Ceramic ribbon quantitative cutting equipment

Abstract

The invention provides quantitative cutting equipment for ceramic thin strips, and relates to the technical field of cutting equipment. A fine adjustment assembly is installed on the back face of the box assembly, a fine adjustment disc is installed on the fine adjustment assembly, a frame assembly is installed at the position of the fine adjustment assembly, and a diamond wire is wound on the frame assembly. The medium stabilizes the cutting position of the ceramic tape at the same time, the conveying assembly stably clamps and conveys the ceramic tape, the frame assembly can swing by an angle to facilitate cutting of the ceramic tape, the fine adjustment assembly can finely adjust the position of the frame assembly, and the precise effect during cutting is improved. The problems that cracks or breakage are likely to be generated in the cutting process, flexible quantitative cutting of ceramic thin strips with different thicknesses and widths is difficult to achieve through equipment, and high-precision machining cannot be met are solved.

Description

Technical Field

[0001] The invention relates to the technical field of cutting equipment, and in particular to a ceramic thin strip quantitative cutting equipment. Background Art

[0002] Ceramic strips are made of high-temperature co-fired ceramics, which are an advanced ceramic material technology. It is made by mixing ceramic powder with metal to form a raw ceramic strip, which is generally sintered at high temperature to densify the ceramic and metal at the same time, forming a multi-layer ceramic-metal composite structure, which is also mainly used in host circuit boards. High-temperature co-fired ceramic products mainly include ceramic multi-layer substrates, ceramic packaging tube shells, UVLED brackets, VCSEL brackets, various types of heating plates, heat dissipation bridges, etc., which are used in multiple packaging fields such as microwave device packaging and semiconductor packaging. The HTCC ceramic substrate has a high sintering temperature and can be integrated with metal materials such as Kovar alloy to form an HTCC packaging shell, which greatly saves wiring space. Similarly, due to the advantages of high structural strength, high thermal conductivity, good chemical stability and high wiring density, high-temperature co-fired ceramic HTCC has been widely used in the fields of heating and packaging with higher thermal stability requirements, lower high-temperature volatile gas requirements and higher sealing requirements. The prepared ceramic strip needs to be cut during preparation.

[0003] However, accurate and efficient quantitative cutting has always been a technical challenge in its production and processing. Traditional cutting equipment often has problems such as low cutting accuracy, inability to accurately control cutting length, low cutting efficiency, and easy damage to ceramic ribbons, such as:

[0004] Due to the brittleness of ceramic ribbons, cracks or breakages are easily generated during the cutting process, affecting product quality;

[0005] For ceramic strips of different thicknesses and widths, existing equipment is difficult to achieve flexible and accurate quantitative cutting, and cannot meet the growing demand for high-precision processing;

[0006] Therefore, it is necessary to develop a new type of ceramic thin strip quantitative cutting equipment to solve the above problems. Summary of the invention

[0007] The disclosed embodiment relates to a quantitative cutting device for ceramic thin strips. First, the device adopts a wire cutting method of diamond wire, and at the same time, a liquid medium is added into the box assembly to assist in increasing the cutting efficiency of the diamond wire on the ceramic strip. The medium also stabilizes the cutting part of the ceramic strip. The conveying assembly realizes stable clamping and conveying of the ceramic strip. The frame assembly can swing at an angle to facilitate cutting of the ceramic strip. The fine-tuning assembly can realize fine-tuning of the position of the frame assembly to increase the precision of cutting.

[0008] In a first aspect of the present disclosure, a ceramic thin strip quantitative cutting device is provided, which specifically includes: a box assembly; a fine-tuning assembly is installed on the back of the box assembly, a fine-tuning disk is installed on the fine-tuning assembly, a frame assembly is installed at the fine-tuning assembly, a back plate of the fine-tuning assembly is arranged at the back of the box assembly, a horizontal bearing block is installed at the top of the back plate, a reinforcing rib is installed between the bearing block and the back plate, an adjusting block is installed on the bearing block for rotation in the direction close to the frame assembly, the adjusting block is screwed on the screw of the frame assembly, the outer wall of the adjusting block is arranged as a gear tooth, and a reinforcing rib is arranged inside the bearing block. A transmission shaft is rotatably installed on the outer end of the adjusting block, and the transmission shaft and the adjusting block are meshed with each other. The outer end part of the transmission shaft is arranged to be a hexagonal column structure, and a bevel gear is slidably installed at the hexagonal column of the transmission shaft, and the top of the bevel gear is connected to the fine-tuning disk. Two sets of grooves are arranged on the hexagonal column of the transmission shaft, and a positioning plate is slidably installed at the position of the transmission shaft at the outer end of the bearing block, and the positioning plate is correspondingly engaged with the groove of the transmission shaft, a diamond wire is wound on the frame assembly, and a cleaning assembly is installed on the frame assembly near the diamond wire, and a conveying assembly is installed at the left and right positions in the box assembly, and a ceramic belt is installed at the conveying assembly.

