Electroplating hanger structure for ceramic carrier plate

Abstract

The utility model discloses an electroplating hanger structure for a ceramic carrier plate. The electroplating hanger structure comprises a base, a rotating plate, a rotating assembly, a hanger body, a supporting plate and a T-shaped plate, the rotating plates are horizontally arranged on the upper surface of the base at intervals and are horizontally and rotatably connected with the base through a rotating assembly; the rotating plate is of a hollow cuboid structure with an open upper surface, and the lower half parts of the plurality of hanger bodies are clamped in the rotating plate in an aligned manner; a plurality of supporting plates are sequentially arranged in the hanger body from top to bottom at intervals, and after the positions of the supporting plates in the vertical direction are adjusted, the two ends of the supporting plates are fixed to the inner side walls of the corresponding hanger body through flange plates in a screwed mode. A plurality of T-shaped plates are sequentially arranged on the left side and the right side of each supporting plate at intervals in the length direction, and ceramic carrier plate containing areas are defined by the bottom edges of the adjacent T-shaped plates and the end faces of the corresponding supporting plates. The middle edge of the T-shaped plate and the side face of the corresponding supporting plate are inserted in a sliding mode in the left-right direction and then fixed in a screwed mode. According to the utility model, the risk that the ceramic carrier plate is damaged is reduced.

Description

Technical Field

[0001] The utility model relates to the technical field of electroplating fixtures, and particularly relates to an electroplating fixture structure for a ceramic carrier plate. Background Technique

[0002] Electroplating is the process of plating a thin layer of other metals or alloys on the surface of certain metals by using the electrolysis principle. It is a process of using electrolysis to attach a metal film to the surface of metal or other material parts, so as to prevent metal oxidation (such as rust), improve wear resistance, electrical conductivity, reflectivity, corrosion resistance (such as copper sulfate), and enhance beauty. Therefore, its application is becoming more and more extensive.

[0003] With the development of technology, a metal film is electroplated on the surface of the ceramic carrier plate to make it more wear-resistant, and both the insulation performance and the electrical conductivity are improved. The fixture mainly plays the roles of conducting electricity, supporting, and fixing the product to be electroplated during the electroplating process. For the existing common electroplating fixtures for ceramic carrier plates, generally, the ceramic carrier plate is fixed by clamping the edge of the ceramic carrier plate with a fixture. This method is likely to cause damage to the ceramic carrier plate. In addition, there is generally a certain distance between the production place and the electroplating place of the ceramic carrier plate. At present, generally, the manufactured ceramic carrier plate is transported to the electroplating place and then placed on the electroplating fixture. The ceramic carrier plate is also likely to be damaged during this process. Therefore, the above problems need to be solved urgently. Summary of the Invention

[0004] The technical problem to be solved by the utility model is to provide an electroplating fixture structure for a ceramic carrier plate. By the combined use of a T-shaped plate and an L-shaped plate, it is not necessary to clamp and fix the edge of the ceramic carrier plate by means of a fixture, reducing the risk of damage to the ceramic carrier plate.

[0005] In order to solve the above technical problems, the utility model adopts the following technical solutions: the utility model is a kind of electroplating hanger structure for ceramic carrier, and its innovation lies in: it includes a base, a rotating plate, a rotating assembly, a hanger body, a support plate and a T-shaped plate; the rotating plates are arranged horizontally and parallelly on the upper surface of the horizontally arranged base, and are connected to the base for horizontal rotation through the rotating assembly; the rotating plate is a hollow rectangular structure matching the hanger body, and its upper surface is open, and then the lower halves of several hanger bodies arranged vertically and parallelly at intervals on the left and right are aligned and clamped and placed in the rotating plate; each of the hanger bodies is a hollow rectangular structure arranged vertically and longitudinally, and both its left and right sides are open; in each of the hanger bodies A number of horizontally and longitudinally arranged support plates are arranged in sequence from top to bottom inside the body, and each of the support plates is adjusted in vertical position, and its two ends are screwed and fixed to the inner wall of the corresponding hanger body through flange plates; a number of T-shaped plates are arranged in sequence along the length direction on the left and right sides of each of the support plates, and both ends of the bottom edge of each T-shaped plate are arranged up and down, and a square ceramic carrier placement area is formed between the bottom edges of adjacent T-shaped plates and the corresponding end faces of the corresponding support plates; the middle edges of each T-shaped plate are slidably plugged with the corresponding end faces of the corresponding support plates in the left and right directions, and then screwed and fixed, so as to adjust the distance between the bottom edge of the T-shaped plate and the corresponding end faces of the corresponding support plates.

