Optical motor simulation load rapid batch detection device

Abstract

The invention discloses an optical motor simulation load rapid batch detection device comprising a fixed end on which a test assembly is placed; the movable end can move relative to the fixed end; the rotating plate is rotationally connected to the moving end, and an optical motor is detachably connected to the rotating plate; the two ends of the connector can be in butt joint with the testing assembly and the optical motor respectively. According to the optical motor simulation load rapid batch detection device provided by the invention, the installation convenience in the installation process can be improved, wiring and adjustment are facilitated through vertical installation, meanwhile, transverse detection is converted in the detection process, a simulation scene can be better fitted, and the detection effect is more accurate.

Description

Technical Field

[0001] The invention relates to the technical field of photoelectric motors, and in particular to a photoelectric motor simulated load rapid batch detection device. Background Art

[0002] For example, the publication number "CN110411691A" discloses a "test bench for detecting vibration of automobile dimming motor devices", including: a base, a vibration test mechanism; a mounting platform is fixedly installed on the top plane of the left end of the base; transverse guide rails are respectively arranged at the front and rear edges of the top plane of the base on the right side of the mounting platform; a lifting mechanism is slidably connected to the guide rail through a slider; a dimming motor is installed on the lifting mechanism; two vibration test mechanisms are symmetrically installed on the base between the two guide rails; a control box is built into the base; a locking mechanism is fixedly installed at the bottom of the lifting mechanism at a position between the two sliders. However, in actual applications, this type of photoelectric motor detection setting requires the photoelectric motor to be placed and installed horizontally, which has high requirements for the assembly process and is relatively complicated to install, while vertical installation and detection will affect the accuracy of the detection. Summary of the invention

[0003] In view of the problem in the prior art mentioned in the background technology that the installation of photoelectric motors cannot take into account both detection accuracy and convenience, the present invention provides a photoelectric motor simulated load rapid batch detection device, which can improve the convenience of installation during the installation process, facilitate wiring and adjustment through vertical installation, and transform into horizontal detection during the detection process, which can better fit the simulation scene and make the detection effect more accurate.

[0004] To achieve the above objectives, the present invention adopts the following technical solutions.

[0005] A photoelectric motor simulated load rapid batch detection device, comprising: A fixed end, on which a test component is placed; A mobile end, wherein the mobile end is capable of moving relative to the fixed end; A rotating plate, the rotating plate is rotatably connected to the moving end, and a photoelectric motor is detachably connected to the rotating plate; A connector, wherein both ends of the connector can be connected to the test assembly and the photoelectric motor respectively. In the present application, by setting a rotating plate on the mobile end, the rotating plate can be rotated, thereby changing the setting direction of the photoelectric motor set on the rotating plate. Therefore, during use, the rotating plate can be first placed horizontally by rotating the rotating plate, and the photoelectric motor is vertically installed on the rotating plate on the basis of the horizontal placement of the rotating plate, so that during use, the photoelectric motor can be installed in the vertical direction, improving the installation efficiency of the photoelectric motor and reducing interference. Since the rotating plate can be switched in the horizontal and vertical directions, when the rotating plate is placed horizontally, a large gap is generated between the rotating plate and the components of the device area, thereby reducing the interference during the installation of the photoelectric motor and making the installation space more sufficient. And during the installation process, due to the horizontal placement of the rotating plate, it can play a certain supporting effect on the photoelectric motor, and the photoelectric motor can be placed on the horizontally placed transmission plate for more detailed adjustments. After ensuring that the horizontally placed transmission plate is stably connected to the photoelectric motor, the rotating plate is placed vertically to avoid the photoelectric motor falling off due to loose connection. At the same time, since the rotating plate can rotate compared to the moving end, after the photomotor is installed, the rotating plate can be changed from horizontal to vertical placement. The corresponding photomotor is changed from vertical placement to horizontal placement, so that the photomotor can be more adapted to the simulated working environment. The fixed end is the fixed end, and the test component is placed on the fixed end to simulate the load of the photomotor during use. The connector can connect the test component to the photomotor, so that all types of photomotors can be adapted to the test component.