[0009] In at least some embodiments, the main box body of the box body assembly is configured as a box-shaped structure, a discharge port is configured in the middle of the bottom of the main box body near the front end, the ground of the main box body is configured as an inclined structure, and the inclined structure of the main box body faces the position of the discharge port.

[0010] In at least some embodiments, top shields are hingedly installed at both ends of the top of the main box body, and slots are set on the top shield of the main box body. The slots of the top shield correspond to the conveying assembly and the frame assembly, and guide openings are set at both ends of the left and right ends of the main box body. The guide openings are set as a concave structure, corresponding to the middle position of the conveying assembly, and the outer ends of the guide openings are set to an angle shape.

[0011] In at least some embodiments, the side frame of the conveying assembly is configured as a frame-like structure, a bottom supporting frame is connected to the bottom of the side frame, an upper supporting frame is provided at the upper end of the bottom supporting frame, and the upper supporting frame is configured to be slidably mounted on the side frame, and springs are installed at the mounting positions of the upper supporting frame and the side frame.

[0012] In at least some embodiments, the bottom supporting frame and the upper supporting frame are arranged in a triangular shape toward the middle, and the outer ends of the bottom supporting frame and the upper supporting frame are wrapped with conveyor belts, and protrusions are arranged on the outer walls of the conveyor belts, and the protrusions of the conveyor belts are made of soft rubber material.

[0013] In at least some embodiments, a connecting block is hingedly installed at the end position of the expansion rod of the frame assembly, and the connecting block is fixed on the cleaning assembly. The cleaning assembly is slidably installed on the support frame of the frame assembly, and the support frame is configured as a C-shaped frame structure.

[0014] In at least some embodiments, a guide wheel is rotatably mounted on the support frame, a diamond wire is wound around the guide wheel, and the guide wheel on the top of the support frame is arranged in an inclined structure.

[0015] In at least some embodiments, the sliding plate of the cleaning assembly is slidably installed on the frame assembly, the root position of the sliding plate is set as a thickened structure, the root of the sliding plate is hingedly installed with a snap-in plate, and a snap-in frame is installed on the snap-in plate corresponding to the sliding plate.

[0016] In at least some embodiments, the sliding plate and the clamping plate are both provided with vertical contrast tubes, the contrast tubes correspond to the diamond wires, and a cleaning brush is provided on the inner wall of the contrast tubes.

[0017] The present invention provides a ceramic thin strip quantitative cutting device, which has the following beneficial effects:

[0018] When used in the present invention, the ceramic tape is directly introduced into the box assembly from the outside, and the conveying assembly in the box assembly can stably clamp the ceramic tape, thereby realizing stable conveying of the ceramic tape by the conveying assembly. At the same time, the conveying assembly at the cutting position of the ceramic tape is set in a triangular shape to increase the stability when cutting the ceramic tape, and the box assembly is set to carry the medium used for cutting. The cutting process with the medium will increase the stability of the cutting position of the ceramic tape under the action of the medium during cutting, and the frame assembly can swing to adjust the angle, so that the frame assembly is more stable when cutting the ceramic tape. When the diamond wire on the frame assembly is running, it will bring out a part of the cutting anti-medium. A cleaning assembly is installed at a position of the frame assembly close to the diamond wire to block the medium at the diamond wire, and the frame assembly is installed at the fine-tuning assembly. The fine-tuning assembly and the frame assembly are transmitted through the thread formed by the adjusting block. At the same time, a transmission shaft is arranged at the outer end of the adjusting block, which increases the deceleration effect of the device on the large and small axles of the adjusting block from the outside, forming a more precise transmission effect of the fine-tuning assembly on the frame assembly.

