Rotating shaft assembly flat state virtual position detection jig

Abstract

The application discloses a pivot assembly flat state virtual position detection jig, which comprises a rack, a fixed position, a fixing mechanism, a detection position and a pushing mechanism are arranged on the rack, the fixed position and the detection position are arranged side by side, the fixing mechanism is used for fixing a first mounting piece in the fixed position, and the pushing mechanism is used for pushing a second mounting piece in the detection position; the pushing mechanism comprises an X-axis pushing assembly and a Y-axis pushing assembly, the X-axis pushing assembly comprises an X-axis linear driving piece and an X-axis pushing block connected with each other, an X-axis distance sensor is arranged on the X-axis pushing block, and a detection path of the X-axis distance sensor is towards the detection position; the Y-axis pushing assembly comprises a Y-axis linear driving piece and a Y-axis pushing block connected with each other, a Y-axis distance sensor is arranged on the Y-axis pushing block, and a detection path of the Y-axis distance sensor is towards the detection position. The pivot assembly flat state virtual position detection jig can accurately detect the virtual position size of the pivot assembly in the flat state.

Description

TECHNICAL FIELD

[0001] The present application relates to the technical field of virtual position detection devices for rotating shaft assemblies, and particularly relates to a virtual position detection device for a rotating shaft assembly in a flat state. BACKGROUND

[0002] In recent years, foldable-screen mobile phones have become popular worldwide. Foldable-screen mobile phones can be opened like tablet computers and folded like mobile phones, which are easy to carry and can provide consumers with more experiences, such as playing games and watching videos. Major manufacturers have all launched foldable-screen mobile phones.

[0003] Folding-screen mobile phones of the folding type inevitably need to use rotating shaft assemblies. In the prior art, rotating shaft assemblies contain a large number of components, and therefore, the assembly cumulative error thereof can be relatively large. Foldable electronic devices equipped with rotating shaft assemblies with large assembly cumulative error can cause the foldable electronic devices in a flat state to exhibit a large virtual position, so that a large planar displacement can occur between one plate and another plate of the foldable electronic device in the flat state, which seriously affects the user experience.

[0004] Currently, there is no detection device capable of detecting the virtual position of a rotating shaft assembly in a flat state, so that the quality of rotating shaft assemblies leaving the factory cannot be guaranteed. SUMMARY

[0005] The present application aims to solve the technical problem of providing a virtual position detection device for a rotating shaft assembly in a flat state.

[0006] To solve the above technical problem, the present application adopts the technical scheme of a virtual position detection device for a rotating shaft assembly in a flat state, which is used to detect the virtual position of a rotating shaft assembly in a flat state. One side of the rotating shaft assembly is connected with a first mounting member, and the other side of the rotating shaft assembly is connected with a second mounting member. The virtual position detection device comprises a rack, a fixing position, a fixing mechanism, a detection position, and a pushing mechanism. The fixing position and the detection position are arranged side by side. The fixing mechanism is used to fix the first mounting member in the fixing position. The pushing mechanism is used to push the second mounting member in the detection position. The pushing mechanism comprises an X-axis pushing assembly and a Y-axis pushing assembly. The X-axis pushing assembly comprises an X-axis linear drive member and an X-axis pushing block connected with each other. An X-axis distance sensor is arranged on the X-axis pushing block. The detection path of the X-axis distance sensor faces the detection position. The Y-axis pushing assembly comprises a Y-axis linear drive member and a Y-axis pushing block connected with each other. A Y-axis distance sensor is arranged on the Y-axis pushing block. The detection path of the Y-axis distance sensor faces the detection position. The number of X-axis pushing assemblies is at least two. Part of the detection position is located between the two X-axis pushing assemblies. The number of Y-axis pushing assemblies is at least two. Part of the detection position is located between the two Y-axis pushing assemblies.

[0007] The beneficial effect of the present application is that after the fixing mechanism fixes the first mounting piece connected with the rotating shaft assembly, the pushing mechanism pushes the second mounting piece connected with the rotating shaft assembly along the X-axis direction / Y-axis direction, the position change distance of the second mounting piece in the X-axis direction / Y-axis direction is detected by the X-axis distance sensor / Y-axis distance sensor before and after pushing, so that the virtual position size of the rotating shaft assembly in the flat state is obtained, and whether the rotating shaft assembly product is a defective product is judged, thereby ensuring the quality of the rotating shaft assembly product. BRIEF DESCRIPTION OF DRAWINGS

[0008] Figure 1 FIG. 1 is a structure schematic view of a rotating shaft assembly flat state virtual position detection jig according to an embodiment of the present application;

[0009] Figure 2 FIG. 2 is another perspective view of the rotating shaft assembly flat state virtual position detection jig according to the embodiment of the present application;

[0010] Figure 3 FIG. 3 is a structure schematic view of a test body in the embodiment of the present application;

[0011] Figure 4 FIG. 4 is a schematic view of the rotating shaft assembly flat state virtual position detection jig cooperating with the test body according to the embodiment of the present application.

