Ceramic thin tape quantitative cutting device

Abstract

The application provides a ceramic thin strip quantitative cutting equipment and relates to the technical field of cutting equipment.The ceramic thin strip quantitative cutting equipment comprises a box assembly, a fine adjustment assembly is installed on the back of the box assembly, a fine adjustment disc is installed on the fine adjustment assembly, a frame assembly is installed at the fine adjustment assembly, and a diamond wire is wound on the frame assembly.The ceramic thin strip quantitative cutting equipment has the advantages that the device adopts a wire cutting mode of the diamond wire, liquid medium is added in the box assembly, the cutting efficiency of the ceramic thin strip is increased, the medium stabilizes the cutting of the ceramic thin strip, the stable clamping and conveying of the ceramic thin strip are realized by a conveying assembly, the frame assembly can swing at an angle to facilitate the cutting of the ceramic thin strip, the position of the frame assembly can be fine adjusted by the fine adjustment assembly, the accuracy during cutting is increased, cracks or breakage are not easily generated during cutting, the device can flexibly and quantitatively cut ceramic thin strips with different thicknesses and widths, and the device can meet the problem of high-precision machining.

Description

Technical Field

[0001] This invention relates to the field of cutting equipment technology, and in particular to a quantitative cutting device for ceramic strips. Background Technology

[0002] Ceramic tapes are made using high-temperature co-fired ceramics, an advanced ceramic material technology. It involves mixing ceramic powder with metal to form a green ceramic tape, which is then sintered at high temperatures to densify both the ceramic and metal, creating a multi-layered ceramic-metal composite structure. Primarily used in motherboards, HTCC products include multilayer ceramic substrates, ceramic packaging shells, UV LED brackets, VCSEL brackets, various heating elements, and thermal bridges, used in microwave device packaging, semiconductor packaging, and other packaging fields. HTCC ceramic substrates have high sintering temperatures, allowing for integrated sintering with metal materials such as Kovar alloys to create HTCC packaging shells, significantly saving wiring space. Similarly, due to the high structural strength, high thermal conductivity, good chemical stability, and high wiring density of HTCC, it is widely used in heat-generating and packaging fields with higher requirements for thermal stability, lower high-temperature volatile gas emissions, and higher sealing requirements. The manufacturing process requires cutting the produced ceramic tape.

[0003] However, precise and efficient quantitative cutting has always been a technical challenge in its production and processing. Traditional cutting equipment often suffers from problems such as low cutting precision, inability to accurately control the cutting length, low cutting efficiency, and easy damage to ceramic strips. For example:

[0004] Due to the brittleness of ceramic strips, they are prone to cracking or breaking during the cutting process, which affects product quality.

[0005] For ceramic strips of different thicknesses and widths, existing equipment is unable 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 quantitative cutting equipment for ceramic strips to solve the above problems. Summary of the Invention

[0007] This disclosure relates to a quantitative cutting device for ceramic strips. First, the device uses diamond wire cutting. At the same time, a liquid medium is added to the box assembly to help increase the cutting efficiency of the diamond wire on the ceramic strip. The medium also stabilizes the ceramic strip at the cutting point. The conveying assembly realizes stable clamping and conveying of the ceramic strip. The frame assembly can swing at an angle to facilitate the cutting of the ceramic strip. The fine-tuning assembly can realize fine-tuning of the position of the frame assembly to increase the accuracy during cutting.

[0008] In a first aspect, this disclosure provides a quantitative cutting device for ceramic thin strips, specifically comprising: a housing assembly; a fine-tuning component mounted on the back of the housing assembly, a fine-tuning disk mounted on the fine-tuning component, a frame assembly mounted at the fine-tuning component, a back plate of the fine-tuning component located on the back of the housing assembly, a horizontal bearing block mounted on the top of the back plate, a reinforcing rib mounted between the bearing block and the back plate, an adjusting block rotatably mounted on the bearing block near the frame assembly, the adjusting block being screwed onto the screw of the frame assembly, the outer wall of the adjusting block being configured as gear teeth, and the bearing block being internally positioned... A drive shaft is rotatably mounted on the outer end of the adjusting block. The drive shaft meshes with the adjusting block. The outer end of the drive shaft is a hexagonal prism structure. A bevel gear is slidably mounted on the hexagonal prism of the drive shaft. The top of the bevel gear is connected to the fine-tuning disc. Two sets of grooves are provided on the hexagonal prism of the drive shaft. A positioning plate is slidably mounted on the position of the drive shaft at the outer end of the bearing block. The positioning plate engages with the groove of the drive shaft. Diamond wire is wound on the frame assembly. A cleaning component is installed on the frame assembly near the diamond wire. Conveying components are installed on the left and right sides inside the box assembly. Ceramic belts are installed on the conveying components.