[0019] In addition, a discharge port is set at the front end of the bottom of the main box body, so that the discharge port is convenient for discharging the keratin used for auxiliary cutting. At the same time, in order to allow the cut medium to flow better toward the discharge port, the bottom of the main box body is set to an inclined shape, and the inclined bottom of the main box body is set to face the direction of the discharge port, so that the box assembly as a whole can discharge the medium more quickly, and the top shield of the main box body is directly set to a symmetrical hinged installation, so that the top shield can be swung open from both ends, and a slot is set on the top shield to make the slot of the top shield correspond to the conveying assembly, so that the top shield will not affect the conveying assembly when opening and closing, and the slot in the middle of the top shield will not affect the frame assembly after the top shield is closed together.

[0020] In addition, a bottom bearing frame is set at the bottom of the side frame, and the upper bearing frame is slidably installed on the side frame at the upper end of the bottom bearing frame. A spring is installed at the installation position of the upper bearing frame to ensure that the upper bearing frame can stably cooperate with the bottom bearing frame to clamp the ceramic belt, which is convenient for subsequent conveying components to stably convey the ceramic belt. The conveyor belt is directly wrapped around the bottom bearing frame and the upper bearing frame to clamp the ceramic belt and stably convey the ceramic belt. The upper bearing frame and the bottom bearing frame are both set in a triangular shape, so that the position near the middle is convenient for cutting the ceramic belt. Because the conveyor belt is set to cooperate with the upper bearing frame to clamp and convey the ceramic belt, a protrusion is set on the outer wall of the conveyor belt, and the conveyor belt protrusion is made of soft material, so that the conveyor belt can stably clamp and convey the ceramic belt through the protrusion without causing squeezing damage to the ceramic belt.

[0021] In addition, first, the back plate is set on the back of the box assembly, and a horizontal bearing block is set on the top of the back plate, so that the bearing block of the back plate can install the frame assembly, which is convenient for the subsequent adjustment of the frame assembly at the fine-tuning assembly, and reinforcing ribs are installed at the back plate of the bearing block to make the bearing block on the back plate more stable. The adjustment block of the back plate is set to be screwed on the stud of the frame assembly, and the outer wall of the adjustment block is set to a gear structure, so that the friction outside the adjustment block can be increased, so that the adjustment block can be twisted from the outside to control the stud of the frame assembly. First, when fine-tuning is required, the transmission The positioning plate at the groove position of the moving shaft slides apart, allowing the transmission shaft to be pushed into the interior of the bearing block, so that the end of the transmission shaft meshes with the adjusting block. At this time, the hexagonal bevel gear of the transmission shaft can be transmitted to the fine-tuning disk, thereby directly controlling the rotation of the fine-tuning disk, and realizing control through the bevel gear and the transmission shaft, so that the transmission shaft and the adjusting block form a deceleration effect, and the fine-tuning effect of the fine-tuning disk on the frame assembly is realized through the fine-tuning assembly. When the adjusting block is used directly for control, the positioning plate is directly slid to allow the transmission shaft to slide to the outside, so that the transmission shaft is separated from the adjusting block. At this time, the adjusting block can perform a separate air drawing effect on the frame assembly.

[0022] In addition, first, a connecting block is hingedly installed at the end of the expansion rod, and the connecting block is fixed on the cleaning component. The cleaning component is set to be slidably installed on the support frame. At this time, the connecting block at the end of the expansion rod can be swung and adjusted, so that the support frame can form a swing angle adjustment function, which is convenient for the subsequent cutting of the ceramic belt to be more stable. Because the support frame needs to be swung at a certain angle for use, it is necessary to prevent the diamond wire at the guide wheel from getting close, so the guide wheel at the top of the support frame is set to an inclined arrangement, so that when the support frame is adjusted to a tilted state, the top guide wheel will still not be too close, which is convenient for the diamond wire to cut the ceramic belt.