[0006] Preferably, the mobile end includes a mobile plate, a rotating plate is hinged on the mobile plate, a telescopic unit is hinged on the mobile plate, and the other end of the telescopic unit is hinged to the rotating plate. The mobile end includes a mobile plate, wherein the mobile plate can move relatively, and the rotating plate is hinged on the mobile plate, so that the rotating plate can move synchronously with the mobile plate, and the rotating plate can rotate relative to the mobile plate. In the present application, a telescopic unit is also designed on the mobile plate, and the rotating plate can be driven to rotate relative to the mobile plate through the telescopic unit. The hinge between the mobile plate and the rotating plate and the telescopic characteristics of the telescopic unit can ensure the smooth rotation of the rotating plate relative to the mobile plate.

[0007] Preferably, a limiter is provided on the movable plate, and when the rotating plate rotates to abut the limiter, the axis of the photoelectric motor is aligned with the axis of the test assembly. The limiter provided on the movable plate can limit the rotation angle of the rotating plate to a certain extent. In this application, since the rotating plate needs to move back and forth relative to the horizontal position and the vertical position, when the rotating plate abuts the limiter, the vertical direction of the rotating plate is consistent with the ideal position, that is, the axis of the photoelectric motor on the rotating plate at this position should be aligned with the axis on the test assembly under ideal circumstances, so as to ensure that when the movable plate drives the rotating plate to move toward the test assembly, the axes of the test assembly and the photoelectric motor can remain stably aligned.

[0008] Preferably, the rotating plate is movably connected with a clamping unit, and when the photomotor is placed on the rotating plate, the clamping unit can clamp the photomotor. The rotating plate is provided with a clamping unit, and the photomotor can be clamped by the clamping unit to make the position of the photomotor more secure when under pressure, wherein the clamping body source includes but is not limited to various clamping devices driven by air cylinders, electric cylinders, oil cylinders, and motors. The clamping unit can clamp the photomotor directly when the rotating plate is placed horizontally, thereby ensuring that the clamping unit can maintain the stability of the photomotor during the rotation of the rotating plate.

[0009] Preferably, the clamping unit includes a rotating drive connected to a rotating plate, the rotating drive is rotatably connected to a clamping arm, and the rotating drive drives the clamping arm to rotate and clamp the photoelectric motor. The rotating drive in the present application includes but is not limited to a rotating cylinder and a motor.

[0010] Preferably, the rotating plate is provided with a positioning groove, the positioning groove is engaged with the photoelectric motor, and a line channel is provided on the positioning groove. The positioning groove provided on the rotating plate can perform a preliminary positioning effect on the photoelectric motor, thereby ensuring that the photoelectric motor obtains a relatively stable position on the rotating plate, which is convenient for subsequent wiring and fine-tuning. Furthermore, a groove and a protrusion adapted to the photoelectric motor can be provided in the positioning groove, thereby further improving the limiting effect on the photoelectric motor.

[0011] As a preferred embodiment, it also includes: A support plate, wherein a slide rail is disposed on the support plate, and the mobile end is slidably connected to the slide rail; A fixed telescopic member is connected to the mobile end, and a telescopic column is provided on the fixed telescopic member, which can pass through the mobile end to connect to the support plate. By providing a slide rail on the support plate, the mobile end is slidably connected to the slide rail, so that the mobile end can be displaced relative to the support plate. Further, a fixed telescopic member is provided on the mobile end, and the telescopic column can pass through the mobile end to connect to the support plate, so that the mobile end can be fixed relative to the support plate. It is ensured that during the test process, the photoelectric motor on the mobile end and the test component on the fixed end can maintain a tight connection.