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

[0010] In at least some embodiments, top cover plates are hinged to the top two ends of the main housing. The top cover plates of the main housing are provided with slots, which correspond to the conveying assembly and the frame assembly. Guide openings are provided at both the left and right ends of the main housing. The guide openings are designed to be concave and correspond to the middle position of the conveying assembly. The outer ends of the guide openings are all designed to be corner-shaped.

[0011] In at least some embodiments, the side frame of the conveying assembly is configured as a frame structure, with a bottom support frame connected to the bottom of the side frame and an upper support frame provided at the top of the bottom support frame. The upper support frame is also configured to be slidably mounted on the side frame, and springs are added to the mounting positions of the upper support frame and the side frame.

[0012] In at least some embodiments, the bottom support frame and the upper support frame are triangular in shape facing the center, and a conveyor belt is wound around the outer ends of both the bottom support frame and the upper support frame. The outer wall of the conveyor belt is provided with protrusions, and the protrusions of the conveyor belt are made of soft rubber material.

[0013] In at least some embodiments, a connecting block is hinged to the end of the extension rod of the frame assembly, the connecting block is fixed to the cleaning assembly, and the cleaning assembly is slidably mounted on the support frame of the frame assembly, the support frame being configured as a C-shaped frame structure.

[0014] In at least some embodiments, guide wheels are rotatably mounted on the support frame, and diamond wire is wound on the guide wheels. The guide wheels at the top of the support frame are arranged in an inclined configuration.

[0015] In at least some embodiments, the sliding plate of the cleaning component is slidably mounted on the frame component, the root of the sliding plate is provided with a thickened structure, a snap-fit ​​plate is hinged to the root of the sliding plate, and a snap-fit ​​bracket is added to the snap-fit ​​plate corresponding to the sliding plate.

[0016] In at least some embodiments, both the sliding plate and the snap-fit ​​plate are provided with vertical reference tubes, which correspond to the diamond wire, and a cleaning brush is provided on the inner wall of the reference tube.

[0017] This invention provides a quantitative cutting device for ceramic strips, which has the following beneficial effects:

[0018] In this invention, the ceramic strip is directly introduced into the housing assembly from the outside. The conveying component inside the housing assembly can stably clamp the ceramic strip, thereby achieving stable conveying of the ceramic strip. At the same time, the conveying component at the ceramic strip cutting position is set in a triangular shape to increase stability when cutting the ceramic strip. The housing assembly is set to carry the cutting medium. The cutting process with the medium will increase the stability of the ceramic strip cutting position under the action of the medium. The frame assembly can swing and adjust the angle, making the frame assembly more stable when cutting the ceramic strip. When the diamond wire on the frame assembly is running, it will carry out a part of the cutting medium. A cleaning component is installed near the diamond wire on the frame assembly to block the medium at the diamond wire. The frame assembly is installed at the fine-tuning component. The fine-tuning component and the frame assembly are driven by the thread formed by the adjusting block. At the same time, a drive shaft is set at the outer end of the adjusting block, which increases the deceleration effect of the large and small wheel axles of the adjusting block from the outside of the device, resulting in a more precise transmission effect of the fine-tuning component to the frame assembly.

[0019] In addition, a discharge port is set at the bottom front of the main housing to facilitate the discharge of horn used for auxiliary cutting. At the same time, in order to allow the cutting medium to flow better toward the discharge port, the bottom of the main housing is set to be inclined, with the inclined bottom of the main housing facing the discharge port, so that the housing assembly can discharge the medium more quickly. The top cover of the main housing is set to be symmetrically hinged, allowing the top cover to swing open from both ends. At the same time, slots are set on the top cover to ensure that the slots of the top cover correspond to the conveying assembly, so that the top cover will not affect the conveying assembly when opening and closing. In addition, the slot in the middle of the top cover ensures that the top cover will not affect the frame assembly when it is closed.