[0023] In addition, the sliding installation part of the sliding plate is set as a thickened structure, so that the sliding plate can be slidably installed on the frame assembly more stably, and it is also convenient to stably slide and adjust the position of the cleaning assembly. The sliding plate is hinged with the clamping plate, and a clamping frame is installed at the clamping plate corresponding to the sliding plate, so that the sliding plate and the clamping plate form a stable clamping closure through the clamping frame, and a control cylinder is directly set on the sliding plate and the clamping plate, and the control cylinder of the sliding plate and the clamping plate is set to a semi-cylindrical shape, so that the control cylinder can stably correspond to the diamond wire, and the control cylinder can be wrapped around the outside of the diamond wire. The cleaning brush of the control cylinder can block and clean the passing diamond wire to prevent the diamond wire from driving the cutting medium to flow out. BRIEF DESCRIPTION OF THE DRAWINGS

[0024] In order to more clearly illustrate the technical solution of the embodiment of the present invention, the drawings of the embodiment are briefly introduced below.

[0025] The drawings described below are only related to some embodiments of the present invention, but are not intended to limit the present invention.

[0026] In the attached picture:

[0027] Figure 1 The overall structure diagram of the present application is shown;

[0028] Figure 2 A schematic diagram showing the structure of the box assembly of the present application is shown;

[0029] Figure 3 A schematic diagram showing the cross-sectional structure of the main box of the present application is shown;

[0030] Figure 4 A schematic diagram showing the structure of the fine-tuning component of the present application is shown;

[0031] Figure 5 A schematic diagram showing the structure of the conveying assembly of the present application is shown;

[0032] Figure 6 A schematic diagram showing the transmission shaft and positioning plate structure of the present application is shown;

[0033] Figure 7 A schematic diagram showing the structure of the frame assembly of the present application is shown;

[0034] Figure 8 A schematic diagram showing the structure of the cleaning component of the present application is shown;

[0035] Reference numerals list

[0036] 1. Box assembly; 101. Main box; 102. Top shield; 103. Discharge port; 104. Guide port;

[0037] 2. Conveying assembly; 201. Side frame; 202. Bottom bearing frame; 203. Upper bearing frame; 204. Conveying belt;

[0038] 3. Fine-tuning assembly; 301. back plate; 302. bearing block; 303. adjustment block; 304. transmission shaft; 305. positioning plate;

[0039] 4. Frame assembly; 401. Extension rod; 402. Connecting block; 403. Support frame; 404. Guide wheel;

[0040] 5. Cleaning assembly; 501. Sliding plate; 502. Snap-on plate; 503. Snap-on frame; 504. Control tube; 505. Cleaning brush;

[0041] 6. Ceramic belt;

[0042] 7. Diamond wire;

[0043] 8. Fine-tuning dial. DETAILED DESCRIPTION

[0044] In order to make the purpose, technical solution and advantages of the embodiment of the present invention clearer, the technical solution of the embodiment of the present invention will be clearly and completely described below in conjunction with the accompanying drawings of the embodiment of the present invention. Obviously, the described embodiment is a part of the embodiment of the present invention, not all of the embodiments. Based on the described embodiment of the present invention, all other embodiments obtained by ordinary technicians in this field without creative work are within the scope of protection of the present invention.

[0045] Example 1: Please refer to Figures 1 to 8 :

