Ceramic sealing ring detection equipment

Abstract

The utility model discloses ceramic sealing ring detection equipment, which comprises a rack, a workbench arranged on the rack, and a flatness detection machine main body formed by a clamping assembly used for clamping a ceramic sealing ring and a detection assembly arranged above the clamping assembly and used for detecting the flatness of the ceramic sealing ring, wherein the clamping assembly and the detection assembly are respectively arranged on the workbench. The detection assembly comprises a fixed seat, a connecting seat and a plurality of groups of detection probes, the connecting seat is driven by an air cylinder to slide up and down, the detection probes are annularly arranged on the connecting seat and are arranged on the connecting seat in a sliding manner, and locking pieces are arranged on the detection probes; the ceramic sealing ring detection equipment has relatively high operation convenience and use flexibility for ceramic sealing ring structures with different specifications, and meanwhile, the detection effect, the detection precision and the applicability of the ceramic sealing ring are further improved.

Description

Technical Field

[0001] This utility model relates to the field of sealing ring testing technology, specifically to a ceramic sealing ring testing device. Background Technology

[0002] Ceramic sealing rings, as important industrial sealing elements, are widely used in machinery, electronic devices, and other manufacturing fields, serving functions such as sealing, waterproofing, and corrosion resistance. The quality of ceramic sealing rings directly affects the performance and safety of the entire system. Therefore, rigorous quality testing is required during the production process of ceramic sealing rings.

[0003] Currently, flatness or surface smoothness testing is an important indicator in the quality inspection of ceramic sealing rings. The testing process is usually carried out using a flatness testing machine. However, the traditional flatness testing machine structure is not ideal for ceramic sealing ring structures of different specifications, and its testing effect and accuracy are not ideal, resulting in certain operational inconveniences and limitations in use. Utility Model Content

[0004] The purpose of this invention is to provide a ceramic sealing ring testing device. This device offers high ease of operation and flexibility for ceramic sealing rings of different specifications, while further improving the testing effect, accuracy, and applicability of ceramic sealing rings.

[0005] The technical solution adopted by this utility model to solve the above problems is:

[0006] A ceramic sealing ring testing device includes a frame and a worktable mounted on it, and a flatness testing machine body formed by a clamping assembly for holding ceramic sealing rings and a testing assembly placed above the clamping assembly for testing the flatness of ceramic sealing rings. The testing assembly includes a fixed base and a connecting base that slides up and down driven by a cylinder, and multiple sets of testing probes that are circumferentially mounted on the connecting base and slidably mounted on the connecting base. The testing probes are equipped with locking elements.

[0007] Preferably, the sliding connection point on the connector for multiple sets of detection probes is also marked with scale lines.

[0008] Preferably, the connecting seat is provided with a turntable, the multiple sets of detection probes are installed on the turntable, and a second connecting seat is installed on the connecting seat and the second connecting seat is positioned above the detection probes. A drive component for driving the turntable to rotate is installed on the second connecting seat.

[0009] Preferably, the clamping assembly includes a base plate and two sets of connecting plates installed on its two sides, and two sets of top plates that slide in opposite directions on the two sets of connecting plates via multiple sets of connecting rods and multiple sets of compression springs sleeved on their outer sides.

[0010] Preferably, the top plate is provided with a pad and has multiple sets of arc grooves.

[0011] Preferably, multiple sets of adjusting components are rotatably arranged below the connecting seat.

[0012] Preferably, the frame placed below the workbench is provided with a cabinet and an adaptive cover is provided above the cabinet on the periphery of the workbench. The bottom of the frame placed below the cabinet is equipped with multiple sets of sliding support legs and wheels.

[0013] Compared with the prior art, this utility model has the following advantages and effects:

[0014] This utility model relates to a ceramic sealing ring testing device. Compared to a conventional flatness testing machine, this device features multiple sets of circumferentially arranged testing probes on the connecting seat of the testing assembly on the worktable of the frame. These probes are connected in corresponding directions to the corresponding sliding grooves on the connecting seat via locking components. This allows for position adjustment and testing of the testing probes along the plane to be tested on the ceramic sealing ring, based on the specific size and specifications of the ceramic sealing ring held by the clamping assembly. This provides high flexibility and applicability for testing ceramic sealing rings of different sizes. Furthermore, the testing probes can be arranged around the connecting seat with appropriate spacing and quantity settings according to usage requirements. This, combined with the position settings of multiple testing probes on the connecting seat and the simultaneous testing at different positions on the corresponding plane of the ceramic sealing ring, further improves the testing effect and accuracy of ceramic sealing rings, facilitating operation while meeting diverse testing needs. Attached Figure Description

[0015] Figure 1 This is a schematic diagram of the overall structure of a ceramic sealing ring testing device according to an embodiment of the present invention.

