implementation, the adjustment fixture 35 is mounted on the end of the adjustment rod 34 away from the adjustment body 33. The adjustment fixture 35 has a relative acquisition state and a release state. When in the acquisition state, the adjustment fixture 35 can be connected to the tuning part 11' aligned with it, so that the adjustment tool 30 can deform the tuning part 11'. When in the release state, the adjustment fixture 35 can be disconnected from the tuning part 11', so that the adjustment tool 30 can release its operation on the tuning part 11'. The adjustment fixture 35 can be connected to the tuning part 11' in the acquisition state by means of, but not limited to, clamping, magnetic adsorption, vacuum adsorption, etc. This embodiment does not limit this. Alternatively, in another possible implementation, the adjustment fixture 35 can abut against and press against the tuning part 11' near its end to deform the tuning part. This embodiment does not limit this.

[0100] By adopting the above scheme, the debugging tool 30 can be reliably installed on the adjustment structure 20 through the debugging body 33, and reliably support the debugging rod 34 and the debugging fixture 35; by rotating the debugging rod 34 connected to the debugging body 33, the orientation of the debugging fixture 35 can be flexibly adjusted; and by installing the debugging fixture 35 at the end of the debugging rod 34 away from the debugging body 33, it is easy to deform the tuning part 11' that is aligned with it, thereby facilitating the tuning operation of the debugging tool 30.

[0101] Please see Figure 1 , Figure 2 , Figure 3 In some embodiments of this application, the through direction of the mounting hole 2151 is parallel to the rotation axis of each rotating arm 21 and is parallel to the vertical direction.

[0102] It should be noted that the rotation axis of the rotating arm 21 can be the rotation axis of the rotating arm 21 around the support frame 10, or it can be the rotation axis of the rotating arm 21 around an adjacent rotating arm 21. By making the rotation axes of each rotating arm 21 parallel to each other and parallel to the vertical direction, the range of motion of each rotating arm 21 can be made to fall on the same horizontal plane.

[0103] It should also be noted that the through direction of the mounting hole 2151 corresponds to the preset moving direction of the adjustment tool 30. By making the through direction of the mounting hole 2151 parallel to the rotation axis of each rotating arm 21 and parallel to the vertical direction, the moving direction of the adjustment tool 30 can be different from the range of motion of each rotating arm 21, and the moving direction of the adjustment tool 30 can be made to be vertical.

[0104] By adopting the above scheme, the rotation axes of each rotating arm 21 are made parallel to each other and parallel to the vertical direction, so that the range of motion of each rotating arm 21 is basically on the same horizontal plane. Based on this, the adjustment structure 20 can flexibly adjust the planar position of the adjustment tool 30 relative to the horizontal plane, so that the adjustment tool 30 can be flexibly aligned with each tuning part 11' of the filter 10'. Alternatively, by making the through direction of the mounting hole 2151 parallel to the rotation axis of each rotating arm 21 and parallel to the vertical direction, the moving direction of the adjustment tool 30 is different from the range of motion of each rotating arm 21, making the moving direction of the adjustment tool 30 vertical. Based on this, when the adjustment tool 30 is aligned with the tuning part 11' of the filter 10', the adjustment tool 30 can easily move back and forth along the through direction of the mounting hole 2151, causing the tuning part 11' to deform. Thus, the adjustment tool 30 can move flexibly in three-dimensional space, allowing for convenient, quick, and precise adjustment of the resonant frequency.

[0105] Furthermore, based on the previous embodiment, the rotation of each rotating arm 21 on the horizontal plane and the movement of the debugging tool 30 in the vertical direction can be further integrated with the rotation of the debugging rod 34 relative to the debugging body 33 to enrich the flexibility of the debugging fixture 35 in space, thereby improving the performance and applicability of the debugging equipment.

[0106] Please see Figure 1 , Figure 2 , Figure 5 In some embodiments of this application, the debugging device further includes a clamping device 70 for clamping the filter 10', the clamping device 70 being located at the end of the debugging tool 30 away from the adjustment structure 20.

