Full-automatic thickness measuring two-shaft double-face grinding cavity mechanism

Abstract

The utility model relates to the technical field of grinding equipment, in particular to a full-automatic thickness-measuring two-shaft double-face grinding cavity mechanism which comprises an upper-layer isolating part and a lower-layer collecting basin, and the lower-layer collecting basin is arranged at the bottom of the upper-layer isolating part. A detection cavity, a first grinding cavity, a second grinding cavity and a cleaning cavity are formed in the upper-layer isolation part; a conveying channel penetrates through the detection cavity, the first grinding cavity, the second grinding cavity and the cleaning cavity; the thickness detection mechanism is contained in the detection cavity, the grinding mechanism is contained in the first grinding cavity and the second grinding cavity, and the cleaning mechanism is contained in the cleaning cavity. According to the utility model, the plurality of functional cavities are arranged in the upper-layer isolation part, so that the functional areas are independent and isolated. The integration level and functionality of the equipment are improved, the production cost is reduced, and the production efficiency is improved. The conveying channel penetrates through all the cavities, and the workpieces are continuously conveyed and positioned through the automatic conveying mechanism. And the lower-layer collecting basin is used for collecting grinding fluid and grinding wastes, so that the pollution to the environment is avoided.

Description

Technical Field

[0001] This utility model relates to the field of grinding equipment technology, and in particular to a fully automatic thickness measuring dual-axis double-sided grinding cavity mechanism. Background Technology

[0002] In the existing grinding and processing field, traditional grinding equipment often suffers from limited functionality and low integration. In particular, when double-sided grinding of workpieces is required, multiple machines are usually needed to complete the inspection, grinding, and cleaning processes separately, which not only increases production costs but also reduces production efficiency.

[0003] In addition, traditional grinding equipment often generates a large amount of grinding fluid and grinding waste during the grinding process. If not handled properly, it will not only waste resources but may also pollute the environment. Therefore, it is necessary to improve it. Utility Model Content

[0004] The purpose of this invention is to address the shortcomings of existing technologies by providing a fully automated thickness-measuring biaxial double-sided grinding chamber mechanism. The upper isolation section is divided into a detection chamber, a first grinding chamber, a second grinding chamber, and a cleaning chamber by multiple isolation plates, achieving independence and isolation for each functional area. These functional areas enrich the equipment's functionality, improve its integration, reduce production costs, and increase production efficiency. A conveyor channel running through all chambers utilizes an automated conveying mechanism to achieve continuous transport and positioning of the workpiece during the detection, grinding, and cleaning processes. The lower collection basin collects grinding fluid and grinding waste generated during the grinding process, preventing environmental pollution.

[0005] To achieve the above objectives, this utility model provides a fully automatic thickness measuring biaxial double-sided grinding cavity mechanism, comprising an upper isolation section and a lower collection basin, wherein the lower collection basin is disposed at the bottom of the upper isolation section for collecting grinding fluid or grinding waste inside the upper isolation section;

[0006] The upper isolation section is provided with multiple isolation plates, which divide the upper isolation section into a detection chamber, a first grinding chamber, a second grinding chamber and a cleaning chamber.

[0007] The detection chamber, the first grinding chamber, the second grinding chamber, and the cleaning chamber are all connected by a conveying channel;

[0008] The thickness detection mechanism is installed in the detection cavity, the first grinding cavity and the second grinding cavity are equipped with the grinding mechanism, and the cleaning cavity is equipped with the cleaning mechanism.

[0009] Preferably, the lower collection basin includes a liquid collection section and a filtrate section, and a filter layer is provided between the liquid collection section and the filtrate section.

[0010] Preferably, the top of the upper isolation section is provided with multiple cover plates, and the top of the upper isolation section is provided with multiple spacer beams and multiple load-bearing edge strips. The spacer beams and the load-bearing edge strips are spaced apart to form multiple load-bearing frames. The multiple load-bearing frames are respectively provided for the detection chamber, the first grinding chamber, the second grinding chamber and the cleaning chamber. The multiple cover plates are provided one-to-one with the multiple load-bearing frames.

[0011] Preferably, the spacer beam includes a surface beam and a support rod.

[0012] Both the face beam and the support rod are arranged along the width direction of the upper isolation section and connected to the inner wall of the upper isolation section;

[0013] Both sides of the face beam are provided with support plates for supporting the cover plate.