[0012] Label explanation:

[0013] 1, test body; 11, rotating shaft assembly; 12, first mounting piece; 121, positioning hole; 13, second mounting piece;

[0014] 2, rack; 21, support table; 211, avoiding groove; 212, positioning column; 22, positioning block;

[0015] 3, fixing mechanism; 31, rotary driving piece; 32, rotary block;

[0016] 41, X-axis pushing assembly; 411, X-axis linear driving piece; 412, X-axis pushing block; 42, Y-axis pushing assembly; 421, Y-axis linear driving piece; 422, Y-axis pushing block;

[0017] 5, X-axis guide rail sliding block assembly;

[0018] 6, Y-axis guide rail sliding block assembly. DETAILED DESCRIPTION

[0019] In order to explain the technical content, the purpose and the effect of the present application in detail, the following will be described in combination with the embodiments and the drawings.

[0020] Please refer to Figures 1 to 4The virtual position detection tool for flat state of rotating shaft assembly is used for detecting the virtual position of the rotating shaft assembly 11 in the flat state, one side of the rotating shaft assembly 11 is connected with the first mounting piece 12, the other side of the rotating shaft assembly 11 is connected with the second mounting piece 13, and the virtual position detection tool comprises a rack 2, the rack 2 is provided with a fixed position, a fixing mechanism 3, a detection position and a pushing mechanism, the fixed position is arranged side by side with the detection position, the fixing mechanism 3 is used for fixing the first mounting piece 12 at the fixed position, and the pushing mechanism is used for pushing the second mounting piece 13 at the detection position; the pushing mechanism comprises an X-axis pushing assembly 41 and a Y-axis pushing assembly 42, the X-axis pushing assembly 41 comprises an X-axis linear driving piece 411 and an X-axis pushing block 412 connected with each other, the X-axis pushing block 412 is provided with an X-axis distance sensor, and the detection path of the X-axis distance sensor is towards the detection position; the Y-axis pushing assembly 42 comprises a Y-axis linear driving piece 421 and a Y-axis pushing block 422 connected with each other, the Y-axis pushing block 422 is provided with a Y-axis distance sensor, and the detection path of the Y-axis distance sensor is towards the detection position; the number of the X-axis pushing assembly 41 is at least two groups, and part of the detection position is located between the two groups of X-axis pushing assemblies 41; the number of the Y-axis pushing assembly 42 is at least two groups, and part of the detection position is located between the two groups of Y-axis pushing assemblies 42.

[0021] The structure / working principle of the present application is briefly described as follows: when the rotating shaft assembly 11 is in the flat state, the first mounting piece 12 is located on one side of the second mounting piece 13, after the first mounting piece 12 at the fixed position is fixed by the fixing mechanism 3, the pushing mechanism starts to work, taking the X-axis virtual position size as an example, after the X-axis distance sensor in one X-axis pushing assembly 41 detects the initial distance between itself and the second mounting piece 13, the X-axis linear driving piece 411 in another X-axis pushing assembly 41 drives the X-axis pushing block 412 to move, the X-axis pushing block 412 abuts against the second mounting piece 13 and pushes the second mounting piece 13 along the X-axis, until the second mounting piece 13 cannot be continuously pushed, at this time, the aforementioned X-axis distance sensor detects the measured distance between itself and the second mounting piece 13 again, by comparing the difference between the initial distance and the measured distance, the virtual position size of the rotating shaft assembly 11 in one direction along the X-axis can be obtained; the action process of the above two X-axis pushing assemblies 41 is transposed, so that the virtual position size of the rotating shaft assembly 11 in another direction along the X-axis can be obtained; similarly, the process of detecting the Y-axis virtual position size can refer to the process of detecting the X-axis virtual position size, at this time, the Y-axis pushing assembly 42 is utilized.