[0006] Preferably, partitions are provided horizontally and parallelly on the inner bottom surface of the rotating plate relative to each adjacent two hanger bodies, each of the partitions matches the interior of the rotating plate, and its lower surface and two end surfaces are fixedly connected to the inner bottom surface and the corresponding inner side surface of the rotating plate, respectively, so that the interior of the rotating plate is sequentially divided into a number of parallel placement grooves through the partitions; the height of each partition is consistent with the height of the rotating plate, and the horizontal plane where the upper surface is located is located in the middle and lower position of each of the hanger bodies, so that each ceramic carrier is placed vertically and parallelly in the corresponding placement groove, and it is ensured that the partition and the rotating plate have no effect on the hanging and taking action of the ceramic carrier.

[0007] Preferably, it further includes a locking bolt I and a locking nut I; each of the flange plates is arranged vertically and horizontally, and the front and rear end faces of each support plate are respectively and perpendicularly fixedly connected to the middle positions of the inner sides of the corresponding flange plates; on each flange plate, locking bolts I are symmetrically arranged horizontally and longitudinally on the upper and lower sides of the corresponding support plate, and each support plate is fixedly connected to the corresponding fixture body by screwing with the locking bolt I; on the front and rear outer sides of each fixture body, waist-shaped holes I matching the locking bolt I are vertically and perpendicularly embedded and opened at positions corresponding to the locking bolt I, and each waist-shaped hole I vertically penetrates through the corresponding inner side wall of the corresponding fixture body. After the vertical position of the support plate is adjusted through the cooperation of the locking bolt I and the waist-shaped hole I, the locking nut I is then tightly screwed with the corresponding locking bolt I to position the corresponding support plate.

[0008] Preferably, it further includes a locking bolt II and a locking nut II; on the middle upper surface of each T-shaped plate, a waist-shaped hole II matching the locking bolt II is vertically and penetratingly embedded along its length direction, and on the left and right end faces of each support plate, sliding grooves I matching the middle side of the T-shaped plate are vertically embedded; the two sliding grooves I on the same support plate do not contact each other, and on the upper surface of each support plate near its end face, through holes matching the locking bolt II are vertically embedded, and each through hole vertically extends downward through the corresponding sliding groove I to the lower surface of the corresponding support plate. After the middle side of each T-shaped plate slides left and right in the corresponding sliding groove I to adapt to the thickness of different specifications of ceramic carrier plates, the threaded end of the locking bolt II extends out of the corresponding support plate from the upper through hole, the sliding groove I, and the lower through hole in sequence, and then is tightly screwed with the locking nut II to position the corresponding T-shaped plate.

[0009] Preferably, it further includes a fixing plate, an L-shaped plate and a locking bolt III; a fixing plate is horizontally and longitudinally fixed at the middle positions of the inner bottom surface and the inner top surface of each of the hanger bodies, and the length of each fixing plate is consistent with the length of each support plate; several L-shaped plates are sequentially arranged at intervals along the length direction on the left and right sides of each fixing plate, the setting position of each L-shaped plate corresponds to the setting position of each T-shaped plate, and its vertical side is vertically upward; a waist-shaped hole III matching the locking bolt III is vertically and penetratingly opened at the middle position of the upper surface of the horizontal side of each L-shaped plate along its length direction, and a sliding groove II matching the horizontal side of the L-shaped plate is vertically and penetratingly opened at the left and right end faces of each fixing plate relative to each L-shaped plate; the two sliding grooves II on the same fixing plate do not contact each other, and a threaded hole matching the locking bolt III is vertically and penetratingly opened at the position of the upper surface of each fixing plate close to its end face, each threaded hole vertically extends downward through the corresponding sliding groove II and the corresponding fixing plate to the inner bottom surface of the corresponding hanger body, and after the horizontal side of each L-shaped plate slides left and right in the corresponding sliding groove II to adapt to the thickness of different specifications of ceramic carrier plates, the threaded end of the locking bolt III is sequentially vertically downward from the upper threaded hole and the sliding groove II, and is screwed and fixed with the lower threaded hole, so as to position the corresponding L-shaped plate.

[0010] Preferably, limiting plates are vertically aligned and arranged on the peripheral sides of the rotating plate respectively, the lower half parts of each limiting plate are screwed and fixed with the corresponding side surface of the rotating plate, and their upper ends vertically extend upward to the middle positions of each hanger body respectively, and do not affect the screwing and fixing of the flange plate, so as to protect the hanger body from tipping over through the limiting plates.

[0011] Preferably, hanging rings are vertically and symmetrically arranged at the four right angles of the upper surface of each hanger body, and the corresponding hanger body is lifted and suspended through the hanging rings.