[0020] In addition, a bottom support frame is set at the bottom of the side frame, and an upper support frame is slidably installed on the side frame above the bottom support frame. A spring is added to the installation position of the upper support frame to ensure that the upper support frame can stably cooperate with the bottom support frame to clamp the ceramic strip, which facilitates the stable conveying of the ceramic strip by the subsequent conveying components. The conveyor belt is directly wound on both the bottom support frame and the upper support frame to clamp the ceramic strip and achieve stable conveying of the ceramic strip. Both the upper support frame and the bottom support frame are set in a triangular shape, so that the ceramic strip can be easily cut near the middle. Because the conveyor belt is designed to cooperate with the upper support frame to clamp and convey the ceramic strip, the outer wall of the conveyor belt is set with a protrusion. The protrusion of the conveyor belt is made of a soft material, so that the conveyor belt can stably clamp and convey the ceramic strip through the protrusion without causing compression damage to the ceramic strip.

[0021] Furthermore, the back plate is firstly located on the back of the housing assembly, and a horizontal support block is installed on the top of the back plate. This allows the frame assembly to be mounted on the support block, facilitating subsequent adjustments to the frame assembly at the fine-tuning component. Reinforcing ribs are added to the back plate of the support block to enhance its stability. The adjustment block of the back plate is screwed onto the studs of the frame assembly, and its outer wall has a toothed structure to increase friction. This allows the adjustment block to be turned from the outside, controlling the studs of the frame assembly. When fine-tuning is needed, the transmission... The positioning plate at the groove of the drive shaft slides apart, allowing the drive shaft to be pushed into the bearing block, so that the end of the drive shaft meshes with the adjusting block. At this time, the hexagonal bevel gear of the drive shaft can drive the fine-tuning disk, thereby directly controlling the rotation of the fine-tuning disk. This achieves the control of the drive shaft through the bevel gear and the drive shaft, so that the drive shaft and the adjusting block form a deceleration effect, and the fine-tuning disk can fine-tune the frame assembly through the fine-tuning component. When directly using the adjusting block for control, the positioning plate is slid to make the drive shaft slide outward, separating the drive shaft from the adjusting block. At this time, the adjusting block can perform a free-drawing function on the frame assembly independently.

[0022] In addition, a connecting block is first hinged to the end of the extension rod, and then the connecting block is fixed to the cleaning component. The cleaning component is then slidably mounted on the support frame. This allows the connecting block at the end of the extension rod to be adjusted by swinging, which in turn allows the support frame to swing at an adjustable angle. This makes the subsequent cutting of the ceramic strip more stable. Since the support frame needs to swing at a certain angle, the diamond wire at the guide wheel needs to be kept away from the diamond wire. Therefore, the guide wheel at the top of the support frame is arranged at an angle, so that when the support frame is adjusted to an angle, the top guide wheel will not be too close, which facilitates the cutting of the ceramic strip by the diamond wire.

[0023] Furthermore, the sliding mounting area of ​​the sliding plate is made into a thickened structure, allowing the sliding plate to slide more stably on the frame assembly. This also facilitates stable sliding adjustment of the cleaning component's position. A hinged snap-fit ​​plate is connected to the sliding plate, and a snap-fit ​​bracket is added to the corresponding sliding plate, enabling the sliding plate and snap-fit ​​plate to form a stable snap-fit ​​closure through the snap-fit ​​bracket. A reference cylinder is directly placed on the sliding plate and the snap-fit ​​plate, and the reference cylinder is set into a semi-cylindrical shape, allowing the reference cylinder to stably correspond to the diamond wire. The reference cylinder is wrapped around the diamond wire, and the cleaning brush of the reference cylinder can block and clean the diamond wire it passes through, preventing the diamond wire from carrying the cutting medium out. Attached Figure Description

[0024] To more clearly illustrate the technical solutions of the embodiments of the present invention, the accompanying drawings of the embodiments will be briefly described below.