[0022] From the above description, the beneficial effects of the present application are that: after the fixing mechanism 3 fixes the first mounting piece 12 connected with the rotating shaft assembly 11, the pushing mechanism pushes the second mounting piece 13 connected with the rotating shaft assembly 11 along the X-axis direction / Y-axis direction, the position change distance of the second mounting piece 13 in the X-axis direction / Y-axis direction is detected by the X-axis distance sensor / Y-axis distance sensor before and after pushing, so as to obtain the virtual size of the rotating shaft assembly 11 in the flat state, and then judge whether the rotating shaft assembly 11 product is a defective product, which is beneficial to ensure the factory quality of the rotating shaft assembly 11 product.

[0023] Further, the fixing position has a support table 21 connected with the rack 2, and the support table 21 is used to support the first mounting piece 12 located at the fixing position and the second mounting piece 13 located at the detection position.

[0024] From the above description, the support table 21 can raise the first mounting piece 12, the rotating shaft assembly 11 and the second mounting piece 13, which is convenient for users to take and place the first mounting piece 12, the rotating shaft assembly 11 and the second mounting piece 13.

[0025] Further, the middle region of the support table 21 is provided with an avoiding groove 211.

[0026] From the above description, the avoiding groove 211 can avoid part of the rotating shaft assembly 11, so that the first mounting piece 12 and the second mounting piece 13 can be placed stably on the support table 21.

[0027] Further, the support table 21 and / or the rack 2 is provided with a positioning structure.

[0028] From the above description, the positioning structure can cooperate with the first mounting piece 12, so that the first mounting piece 12 can be placed more accurately on the support table 21, and ensure that the first mounting piece 12 does not move during the pushing process of the pushing mechanism, so as to affect the accuracy of the detection result.

[0029] Further, the fixing mechanism 3 comprises a rotating driving piece 31 and a rotating block 32 connected with each other, and the bottom surface of the rotating block 32 is used to press the first mounting piece 12 located at the fixing position.

[0030] Further, the fixing position has the fixing mechanism 3 on both sides.

[0031] Further, the rack 2 comprises a support leg and a table plate connected with each other, the fixing position is located above the table plate, and the X-axis linear driving piece 411 and the Y-axis linear driving piece 421 are located below the table plate.

[0032] Further, the X-axis linear driving member 411 is a cylinder, an electric push rod or a motor screw mechanism.

[0033] From the above description, the specific type of the X-axis linear driving member 411 can be selected as needed.

[0034] Further, the X-axis guide rail and sliding block assembly 5 is further included, and the X-axis push block 412 is connected to the rack 2 through the X-axis guide rail and sliding block assembly 5.

[0035] From the above description, the X-axis guide rail and sliding block assembly 5 can make the sliding process of the X-axis push block 412 more smooth, which is beneficial to improve the working stability of the X-axis pushing assembly 41.

[0036] Further, the Y-axis guide rail and sliding block assembly 6 is further included, and the Y-axis push block 422 is connected to the rack 2 through the Y-axis guide rail and sliding block assembly 6.

[0037] From the above description, the Y-axis guide rail and sliding block assembly 6 can make the sliding process of the Y-axis push block 422 more smooth, which is beneficial to improve the working stability of the Y-axis pushing assembly 42.

[0038] Embodiment one

[0039] Please refer to Figures 1 to 4 , the embodiment one of the present application is: a shaft assembly flat state virtual position detection jig for detecting the virtual position of the shaft assembly 11 in the flat state. Since the structure of the shaft assembly 11 is relatively small, in order to facilitate testing, it is necessary to connect the shaft assembly 11 with other structures to form a test body 1 for convenient testing. Specifically, one side of the shaft assembly 11 is connected with a first mounting member 12, and the other side of the shaft assembly 11 is connected with a second mounting member 13, that is, the first mounting member 12, the shaft assembly 11 and the second mounting member 13 are connected in sequence to form the test body 1, as shown in Figure 3 Optionally, the first mounting member 12 and the second mounting member 13 are respectively screwed with the shaft assembly 11.

[0040] From a certain point of view, the first mounting member 12 and the second mounting member 13 can also be considered as part of the shaft assembly flat state virtual position detection jig. Of course, the first mounting member 12 and the second mounting member 13 are not essential components of the shaft assembly flat state virtual position detection jig. For example, when the folding electronic product carrying the shaft assembly 11 is detected by using the shaft assembly flat state virtual position detection jig, the first mounting member 12 and the second mounting member 13 are not needed.