[0012] Preferably, the connector includes an engaging block, the test assembly includes a docking block and an engaging groove, the engaging block is provided with an arc surface on one side close to the docking block, and the corresponding arc of the engaging block is smaller than the corresponding arc of the engaging groove. In actual use of the device, due to the tolerance of the photoelectric motor parts and the error in the installation process, it is difficult to ensure that the photoelectric motor axis and the corresponding axis of the test assembly are on the same line. When the two axes are not on the same line and a rigid connection is used, the photoelectric motor bearing will be subjected to a larger radial force that it will not be subjected to during normal operation, thereby damaging the photoelectric motor bearing. Therefore, in the present application, the corresponding curvature of the engaging block is set to be smaller than the corresponding curvature of the engaging groove, so that when the axis of the photomotor is aligned with the corresponding axis of the test assembly, there is still a certain gap between the engaging block and the docking block. Since the photomotor only rotates toward one side during its rotation, only one side of the engaging block and the docking block is subjected to force. Therefore, when the engaging block abuts against the docking block, stable contact can be guaranteed, and the side where the gap is generated is the non-force-bearing side. When the axis of the photomotor is not completely aligned with the corresponding axis of the test assembly, the engaging block will produce a certain misalignment in the radial direction of the annular structure formed by the docking block and the engaging groove. Since there is a certain amount of gap, the engaging block can move in the radial direction without being hindered by the radial force, and during the rotation, the force-bearing side will still produce a gap to adapt to the abutment. At the same time, when the axes of the two are not completely aligned, the contact area between the embedded block and the docking block cannot be maintained on a stable surface during the rotation process. Instead, as the embedded block continues to rotate, the corners of the embedded block close to the docking block will abut against the docking block, so that the corners of the embedded block are subjected to a large extrusion force, which is easy to cause damage. At the same time, during the rotation process, the embedded block and the docking block will produce a certain relative movement in the radial direction. Since the corners cannot be smoothly displaced when they abut, a certain radial force will also be generated, resulting in inaccurate measurement data. At the same time, since the corners are rotating During the process, the butt joint block will be abutted, and the corners are located on both sides of the corresponding surface of the chimeric block, so that the force point of the chimeric block cannot be in the middle position, and the force is uneven, which affects the detection result; in the present application, the corners on the chimeric block are eliminated, and the side of the chimeric block that needs to abut the butt joint block is set to an arc surface. The arc surface can ensure smooth conversion during the relative radial displacement process. At the same time, due to the elimination of the corners on both sides, the chimeric block will not be affected by the corners during the abutment process, and the middle area on the arc surface can be abutted against the docking block, thereby ensuring that the force on the chimeric block is uniform.

[0013] Preferably, a magnetic unit is provided on the corresponding abutting surfaces of the interlocking block and the docking block. Since there is a certain gap between the interlocking block and the docking block, when there is a gap in the rotation direction, the rotation of the photoelectric motor will cause the interlocking block to directly impact the docking block, thereby causing certain damage and affecting the detection data. Therefore, in the present application, a magnetic unit is provided between the interlocking block and the docking block. Specifically, magnets are provided on the sides of the interlocking block and the docking block that need to be docked. The magnets can attract the sides of the interlocking block and the docking block that need to maintain stable abutment, thereby eliminating the gap between the two, and no starting impact will be generated at the beginning of rotation; at the same time, the magnetic unit can be set to attract or repel each other according to actual conditions, or it can be connected and combined with each other, thereby eliminating the gap on the side of the interlocking block and the docking block that need to be docked.

[0014] Preferably, the docking block includes an adjustment block with a conversion slide, and magnetic blocks are provided on the engaging blocks on both sides of the adjustment block. Balls are slidably connected in the conversion slide, and the connector is rotated along the test direction to keep the adjustment block stationary until the engaging block abuts against the adjustment block and drives the adjustment block to move synchronously. The ball slides in the conversion slide and is magnetically attracted to the magnetic block on the corresponding engaging block. During the test process, there will be detection tests in the opposite direction of the test. In the present application, a conversion slide is provided in the adjusting block, so that a fast and stable position conversion can be achieved. Since the corresponding curvature of the engaging block is smaller than the corresponding curvature of the engaging groove, there will be a gap between the engaging block and the docking block during use. If there is a gap between the two surfaces that need to abut at the time of starting, a starting impact will be generated. Therefore, it is necessary to provide a device that can magnetically attract each other between the two surfaces. When reverse rotation detection is required, it is necessary to manually switch the position of mutual magnetic attraction, and at the same time switch the attraction and repulsion relationship, which is more complicated to operate. Therefore, a conversion slide is added in the adjusting block to enable the ball to move in the conversion slide, and at the same time, engaging blocks with magnetic blocks are provided on both sides of the adjusting block, so that the ball can pass through the conversion slide. The connection between the ball and the magnetic block is changed by the channel, wherein the connection between the magnetic block and the ball is adopted in the present solution, and the ball has the characteristic of being easy to roll. Therefore, in application, after the ball and the magnetic block are separated and the conversion slideway is tilted downward, the ball will roll along the conversion slideway and transfer from one end of the conversion slideway to the other end. Due to the connection relationship between the interlocking block and the docking block in the present application, when the docking block between the two interlocking blocks abuts against the interlocking block on one side, a gap will be generated between the interlocking block on the other side and the docking block. Therefore, the switching of the ball between the conversion slideways can be quickly completed by manually rotating the connector, thereby changing the abutment with different interlocking blocks, so that the adjustment block can quickly switch the abutment with the interlocking blocks in different directions, thereby avoiding the generation of starting impact.