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

[0026] In the attached diagram:

[0027] Figure 1 A schematic diagram of the overall structure of this application is shown;

[0028] Figure 2 A schematic diagram of the housing assembly structure of this application is shown;

[0029] Figure 3 A schematic diagram of the cross-sectional structure of the main body of this application is shown;

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

[0031] Figure 5 A schematic diagram of the conveying component structure of this application is shown;

[0032] Figure 6 A schematic diagram of the drive shaft and positioning plate structure of this application is shown;

[0033] Figure 7 A schematic diagram of the framework component structure of this application is shown;

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

[0035] List of reference numerals

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

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

[0038] 3. Fine-tuning component; 301. Back plate; 302. Bearing block; 303. Adjusting block; 304. Drive shaft; 305. Positioning plate;

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

[0040] 5. Cleaning components; 501. Sliding plate; 502. Snap-fit ​​plate; 503. Snap-fit ​​bracket; 504. Reference cylinder; 505. Cleaning brush;

[0041] 6. Ceramic strip;

[0042] 7. Diamond wire;

[0043] 8. Fine-tuning disc. Detailed Implementation

[0044] To make the objectives, technical solutions, and advantages of the embodiments of the present invention clearer, the technical solutions of the embodiments of the present invention will be clearly and completely described below with reference to the accompanying drawings. Obviously, the described embodiments are only some, not all, of the embodiments of the present invention. Based on the described embodiments of the present invention, all other embodiments obtained by those skilled in the art without creative effort are within the scope of protection of the present invention.

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

[0046] This invention proposes a quantitative cutting device for ceramic thin strips, comprising: a housing assembly 1; a fine-tuning assembly 3 mounted on the back of the housing assembly 1, a fine-tuning disk 8 mounted on the fine-tuning assembly 3, a frame assembly 4 mounted on the fine-tuning assembly 3, a back plate 301 of the fine-tuning assembly 3 positioned on the back of the housing assembly 1, and a horizontal support block 302 mounted on the top of the back plate 301, with reinforcing ribs between the support block 302 and the back plate 301. The back plate 301 is positioned on the back of the housing assembly 1, and the horizontal support block 302 is mounted on the top of the back plate 301, allowing the frame assembly 4 to be mounted on the support block 302 of the back plate 301, facilitating subsequent adjustment of the frame assembly 4 at the fine-tuning assembly 3. A reinforcing rib is added to the back plate 301 to make the bearing block 302 on the back plate 301 more stable. An adjusting block 303 is rotatably installed on the bearing block 302 near the frame assembly 4. The adjusting block 303 is screwed onto the screw of the frame assembly 4. The outer wall of the adjusting block 303 is set with gear teeth. The adjusting block 303 on the back plate 301 is set to be screwed onto the stud of the frame assembly 4. At the same time, the outer wall of the adjusting block 303 is set with gear teeth, so that the external friction of the adjusting block 303 can be increased, so that the adjusting block 303 can be turned from the outside to control the stud of the frame assembly 4. A drive shaft 304 is rotatably installed inside the bearing block 302 at the outer end of the adjusting block 303. The drive shaft 304 meshes with the adjusting block 303. The outer end of the drive shaft 304 is a hexagonal prism structure. A bevel gear is slidably mounted on the hexagonal prism of the drive shaft 304. The top of the bevel gear is connected to the fine-tuning disk 8. Two sets of grooves are provided on the hexagonal prism of the drive shaft 304. A positioning plate 305 is slidably mounted on the outer end of the bearing block 302 at the position of the drive shaft 304. The positioning plate 305 engages with the groove of the drive shaft 304. When fine-tuning is required, the positioning plate 305 at the groove of the drive shaft 304 is slidably separated, allowing the drive shaft 304 to push into the bearing block 302, so that the end of the drive shaft 304 meshes with the adjusting block 303. At this time, the hexagonal prism bevel gear of the drive shaft 304 can drive the fine-tuning disk 8. This allows direct control of the rotation of the fine-tuning disk 8, achieving control via bevel gear and drive shaft 304. The drive shaft 304 and adjusting block 303 then create a speed reduction effect, enabling the fine-tuning disk 8 to fine-tune the frame assembly 4 through the fine-tuning component 3. When directly controlling with the adjusting block 303, the positioning plate 305 is slid to allow the drive shaft 304 to slide outward, separating the drive shaft 304 from the adjusting block 303. This allows the adjusting block 303 to independently perform a free-drawing function on the frame assembly 4. Diamond wire 7 is wound around the frame assembly 4, and a cleaning component 5 is installed near the diamond wire 7 on the frame assembly 4. Conveying components 2 are installed on the left and right sides inside the housing assembly 1, and ceramic belts 6 are installed at the conveying components 2.