[0041] In this embodiment, the first mounting component 12 and the second mounting component 13 are respectively a grid structure. In other embodiments, the first mounting component 12 / the second mounting component 13 can also be a plate structure.

[0042] Please combine Figure 1 , Figure 2 and Figure 4 The rotating shaft assembly flattened virtual position detection fixture includes a frame 2. The frame 2 is provided with a fixed position, a fixing mechanism 3, a detection position and a pushing mechanism. The fixed position and the detection position are arranged side by side. The fixing mechanism 3 is used to fix the first mounting member 12 located at the fixed position. The pushing mechanism is used to push the second mounting member 13 located at the detection position.

[0043] Specifically, the pushing mechanism includes an X-axis pushing assembly 41 and a Y-axis pushing assembly 42. The X-axis pushing assembly 41 includes a connected X-axis linear drive 411 and an X-axis push block 412. The X-axis push block 412 is equipped with an X-axis distance sensor, and the detection path of the X-axis distance sensor faces the detection position. More specifically, when the second mounting member 13 is placed at the detection position, a portion of the second mounting member 13 is located on the detection path of the X-axis distance sensor, preferably the detection path of the X-axis distance sensor is set along the X-axis. The Y-axis pushing assembly 42 includes a connected Y-axis linear drive 421 and a Y-axis push block 422. The Y-axis push block 422 is equipped with a Y-axis distance sensor, and the detection path of the Y-axis distance sensor faces the detection position. More specifically, when the detection position is occupied by the second mounting member 13, a portion of the second mounting member 13 is located on the detection path of the Y-axis distance sensor, preferably the detection path of the Y-axis distance sensor is set along the Y-axis; the number of X-axis pushing components 41 is at least two sets, and a portion of the detection position is located between the two sets of X-axis pushing components 41; the number of Y-axis pushing components 42 is at least two sets, and a portion of the detection position is located between the two sets of Y-axis pushing components 42. That is, when the detection position is occupied by the second mounting member 13, at least a portion of the second mounting member 13 is located between the two sets of X-axis pushing components 41, and a portion of the second mounting member 13 is located between the two sets of Y-axis pushing components 42. Figure 4 As shown.

[0044] The fixed position has a support table 21 connected with the rack 2, which is used to support the first mounting 12 located at the fixed position and the second mounting 13 located at the detection position. Preferably, when the test body 1 is viewed from above the pivot assembly flat virtual position detection jig, the test body 1 has a non-overlapping area with the support table 21, so as to facilitate the detection personnel to take down the test body 1 on the support table 21. In the embodiment, the non-overlapping area of the test body 1 with the support table 21 is located at the side edge of the middle part of the support table 21, that is, the area corresponding to the pivot assembly 11, that is, when the user takes and places the test body 1, the test body 1 is taken and placed through the pivot assembly 11.

[0045] The middle area of the support table 21 is provided with an avoiding groove 211 for avoiding the pivot assembly 11.

[0046] The support table 21 and / or the rack 2 is provided with a positioning structure. In the embodiment, the first mounting 12 is provided with a positioning hole 121, and the support table 21 is provided with a positioning column 212 as a positioning structure, which cooperates with the positioning hole 121. The rack 2 has a positioning block 22 located at the edge of the fixed position. The positioning block 22 realizes the positioning of the first mounting 12 by abutting against the side wall of the first mounting 12. In the embodiment, the number of the positioning block 22 is two, and the two positioning blocks 22 are oppositely arranged.

[0047] The fixing mechanism 3 includes a rotating driving part 31 and a rotating block 32 connected with each other. The bottom surface of the rotating block 32 is used to abut against the first mounting 12 located at the fixed position. The rotating driving part 31 can be an electric motor. Optionally, the number of the fixing mechanism 3 is at least two groups. The two sides of the fixed position respectively have the fixing mechanism 3. The positioning column 212 and the positioning block 22 can prevent the first mounting 12 from moving in the XY plane, and the rotating block 32 can prevent the first mounting 12 from moving in the Z-axis direction, that is, the cooperation of the positioning block 22, the positioning column 212 and the rotating block 32 can completely fix the first mounting 12 located at the fixed position, which is beneficial to improve the accuracy of the detection result, as shown in Figure 4

[0048] As Figure 1 and Figure 2 ​As shown, the rack 2 comprises connected legs and a table plate, the fixing position and the detection position are located above the table plate, the X-axis linear driving member 411 and the Y-axis linear driving member 421 are located below the table plate, the X-axis linear driving member 411 is a cylinder, an electric push rod or a motor screw mechanism, and the Y-axis linear driving member 421 is a cylinder, an electric push rod or a motor screw mechanism.