[0012] Preferably, it further includes a hydraulic cylinder, a universal wheel and a fixed column; the base is a horizontally arranged hollow cuboid structure, and hydraulic cylinders are vertically and symmetrically arranged at the four right angles of its inner bottom surface, the actions of the four hydraulic cylinders are synchronous, and the piston rods of each hydraulic cylinder vertically extend downward out of the lower surface of the base and are respectively connected with the corresponding universal wheel; fixed columns are vertically and symmetrically arranged at the four right angles of the lower surface of the base, and each fixed column is arranged within the square area surrounded by the four universal wheels; when in the upper limit position, the lower end surfaces of each universal wheel are all located above the horizontal plane where the lower ends of the corresponding fixed columns are located, and under the drive of the hydraulic cylinder, through the cooperation of the universal wheel and the fixed column, the switching between the moving state and the hanging and taking state is carried out.

[0013] Preferably, the rotating assembly and the four hydraulic cylinders are arranged without interference, and the rotating assembly includes a side plate, a gear shaft, a main bevel gear, a driven bevel gear, and a motor; a gear shaft is vertically provided at the middle position inside the base, the lower end of the gear shaft is rotatably connected to the inner bottom surface of the base, and its upper end extends vertically upward out of the upper surface of the base and is coaxially fixedly connected to the middle position of the lower surface of the rotating plate; a driven bevel gear is horizontally and coaxially sleeved and fixed on the gear shaft relative to the inside of the base, and the driven bevel gear is arranged without interference with the base; a side plate matching with it is vertically and longitudinally provided on one side of the driven bevel gear inside the base, and a motor is horizontally and transversely provided inside the base between the driven bevel gear and the side plate. The fixed end of the motor is fixedly connected to the corresponding side surface of the side plate by screwing, and its output end is horizontally arranged towards the driven bevel gear and is meshed with the driven bevel gear through the main bevel gear. Thus, driven by the motor, through the meshing cooperation of the main bevel gear and the driven bevel gear disc, the gear shaft rotates around its own axis and drives the rotating plate to rotate horizontally.

[0014] Preferably, it further includes a roller group; a plurality of circles of roller groups abutting against the lower surface of the rotating plate are connected and provided on the upper surface of the base, and the plurality of circles of roller groups are coaxially arranged with the rotating plate and are respectively arranged without interference with the gear shaft; each roller group is conical, and its end close to the gear shaft is the small end and the other end is the large end to adapt to the smaller linear velocity close to the gear shaft when the rotating plate rotates.

[0015] The beneficial effects of the present utility model are as follows:

[0016] (1) By the combined use of the T-shaped plate and the L-shaped plate in the present utility model, there is no need to clamp the edge of the ceramic carrier plate by means of a fixture, reducing the risk of damage to the ceramic carrier plate;

[0017] (2) By the combined use of the support plate, the flange plate, the locking bolt I, the locking nut I, and the waist-shaped hole I in the present utility model, it is convenient to adjust the distance between the two T-shaped plates, and between the T-shaped plate and the corresponding L-shaped plate according to the height of ceramic carrier plates of different specifications, with a wide application range and improved space utilization rate;

[0018] (3) The horizontal installation positions of the T-shaped plate and the L-shaped plate in the present utility model are adjustable, and are fixed by screwing after adjustment, so as to facilitate adapting to the thickness of ceramic carrier plates of different specifications, with a wide application range;

[0019] (4) By arranging the rotating assembly in the present utility model, the angle can be adjusted to better hang and pick up the ceramic carrier plate, thereby improving the work efficiency;

[0020] (5) The utility model is provided with a limiting plate through screwing, which can protect the fixture body from tipping over during the movement of the base;

[0021] (6) Through the combined use of a hydraulic cylinder, universal wheels and fixed columns, the utility model is convenient for switching between the moving state and the hanging and taking state, thereby ensuring the working stability in the hanging and taking state; at the same time, it can be uniformly moved to the electroplating place after the ceramic carrier plate is hung and taken, reducing the risk of damage to the ceramic carrier plate. BRIEF DESCRIPTION OF THE DRAWINGS

[0022] In order to more clearly illustrate the technical solutions in the embodiments of the present utility model, the following will briefly introduce the drawings required to be used in the embodiments. Obviously, the drawings described below are only some embodiments recorded in the present utility model. For those of ordinary skill in the art, without creative efforts, other drawings can also be obtained based on these drawings.

[0023] Figure 1 It is a structural schematic diagram of an electroplating fixture structure for a ceramic carrier plate of the present utility model.

[0024] Figure 2 is Figure 1 a side view of.

[0025] Figure 3 is Figure 1 an enlarged schematic view of part A in.