[0016] Figure 2 This is a partial enlarged view of a ceramic sealing ring testing device according to an embodiment of this utility model.

[0017] Figure 3-5 This is a partial enlarged view of the detection component and clamping component on the workbench in an embodiment of this utility model.

[0018] Figure Numbers: Frame 100, Workbench 101, Control Host 102, Operation Buttons 103, Cabinet 104, Outer Cover 105, Support Legs 106, Wheel Set 107, Ceramic Sealing Ring 110, Clamping Assembly 1, Base Plate 11, Connecting Plate 12, Top Plate 13, Connecting Rod 131, Pad 132, Arc Groove 133, Compression Spring 14, Detection Assembly 2, Fixed Seat 21, Cylinder 22, Solenoid Valve 221, Pneumatic Dual Unit 222, Connecting Seat 23, Slide 231, Scale Line 232, Turntable 233, Adjusting Component 234, Detection Probe 24, Locking Component 241, Second Connecting Seat 25, Drive Component 26. Detailed Implementation

[0019] The present invention will now be described in detail with reference to the accompanying drawings and through embodiments. The following embodiments are explanations of the present invention, but the present invention is not limited to the following embodiments.

[0020] See Figure 1-5 This embodiment relates to a ceramic sealing ring 110 testing device, including a frame 100 and a worktable 101 mounted on it, and a flatness testing machine body formed by a clamping assembly 1 for clamping the ceramic sealing ring 110 and a testing assembly 2 placed above the clamping assembly 1 for testing the flatness of the ceramic sealing ring 110. The testing assembly 2 includes a fixed base 21 and a connecting base 23 that slides up and down driven by a cylinder 22, and multiple sets of testing probes 24 that are circumferentially mounted on the connecting base 23 and slidably mounted on the connecting base 23. The testing probes 24 are provided with locking elements 241.

[0021] Specifically in this embodiment, such as Figure 1 The overall structure of this ceramic sealing ring 110 testing equipment shown allows for operation such as status adjustment and data viewing of the testing component 2 on the workbench 101 via the control host 102 and operation buttons 103 mounted on the frame 100. For details regarding the specific structure of the testing component 2, please refer to [link to relevant documentation]. Figure 2 and Figure 3 As shown, the cylinder 22 on the fixed base 21 can be used with... Figure 2 The solenoid valve 221 is installed behind the mounting base 21 shown. Figure 2 Taking the example of the pneumatic dual unit 222, it is connected to the external pump body to achieve... Figure 3-5 The cylinder 22 pushes the connecting seat 23, which is connected to the head end of the cylinder 22, above the worktable 101, to slide up and down along the fixed seat 21. Specifically, during testing, the ceramic sealing ring 110 can be clamped and fixed on the worktable 101 by the clamping assembly 1 with an adaptive structure, thereby... Figure 5In the indicated state, the locking member 241, which is set by a bolt connection structure and rotated by a threaded structure around the detection probe 24, can be rotated to achieve a detachable connection between the detection probe 24 and the connecting seat 23. This allows for position adjustment and locking during the sliding process within multiple sets of sliding grooves 231 opened at corresponding positions on the connecting seat 23. As a result, the multiple sets of detection probes 24 arranged around the connecting seat 23 can be moved and locked at corresponding positions along the plane to be tested above the ceramic sealing ring 110 held by the lower clamping assembly 1. Then, combined with the cylinder 22 driving the connecting seat 23 and the multiple sets of detection probes 24 on it to move up and down, and the detection probes 24 making contact and detection at intervals with the corresponding plane of the ceramic sealing ring 110 held by the clamping assembly 1, the flatness detection machine body can perform the flatness detection process of the ceramic sealing ring 110. Compared to conventional flatness testing machines, this ceramic sealing ring 110 testing equipment features multiple sets of circumferentially arranged testing probes 24 on the connecting seat 23 of the testing component 2 on the workbench 101 of the frame 100. These probes are connected in corresponding directions to the corresponding sliding grooves 231 on the connecting seat 23 via locking members 241. This allows for position adjustment and testing of the testing probes 24 along the test plane of the ceramic sealing ring 110, depending on the specific size of the ceramic sealing ring 110 held by the clamping component 1. This provides high flexibility and applicability for testing ceramic sealing rings 110 of different sizes. Furthermore, the testing probes 24 can be arranged around the connecting seat 23 according to usage requirements, with appropriate spacing and quantity settings. This, combined with the position settings of multiple sets of testing probes 24 on the connecting seat 23 and the synchronous testing at different positions on the corresponding plane of the ceramic sealing ring 110, further improves the testing effect and accuracy of the ceramic sealing ring 110, facilitating operation while meeting diverse testing needs.

