Silicon guide ceramic tube inner diameter processing equipment

Abstract

The utility model discloses silicon guide ceramic tube inner diameter processing equipment which comprises a base, two supports are welded to the left side of the top of the base, a rotating cylinder is rotationally installed between the two supports, and a circle of pipeline storage cavity is formed in the position, close to the outer edge, of the side edge of the rotating cylinder. A feeding assembly used for feeding the silicon guide ceramic tube is installed on the front side of the top of the base and located on the right side of the rotating cylinder. According to the silicon guide ceramic pipe inner diameter treatment equipment, silicon guide ceramic pipes needing to be treated are guided by the feeding assembly and fall into a storage cavity of the pushing assembly one by one, and the silicon guide ceramic pipes on the pushing assembly are pushed into a pipeline storage cavity one by one through matched rotation of a rotating cylinder; and finally, the material spraying assembly uniformly sprays an acid solution to the inner wall surface of the silicon guide ceramic tube to corrode the inner wall surface into a frosted surface, and manual operation is replaced by an instrument, so that the working efficiency is effectively improved, and convenience and rapidness are realized.

Description

Technical Field

[0001] The utility model relates to the technical field of silicon conductive ceramic tube processing, in particular to a device for processing the inner diameter of a silicon conductive ceramic tube. Background Art

[0002] Silicon conductive ceramic tube is a ceramic tube material with thermal conductivity, usually a mixture of silicon and other ceramic elements. It has excellent high temperature stability and corrosion resistance, and is widely used in high temperature pipelines, grates, furnaces and other equipment in the industrial field. Because silicon conductive ceramic tube has good thermal conductivity and can effectively transfer heat, it is widely used in high temperature environments. At the same time, silicon conductive ceramic tube also has good mechanical properties and chemical stability, and can maintain stable performance under harsh working conditions.

[0003] Due to its use requirements, the inner diameter wall of the silicon conductive ceramic tube needs to be made into a frosted state. Currently, the inner wall of the silicon conductive ceramic tube is manually sprayed with an acid solution, and the inner wall is corroded by the pickling solution to form a frosted state. The manual workload is large and the work efficiency is low. Therefore, a silicon conductive ceramic tube inner diameter processing equipment is specially proposed. Utility Model Content

[0004] The utility model aims to provide a silicon conductive ceramic tube inner diameter processing device to solve the problems raised in the above background technology.

[0005] In order to achieve the above purpose, the utility model provides the following technical solutions:

[0006] A silicon conductive ceramic tube inner diameter processing device comprises: a base, two brackets are welded on the left side of the top of the base, and a rotating cylinder is rotatably installed between the two brackets, and a circle of pipe storage cavity is arranged at the outer edge of the side of the rotating cylinder;

[0007] A loading assembly for loading silicon-conductive ceramic tubes is installed on the front side of the top of the base and on the right side of the rotating cylinder, a pushing assembly for pushing materials is installed on the top of the base and on the rear side of the loading assembly, and the unloading end of the loading assembly is located at the storage end of the pushing assembly, a limiting assembly for limiting the silicon-conductive ceramic tube is installed on the top of the base and between the rotating cylinder and the pushing assembly, and a spraying assembly for spraying pickling solution on the silicon-conductive ceramic tube is installed on the top of the base and on the rear of the pushing assembly.

[0008] As a further solution of the utility model: the loading assembly includes a material rack welded to the top of the base through a vertical frame, and a material blocking structure A and a material blocking structure B arranged at the unloading end of the material rack, and two extended guide strips for guiding are welded at the unloading end of the material rack.

[0009] As a further solution of the utility model: the material blocking structure A includes an electric telescopic rod A installed on the top of the base, the movable end of the electric telescopic rod A is fixedly connected to a connecting block, a blocking bar is installed on the top of the connecting block, and the top angle of the blocking bar is a sharp end.

[0010] As a further solution of the utility model: the pushing assembly includes a pad welded on the top of the base and two vertical frames, two support rollers are installed between the opposite surfaces of the two vertical frames, a linear motor A is installed on the top of the pad, the movable end of the linear motor A is fixedly connected to a translation bar, and a push rod is welded on the left side of the translation bar.