[0026] Among them, 1 - base; 2 - rotating plate; 3 - fixture body; 4 - partition plate; 5 - waist-shaped hole Ⅰ; 6 - support plate; 7 - flange plate; 8 - locking bolt Ⅰ; 9 - locking nut Ⅰ; 10 - T-shaped plate; 11 - locking bolt Ⅱ; 12 - locking nut Ⅱ; 13 - fixing plate; 14 - L-shaped plate; 15 - locking bolt Ⅲ; 16 - roller group; 17 - hanging ring; 18 - limiting plate; 19 - hydraulic cylinder; 20 - universal wheel; 21 - fixed column; 22 - side plate; 23 - gear shaft; 24 - main bevel gear; 25 - driven bevel gear; 26 - motor. DETAILED DESCRIPTION OF THE EMBODIMENTS

[0027] The following will clearly and completely describe the technical solutions of the present utility model through specific embodiments.

[0028] An electroplating fixture structure for a ceramic carrier plate of the present utility model includes a base 1, a rotating plate 2, a rotating assembly, a fixture body 3, a support plate 6 and a T-shaped plate 10; the specific structure is as Figures 1 - 3As shown in the figure, the rotating plate 2 is horizontally and parallelly arranged at intervals on the upper surface of the horizontally arranged base 1, and is horizontally rotatably connected to the base 1 through a rotating assembly; the rotating plate 2 is a hollow cuboid structure matching the fixture body 3, and its upper surface is open, so that the lower parts of several fixture bodies 3 arranged vertically and parallelly at intervals left and right are aligned and clamped and placed in the rotating plate 2; on the inner bottom surface of the rotating plate 2, partitions 4 are also horizontally and parallelly arranged respectively between every two adjacent fixture bodies 3. Each partition 4 matches the inside of the rotating plate 2, and its lower surface and both end surfaces are fixedly connected to the inner bottom surface and the corresponding inner side surface of the rotating plate 2 respectively. Thus, the inside of the rotating plate 2 is sequentially and spacedly divided into several parallelly arranged placement grooves by the partitions 4; the height of each partition 4 is the same as the height of the rotating plate 2, and the horizontal plane where its upper surface is located is at a position slightly lower than the middle of each fixture body 3. Thus, each ceramic carrier plate is vertically and parallelly placed in the corresponding placement groove, and it is ensured that the partitions 4 and the rotating plate 2 do not affect the hanging and taking actions of the ceramic carrier plate.

[0029] Each fixture body 3 of the present utility model is a vertically and longitudinally arranged hollow cuboid structure, and both its left and right sides are open; several horizontally and longitudinally arranged support plates 6 are also sequentially and spacedly arranged from top to bottom inside each fixture body 3. After the vertical position of each support plate 6 is adjusted respectively, both ends of it are screwed and fixed to the inner side wall of the corresponding fixture body 3 through flange plates 7; as Figures 1 - 3 shown in the figure, each flange plate 7 is vertically and horizontally arranged, and the front and rear end surfaces of each support plate 6 are perpendicularly and fixedly connected to the middle positions of the inner side surfaces of the corresponding flange plates 7 respectively; on each flange plate 7, locking bolts I 8 are also horizontally and longitudinally symmetrically arranged respectively on the upper and lower sides of the corresponding support plate 6, and each support plate 6 is screwed and fixed to the corresponding fixture body 3 through the locking bolts I 8; on the front and rear outer side surfaces of each fixture body 3, waist-shaped holes I 5 matching the locking bolts I 8 are vertically and perpendicularly embedded and opened respectively at positions corresponding to the locking bolts I 8, and each waist-shaped hole I 5 perpendicularly penetrates the corresponding inner side wall of the corresponding fixture body 3. After the vertical position of the support plate 6 is adjusted through the cooperation of the locking bolts I 8 and the waist-shaped holes I 5, the locking nut I 9 is then tightly screwed to the corresponding locking bolt I 8, so as to position the corresponding support plate 6.

[0030] On the left and right sides of each support plate 6 of the present utility model, several T-shaped plates 10 are also sequentially and spacedly arranged along its length direction, as Figures 1 - 3As shown in the figure, both ends of the bottom edge of each T-shaped plate 10 are arranged vertically. A square ceramic carrier plate placement area is formed between the bottom edge of the adjacent T-shaped plates 10 and the corresponding end faces of the corresponding support plates 6. After the middle edges of each T-shaped plate 10 are respectively slidably inserted into and then screwed and fixed to the corresponding end faces of the corresponding support plates 6 in the left-right direction, the distance between the bottom edge of the T-shaped plate 10 and the corresponding end face of the corresponding support plate 6 is adjusted.