[0047] In this embodiment of the disclosure, such as Figure 2As shown, the main body 101 of the box assembly 1 is configured as a box-shaped structure. A discharge port 103 is provided at the bottom center near the front end of the main body 101. The ground of the main body 101 is configured as an inclined structure, with the inclined structure of the main body 101 facing the position of the discharge port 103. The discharge port 103 is set at the bottom front end of the main body 101 to facilitate the discharge of horn used for auxiliary cutting. At the same time, in order to allow the cutting medium to flow better toward the discharge port 103, the bottom of the main body 101 is configured as an inclined shape, with the inclined bottom of the main body 101 facing the direction of the discharge port 103, making it faster for the entire box assembly 1 to discharge the medium.

[0048] In this embodiment of the disclosure, such as Figure 3 As shown, top cover plates 102 are hinged to both ends of the top of the main housing 101. The top cover plates 102 of the main housing 101 have slots that correspond to the conveying assembly 2 and the frame assembly 4. By symmetrically hinged, the top cover plates 102 can swing open from both ends. The slots on the top cover plates 102 ensure that they correspond to the conveying assembly 2, preventing the top cover plates 102 from affecting the conveying assembly 2 during opening and closing. Furthermore, the slot in the middle of the top cover plates 102 allows the top cover plates 102 to close smoothly when closed. 102 will not affect the frame component 4. Guide ports 104 are provided at both ends of the main box 101. The guide ports 104 are set with a concave structure and correspond to the middle position of the conveying component 2. The outer ends of the guide ports 104 are all set with chamfers. By setting guide ports 104 at both ends of the main box 101, the guide ports 104 with a concave structure correspond better to the conveying component 2. The chamfers on the outside of the guide ports 104 make it easier to introduce the ceramic belt 6. The guide ports 104 of the box component 1 help to guide the ceramic belt 6 to the position of the conveying component 2 for stable conveying.

[0049] In this embodiment of the disclosure, such as Figure 5 As shown, the side frame 201 of the conveying assembly 2 is configured as a frame structure. A bottom support frame 202 is connected to the bottom of the side frame 201, and an upper support frame 203 is provided at the upper end of the bottom support frame 202. The upper support frame 203 is also configured to slide on the side frame 201. Springs are added to the mounting positions of the upper support frame 203 and the side frame 201. The bottom support frame 202 is set at the bottom of the side frame 201, and the upper support frame 203 is slidably mounted on the side frame 201 at the upper end of the bottom support frame 202. The springs added to the mounting positions of the upper support frame 203 enable the upper support frame 203 to stably cooperate with the bottom support frame 202 to clamp the ceramic belt 6, which facilitates the stable conveying of the ceramic belt 6 by the subsequent conveying assembly 2.

[0050] In this embodiment of the disclosure, such as Figure 3 As shown, the bottom support frame 202 and the upper support frame 203 are triangular in shape facing the center. A conveyor belt 204 is wound around the outer ends of both the bottom support frame 202 and the upper support frame 203. By directly winding the conveyor belt 204 around both the bottom support frame 202 and the upper support frame 203, the conveyor belt 204 clamps the ceramic belt 6, achieving stable conveying of the ceramic belt 6. The triangular shape of both the upper support frame 203 and the bottom support frame 202 facilitates cutting of the ceramic belt 6 near the center. The outer wall of the conveyor belt 204 has protrusions made of soft rubber. Because the conveyor belt 204 is designed to work with the upper support frame 203 to clamp and convey the ceramic belt 6, the outer wall of the conveyor belt 204 has protrusions. The soft material of the protrusions allows the conveyor belt 204 to stably clamp and convey the ceramic belt 6 without causing compression damage.

[0051] In this embodiment of the disclosure, such as Figure 5 As shown, a connecting block 402 is hinged to the end of the extension rod 401 of the frame assembly 4. The connecting block 402 is fixed to the cleaning assembly 5, and the cleaning assembly 5 is slidably mounted on the support frame 403 of the frame assembly 4. The support frame 403 is configured as a C-shaped frame. First, the connecting block 402 is hinged to the end of the extension rod 401, and then the connecting block 402 is fixed to the cleaning assembly 5. The cleaning assembly 5 is then slidably mounted on the support frame 403. At this time, the connecting block 402 at the end of the extension rod 401 can be swung and adjusted, so that the support frame 403 can swing and adjust the angle, which makes the subsequent cutting of the ceramic strip 6 more stable.