[0015] The beneficial effects of the present invention are as follows: (1) It can improve the convenience of installation during the installation process. The vertical installation facilitates wiring and adjustment. At the same time, it is transformed into horizontal detection during the detection process, which can better fit the simulated scene and make the detection effect more accurate; (2) It can improve the positioning effect of the photoelectric motor, ensure the accuracy of positioning, and ensure the stability during the docking test with the test component; (3) It can ensure the accuracy of the test results, prevent the engaging block from being subjected to radial force during the test, and avoid the start-up impact. It can adapt to the situation of axis misalignment and can quickly perform reverse side test conversion. BRIEF DESCRIPTION OF THE DRAWINGS

[0016] Figure 1 It is the first axonometric drawing of the present invention.

[0017] Figure 2 It is a second axonometric view of the present invention.

[0018] Figure 3 It is a cross-sectional view of the present invention.

[0019] Figure 4 It is the third axonometric drawing of the present invention.

[0020] Figure 5 This is a front view of Example 2.

[0021] Figure 6 This is a sectional isometric view of Example 2.

[0022] Figure 7 This is a cross-sectional view of Example 2.

[0023] Figure 8 This is a flow chart for setting the right-angle side in Example 2.

[0024] Fig. 9 This is a flow chart for setting the arc surface in Example 2.

[0025] Fig.10 This is an axonometric view of Example 3.

[0026] Fig.11 It is an exploded view of Example 3.

[0027] Fig.12 This is a flow chart of Example 4.

[0028] In the figure: 1 fixed end; 2 moving end, 21 rotating plate, 22 moving plate, 23 telescopic unit, 24 stopper, 25 clamping unit, 251 rotating driving member; 252 clamping arm, 26 positioning sink, 261 line channel; 3 photoelectric machine; 4 test assembly, 41 docking block, 42 ​​fitting groove, 43 adjustment block, 431 conversion slideway, 432 ball bearing; 5 connector, 51 engaging block, 511 arc surface, 512 magnetic block; 6 support plate, 61 slide rail; 7 fixed telescopic member, 71 telescopic column; 8 magnetic units. DETAILED DESCRIPTION

[0029] The present invention is further described below in conjunction with the accompanying drawings and specific embodiments.

[0030] Embodiment 1: like Figure 1 , 2 As shown, a photoelectric motor simulated load rapid batch detection device includes: A fixed end 1, on which a test component 4 is placed; Mobile end 2, which can move relative to fixed end 1; A rotating plate 21, the rotating plate 21 is rotatably connected to the moving end 2, and a photoelectric motor 3 is detachably connected to the rotating plate 21; Connector 5, both ends of which can be connected to the test component 4 and the photoelectric motor 3 respectively.

[0031] In this embodiment, by setting a rotating plate 21 on the mobile end 2, the rotating plate 21 can be rotated, thereby changing the setting direction of the photoelectric motor 3 set on the rotating plate 21. Therefore, during use, the rotating plate 21 can be first placed horizontally by rotating the rotating plate 21, and the photoelectric motor 3 is vertically installed on the rotating plate 21 on the basis of the horizontal placement of the rotating plate 21, so that during use, the photoelectric motor 3 can be installed in the vertical direction, improving the installation efficiency of the photoelectric motor 3 and reducing interference. Since the rotating plate 21 can be switched in the horizontal and vertical directions, when the rotating plate 21 is placed horizontally, a large gap is generated between the rotating plate 21 and the components of the device area, thereby reducing the interference during the installation of the photoelectric motor 3, and making the installation space more sufficient. In addition, during the installation process, due to the horizontal placement of the rotating plate 21, it can play a certain supporting effect on the photoelectric motor 3, and the photoelectric motor 3 can be placed on the horizontally placed transmission plate for more detailed adjustments. After ensuring that the horizontally placed transmission plate is stably connected to the photomotor 3, the rotating plate 21 is placed vertically to avoid the photomotor 3 from falling off due to loose connection. At the same time, since the rotating plate 21 can rotate compared to the mobile end 2, after the photomotor 3 is installed, the rotating plate 21 can be changed from horizontal placement to vertical placement. The corresponding photomotor 3 is changed from vertical placement to horizontal placement, so that the photomotor 3 can be more adapted to the simulated working environment. The fixed end 1 is a fixed end, and the test component 4 is placed on the fixed end 1 to simulate the load of the photomotor 3 during use. The connector 5 can connect the test component 4 to the photomotor 3, so that all types of photomotors 3 can be adapted to the test component 4.