[0031] As Figures 1 - 3 shown in the figure, a waist-shaped hole II matching the locking bolt II 11 is vertically and penetratingly formed in the middle position of the upper surface of the middle edge of each T-shaped plate 10 along its length direction. A sliding groove I matching the middle edge of the T-shaped plate 10 is vertically formed in the left and right end faces of each support plate 6 relative to the position of each T-shaped plate 10. The two sliding grooves I on the same support plate 6 do not contact each other. A through hole matching the locking bolt II 11 is vertically formed in the upper surface of each support plate 6 near its end face. Each through hole extends vertically downward through the corresponding sliding groove I to the lower surface of the corresponding support plate 6. After the middle edges of each T-shaped plate 10 slide left and right in the corresponding sliding grooves I to adapt to the thickness of ceramic carrier plates of different specifications, the threaded end of the locking bolt II 11 extends out of the corresponding support plate 6 in sequence from the upper through hole, the sliding groove I, and the lower through hole, and then is tightly screwed and fixed with the locking nut II 12, so as to position the corresponding T-shaped plate 10.

[0032] In the utility model, fixing plates 13 are horizontally and longitudinally fixed in the middle positions of the inner bottom surface and the inner top surface of each fixture body 3 respectively. The length of each fixing plate 13 is the same as the length of each support plate 6. A plurality of L-shaped plates 14 are sequentially arranged at intervals along the length direction on the left and right sides of each fixing plate 13. The setting positions of each L-shaped plate 14 correspond to the setting positions of each T-shaped plate 10, and their vertical sides are vertically upward. A waist-shaped hole III matching the locking bolt III 15 is vertically and penetratingly formed in the middle position of the upper surface of the horizontal edge of each L-shaped plate 14 along its length direction. A sliding groove II matching the horizontal edge of the L-shaped plate 14 is vertically formed in the left and right end faces of each fixing plate 13 relative to the position of each L-shaped plate 14. The two sliding grooves II on the same fixing plate 13 do not contact each other. A threaded hole matching the locking bolt III 15 is vertically formed in the upper surface of each fixing plate 13 near its end face. Each threaded hole extends vertically downward through the corresponding sliding groove II and the corresponding fixing plate 13 to the inner bottom surface of the corresponding fixture body 3. After the horizontal edges of each L-shaped plate 14 slide left and right in the corresponding sliding grooves II to adapt to the thickness of ceramic carrier plates of different specifications, the threaded end of the locking bolt III 15 extends vertically downward from the upper threaded hole and the sliding groove II in sequence, and is screwed and fixed with the lower threaded hole, so as to position the corresponding L-shaped plate 14.

[0033] As Figures 1 - 3 shown, vertical alignment limit plates 18 are respectively provided on the peripheral sides of the rotating plate 2. The lower half of each limit plate 18 is respectively screwed and fixed to the corresponding side of the rotating plate 2, and their upper ends respectively extend vertically upward to the middle positions of each hanger body 3 without affecting the screwed fixation of the flange plate 7. Thus, the hanger body 3 is protected against tipping by the limit plates 18.

[0034] As Figures 1 - 3 shown, hanging rings 17 are vertically symmetrically provided at the four right-angle corners of the upper surface of each hanger body 3, and the corresponding hanger body 3 is lifted and suspended through the hanging rings 17.

[0035] The base 1 of the present utility model is a horizontally arranged hollow cuboid structure, and hydraulic cylinders 19 are vertically symmetrically provided at the four right-angle corners of its inner bottom surface. As Figures 1 - 3 shown, the actions of the four hydraulic cylinders 19 are synchronous, and the piston rods of each hydraulic cylinder 19 respectively extend vertically downward out of the lower surface of the base 1 and are respectively connected to the corresponding universal wheels 20; fixed columns 21 are vertically symmetrically provided at the four right-angle corners of the lower surface of the base 1, and each fixed column 21 is arranged within the square area surrounded by the four universal wheels 20; among them, when in the upper limit position, the lower end surfaces of each universal wheel 20 are all located above the horizontal plane where the lower ends of the corresponding fixed columns 21 are located. Driven by the hydraulic cylinders 19, the present utility model switches between the moving state and the hanging and picking state through the cooperation of the universal wheels 20 and the fixed columns 21.

[0036] The rotating assembly of the present utility model is arranged without interference with the four hydraulic cylinders 19, and the rotating assembly includes side plates 22, gear shafts 23, main bevel gears 24, driven bevel gears 25 and motors 26; as Figures 1 - 3 shown, a gear shaft 23 is vertically provided at the middle position inside the base 1. The lower end of the gear shaft 23 is rotatably connected to the inner bottom surface of the base 1, and its upper end extends vertically upward out of the upper surface of the base 1 and is coaxially fixedly connected to the middle position of the lower surface of the rotating plate 2; a driven bevel gear 25 is horizontally coaxially sleeved and fixedly provided on the gear shaft 23 relative to the inside of the base 1, and the driven bevel gear 25 is arranged without interference with the base 1; a side plate 22 matching it is vertically longitudinally provided on one side of the driven bevel gear 25 inside the base 1, and a motor 26 is horizontally transversely provided between the driven bevel gear 25 and the side plate 22 inside the base 1. The fixed end of the motor 26 is screwed and fixed to the corresponding side of the side plate 22, and its output end is horizontally arranged towards the driven bevel gear 25 and is meshed and connected to the driven bevel gear 25 through the main bevel gear 24. Driven by the motor 26, the present utility model rotates the gear shaft 23 around its own axis through the meshing cooperation of the main bevel gear 24 and the driven bevel gear disk, and drives the rotating plate 2 to rotate horizontally.