[0052] In this embodiment of the disclosure, such as 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 with an inclined arrangement. Because the support frame 403 needs to swing at a certain angle, it is necessary to prevent the diamond wire 7 at the guide wheel 404 from getting too close. Therefore, the guide wheel 404 at the top of the support frame 403 is set with an inclined arrangement so that when the support frame 403 is adjusted to an inclined state, the top guide wheel 404 will not get too close, which facilitates the cutting of the ceramic strip 6 by the diamond wire 7.

[0053] In this embodiment of the disclosure, such as Figure 5As shown, the sliding plate 501 of the cleaning component 5 is slidably mounted on the frame component 4. The root of the sliding plate 501 is designed with a thickened structure, and a snap-fit ​​plate 502 is hinged to the root of the sliding plate 501. A snap-fit ​​bracket 503 is added to the snap-fit ​​plate 502 corresponding to the sliding plate 501. The sliding mounting part of the sliding plate 501 is designed with a thickened structure, so that the sliding plate 501 can be slidably mounted on the frame component 4 more stably, and it is also convenient to adjust the position of the cleaning component 5 stably. The snap-fit ​​plate 502 is hinged to the sliding plate 501, and the snap-fit ​​bracket 503 is added to the corresponding part of the sliding plate 501, so that the sliding plate 501 and the snap-fit ​​plate 502 can form a stable snap-fit ​​closure through the snap-fit ​​bracket 503.

[0054] In this embodiment of the disclosure, such as Figure 8 As shown, both the sliding plate 501 and the snap-fit ​​plate 502 are provided with vertical reference cylinders 504, which correspond to the diamond wire 7. A cleaning brush 505 is provided on the inner wall of the reference cylinder 504. The reference cylinders 504 are directly placed on the sliding plate 501 and the snap-fit ​​plate 502. The reference cylinders 504 of the sliding plate 501 and the snap-fit ​​plate 502 are set in a semi-cylindrical shape to make the reference cylinders 504 stably correspond to the diamond wire 7. The reference cylinders 504 are wrapped around the diamond wire 7. The cleaning brush 505 of the reference cylinders 504 can block and clean the diamond wire 7 that passes through, preventing the diamond wire 7 from carrying the cutting medium out.

[0055] The working principle of this embodiment is as follows: When in use, the ceramic belt 6 is introduced into the housing assembly 1, and the conveying assembly 2 clamps the ceramic belt 6 to achieve stable conveying of the ceramic belt 6. After the ceramic belt 6 is conveyed to the designated position by the conveying assembly 2, the two sets of conveying assemblies on the left and right can stably clamp the ceramic belt 6. At this time, the frame assembly 4 installed at the fine adjustment assembly 3 is adjusted. After rotating the fine adjustment disk 8, the frame assembly 4 is adjusted to a precise position, so that the diamond wire 7 at the frame assembly 4 is more accurately aligned 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 tilts the diamond wire 7. The cleaning assembly 5 at the frame assembly 4 is observed and inspected, and the cleaning assembly 5 is stably placed on the diamond wire 7. At this time, the top cover plate 102 at the top of the housing assembly 1 is covered and blocked. Then, the diamond wire 7 of the frame assembly 4 is run, and the external liquid medium is sprayed onto the diamond wire 7, so that the housing assembly 1 is submerged in the position of the ceramic belt 6. The diamond wire 7, together with the cutting medium, cuts the ceramic belt 6 precisely in an inclined manner.

[0056] After the ceramic strip 6 is cut, the conveying components 2, which are close to each other, can facilitate the simultaneous conveying of the ceramic strip 6 after it is cut. After all the ceramic strips 6 are cut, the discharge port 103 at the bottom of the box assembly 1 can discharge the used cutting medium.

[0057] The following points should be noted in this article:

[0058] 1. The accompanying drawings of the embodiments disclosed herein only relate to the structures involved in the embodiments disclosed herein; other structures can be referred to in general design.