[0011] As a further solution of the utility model: the material limiting assembly includes a support frame welded to the top of the base, and an electric telescopic rod B is installed on the slope surface of the support frame. The movable end of the electric telescopic rod B is fixedly connected to the limiting seat, and the bottom of the limiting seat is provided with an arc groove compatible with the silicon-conducting ceramic tube.

[0012] As a further solution of the utility model: the spray assembly includes a linear motor B installed on the top of the base, the movable end of the linear motor B is fixedly connected to a U-shaped translation seat, a support plate is welded to the left side of the top of the U-shaped translation seat, a nozzle is installed on one side of the support plate, and a nozzle is installed at the left outlet end of the nozzle, a support plate is installed on the right side of the top of the U-shaped translation seat, and the water outlet end of the support plate is connected to the right inlet end of the nozzle through a pipe, and the water inlet end of the support plate is connected to the outlet of the acid solution storage tank through a pipe.

[0013] As a further solution of the utility model: rotating cylinders are sleeved on both sides of the outer wall of the rotating cylinder, two driving motors are installed on the left side of the top of the base, and the driving end of the driving motor is installed with a transmission gear meshing with the annular rack.

[0014] Compared with the prior art, the beneficial effects of the utility model are:

[0015] The utility model guides the silicon-conductive ceramic tubes to be processed through the feeding component, and the tubes fall into the storage cavity of the pushing component one by one, and the silicon-conductive ceramic tubes on the pushing component are pushed into the interior of the pipeline storage cavity one by one through the coordinated rotation of the rotating cylinder, and finally the inner wall surface of the silicon-conductive ceramic tube is evenly sprayed with acid solution by the spraying component to corrode and present a frosted surface, and the operation is replaced by the instrument instead of manual work, which effectively improves the work efficiency and is convenient and quick. BRIEF DESCRIPTION OF THE DRAWINGS

[0016] Figure 1 It is a structural schematic diagram of a silicon conductive ceramic tube inner diameter processing device;

[0017] Figure 2It is a side view of a rotating drum in a silicon conductive ceramic tube inner diameter processing device;

[0018] Figure 3 It is a side cross-sectional view of a material rack in a silicon conductive ceramic tube inner diameter processing device;

[0019] Figure 4 It is a structural schematic diagram of a material pushing component in a silicon conductive ceramic tube inner diameter processing device;

[0020] Figure 5 It is a structural schematic diagram of a material limiting component in a silicon conductive ceramic tube inner diameter processing device;

[0021] Figure 6 The schematic diagram is a structural diagram of a spraying component in a silicon-conducting ceramic tube inner diameter processing device.

[0022] In the figure: 1. base; 2. spraying assembly; 21. linear motor B; 22. U-shaped translation seat; 23. water pump; 24. support plate; 25. nozzle; 3. pushing assembly; 31. cushion seat; 32. vertical frame; 33. support roller; 34. linear motor A; 35. translation bar; 36. push rod; 4. loading assembly; 41. material rack; 42. material blocking structure A; 43. material blocking structure B; 44. extension guide bar; 45. electric telescopic rod A; 46. connecting block; 47. blocking bar; 5. material limiting assembly; 51. support frame; 52. electric telescopic rod B; 53. limit seat; 6. rotating cylinder; 7. driving motor; 8. transmission gear; 9. ring rack; 10. bracket; 11. pipeline storage chamber. DETAILED DESCRIPTION

[0023] The following will be combined with the drawings in the embodiments of the utility model to clearly and completely describe the technical solutions in the embodiments of the utility model. Obviously, the described embodiments are only part of the embodiments of the utility model, not all of the embodiments. Based on the embodiments in the utility model, all other embodiments obtained by ordinary technicians in this field without creative work are within the scope of protection of the utility model.