[0037] As Figures 1 - 3 shown, several circles of roller sets 16 abutting against the lower surface of the rotating plate 2 are further connected and provided on the upper surface of the base 1. The several circles of roller sets 16 are coaxially arranged with the rotating plate 2 and are respectively arranged without interference with the gear shaft 23. Each roller set 16 is conical, and its end close to the gear shaft 23 is the small end, and the other end is the large end, so as to adapt to the smaller linear velocity close to the gear shaft 23 when the rotating plate 2 rotates.

[0038] The working principle of the present utility model:

[0039] First, with the assistance of manpower, the base 1 is moved to the position of the ceramic carrier plate to be electroplated through the universal wheels 20. Then, the telescopic end of the hydraulic cylinder 19 retracts, driving the universal wheels 20 to lift, so that the fixed column 21 contacts the ground to ensure the stability of the hanging state.

[0040] Then, the limiting plate 18 is removed, and the vertical position of each support plate 6 is initially adjusted according to the height of the ceramic carrier plates of different specifications, so that the distance between two adjacent T-shaped plates 10 and the distance between the T-shaped plate 10 and the corresponding L-shaped plate 14 are slightly larger than the height of the ceramic carrier plate, and they are tightly screwed through the cooperation of the locking bolt I 8 and the locking nut I 9. Then, according to the width of the ceramic carrier plates of different specifications, several L-shaped plates 14 and T-shaped plates 10 can be appropriately pulled out to avoid the L-shaped plates 14 and T-shaped plates 10 on the same ceramic carrier plate being too dense, and it is only necessary to ensure that the remaining L-shaped plates 14 and T-shaped plates 10 can stably support the ceramic carrier plate. Then, the left and right positions of the T-shaped plate 10 are adjusted according to the thickness of the ceramic carrier plates of different specifications, and they are tightly screwed through the cooperation of the locking bolt II 11 and the locking nut II 12. At the same time, the left and right positions of the L-shaped plate 14 are adjusted and screwed and fixed through the locking bolt III 15.

[0041] Then, the ceramic carrier plates are respectively vertically clamped and placed between two T-shaped plates 10 or between the T-shaped plate 10 and the corresponding L-shaped plate 14, and the angle is adjusted through the rotating assembly, and the above actions are repeated. Then, the vertical position of the connecting plate is adjusted again to ensure that the corresponding ceramic carrier plates are respectively clamped and fixed by the two T-shaped plates 10 and the T-shaped plate 10 and the corresponding L-shaped plate 14. Then, the limiting plate 18 is screwed and fixed to the rotating plate 2, and then, with the assistance of manpower, the structure is moved to the electroplating place through the universal wheels 20, and the hanging tool body 3 can be lifted and suspended on the machine through the hanging ring 17, and then the electroplating operation can be carried out.

[0042] The beneficial effects of the present utility model:

[0043] (1) By the combined use of the T-shaped plate 10 and the L-shaped plate 14 in the present utility model, there is no need to clamp and fix the edge of the ceramic carrier plate by means of a fixture, reducing the risk of damage to the ceramic carrier plate.

[0044] (2) By the cooperative use of the support plate 6, the flange plate 7, the locking bolt I 8, the locking nut I 9 and the waist-shaped hole I 5, the present utility model facilitates adjusting the distance between the two T-shaped plates 10 and between the T-shaped plate 10 and the corresponding L-shaped plate 14 according to the height of ceramic carrier plates of different specifications, has a wide application range, and improves the space utilization rate;

[0045] (3) The horizontal installation positions of the T-shaped plate 10 and the L-shaped plate 14 of the present utility model are both adjustable, and are fixed by screwing after adjustment, so as to facilitate adapting to the thickness of ceramic carrier plates of different specifications and have a wide application range;

[0046] (4) By providing a rotating assembly, the present utility model can adjust the angle to facilitate the hanging and taking of ceramic carrier plates, thereby improving the work efficiency;

[0047] (5) By screwing and providing a limiting plate 18, the present utility model can protect the hanging tool body 3 from tipping over during the movement of the base 1;

[0048] (6) By the cooperative use of the hydraulic cylinder 19, the universal wheels 20 and the fixed column 21, the present utility model facilitates the switching between the moving state and the hanging and taking state, thereby ensuring the working stability in the hanging and taking state; at the same time, it can uniformly move the ceramic carrier plate to the electroplating place after the ceramic carrier plate is hung and taken, reducing the risk of damage to the ceramic carrier plate.