[0049] In order to enable the X-axis push block 412 to smoothly slide, the pivot assembly flat state virtual position detection jig further comprises an X-axis guide rail sliding block assembly 5, and the X-axis push block 412 is connected with the rack 2 through the X-axis guide rail sliding block assembly 5.

[0050] In order to enable the Y-axis push block 422 to smoothly slide, the pivot assembly flat state virtual position detection jig further comprises a Y-axis guide rail sliding block assembly 6, and the Y-axis push block 422 is connected with the rack 2 through the Y-axis guide rail sliding block assembly 6.

[0051] In summary, the pivot assembly flat state virtual position detection jig provided by the present application, after the fixing mechanism fixes the first mounting piece connected with the pivot assembly, the pushing mechanism pushes the second mounting piece connected with the pivot assembly in the X-axis direction / Y-axis direction, the X-axis distance sensor / Y-axis distance sensor is used to detect the position change distance of the second mounting piece in the X-axis direction / Y-axis direction before and after pushing, so as to obtain the virtual position size of the pivot assembly in the flat state, and then judge whether the pivot assembly product is a defective product, thereby ensuring the factory quality of the pivot assembly product.

[0052] The above description is only an embodiment of the present application, and does not limit the patent range of the present application, and any equivalent transformation or direct or indirect application in the related technical field by using the content of the specification and drawings of the present application is also included in the patent protection range of the present application.

Claims

1. A jig for detecting misalignment in a flattened rotating shaft assembly, used to detect misalignment in a flattened rotating shaft assembly, wherein a first mounting member is connected to one side of the rotating shaft assembly, and a second mounting member is connected to the other side of the rotating shaft assembly, characterized in that: The rack is provided with a fixing position, a fixing mechanism, a detection position and a pushing mechanism, the fixing position is arranged side by side with the detection position, the fixing mechanism is used for fixing the first mounting piece in the fixing position, and the pushing mechanism is used for pushing the second mounting piece in the detection position; the pushing mechanism comprises an X-axis pushing assembly and a Y-axis pushing assembly, the X-axis pushing assembly comprises an X-axis linear driving piece and an X-axis pushing block connected with each other, an X-axis distance sensor is arranged on the X-axis pushing block, and a detection path of the X-axis distance sensor faces the detection position; the Y-axis pushing assembly comprises a Y-axis linear driving piece and a Y-axis pushing block connected with each other, a Y-axis distance sensor is arranged on the Y-axis pushing block, and a detection path of the Y-axis distance sensor faces the detection position; the number of the X-axis pushing assemblies is at least two groups, part of the detection position is located between the two groups of X-axis pushing assemblies, the number of the Y-axis pushing assemblies is at least two groups, and part of the detection position is located between the two groups of Y-axis pushing assemblies; The fixing position is provided with a support table connected with the rack, and the support table is used for supporting the first mounting piece in the fixing position and the second mounting piece in the detection position; The fixing mechanism comprises a rotating driving piece and a rotating block connected with each other, and the bottom surface of the rotating block is used for pressing the first mounting piece in the fixing position.

2. The pivot assembly flat state virtual position detection jig according to claim 1, characterized in that: The middle region of the support table is provided with an avoiding groove.

3. The pivot assembly flat state virtual position detection jig according to claim 1, wherein: The support table and / or the rack is provided with a positioning structure.

4. The pivot assembly flat state virtual position detection jig according to claim 1, characterized in that: Both sides of the fixing position are respectively provided with the fixing mechanism.

5. The pivot assembly flat state virtual position detection jig according to claim 1, wherein: The rack comprises a support leg and a table plate connected with each other, the fixing position is located above the table plate, and the X-axis linear driving piece and the Y-axis linear driving piece are located below the table plate.

6. The pivot assembly flat state virtual position detection jig according to claim 1, wherein: The X-axis linear driving piece is a gas cylinder, an electric push rod or a motor screw mechanism.

7. The pivot assembly flat state virtual position detection jig according to claim 1, characterized in that: The X-axis pushing block and the rack are connected through an X-axis guide rail sliding block assembly.

8. The pivot assembly flat state virtual position detection jig according to claim 1, characterized in that: The Y-axis pushing block and the rack are connected through a Y-axis guide rail sliding block assembly.

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