[0046] The present invention proposes a quantitative cutting device for ceramic thin strips, comprising: a box assembly 1; a fine-tuning assembly 3 is installed on the back of the box assembly 1, a fine-tuning disk 8 is installed on the fine-tuning assembly 3, a frame assembly 4 is installed at the fine-tuning assembly 3, a back plate 301 of the fine-tuning assembly 3 is arranged at the back of the box assembly 1, a horizontal bearing block 302 is installed at the top of the back plate 301, and a reinforcing rib is installed between the bearing block 302 and the back plate 301. First, the back plate 301 is arranged on the back of the box assembly 1, and a horizontal bearing block 302 is arranged on the top of the back plate 301, so that the bearing block 302 of the back plate 301 can be installed with the frame assembly 4, which is convenient for the subsequent adjustment of the frame assembly 4 at the fine-tuning assembly 3, and the bearing block 302 The back plate 301 is provided with reinforcing ribs to make the bearing block 302 on the back plate 301 more stable. The bearing block 302 is rotatably mounted with an adjusting block 303 in the direction close to the frame assembly 4. The adjusting block 303 is screwed on the screw of the frame assembly 4. The outer wall of the adjusting block 303 is arranged as a gear. The adjusting block 303 of the back plate 301 is arranged to be screwed on the stud of the frame assembly 4. At the same time, the outer wall of the adjusting block 303 is arranged as a gear structure, so that the friction force outside the adjusting block 303 can be increased, so that the adjusting block 303 can be twisted from the outside to control the stud of the frame assembly 4 by the adjusting block 303. A transmission shaft 304 is rotatably mounted inside the bearing block 302 at the outer end of the adjusting block 303. The transmission shaft 304 is meshed with the adjusting block 303, and the outer end part of the transmission shaft 304 is set to a hexagonal column structure. A bevel gear is slidably installed at the hexagonal column of the transmission shaft 304, and the top of the bevel gear is connected to the fine-tuning disk 8. Two sets of grooves are arranged on the hexagonal column of the transmission shaft 304, and a positioning plate 305 is slidably installed at the position of the transmission shaft 304 at the outer end of the bearing block 302. The positioning plate 305 corresponds to the groove of the transmission shaft 304. When fine-tuning is needed, the positioning plate 305 at the groove position of the transmission shaft 304 is slid and separated, so that the transmission shaft 304 is pushed into the inside of the bearing block 302, so that the end of the transmission shaft 304 is meshed with the adjusting block 303. At this time, the hexagonal column bevel gear of the transmission shaft 304 can be transmitted with the fine-tuning disk 8 , thereby directly controlling the rotation of the fine-tuning disk 8, realizing control through the bevel gear and the transmission shaft 304, allowing the transmission shaft 304 and the adjustment block 303 to form a deceleration effect, realizing the fine-tuning effect of the fine-tuning disk 8 on the frame assembly 4 through the fine-tuning component 3, and when the adjustment block 303 is directly used for control, the positioning plate 305 is directly slid to let the transmission shaft 304 slide to the outer end, so that the transmission shaft 304 and the adjustment block 303 are separated, and the adjustment block 303 can now perform a separate air drawing effect on the frame assembly 4, the frame assembly 4 is wound with a diamond wire 7, and a cleaning component 5 is installed on the frame assembly 4 near the diamond wire 7, and a conveying component 2 is installed at the left and right positions in the box assembly 1, and a ceramic belt 6 is installed at the conveying component 2.

[0047] In the present disclosure, Figure 2As shown, the main box body 101 of the box body assembly 1 is configured as a box-like structure, and a discharge port 103 is arranged in the middle of the bottom of the main box body 101 near the front end, and the ground of the main box body 101 is configured as an inclined structure, and the inclined structure of the main box body 101 is directed toward the position of the discharge port 103, and the discharge port 103 is arranged at the front end of the bottom of the main box body 101, so that the discharge port 103 is convenient for discharging the keratin used for auxiliary cutting, and at the same time, in order to allow the cut medium to flow better toward the discharge port 103, the bottom of the main box body 101 is configured as an inclined shape, and the inclined bottom of the main box body 101 is configured to be directed toward the discharge port 103, so that the box body assembly 1 as a whole can discharge the medium more quickly.

[0048] In the present disclosure, Figure 3 As shown, top shield plates 102 are hingedly installed at both ends of the top of the main box body 101, and slots are set on the top shield plate 102 of the main box body 101. The slots of the top shield plate 102 correspond to the conveying component 2 and the frame component 4. The top shield plate 102 of the main box body 101 is directly set to be symmetrically hinged, so that the top shield plate 102 can be swung open from both ends, and slots are set on the top shield plate 102 to make the slots of the top shield plate 102 correspond to the conveying component 2, so that the top shield plate 102 will not affect the conveying component 2 when opening and closing. At the same time, the slot in the middle of the top shield plate 102 allows the top shield plate 102 to be closed together, so that the top shield plate 102 can be opened. 102 will not affect the frame assembly 4. Guide openings 104 are provided at both ends of the left and right sides of the main box body 101. The guide openings 104 are set to a concave structure. The guide openings 104 correspond to the middle position of the conveying assembly 2. The outer ends of the guide openings 104 are set to an angle shape. The guide openings 104 are directly set at both ends of the main box body 101 to achieve the guide openings 104 set to a concave structure, which better corresponds to the conveying assembly 2, and makes the outer chamfer of the guide opening 104, so that the ceramic belt 6 can be more conveniently introduced, and the guide opening 104 of the box assembly 1 assists in introducing the ceramic belt 6 into the position of the conveying assembly 2 for stable transportation.