[0049] The above-described embodiments are only described as the preferred embodiments of the present utility model, and do not limit the concept and scope of the present utility model. Without departing from the design concept of the present utility model, various modifications and improvements made by ordinary engineering and technical personnel in the field to the technical solution of the present utility model shall fall within the protection scope of the present utility model. The technical content claimed by the present utility model has been fully recorded in the claims.

Claims

1. A plating rack structure for a ceramic carrier, characterized in that: The swivel plate is a hollow rectangular parallelepiped structure that matches the hanger body, and its upper surface is open, so that the lower halves of several hanger bodies that are arranged vertically and parallel to each other at intervals on the left and right are aligned and connected to the swivel plate; each hanger body is a hollow rectangular parallelepiped structure that is arranged vertically and longitudinally, and its left and right sides are open; inside each hanger body, several horizontal and longitudinal support plates are arranged in sequence from top to bottom. Plate, each of the support plates is adjusted in the vertical direction, and its two ends are respectively screwed and fixed with the inner wall of the corresponding hanger body through the flange plate; a number of T-shaped plates are arranged in sequence along the length direction on the left and right sides of each of the support plates, and the two ends of the bottom edge of each of the T-shaped plates are arranged up and down, and a square ceramic carrier placement area is formed between the bottom edges of adjacent T-shaped plates and the corresponding end faces of the corresponding support plates; the middle edges of each of the T-shaped plates are respectively slidably plugged with the corresponding end faces of the corresponding support plates in the left and right directions, and then screwed and fixed, so as to adjust the distance between the bottom edge of the T-shaped plate and the corresponding end faces of the corresponding support plates.

2. The electroplating rack structure for a ceramic carrier according to claim 1, characterized in that: Partitions are also horizontally and parallelly arranged on the inner bottom surface of the rotating plate relative to each adjacent two hanger bodies, each of the partitions matches the interior of the rotating plate, and its lower surface and two end surfaces are respectively fixedly connected to the inner bottom surface and the corresponding inner side surface of the rotating plate, so that the interior of the rotating plate is sequentially divided into a plurality of parallel placement grooves through the partitions; the height of each partition is consistent with the height of the rotating plate, and the horizontal plane where the upper surface is located is located in the middle and lower position of each of the hanger bodies, so that each ceramic carrier is placed vertically and parallelly in the corresponding placement groove, and it is ensured that the partition and the rotating plate have no influence on the hanging and taking action of the ceramic carrier.

3. The electroplating rack structure for a ceramic carrier according to claim 1, characterized in that: It also includes a locking bolt I and a locking nut I; each of the flange plates is vertically and horizontally arranged, and the front and rear end surfaces of each support plate are respectively vertically fixedly connected to the middle position of the inner side surface of the corresponding flange plate; on each of the flange plates, locking bolts I are also horizontally and longitudinally symmetrically arranged on the upper and lower sides relative to the corresponding support plate, and each support plate is screwed and fixed to the corresponding hanger body through the locking bolts I; on the front and rear outer sides of each of the hanger bodies, waist-shaped holes I that match the locking bolts I are vertically embedded in the vertical direction relative to the position of the locking bolts I, and each of the waist-shaped holes I vertically penetrates the corresponding inner side wall of the corresponding hanger body, and after the support plate is adjusted in the vertical direction by the cooperation of the locking bolts I and the waist-shaped holes I, the locking nut I is screwed and fastened to the corresponding locking bolt I, thereby positioning the corresponding support plate.

4. The electroplating rack structure for a ceramic carrier according to claim 1, characterized in that: It also includes a locking bolt II and a locking nut II; a waist-shaped hole II is vertically embedded and penetrated along the length direction of the middle position of the upper surface of the middle edge of each T-shaped plate, and a sliding groove I is vertically embedded and opened to match the middle edge of the T-shaped plate on the left and right end surfaces of each support plate relative to each T-shaped plate; the two sliding grooves I on the same support plate do not contact each other, and a through hole matching the locking bolt II is vertically embedded in the upper surface of each support plate near its end surface, and each through hole extends vertically downward through the corresponding sliding groove I to the lower surface of the corresponding support plate, and the middle edge of each T-shaped plate slides left and right in the corresponding sliding groove I to adapt to the thickness of ceramic carriers of different specifications, and then the threaded end of the locking bolt II is extended from the upper through hole, the sliding groove I and the lower through hole in turn to the corresponding support plate, and then is screwed and fastened with the locking nut II, thereby positioning the corresponding T-shaped plate.