[0014] Preferably, a limiting plate for restricting the displacement of the cover plate is vertically provided on the support plate, and the limiting plate is provided with a leak that allows liquid on the support plate to flow into the upper isolation part.

[0015] Preferably, the horizontal height of the support plate is lower than the horizontal height of the face beam to prevent the liquid on the support plate from submerging the face beam.

[0016] Preferably, the upper isolation section includes two side plates and two end plates.

[0017] The two side plates are respectively disposed on the left and right sides of the upper isolation section;

[0018] The two end plates are respectively disposed at the front and rear ends of the upper isolation section.

[0019] Preferably, both side plates are provided with multiple mounting holes for fixing the conveying mechanism and the grinding mechanism.

[0020] Preferably, both side plates have liquid guiding channels communicating with the lower collection basin, and a liquid collecting side groove is provided on the outside of the liquid guiding channel for collecting liquid on the surface of the side plate. The liquid in the liquid collecting side groove flows back to the lower collection basin through the liquid guiding channel.

[0021] The beneficial effects of this utility model are as follows: The upper isolation section of this utility model is divided into a detection chamber, a first grinding chamber, a second grinding chamber, and a cleaning chamber by multiple isolation plates, achieving independence and isolation of each functional area. By enriching the functionality of the equipment through these functional areas, the integration of the equipment is improved, production costs are reduced, and production efficiency is increased.

[0022] The conveyor channel running through each cavity utilizes an automated conveyor mechanism to achieve continuous conveying and positioning of workpieces during the inspection, grinding, and cleaning processes.

[0023] The lower collection basin collects grinding fluid and grinding waste generated during the grinding process, thus avoiding environmental pollution. Attached Figure Description

[0024] Figure 1 This is a schematic diagram of the structure of this utility model.

[0025] Figure 2 This is a schematic diagram of the exploded structure of this utility model.

[0026] Figure 3 for Figure 2 An enlarged schematic diagram of a portion of structure A.

[0027] The reference numerals in the figures include:

[0028] 1. Upper isolation section; 101. Side plate; 102. End plate; 103. Mounting hole; 104. Liquid guiding channel; 105. Liquid collection side groove; 11. Isolation plate; 12. Detection chamber; 13. First grinding chamber; 14. Second grinding chamber; 15. Cleaning chamber; 16. Cover plate; 17. Spacer beam; 171. Face beam; 172. Support rod; 173. Bearing plate; 174. Limiting plate; 175. Leak; 18. Bearing side strip; 2. Lower collection basin; 21. Liquid collection section; 22. Filtration section; 23. Filter layer. Detailed Implementation

[0029] The present invention will now be described in detail with reference to the accompanying drawings.

[0030] like Figures 1 to 3 As shown, the present invention provides a fully automatic thickness measuring dual-axis double-sided grinding cavity mechanism, which includes an upper isolation section 1 and a lower collection basin 2. The lower collection basin 2 is located at the bottom of the upper isolation section 1 and is used to collect the grinding fluid or grinding waste inside the upper isolation section 1.

[0031] The upper isolation section 1 is provided with multiple isolation plates 11, which divide the upper isolation section 1 into a detection chamber 12, a first grinding chamber 13, a second grinding chamber 14 and a cleaning chamber 15.

[0032] The detection chamber 12, the first grinding chamber 13, the second grinding chamber 14, and the cleaning chamber 15 are connected by a conveying channel.

[0033] The thickness detection mechanism is housed in the detection chamber 12, the grinding mechanism is housed in the first grinding chamber 13 and the second grinding chamber 14, and the cleaning mechanism is housed in the cleaning chamber 15.

[0034] The upper isolation section 1 is internally divided into a detection chamber 12, a first grinding chamber 13, a second grinding chamber 14, and a cleaning chamber 15 by multiple isolation plates 11, integrating multiple functional modules of the equipment within the grinding chamber. This design not only ensures the independence of each functional area and avoids cross-contamination, but also improves the overall compactness and integration of the equipment. This helps reduce production costs and increase production efficiency.

[0035] The conveyor channels that run through each cavity facilitate the transport of workpieces from inspection, grinding to cleaning and individual flow, greatly improving production efficiency.

[0036] The lower collection basin 2 effectively collects the grinding fluid or grinding waste inside the upper isolation section 1, facilitating subsequent processing and resource recycling, and meeting environmental protection requirements.