[0049] In the present disclosure, Figure 5 As shown, the side frame 201 of the conveying component 2 is configured as a frame-like structure, and a bottom supporting frame 202 is connected to the bottom position of the side frame 201, and an upper supporting frame 203 is arranged at the upper end of the bottom supporting frame 202. The upper supporting frame 203 is also configured to be slidably installed on the side frame 201, and springs are installed at the installation positions of the upper supporting frame 203 and the side frame 201. The bottom of the side frame 201 is set with a bottom supporting frame 202, and the upper supporting frame 203 is slidably installed on the side frame 201 at the upper end of the bottom supporting frame 202. A spring is installed at the installation position of the upper supporting frame 203, so that the upper supporting frame 203 can stably cooperate with the bottom supporting frame 202 to clamp the ceramic belt 6, so as to facilitate the subsequent conveying component 2 to stably convey the ceramic belt 6.

[0050] In the present disclosure, Figure 3 As shown, the bottom supporting frame 202 and the upper supporting frame 203 are arranged in a triangular shape toward the middle, and the outer ends of the bottom supporting frame 202 and the upper supporting frame 203 are both wrapped with a conveyor belt 204. The conveyor belt 204 is directly wrapped around the bottom supporting frame 202 and the upper supporting frame 203 to allow the conveyor belt 204 to clamp the ceramic belt 6 and to allow the conveyor belt 204 to stably transport the ceramic belt 6. The upper supporting frame 203 and the bottom supporting frame 202 are both arranged in a triangular shape to facilitate cutting of the ceramic belt 6 near the middle. A protrusion is arranged on the outer wall of the conveyor belt 204. The protrusion of the conveyor belt 204 is made of soft rubber material. Because the conveyor belt 204 is arranged to cooperate with the upper supporting frame 203 to clamp and transport the ceramic belt 6, a protrusion is arranged on the outer wall of the conveyor belt 204. The protrusion of the conveyor belt 204 is made of soft material, so that the conveyor belt 204 can stably clamp and transport the ceramic belt 6 through the protrusion without causing squeezing damage to the ceramic belt 6.

[0051] In the present disclosure, Figure 5 As shown, a connecting block 402 is hingedly installed at the end position of the expansion rod 401 of the frame assembly 4, and the connecting block 402 is fixed on the cleaning assembly 5. The cleaning assembly 5 is slidably installed on the support frame 403 of the frame assembly 4. The support frame 403 is arranged to have a C-shaped frame structure. First, the connecting block 402 is hingedly installed at the end of the expansion rod 401, and the connecting block 402 is fixed on the cleaning assembly 5. The cleaning assembly 5 is arranged to be slidably installed on the support frame 403. At this time, the connecting block 402 at the end of the expansion rod 401 can be swung and adjusted, so that the support frame 403 can form a swinging angle adjustment effect, which is convenient for the subsequent cutting of the ceramic belt 6 to be more stable.

[0052] In the present disclosure, Figure 7 As shown, a guide wheel 404 is rotatably mounted on the support frame 403, and a diamond wire 7 is wound on the guide wheel 404. The guide wheel 404 at the top of the support frame 403 is set to an inclined arrangement structure. Because the support frame 403 needs to be swung at a certain angle for use, it is necessary to prevent the diamond wire 7 at the guide wheel 404 from getting close. Therefore, the guide wheel 404 at the top position of the support frame 403 is set to an inclined arrangement, so that when the support frame 403 is adjusted to a tilted state, the top guide wheel 404 will still not get too close, which facilitates the cutting of the ceramic belt 6 by the diamond wire 7.