[0024] See also Figures 1 to 6 The utility model proposes a technical solution, a silicon conductive ceramic tube inner diameter processing device, comprising: a base 1, two brackets 10 are welded on the left side of the top of the base 1, and a rotating cylinder 6 is rotatably installed between the two brackets 10, and a circle of pipe storage cavity 11 is arranged at the outer edge of the side of the rotating cylinder 6;

[0025] A loading assembly 4 for loading silicon-conductive ceramic tubes is installed on the front side of the top of the base 1 and on the right side of the rotating cylinder 6, a pushing assembly 3 for pushing materials is installed on the top of the base 1 and on the rear side of the loading assembly 4, and the unloading end of the loading assembly 4 is located at the storage end of the pushing assembly 3, a limiting assembly 5 for limiting the position of the silicon-conductive ceramic tube is installed on the top of the base 1 and between the rotating cylinder 6 and the pushing assembly 3, and a spraying assembly 2 for spraying pickling solution on the silicon-conductive ceramic tube is installed on the top of the base 1 and behind the pushing assembly 3.

[0026] The silicon-conductive ceramic tubes to be processed are guided by the loading component 4 and fall into the storage cavity of the pushing component 3 one by one. The rotating cylinder 6 rotates together to push the silicon-conductive ceramic tubes on the pushing component 3 into the interior of the pipeline storage cavity 11 one by one. Finally, the spraying component 2 evenly sprays the inner wall surface of the silicon-conductive ceramic tube with an acid solution to corrode it into a frosted surface. The operation is replaced by an instrument instead of manual operation, which effectively improves the work efficiency and is convenient and quick.

[0027] The loading assembly 4 includes a material rack 41 welded to the top of the base 1 through a vertical frame, and a material blocking structure A42 and a material blocking structure B43 arranged at the unloading end of the material rack 41. The material blocking structure A42 and the material blocking structure B43 are installed on the top of the base 1, and two extended guide strips 44 for guiding are welded at the unloading end of the material rack 41.

[0028] The material blocking structure A42 includes an electric telescopic rod A45 installed on the top of the base 1. The movable end of the electric telescopic rod A45 is fixedly connected to a connecting block 46. A blocking bar 47 is installed on the top of the connecting block 46, and the top corner of the blocking bar 47 is a sharp end.

[0029] The material blocking structure A42 blocks the silicon conductive ceramic tube from the unloading end of the material rack 41 to prevent it from falling;

[0030] Then the blocking structure B43 is extended, and the blocking strip 47 thereon separates two adjacent silicon-conductive ceramic tubes, so that the last silicon-conductive ceramic tube is located between the blocking structure A42 and the blocking structure B43. The blocking structure A42 is shortened so that the blocking strip 47 thereon contacts the last silicon-conductive ceramic tube, and the silicon-conductive ceramic tube rolls down from bottom to bottom, and is guided by the extended guide strip 44 to roll down between the two support rollers 33.

[0031] Then the blocking structure A42 is reset to continue to block the unloading end of the material rack 41, the blocking structure B43 is shortened to drive the blocking bar 47 thereon to descend, and then the silicon-conductive ceramic tube inside the material rack 41 continues to fall and is blocked by the material rack 41, and then the electric telescopic rod A45 is extended again, always maintaining only one silicon-conductive ceramic tube between the blocking structure A42 and the blocking structure B43. Through the setting of the loading component 4, one loading operation after another is realized, which is more convenient and quick.

[0032] The pushing assembly 3 includes a pad 31 welded to the top of the base 1 and two vertical frames 32. The vertical frames 32 are located on the front side of the pad 31. Two supporting rollers 33 are installed between the opposite surfaces of the two vertical frames 32, and the two supporting rollers 33 form a cavity for placing the silicon-conducting ceramic tube. A linear motor A34 is installed on the top of the pad 31. The movable end of the linear motor A34 is fixedly connected to a translation bar 35, and a push rod 36 is welded to the left side of the translation bar 35.

[0033] The material limiting component 5 includes a support frame 51 welded to the top of the base 1, and an electric telescopic rod B52 is installed on the slope surface of the support frame 51. The movable end of the electric telescopic rod B52 is fixedly connected to a limiting seat 53, and the bottom of the limiting seat 53 is provided with an arc groove compatible with the silicon-conducting ceramic tube.