[0022] The sliding connection point on the connector 23 for multiple sets of detection probes 24 is also marked with scale lines 232, from Figure 3 As can be seen, the scale line 232 acts on both sides of the adapter groove 231 on the connecting seat 23 for sliding of multiple sets of detection probes 24 to perform a marking process of corresponding length. Under the marking effect of the scale line 232, the operation speed of the adjustment process of multiple sets of detection probes 24 in the corresponding position of the connecting seat 23 can be further improved, as well as the uniformity and accuracy of the adjustment in the corresponding position, so as to further improve the detection effect and detection stability of the detection probes 24.

[0023] like Figure 3-5As shown, a turntable 233 is provided on the connecting seat 23, and multiple sets of detection probes 24 are mounted on the turntable 233. A second connecting seat 25 is mounted on the connecting seat 23 and is positioned above the detection probes 24. A driving component 26 for driving the turntable 233 to rotate is mounted on the second connecting seat 25. Specifically, the rotation of the turntable 233 can be achieved by the driving component 26 on the second connecting seat 25 according to usage requirements. Figure 3 or Figure 4 When the cylinder 22 and connecting seat 23 on the fixed base 21 return to their initial positions, the driving component 26 can drive the turntable 233 on the connecting seat 23 and the multiple sets of detection probes 24 mounted on the turntable 233 to rotate at corresponding angles. Simultaneously, based on the spacing and number of the multiple sets of detection probes 24 on the turntable 233, the maximum rotation angle is consistent with the spacing and arrangement angle between adjacent detection probes 24, thus ensuring that the multiple sets of wires connected to the multiple sets of detection probes 24 on the turntable 233 do not become entangled. Furthermore, the driving component 26 drives the turntable 233 and the multiple sets of detection probes 24 to rotate around the corresponding plane of the ceramic sealing ring 110 held by the clamping assembly 1, achieving full coverage and multi-point detection of the surface to be detected on the ceramic sealing ring 110. Multiple detection processes at different points can further reduce detection errors and improve the detection effect and accuracy of the detection assembly 2, meeting different detection needs.

[0024] The clamping assembly 1 includes a base plate 11 and two sets of connecting plates 12 mounted on its two sides, and two sets of top plates 13 that slide in opposite directions on the two sets of connecting plates 12 via multiple sets of connecting rods 131 and multiple sets of compression springs 14 sleeved on their outer sides. In use, by moving the two sets of top plates 13 on the base plate 11 that slide in opposite directions on the connecting plates 12 via multiple sets of connecting rods 131, the ceramic sealing ring 110 can be clamped and fixed in the corresponding position on the base plate 11 by the action of the two sets of top plates 13 and the matching compression springs 14 sleeved on the outer side of the connecting rods 131. At the same time, combined with the threaded structure with a matching length set on the outer side of the connecting rods 131 and the multiple sets of bolts connected at one end, the sliding distance of the top plates 13 on the connecting plates 12 can be adaptively adjusted for ceramic sealing rings 110 of different sizes. This further improves the structural adjustability and clamping stability of this clamping assembly 1, as well as the flexibility and applicability in the process of adapting and clamping ceramic sealing rings 110 of different sizes.

[0025] The top plate 13 is provided with a pad 132 and has multiple sets of arc grooves 133. The addition of the pad 132 on the top plate 13 can effectively prevent the top plate 13 from directly contacting the ceramic sealing ring 110, and at the same time can play a certain buffering and shock absorption effect, reducing unnecessary damage to the surface of the ceramic sealing ring 110. In addition, combined with the structure of the multiple sets of arc grooves 133, the clamping effect and positional stability of the top plate 13 on the ceramic sealing ring 110 can be further improved, and the detection stability of the detection component 2 during the detection process can be improved.