[0053] In the present disclosure, Figure 5As shown, the sliding plate 501 of the cleaning component 5 is slidably installed on the frame component 4, and the root position of the sliding plate 501 is set as a thickened structure. A snap-in plate 502 is hingedly installed at the root of the sliding plate 501, and a snap-in frame 503 is added to the snap-in plate 502 corresponding to the sliding plate 501. The sliding installation position of the sliding plate 501 is set as a thickened structure, so that the sliding plate 501 can be slidably installed on the frame component 4 more stably, and it is also convenient to stably slide and adjust the position of the cleaning component 5. The snap-in plate 502 is hinged at the sliding plate 501, and the snap-in frame 503 is added to the snap-in plate 502 corresponding to the sliding plate 501, so that the sliding plate 501 and the snap-in plate 502 form a stable snap-in closure through the snap-in frame 503.

[0054] In the present disclosure, Figure 8 As shown, a vertical control tube 504 is provided on the sliding plate 501 and the clamping plate 502. The control tube 504 corresponds to the diamond wire 7. A cleaning brush 505 is provided on the inner wall of the control tube 504. The control tube 504 is directly provided on the sliding plate 501 and the clamping plate 502, and the control tube 504 of the sliding plate 501 and the clamping plate 502 is set to a semi-cylindrical shape, so that the control tube 504 can stably correspond to the diamond wire 7, and the control tube 504 can be wrapped around the outside of the diamond wire 7. The cleaning brush 505 of the control tube 504 can block and clean the passing diamond wire 7 to prevent the diamond wire 7 from driving the cutting medium to flow out.

[0055] The working principle of this embodiment is as follows: when in use, the ceramic belt 6 is introduced into the box assembly 1, and the conveying assembly 2 clamps the ceramic belt 6 to realize the stable conveying of the ceramic belt 6 by the conveying assembly 2. At this time, after the ceramic belt 6 is conveyed to the specified position by the conveying assembly 2, the two groups of conveying assemblies 2 on the left and right can stably clamp the ceramic belt 6. At this time, the frame assembly 4 installed at the fine-tuning assembly 3 is adjusted. After rotating the fine-tuning disk 8, the precise position of the frame assembly 4 is adjusted, so that the diamond wire 7 at the frame assembly 4 can be more accurately compared with the ceramic belt 6. At the same time, the front end of the frame assembly 4 is swung so that the frame assembly 4 makes the diamond wire 7 in an inclined state, and the cleaning assembly 5 at the frame assembly 4 is observed and inspected, so that the cleaning assembly 5 is stably placed on the diamond wire 7. At this time, the top shield plate 102 on the top of the box assembly 1 is covered and shielded, and then the diamond wire 7 of the frame assembly 4 is allowed to run, and at the same time, the external liquid medium is sprayed onto the diamond wire 7, so that the position of the load in the box assembly 1 that submerges the ceramic belt 6 is allowed to be accurately cut by the diamond wire 7 in an inclined manner in cooperation with the cutting medium;

[0056] After the device has completed cutting the ceramic belt 6, the conveying components 2 that are close to each other can facilitate the simultaneous conveying of the ceramic belt 6 after cutting. After all the ceramic belts 6 have been cut, the discharge port 103 at the bottom of the box component 1 can discharge the used cutting medium.

[0057] In this article, there are a few points to note:

[0058] 1. The drawings of the embodiments of the present disclosure only involve structures related to the embodiments of the present disclosure, and other structures may refer to general designs.

[0059] 2. In the absence of conflict, the embodiments of the present disclosure and the features therein may be combined with each other to obtain new embodiments.

[0060] The above are only specific embodiments of the present disclosure, but the protection scope of the present disclosure is not limited thereto. Any technician familiar with the technical field can easily think of changes or substitutions within the technical scope disclosed in the present disclosure, which should be included in the protection scope of the present disclosure. Therefore, the protection scope of the present disclosure should be based on the protection scope of the claims.