[0034] The limiting process of the material limiting component 5 for the silicon conductive ceramic tube is as follows:

[0035] When the silicon-conductive ceramic tube moves into the pipe storage cavity 11, the limit seat 53 presses down the silicon-conductive ceramic tube to limit its position, ensuring that the silicon-conductive ceramic tube can accurately enter the pipe storage cavity 11. At the same time, the extension and retraction of the electric telescopic rod B52 can fine-tune the position of the limit seat 53.

[0036] The spray assembly 2 includes a linear motor B21 installed on the top of the base 1, and the movable end of the linear motor B21 is fixedly connected to a U-shaped translation seat 22. A support plate 24 is welded to the left side of the top of the U-shaped translation seat 22, a nozzle 25 is inserted and installed on one side of the support plate 24, and a nozzle is installed at the left outlet end of the nozzle 25. A support plate 24 is installed on the right side of the top of the U-shaped translation seat 22, and the water outlet end of the support plate 24 is connected to the right inlet end of the nozzle 25 through a pipeline, and the water inlet end of the support plate 24 is connected to the outlet of the acid solution storage tank through a pipeline.

[0037] The rotating cylinder 6 is sleeved on both sides of the outer wall of the rotating cylinder 6 , and two driving motors 7 are installed on the left side of the top of the base 1 . The driving end of the driving motor 7 is installed with a transmission gear 8 meshing with the annular rack 9 .

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

[0039] When in use, the silicon-conductive ceramic tube is placed inside the rack 41, and the rack 41 is tilted downward, so that the silicon-conductive ceramic tubes may roll downward and press one on another, and the blocking structure A42 blocks the silicon-conductive ceramic tubes from the unloading end of the rack 41 to prevent them from falling;

[0040] Then the blocking structure B43 is extended, and the blocking strip 47 thereon separates two adjacent silicon-conductive ceramic tubes, so that the last silicon-conductive ceramic tube is located between the blocking structure A42 and the blocking structure B43. The blocking structure A42 is shortened so that the blocking strip 47 thereon contacts the last silicon-conductive ceramic tube, and the silicon-conductive ceramic tube rolls down from bottom to bottom, and is guided by the extended guide strip 44 to roll down between the two support rollers 33.

[0041] The silicon-conductive ceramic tube falls between the two supporting rollers 33, and the linear motor A34 drives the translation bar 35 to move toward the direction of the rotating cylinder 6. The push rod 36 moves along with the translation bar 35. The translation bar 35 presses against one end of the silicon-conductive ceramic tube to move it toward the direction of the rotating cylinder 6. After being guided by the material limiting component 5, the silicon-conductive ceramic tube is pushed into the internal storage of the pipeline storage cavity 11. After being pushed in, the push rod 36 resets and waits for the next silicon-conductive ceramic tube to be pushed;

[0042] After the silicon-conductive ceramic tube enters the interior of the pipeline storage cavity 11, the driving motor 7 drives the transmission gear 8 to rotate, and under the meshing transmission action of the transmission gear 8 and the annular rack 9, the rotating cylinder 6 rotates, and the pipeline storage cavity 11 rotates one station, and then waits for the silicon-conductive ceramic tube to be pushed into the interior of the next pipeline storage cavity 11;

[0043] When the silicon-conductive ceramic tube is facing the outlet of the spray assembly 2, the linear motor B21 drives the U-shaped translation seat 22 to move toward the inside of the silicon-conductive ceramic tube. When the nozzle enters the inside of the silicon-conductive ceramic tube, the support plate 24 draws the acid solution from the acid solution tank and transports it to the inside of the nozzle 25, and sprays it through the nozzle at the outlet end of the nozzle 25 to the inner wall surface of the silicon-conductive ceramic tube, corroding the inner wall surface to form a frosted surface. The linear motor B21 drives the U-shaped translation seat 22 to move, so that the nozzle 25 moves along the inside of the silicon-conductive ceramic tube, and the inner wall surface of the silicon-conductive ceramic tube is fully sprayed with the acid solution. After the spraying is completed, the linear motor B21 drives the nozzle 25 to reset, and the treated silicon-conductive ceramic tube is taken out for unloading.