[0107] It should be noted that the clamping device 70 is used to clamp the filter 10' to be debugged, so as to stabilize the position and state of the filter 10', and facilitate the debugging tool 30 to perform debugging operations on the tuning part 11' of the filter 10'. This embodiment does not limit the specific structure of the clamping device 70. Optionally, as... Figure 1 , Figure 2 As shown, the clamping device 70 can be installed on the worktable 11 of the support frame 10.

[0108] By adopting the above scheme, the filter 10' to be debugged can be easily clamped by the clamping device 70 to stabilize the position and state of the filter 10' to be debugged, thereby facilitating the precise alignment of the debugging tool 30 onto each tuning part 11' of the filter 10', and enabling the debugging tool 30 to perform debugging operations on each tuning part 11' of the filter 10' accurately and reliably.

[0109] The above description is merely a preferred embodiment of this application and is not intended to limit this application. Any modifications, equivalent substitutions, or improvements made within the spirit and principles of this application should be included within the protection scope of this application.

Claims

1. A debugging device, characterized in that, include: Support frame; An adjustment structure, one end of which is rotatably connected to the support frame; The debugging tool is installed at the other end of the adjustment structure; The tuning structure includes multiple rotating arms connected in sequence, allowing the tuning tool to be aligned with each tuning section of the filter to deform the tuning section. A second rotating arm is used to mount the tuning tool. The second rotating arm has a through mounting hole, and the tuning tool is mounted in the mounting hole and can reciprocate along the through direction of the mounting hole. A gear is provided in the mounting hole of the second rotating arm, with the rotation axis of the gear perpendicular to the through direction of the mounting hole. A rack is provided on the side of the tuning tool facing the gear, extending along the through direction of the mounting hole and meshing with the gear.

2. The debugging equipment as described in claim 1, characterized in that, The rotation axes of each of the aforementioned rotating arms are parallel to each other.

3. The debugging equipment as described in claim 1, characterized in that, The rotating arm rotatably connected to the support frame is a first rotating arm. The first rotating arm is provided with a first rotating hole, and the hole wall of the first rotating hole is provided with a limiting hole that communicates with the outside. The support frame is provided with a first rotating part that passes through and is installed in the first rotating hole. The outer periphery of the first rotating part is provided with an annular groove that extends circumferentially thereon. The annular groove is aligned with the limiting hole. The debugging equipment also includes a limiting member that passes through and is installed in the limiting hole. The end of the limiting member is fitted into the annular groove to prevent the first rotating arm from disengaging from the first rotating part.

4. The debugging equipment as described in claim 1, characterized in that, Of the two rotating arms that are rotatably connected to each other, one of the rotating arms is provided with two support parts arranged opposite to each other and a first rotating shaft installed between the two support parts, and the other rotating arm is provided with a second rotating part located between the two support parts and rotatably connected to the first rotating shaft.

5. The debugging equipment as described in any one of claims 1-4, characterized in that, The rack is detachably connected to the debugging body of the debugging tool; And / or, limiting blocks are provided on opposite sides of the gear, and the two limiting blocks are respectively limited to opposite sides of the rack.

6. The debugging equipment as described in any one of claims 1-4, characterized in that, The second rotating arm is provided with a positioning block that is stably disposed relative to the wall of the mounting hole; The debugging tool is provided with a sliding groove extending along the through direction of the mounting hole, and the sliding groove is slidably engaged with the positioning block.

7. The debugging equipment as described in claim 6, characterized in that, The debugging device also includes a balance spring extending along the through direction of the mounting hole, the balance spring being connected between the positioning block and the corresponding groove wall of the slide.

8. The debugging equipment as described in any one of claims 1-4, characterized in that, The debugging tool includes a debugging body installed on the tuning structure, a debugging rod rotatably connected to one end of the debugging body, and a debugging fixture installed on the end of the debugging rod away from the debugging body. The debugging fixture is used to deform the tuning part of the filter.

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