Claims

1. A ceramic thin strip quantitative cutting device, comprising: A box assembly (1); a fine-tuning assembly (3) is installed on the back of the box assembly (1), characterized in that a fine-tuning disk (8) is installed on the fine-tuning assembly (3), a frame assembly (4) is installed at the fine-tuning assembly (3), a back plate (301) of the fine-tuning assembly (3) is arranged at the back of the box assembly (1), a horizontal bearing block (302) is installed at the top of the back plate (301), a reinforcing rib is installed between the bearing block (302) and the back plate (301), an adjusting block (303) is rotatably installed on the bearing block (302) in a direction close to the frame assembly (4), the adjusting block (303) is screwed on the screw of the frame assembly (4), the outer wall of the adjusting block (303) is arranged as a gear, and a bearing block (302) is rotatably installed at the outer end of the adjusting block (303). A transmission shaft (304) is provided, the transmission shaft (304) and the adjustment block (303) are meshed with each other, the outer end portion of the transmission shaft (304) is arranged as a hexagonal column structure, a bevel gear is slidably mounted at the hexagonal column of the transmission shaft (304), the top of the bevel gear is connected to the fine-tuning disk (8), two groups of grooves are arranged on the hexagonal column of the transmission shaft (304), a positioning plate (305) is slidably mounted at the position of the transmission shaft (304) at the outer end of the bearing block (302), the positioning plate (305) and the groove of the transmission shaft (304) are correspondingly engaged, a diamond wire (7) is wound on the frame assembly (4), a cleaning assembly (5) is installed on the frame assembly (4) near the diamond wire (7), a conveying assembly (2) is installed at the left and right positions in the box assembly (1), and a ceramic belt (6) is installed at the conveying assembly (2).

2. A ceramic thin strip quantitative cutting device according to claim 1, characterized in that: The main box body (101) of the box body assembly (1) is configured as a box-shaped structure, a discharge port (103) is configured in the middle of the bottom of the main box body (101) near the front end, the floor of the main box body (101) is configured as an inclined structure, and the inclined structure of the main box body (101) is oriented toward the discharge port (103).

3. A ceramic thin strip quantitative cutting device according to claim 2, characterized in that: Top shield plates (102) are hingedly mounted at both ends of the top of the main box body (101); the top shield plate (102) of the main box body (101) is provided with slots, the slots of the top shield plate (102) correspond to the conveying assembly (2) and the frame assembly (4); guide openings (104) are provided at both left and right ends of the main box body (101); the guide openings (104) are arranged as a concave structure, the guide openings (104) correspond to the middle position of the conveying assembly (2), and the outer ends of the guide openings (104) are arranged to be angled.

4. The ceramic thin strip quantitative cutting device according to claim 1, characterized in that: The side frame (201) of the conveying assembly (2) is configured as a frame-like structure, the bottom position of the side frame (201) is connected to a bottom bearing frame (202), the upper end of the bottom bearing frame (202) is provided with an upper bearing frame (203), the upper bearing frame (203) is configured to be slidably mounted on the side frame (201), and a spring is installed at the mounting position of the upper bearing frame (203) and the side frame (201).

5. The ceramic thin strip quantitative cutting device according to claim 4, characterized in that: The bottom supporting frame (202) and the upper supporting frame (203) are arranged in a triangular shape toward the middle, and the outer ends of the bottom supporting frame (202) and the upper supporting frame (203) are both wrapped with a conveyor belt (204), and a protrusion is arranged on the outer wall of the conveyor belt (204), and the protrusion of the conveyor belt (204) is made of soft rubber material.

6. The ceramic thin strip quantitative cutting device according to claim 1, characterized in that: A connecting block (402) is hingedly mounted at the end of the expansion rod (401) of the frame assembly (4), and the connecting block (402) is fixed on the cleaning assembly (5). The cleaning assembly (5) is slidably mounted on the support frame (403) of the frame assembly (4), and the support frame (403) is configured as a C-shaped frame structure.

7. The ceramic thin strip quantitative cutting device according to claim 6, characterized in that: A guide wheel (404) is rotatably mounted on the support frame (403), a diamond wire (7) is wound around the guide wheel (404), and the guide wheel (404) at the top of the support frame (403) is configured as an inclined arrangement structure.

8. The ceramic thin strip quantitative cutting device according to claim 1, characterized in that: The sliding plate (501) of the cleaning assembly (5) is slidably mounted on the frame assembly (4); the root of the sliding plate (501) is provided with a thickened structure; a clamping plate (502) is hingedly mounted on the root of the sliding plate (501); and a clamping frame (503) is mounted on the clamping plate (502) in correspondence with the sliding plate (501).

9. The ceramic thin strip quantitative cutting device according to claim 8, characterized in that: The sliding plate (501) and the clamping plate (502) are both provided with a vertical comparison tube (504), the comparison tube (504) and the diamond wire (7) correspond to each other, and a cleaning brush (505) is provided on the inner wall of the comparison tube (504).

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