[0026] Multiple sets of adjusting components 234 are rotatably arranged below the connecting seat 23, from... Figure 4 and Figure 5 As can be seen, the adjusting component 234 is rotatably mounted below the connecting seat 23 using a bolted connection structure. Depending on the specific size of the ceramic sealing ring 110 held on the clamping assembly 1, and while ensuring stable contact and testing between the multiple sets of detection probes 24 and the surface to be tested of the ceramic sealing ring 110, the adjusting component 234 is rotated to adjust its length accordingly. Thus, when the cylinder 22 pushes the connecting seat 23 and its multiple sets of detection probes 24 to perform flatness testing on the ceramic sealing ring 110 on the base plate 11... The bottom of the adjusting component 234 can contact and abut against the top of the base plate 11, thereby ensuring a certain safe distance between the connecting seat 23 and the base plate 11 during the detection process. At the same time, it can play a certain buffering role, avoiding unnecessary damage to the detection plane of the ceramic sealing ring 110 held by the clamping component 1 on the worktable 101 when the multiple sets of detection probes 24 on the connecting seat 23 come into contact with the ceramic sealing ring 110 held by the clamping component 1 due to the pushing of the cylinder 22. This ensures the detection effect and detection stability of the detection probe 24 on the detection plane corresponding to the ceramic sealing ring 110.

[0027] A cabinet 104 is mounted on the frame 100 located below the workbench 101, and an adapter cover 105 is provided on the top of the cabinet 104 around the workbench 101. Multiple sets of slidingly mounted support legs 106 and wheel sets 107 are installed at the bottom of the frame 100 located below the cabinet 104. Figure 1 As shown, the cabinet 104 on the frame 100 is designed to facilitate the storage and organization of batches of ceramic sealing rings 110 or related parts of such ceramic sealing ring 110 testing equipment. In addition, the adapter cover 105 surrounding the workbench 101 and the multiple sets of support legs 106 and wheel sets 107 slidably connected to the bottom of the frame 100 by bolts further improve the ease of operation and flexibility of such ceramic sealing ring 110 testing equipment in different usage environments and positions.

[0028] The above description in this specification is merely illustrative of the present invention. Those skilled in the art to which this invention pertains may make various modifications or additions to the described specific embodiments or use similar methods to replace them, as long as they do not depart from the content of this specification or exceed the scope defined in the claims, all of which shall fall within the protection scope of this invention.

Claims

1. A ceramic sealing ring testing device, characterized in that: The main body of the flatness testing machine includes a frame, a worktable mounted on it, a clamping assembly for holding ceramic sealing rings mounted on the worktable, and a testing assembly placed above the clamping assembly for testing the flatness of ceramic sealing rings. The testing assembly includes a fixed base, a connecting base that slides up and down driven by a cylinder, and multiple sets of testing probes that are circumferentially mounted on the connecting base and slide on the connecting base. The testing probes are equipped with locking components.

2. The ceramic sealing ring testing equipment according to claim 1, characterized in that: The sliding connection point on the connector for multiple sets of detection probes is also marked with scale lines.

3. The ceramic sealing ring testing equipment according to claim 1, characterized in that: The connecting seat is provided with a turntable, the multiple sets of detection probes are mounted on the turntable, and a second connecting seat is installed on the connecting seat and placed above the detection probes. The second connecting seat is equipped with a drive component for driving the turntable to rotate.

4. The ceramic sealing ring testing equipment according to claim 1, characterized in that: The clamping assembly includes a base plate and two sets of connecting plates mounted on its two sides, as well as two sets of top plates that slide in opposite directions via multiple sets of connecting rods and multiple sets of compression springs sleeved on their outer sides.

5. The ceramic sealing ring testing equipment according to claim 4, characterized in that: The top plate is provided with a pad and has multiple sets of arc grooves.

6. The ceramic sealing ring testing equipment according to claim 1, characterized in that: Multiple sets of adjusting components are also rotatably arranged below the connecting seat.

7. The ceramic sealing ring testing equipment according to claim 1, characterized in that: The frame located below the workbench is equipped with a cabinet, and the cabinet is fitted with an outer cover around the workbench. The bottom of the frame located below the cabinet is equipped with multiple sets of sliding support legs and wheels.

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