[0037] In use, the upper isolation section 1 is divided into a detection chamber 12, a first grinding chamber 13, a second grinding chamber 14, and a cleaning chamber 15 by multiple isolation plates 11, achieving independence and isolation of each functional area. By enriching the functionality of the equipment through each functional area, the integration of the equipment is improved, production costs are reduced, and production efficiency is increased.

[0038] The conveyor channels running through each cavity utilize automated conveying mechanisms (such as conveyor belts, robots, etc.) to achieve continuous conveying and positioning of workpieces during the inspection, grinding, and cleaning processes.

[0039] The lower collection basin 2 collects the grinding fluid and grinding waste generated during the grinding process, thus avoiding environmental pollution.

[0040] like Figure 2 As shown, the lower collection basin 2 in this embodiment includes a liquid collection section 21 and a liquid filtration section 22, and a filter layer 23 is provided between the liquid collection section 21 and the liquid filtration section 22.

[0041] The lower collection basin 2, through the design of the liquid collection section 21 and the filtrate section 22, realizes that the liquid collection section 21 is used to collect liquids that cannot pass through the filter layer 23, while the filtrate section 22 collects the relatively pure liquids that have passed through the filter layer 23.

[0042] By setting up filter layer 23, impurities or solid particles in the liquid can be filtered out, thereby improving the efficiency of subsequent processing.

[0043] like Figure 1 and Figure 2As shown, the top of the upper isolation section 1 in this embodiment is provided with multiple cover plates 16, and the top of the upper isolation section 1 is provided with multiple spacer beams 17 and multiple bearing edge strips 18. The spacer beams 17 and bearing edge strips 18 are spaced apart to form multiple bearing frames. The multiple bearing frames are respectively provided for the detection chamber 12, the first grinding chamber 13, the second grinding chamber 14 and the cleaning chamber 15. The multiple cover plates 16 are provided one-to-one with the multiple bearing frames.

[0044] The upper isolation section 1 forms multiple independent load-bearing frames through the combination of multiple cover plates 16, spacer beams 17, and load-bearing edge strips 18. These frames correspond to different functional areas (such as detection chambers, grinding chambers, cleaning chambers, etc.). This modular design allows each part of the equipment to be operated and maintained independently, improving the flexibility and scalability of the equipment.

[0045] Through the carefully designed space-saving crossbeams 17 and load-bearing edge strips 18, the upper isolation section 1 effectively utilizes space, ensuring the independence between various functional areas while avoiding unnecessary space waste. This design makes the equipment more compact, occupies less floor space, and is suitable for various environments with limited space.

[0046] Each support frame corresponds to a cover plate 16. This design allows users to easily open or close specific functional areas without affecting other areas. This not only improves operational convenience but also reduces the risk of accidental operation.

[0047] The cover plate 16 not only serves to enclose and protect the various functional areas, but also prevents operators from directly contacting dangerous parts inside the equipment, thereby improving the safety of the equipment.

[0048] like Figure 3 As shown, the spacer beam 17 in this embodiment includes a surface beam 171 and a support rod 172.

[0049] Both the face beam 171 and the support rod 172 are arranged along the width direction of the upper isolation section 1 and connected to the inner wall of the upper isolation section 1.

[0050] Both sides of the face beam 171 are provided with bearing plates 173 for supporting the cover plate 16.

[0051] Both the face beam 171 and the support rod 172 are arranged along the width direction of the upper isolation section 1 and connected to the inner wall of the upper isolation section 1. This design enhances the overall structural stability of the spacer beam 17, enabling it to withstand greater loads and ensuring the stable installation of the equipment inside the upper isolation section 1.

[0052] The partition beam 17, through the combination of the face beam 171 and the support rod 172, divides the internal space of the upper isolation section 1 into multiple independent functional areas. Each area can independently support the cover plate 16 and the corresponding equipment or components, thus optimizing space utilization and improving the capacity and efficiency of the upper isolation section 1.

[0053] The support plate 173 allows for easy installation and removal of the cover plate 16 without the need for complex tools or procedures. This not only simplifies installation and maintenance but also reduces operational difficulty and time costs.

[0054] By supporting the cover plate 16 with the support plate 173, the stability of the cover plate 16 can be ensured, preventing it from accidentally falling off or shifting, thereby protecting the safety of the equipment and operators inside the upper isolation section 1.