[0044] Although the present invention has been described in detail with reference to the aforementioned embodiments, those skilled in the art may still modify the technical solutions described in the aforementioned embodiments, or make equivalent substitutions for some of the technical features therein. Any modifications, equivalent substitutions, improvements, etc. made within the spirit and principles of the present invention shall be included in the protection scope of the present invention.

Claims

1. A silicon conductive ceramic tube inner diameter processing device, characterized in that: include: A base (1), wherein two brackets (10) are welded on the left side of the top of the base (1), and a rotating cylinder (6) is rotatably mounted between the two brackets (10), and a circle of pipe storage chambers (11) is provided at the outer edge of the side of the rotating cylinder (6); A loading assembly (4) for loading silicon-conductive ceramic tubes is installed at the front side of the top of the base (1) and located on the right side of the rotating cylinder (6); a pushing assembly (3) for pushing materials is installed at the top of the base (1) and located on the rear side of the loading assembly (4), and the discharge end of the loading assembly (4) is located at the storage end of the pushing assembly (3); a limiting assembly (5) for limiting the position of the silicon-conductive ceramic tubes is installed at the top of the base (1) and located between the rotating cylinder (6) and the pushing assembly (3); and a spraying assembly (2) for spraying pickling solution on the silicon-conductive ceramic tubes is installed at the top of the base (1) and located behind the pushing assembly (3).

2. The silicon conductive ceramic tube inner diameter processing equipment according to claim 1, characterized in that: The loading assembly (4) comprises a material rack (41) welded to the top of the base (1) via a vertical frame, and a material blocking structure A (42) and a material blocking structure B (43) arranged at the discharge end of the material rack (41), and two extended guide bars (44) for guiding are welded at the discharge end of the material rack (41).

3. The silicon conductive ceramic tube inner diameter processing equipment according to claim 2, characterized in that: The material blocking structure A (42) comprises an electric telescopic rod A (45) mounted on the top of the base (1); a movable end of the electric telescopic rod A (45) is fixedly connected to a connecting block (46); a blocking bar (47) is mounted on the top of the connecting block (46); and the top corner of the blocking bar (47) is a sharp end.

4. The silicon conductive ceramic tube inner diameter processing equipment according to claim 3 is characterized in that: The pusher assembly (3) comprises a cushion seat (31) and two vertical frames (32) welded to the top of the base (1); two support rollers (33) are installed between the opposite surfaces of the two vertical frames (32); a linear motor A (34) is installed on the top of the cushion seat (31); a movable end of the linear motor A (34) is fixedly connected to a translation bar (35); and a push rod (36) is welded to the left side of the translation bar (35).

5. The silicon conductive ceramic tube inner diameter processing equipment according to claim 4, characterized in that: The material limiting assembly (5) comprises a support frame (51) welded to the top of the base (1); an electric telescopic rod B (52) is mounted on the slope surface of the support frame (51); a movable end of the electric telescopic rod B (52) is fixedly connected to a limiting seat (53); and an arc groove adapted to the silicon conductive ceramic tube is provided at the bottom of the limiting seat (53).

6. The silicon conductive ceramic tube inner diameter processing equipment according to claim 5, characterized in that: The spray assembly (2) comprises a linear motor B (21) mounted on the top of the base (1); the movable end of the linear motor B (21) is fixedly connected to a U-shaped translation seat (22); a support plate (24) is welded to the left side of the top of the U-shaped translation seat (22); a nozzle (25) is inserted and installed on one side of the support plate (24); and a nozzle is installed at the left outlet end of the nozzle (25); a support plate (24) is installed on the right side of the top of the U-shaped translation seat (22); a water outlet end of the support plate (24) is connected to the right inlet end of the nozzle (25) through a pipeline; and a water inlet end of the support plate (24) is connected to the outlet of the acid solution storage tank through a pipeline.

7. The silicon conductive ceramic tube inner diameter processing equipment according to claim 6, characterized in that: The rotating cylinder (6) is sleeved on both sides of the outer wall of the rotating cylinder (6), and two driving motors (7) are installed on the left side of the top of the base (1). The driving end of the driving motor (7) is installed with a transmission gear (8) meshing with the annular rack (9).

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