[0032] like Figure 1 , 2 As shown, the mobile end 2 includes a mobile plate 22, on which a rotating plate 21 is hinged, and a telescopic unit 23 is hinged on the mobile plate 22, and the other end of the telescopic unit 23 is hinged to the rotating plate 21. The mobile end 2 includes a mobile plate 22, wherein the mobile plate 22 can move relatively, and the rotating plate 21 is hinged on the mobile plate 22, so that the rotating plate 21 can move synchronously with the mobile plate 22, and the rotating plate 21 can rotate relative to the mobile plate 22. In this embodiment, a telescopic unit 23 is designed on the mobile plate 22, and the rotating plate 21 can be driven to rotate relative to the mobile plate 22 through the telescopic unit 23. Through the hinge between the mobile plate 22 and the rotating plate 21 and the telescopic characteristics of the telescopic unit 23, the smooth rotation of the rotating plate 21 relative to the mobile plate 22 can be guaranteed.

[0033] like Figure 2As shown, a limiter 24 is provided on the movable plate 22, and when the rotating plate 21 rotates to abut the limiter 24, the axis of the photoelectric motor 3 is aligned with the axis of the test component 4. The limiter 24 provided on the movable plate can limit the rotation angle of the rotating plate 21 to a certain extent. In this embodiment, since the rotating plate 21 needs to move back and forth relatively between the horizontal position and the vertical position, when the rotating plate 21 abuts the limiter 24, the vertical direction of the rotating plate 21 is consistent with the ideal position, that is, the axis of the photoelectric motor 3 on the rotating plate 21 at this position should be aligned with the axis on the test component 4 under ideal conditions, so as to ensure that when the movable plate 22 drives the rotating plate 21 to move toward the test component 4, the axes of the test component 4 and the photoelectric motor 3 can be kept stably aligned.

[0034] like Figure 2 As shown, the rotating plate 21 is movably connected with a clamping unit 25, and when the photomotor 3 is placed on the rotating plate 21, the clamping unit 25 can clamp the photomotor 3. The clamping unit 25 is arranged on the rotating plate 21, and the photomotor 3 can be clamped by the clamping unit 25 to make the position of the photomotor 3 more secure when under pressure, wherein the clamping body source includes but is not limited to various clamping devices driven by air cylinders, electric cylinders, oil cylinders, and motors. The clamping unit 25 can clamp the photomotor 3 directly when the rotating plate 21 is placed horizontally, thereby ensuring that the clamping unit 25 can maintain the stability of the photomotor 3 during the rotation of the rotating plate 21.

[0035] like Figure 2 As shown, the clamping unit 25 includes a rotating driving member 251 connected to the rotating plate 21, and a clamping arm 252 is rotatably connected to the rotating driving member 251. The rotating driving member 251 drives the clamping arm 252 to rotate and clamp the photomotor 3. In this embodiment, the rotating driving member 251 includes but is not limited to a rotating cylinder and a motor.

[0036] like Figure 4 As shown, a positioning groove 26 is provided on the rotating plate 21, and the positioning groove 26 is engaged with the photomotor 3, and a line channel 261 is provided on the positioning groove 26. The positioning groove 26 provided on the rotating plate 21 can perform a preliminary positioning effect on the photomotor 3, thereby ensuring that the photomotor 3 obtains a relatively stable position on the rotating plate 21, which is convenient for subsequent wiring and fine-tuning. Furthermore, a groove and a protrusion adapted to the photomotor 3 can be provided in the positioning groove 26, thereby further improving the limiting effect on the photomotor 3.