5. The electroplating rack structure for a ceramic carrier according to claim 1, characterized in that: It also includes a fixing plate, an L-shaped plate and a locking bolt III; a fixing plate is respectively fixed horizontally and longitudinally at the middle position of the inner bottom surface and the inner top surface of each of the hanger bodies, and the length of each of the fixing plates is consistent with the length of each of the support plates; a plurality of L-shaped plates are sequentially spaced along the length direction on the left and right sides of each of the fixing plates, and the setting position of each of the L-shaped plates corresponds to the setting position of each of the T-shaped plates, and the vertical edges thereof are all arranged vertically upward; a waist-shaped hole III matching the locking bolt III is vertically embedded and penetrated in the middle position of the upper surface of the horizontal edge of each of the L-shaped plates along the length direction, and the left and right end surfaces of each of the fixing plates relative to the position of each L-shaped plate are also A sliding groove II is vertically embedded and opened to match the horizontal edge of the L-shaped plate; the two sliding grooves II on the same fixed plate do not contact each other, and a threaded hole matching the locking bolt III is vertically embedded and opened on the upper surface of each fixed plate near its end surface. Each of the threaded holes extends vertically downward through the corresponding sliding groove II and the corresponding fixed plate to the inner bottom surface of the corresponding hanger body, and the horizontal edge of each L-shaped plate slides left and right in the corresponding sliding groove II to adapt to the thickness of ceramic carriers of different specifications, and then the threaded end of the locking bolt III is vertically downward from the upper threaded hole and the sliding groove II in turn, and is screwed and fixed to the lower threaded hole, thereby positioning the corresponding L-shaped plate.

6. The electroplating rack structure for a ceramic carrier according to claim 1, characterized in that: Limiting plates are vertically aligned on the four sides of the rotating plate, and the lower half of each limiting plate is screwed and fixed to the corresponding side of the rotating plate, and the upper ends thereof extend vertically upward to the middle position of each hanger body, and have no effect on the screwing fixation of the flange plates, thereby protecting the hanger body from tipping over through the limiting plates.

7. The electroplating rack structure for a ceramic carrier according to claim 1, characterized in that: Hanging rings are vertically symmetrically arranged at four right angles on the upper surface of each of the hanger bodies, and the corresponding hanger body is lifted and suspended through the hanging rings.

8. The electroplating rack structure for a ceramic carrier according to claim 1, characterized in that: It also includes a hydraulic cylinder, a universal wheel and a fixed column; the base is a horizontally arranged hollow rectangular structure, and hydraulic cylinders are vertically symmetrically arranged at the four right angles of its inner bottom surface, the four hydraulic cylinders move synchronously, and the piston rod of each hydraulic cylinder extends vertically downward from the lower surface of the base, and is respectively connected to the corresponding universal wheel; fixed columns are vertically symmetrically arranged at the four right angles of the lower surface of the base, and each of the fixed columns is arranged in a square area surrounded by the four universal wheels; when in the upper limit position, the lower end surface of each universal wheel is arranged above the horizontal plane where the lower end of the corresponding fixed column is located, and under the drive of the hydraulic cylinder, the mobile state and the hanging state are switched through the cooperation of the universal wheel and the fixed column.

9. The electroplating rack structure for ceramic carrier according to claim 8, characterized in that: The rotating assembly is arranged without interfering with the four hydraulic cylinders, and the rotating assembly includes a side plate, a gear shaft, a main bevel gear, a slave bevel gear and a motor; a gear shaft is also vertically arranged at the middle position of the inner part of the base, and the lower end of the gear shaft is rotatably connected with the inner bottom surface of the base, and the upper end thereof vertically extends upward from the upper surface of the base, and is coaxially fixedly connected with the middle position of the lower surface of the rotating plate; a slave bevel gear is also horizontally and coaxially sleeved and fixedly arranged on the gear shaft relative to the inner part of the base, and the slave bevel gear and the base are arranged without interfering with each other; a side plate matching it is also vertically and longitudinally arranged inside the base relative to one side of the slave bevel gear, and a motor is also horizontally and transversely arranged inside the base relative to the slave bevel gear and the side plate, the fixed end of the motor is screwed and fixed to the corresponding side of the side plate, and the output end thereof is horizontally arranged in the direction of the slave bevel gear, and is meshed and connected with the slave bevel gear through the main bevel gear, and then, under the drive of the motor, through the meshing cooperation of the main bevel gear and the slave bevel gear disc, the gear shaft rotates around its own axis and drives the rotating plate to rotate horizontally.

10. The electroplating rack structure for ceramic carrier according to claim 9, characterized in that: It also includes a roller group; a plurality of circles of roller groups abutting against the lower surface of the rotating plate are connected to the upper surface of the base, and the plurality of circles of roller groups are coaxially arranged with the rotating plate and are respectively arranged without interfering with the gear shaft; each of the roller groups is conical, and one end close to the gear shaft is a small end, and the other end is a large end, so as to adapt to the smaller linear velocity close to the gear shaft when the rotating plate rotates.

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