[0055] like Figure 3 As shown, in this embodiment, a limiting plate 174 for limiting the displacement of the cover plate 16 is vertically provided on the support plate 173, and the limiting plate 174 is provided with a drain 175 that allows liquid on the support plate 173 to flow into the upper isolation part 1.

[0056] The limiting plate 174 is vertically set on the bearing plate 173, which effectively restricts the horizontal displacement of the cover plate 16 and prevents the cover plate 16 from falling off or shifting due to external force or vibration, thereby ensuring the stability and safety of the internal equipment of the upper isolation section 1.

[0057] The setting of the limiting plate 174 not only enhances the stability of the cover plate, but also prevents liquids (such as coolant, cleaning fluid, etc.) inside the upper isolation section 1 from leaking out from the gap between the cover plate and the bearing plate to a certain extent, thus keeping the inside of the upper isolation section 1 clean and dry.

[0058] The drain 175 allows liquid on the support plate 173 to flow into the upper isolation section 1 or other designated collection areas when needed. This design facilitates the discharge, recycling, or reuse of liquid generated inside the upper isolation section 1, improving resource utilization and environmental performance.

[0059] like Figure 3 As shown, in this embodiment, the horizontal height of the support plate 173 is lower than the horizontal height of the face beam 171 to prevent the liquid on the support plate 173 from submerging the face beam 171.

[0060] The horizontal height of the support plate 173 is lower than that of the face beam 171. This design ensures that liquids (such as cleaning fluid, coolant, etc.) accumulated on the support plate 173 will not overflow the face beam 171 and flow into other parts of the cabinet. This effectively prevents equipment damage, short circuits, or safety hazards that may result from liquid spillage.

[0061] like Figure 2As shown, the upper isolation section 1 in this embodiment includes two side plates 101 and two end plates 102.

[0062] Two side panels 101 are respectively disposed on the left and right sides of the upper isolation section 1;

[0063] Two end plates 102 are respectively disposed at the front and rear ends of the upper isolation section 1.

[0064] Two side plates 101 are respectively disposed on the left and right sides of the upper isolation section 1, and two end plates 102 are respectively disposed at the front and rear ends. This design constitutes a complete closed structure. This integrity not only enhances the structural strength of the upper isolation section 1, but also prevents external dust, moisture or other contaminants from entering the interior of the upper isolation section 1, thereby protecting the normal operation of the equipment inside the grinding chamber.

[0065] like Figure 2 As shown, both side plates 101 in this embodiment are provided with multiple mounting holes 103 for fixing the conveying mechanism and the grinding mechanism.

[0066] Multiple mounting holes 103 provided on the side plate 101 allow the conveying mechanism and grinding mechanism to be fixed in multiple positions and angles. This design makes the layout and installation of the equipment more flexible and can be adjusted according to actual needs to adapt to different working environments and production requirements.

[0067] The provision of multiple mounting holes 103 reduces the complexity and time cost of the installation process. Operators can quickly select appropriate mounting hole positions and use bolts, screws or other fasteners to secure the conveying mechanism and grinding mechanism to the side plate 101 without additional drilling or cutting operations.

[0068] like Figure 2 As shown, both side plates 101 in this embodiment have liquid guiding channels 104 that communicate with the lower collection basin 2. A liquid collecting side groove 105 for collecting liquid on the surface of the side plate 101 is provided on the outside of the liquid guiding channel 104. The liquid in the liquid collecting side groove 105 flows back to the lower collection basin 2 through the liquid guiding channel 104.

[0069] The liquid guiding channel 104 on the side plate 101 can efficiently collect the liquid flowing down from the surface of the side plate 101 and guide it to the lower collection basin 2. This design ensures the orderly discharge of liquid inside the grinding chamber and prevents liquid from accumulating or overflowing inside the cabinet.

[0070] The liquid collection trough 105 further enhances the liquid collection capability of the side plate 101. Even if liquid is accidentally splashed onto the edge or surface of the side plate 101, it can be captured by the liquid collection trough 105 and flow back to the lower collection basin 2 through the liquid guiding channel 104, thereby preventing liquid from leaking outside the grinding chamber or causing damage to other equipment.

[0071] By effectively collecting and guiding the liquid, this design helps keep the exterior of the grinding chamber clean.