[0037] like Figure 1 , 2 , 3, also includes: A support plate 6, on which a slide rail 61 is disposed, and the mobile end 2 is slidably connected to the slide rail 61; The fixed telescopic member 7 is connected to the mobile end 2, and a telescopic column 71 is provided on the fixed telescopic member 7, which can pass through the mobile end 2 to connect to the support plate 6. By providing a slide rail 61 on the support plate 6, the mobile end 2 is slidably connected to the slide rail 61, so that the mobile end 2 can be displaced relative to the support plate 6. Further, a fixed telescopic member 7 is provided on the mobile end 2, and the telescopic column 71 can pass through the mobile end 2 and connect to the support plate 6, so that the mobile end 2 can be fixed relative to the support plate 6. It is ensured that the photoelectric motor 3 on the mobile end 2 and the test component 4 on the fixed end 1 can maintain a tight connection during the test.

[0038] The assembly and working process of the photoelectric motor simulated load rapid batch detection device in this embodiment are as follows: In this embodiment, a support plate 6 is included, and a slide rail 61 is provided on the support plate 6, wherein a mobile end 2 is slidably connected to the slide rail 61, and a fixed end 1 is provided on the other side of the slide rail 61, a test assembly 4 is placed on the fixed end 1, and a photoelectric motor 3 is placed on the mobile end 2. Further, the mobile end 2 includes a moving plate 22 slidably connected to the slide rail 61, and a rotating plate 21 is hinged on the moving plate 22, wherein a positioning groove 26 capable of placing the photoelectric motor 3 is provided on the rotating plate 21, and a clamping unit 25 is also provided on the rotating plate 21. Specifically, the clamping unit 25 is a clamping arm 252 driven to rotate by a rotating driving member 251, and the rotating driving member 251 is a rotating cylinder; a telescopic unit 23 is provided between the moving plate 22 and the rotating plate 21, and the rotating plate 21 is driven relative to the moving plate 22 by the telescopic unit 23. The movable plate 22 is rotated, wherein both sides of the telescopic unit 23 are hinged to the rotating plate 21 and the movable plate 22; a limiter 24 is also provided on the movable plate 22, and the rotation position of the rotating plate 21 is limited by the limiter 24, so that the rotating plate 21 can be positioned in place, and a fixed telescopic member 7 is also provided on the movable plate 22, wherein the fixed telescopic member 7 includes a telescopic column 71, and the telescopic column 71 can pass through the movable plate 22 and connect with the corresponding through-holes on the support plate 6, so that the movable plate 22 and the support plate 6 are relatively fixed.

[0039] During use, the rotating plate 21 is first placed horizontally, and the photomotor 3 is placed on the rotating plate 21, and then the photomotor 3 is clamped by the clamping unit 25, and then the rotating plate 21 is rotated by the telescopic unit 23, so that the rotating plate 21 is placed vertically. At this time, the axial direction of the photomotor 3 is aligned with the axis of the test component 4, and then the mobile end 2 is moved along the slide rail 61 until the connector 5 is docked with the test component 4, and then the telescopic column 71 is extended by the fixed telescopic part 7 to fix the mobile end 2 with the support plate 6 to perform the inspection of the photomotor 3. After the inspection is completed, each component is reset in turn, and the next group inspection is performed.

[0040] The above-mentioned device can improve the convenience of installation during the installation process. The vertical installation facilitates wiring and adjustment. At the same time, it is converted to horizontal detection during the detection process, which can better fit the simulated scene and make the detection effect more accurate. It can improve the positioning effect of the photomotor 3 and ensure the accuracy of positioning, while ensuring stability during the docking test with the test component 4.

[0041] Embodiment 2: like Figure 5 , 6 As shown in FIG. 7 , different from Example 1, the connector 5 in this embodiment includes an engaging block 51, the test assembly 4 includes a docking block 41 and an engaging groove 42, and an arc surface 511 is provided on one side of the engaging block 51 close to the docking block 41, and the corresponding curvature of the engaging block 51 is smaller than the corresponding curvature of the engaging groove 42.

[0042] like Figure 8 As shown, this is a workflow diagram for setting right-angle edges, where the process sequence of the flowchart is from left to right and from top to bottom.

[0043] like Fig. 9 As shown, this is a workflow diagram for setting an arc surface, where the process sequence of the flowchart is from left to right and from top to bottom.