[0059] 2. Where there is no conflict, the embodiments of this disclosure and the features in the embodiments can be combined with each other to obtain new embodiments.

[0060] The above are merely specific embodiments of this disclosure, but the scope of protection of this disclosure is not limited thereto. Any variations or substitutions that can be easily conceived by those skilled in the art within the scope of the technology disclosed in this disclosure should be included within the scope of protection of this disclosure. Therefore, the scope of protection of this disclosure should be determined by the scope of the claims.

Claims

1. A quantitative cutting device for ceramic thin strips, comprising: 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), the back plate (301) of the fine-tuning assembly (3) is located on the back of the box assembly (1), a horizontal bearing block (302) is added to the top of the back plate (301), a reinforcing rib is added between the bearing block (302) and the back plate (301), an adjusting block (303) is rotatably installed on the bearing block (302) near the frame assembly (4), the adjusting block (303) is screwed onto the screw of the frame assembly (4), the outer wall of the adjusting block (303) is set as gear teeth, and the bearing block (302) is rotatably installed at the outer end of the adjusting block (303). There is a drive shaft (304), which meshes with the adjusting block (303). The outer end of the drive shaft (304) is set as a hexagonal prism structure. A bevel gear is slidably installed at the hexagonal prism of the drive shaft (304). The top of the bevel gear is connected to the fine adjustment disk (8). Two sets of grooves are provided on the hexagonal prism of the drive shaft (304). A positioning plate (305) is slidably installed at the position of the drive shaft (304) at the outer end of the bearing block (302). The positioning plate (305) is engaged with the groove of the drive shaft (304). 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 on the left and right sides inside the box assembly (1). A ceramic belt (6) is installed on the conveying assembly (2).

2. The ceramic strip quantitative cutting device according to claim 1, characterized in that, The main body (101) of the box assembly (1) is configured as a box-shaped structure. A discharge port (103) is provided at the bottom center of the main body (101) near the front end. The ground of the main body (101) is configured as an inclined structure, with the inclined structure of the main body (101) facing the discharge port (103).

3. The ceramic strip quantitative cutting device according to claim 2, characterized in that, The top two ends of the main housing (101) are hinged to a top cover plate (102). The top cover plate (102) of the main housing (101) has a slot. The slot of the top cover plate (102) corresponds to the conveying component (2) and the frame component (4). The left and right ends of the main housing (101) are provided with guide openings (104). The guide openings (104) are set with a concave structure. The guide openings (104) correspond to the middle position of the conveying component (2). The outer ends of the guide openings (104) are all set to corners.

4. The ceramic 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 structure. A bottom support frame (202) is connected to the bottom of the side frame (201). An upper support frame (203) is provided at the upper end of the bottom support frame (202). The upper support frame (203) is also configured to be slidably mounted on the side frame (201). Springs are added to the mounting positions of the upper support frame (203) and the side frame (201).

5. A quantitative cutting device for ceramic strips according to claim 4, characterized in that, The bottom support frame (202) and the upper support frame (203) are triangular in shape facing the middle. The outer ends of the bottom support frame (202) and the upper support frame (203) are both wrapped with a conveyor belt (204). The outer wall of the conveyor belt (204) is provided with protrusions, and the protrusions of the conveyor belt (204) are made of soft rubber material.

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

7. The ceramic strip quantitative cutting device according to claim 6, characterized in that, The support frame (403) is rotatably mounted with guide wheels (404), and diamond wire (7) is wound on the guide wheels (404). The guide wheels (404) at the top of the support frame (403) are arranged in an inclined manner.

8. The ceramic strip quantitative cutting device according to claim 1, characterized in that, The sliding plate (501) of the cleaning component (5) is slidably mounted on the frame component (4). The root of the sliding plate (501) is provided with a thickened structure. A snap-fit ​​plate (502) is hinged to the root of the sliding plate (501). A snap-fit ​​bracket (503) is added to the snap-fit ​​plate (502) corresponding to the sliding plate (501).

9. A quantitative cutting device for ceramic strips according to claim 8, characterized in that, Both the sliding plate (501) and the snap-fit ​​plate (502) are provided with vertical reference tubes (504), which correspond to the diamond wire (7). A cleaning brush (505) is provided on the inner wall of the reference tube (504).

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