[0072] The above description is only a preferred embodiment of this utility model. For those skilled in the art, there will be changes in the specific implementation method and application scope based on the idea of ​​this utility model. The content of this specification should not be construed as a limitation of this utility model.

Claims

1. A full-automatic thickness measuring two-axis double-sided lapping cavity mechanism, characterized in that: The upper isolation part (1) and the lower collecting basin (2) are arranged, and the lower collecting basin (2) is arranged at the bottom of the upper isolation part (1) and is used for collecting the grinding liquid or grinding waste in the upper isolation part (1); A plurality of isolation plates (11) are arranged in the upper isolation part (1), and the plurality of isolation plates (11) divide the upper isolation part (1) into a detection cavity (12), a first grinding cavity (13), a second grinding cavity (14), and a cleaning cavity (15). The detection cavity (12), the first grinding cavity (13), the second grinding cavity (14), and the cleaning cavity (15) are provided with conveying channels. The detection cavity (12) is used for accommodating a thickness detection mechanism, the first grinding cavity (13) and the second grinding cavity (14) are used for accommodating grinding mechanisms, and the cleaning cavity (15) is used for accommodating a cleaning mechanism.

2. The full-automatic thickness measuring two-axis double-sided lapping cavity mechanism according to claim 1, characterized in that: The lower collecting basin (2) comprises a liquid collecting part (21) and a filtrate part (22), and a filter layer (23) is arranged between the liquid collecting part (21) and the filtrate part (22).

3. The full-automatic thickness measuring two-axis double-sided lapping cavity mechanism according to claim 1, characterized in that: A plurality of cover plates (16) are arranged on the top of the upper isolation part (1), a plurality of interval cross beams (17) and a plurality of bearing edge strips (18) are arranged on the top of the upper isolation part (1), the interval cross beams (17) and the bearing edge strips (18) are arranged at intervals to form a plurality of bearing edge frames, the plurality of bearing edge frames correspond to the detection cavity (12), the first grinding cavity (13), the second grinding cavity (14), and the cleaning cavity (15) respectively, and the plurality of cover plates (16) are arranged one by one corresponding to the plurality of bearing edge frames.

4. The full-automatic thickness measuring two-axis double-sided lapping cavity mechanism according to claim 3, characterized in that: The interval cross beam (17) comprises a surface beam (171) and a support rod (172), The surface beam (171) and the support rod (172) are arranged along the width direction of the upper isolation part (1) and are connected to the inner wall of the upper isolation part (1); The two sides of the surface beam (171) are provided with bearing plates (173) for bearing the cover plates (16).

5. The full-automatic thickness measuring two-axis double-sided lapping cavity mechanism according to claim 4, characterized in that: The bearing plate (173) is vertically provided with a limiting plate (174) for limiting the displacement of the cover plate (16), and the limiting plate (174) is provided with a leakage opening (175) allowing liquid on the bearing plate (173) to flow into the upper isolation part (1).

6. A full-automatic thickness measuring two-axis double-sided lapping cavity mechanism according to claim 4 or 5, characterized in that: The horizontal height of the bearing plate (173) is lower than that of the surface beam (171), so as to prevent the liquid on the bearing plate (173) from overflowing the surface beam (171).

7. The full-automatic thickness measuring two-axis double-sided lapping cavity mechanism according to claim 1, characterized in that: The upper isolation part (1) comprises two side plates (101) and two end plates (102), The two side plates (101) are arranged on the left and right sides of the upper isolation part (1) respectively. The two end plates (102) are arranged on the front and rear ends of the upper isolation part (1) respectively.

8. The full-automatic thickness measuring two-axis double-sided lapping cavity mechanism according to claim 7, characterized in that: The two side plates (101) are provided with a plurality of mounting holes (103) for fixing the conveying mechanism and the grinding mechanism.

9. The full-automatic thickness measuring two-axis double-sided lapping cavity mechanism according to claim 7 or 8, characterized in that: Both of the side plates (101) have liquid guide channels (104) in communication with the lower collecting basin (2), and the outer side of the liquid guide channels (104) is provided with liquid collecting side grooves (105) for collecting liquid on the surface of the side plates (101), and the liquid in the liquid collecting side grooves (105) flows back to the lower collecting basin (2) through the liquid guide channels (104).

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