[0044] In actual use of the device, due to the tolerance of the parts of the photomotor 3 and the errors in the installation process, it is difficult to ensure that the axis of the photomotor 3 and the corresponding axis of the test component 4 are on the same line. When the two axes are not on the same line and a rigid connection is used, the bearing of the photomotor 3 will be subjected to a larger radial force that it will not be subjected to during normal operation, thereby damaging the bearing of the photomotor 3. Therefore, in the present embodiment, the corresponding curvature of the engaging block 51 is set smaller than the corresponding curvature of the engaging groove 42, so that when the axis of the photomotor 3 is aligned with the corresponding axis of the test assembly 4, there is still a certain gap between the engaging block 51 and the docking block 41. Since the photomotor 3 only rotates toward one side during its rotation, only one side of the engaging block 51 and the docking block 41 is subjected to force. Therefore, when the engaging block 51 abuts against the docking block 41, stable contact can be ensured, and the side where the gap is generated is the non-force-bearing side. When the axis of the photomotor 3 is not completely aligned with the corresponding axis of the test assembly 4, the engaging block 51 will be misaligned to a certain extent in the radial direction of the annular structure formed by the docking block 41 and the engaging groove 42. Since there is a certain amount of gap, the engaging block 51 can move in the radial direction without being hindered by the radial force, and during the rotation, the force-bearing side will still produce a gap to adapt to the abutment. Figure 8As shown, when the axes of the two are not completely aligned, the contact portion between the engaging block 51 and the docking block 41 cannot be maintained on a stable surface during the rotation process. Instead, as the engaging block 51 continues to rotate, the corners of the engaging block 51 on the surface close to the docking block 41 will abut against the docking block 41, so that the corners of the engaging block 51 are subjected to a large extrusion force and are prone to damage. At the same time, during the rotation process, the engaging block 51 and the docking block 41 will produce a certain relative movement in the radial direction. Since the corners cannot be smoothly displaced when abutting, a certain radial force will also be generated, resulting in inaccurate measurement data. At the same time, since the corners will abut against the docking block 41 during the rotation process, and the corners are located on both sides of the corresponding surface of the engaging block 51, the force point of the engaging block 51 cannot be in the middle position, and the force is uneven, thereby affecting the detection result. In this embodiment, as shown in FIG. Fig. 9 As shown, the corners on the chimeric block 51 are eliminated, and the side of the chimeric block 51 that needs to abut the docking block 41 is set to an arc surface 511. The arc surface 511 can ensure smooth conversion during the relative radial displacement process. At the same time, due to the elimination of the corners on both sides, the chimeric block 51 will not be affected by the corners during the abutment process, and the middle area on the arc surface 511 can abut the docking block 41, thereby ensuring that the chimeric block 51 is evenly stressed. The above device can ensure the accuracy of the test results and prevent the chimeric block 51 from being subjected to radial force during the test.

[0045] Embodiment 3: like Fig.10 As shown, different from the embodiment 1, the connector 5 in this embodiment includes a fitting block 51, the test assembly 4 includes a docking block 41 and a fitting groove 42, and a circular arc surface 511 is provided on the side of the fitting block 51 close to the docking block 41, and the corresponding arc of the fitting block 51 is smaller than the corresponding arc of the fitting groove 42. A magnetic attraction unit 8 is provided on the corresponding abutting surfaces of the fitting block 51 and the docking block 41.

[0046] Since there is a certain gap between the interlocking block 51 and the docking block 41, when there is a gap in the rotation direction, the rotation of the photoelectric motor 3 will cause the interlocking block 51 to directly impact the docking block 41, thereby causing certain damage and affecting the detection data. Therefore, in this embodiment, a magnetic unit 8 is provided between the interlocking block 51 and the docking block 41. Specifically, magnets are provided on the sides of the interlocking block 51 and the docking block 41 that need to be docked. The magnets can attract the sides of the interlocking block 51 and the docking block 41 that need to maintain stable contact, thereby eliminating the gap between the two, and no starting impact will be generated at the beginning of rotation; at the same time, the magnetic unit 8 can be set to attract or repel each other according to actual conditions, or it can be connected and combined with each other, thereby eliminating the gap on the side of the interlocking block 51 and the docking block 41 that needs to be docked. The above-mentioned device can ensure the accuracy of the detection results, avoid radial force on the interlocking block 51 during the test, and avoid starting impact, and can adapt to the situation of axis misalignment.

[0047] Embodiment 4: like Fig.11 As shown, different from the embodiment 1, the connector 5 in this embodiment includes a fitting block 51, the test assembly 4 includes a docking block 41 and a fitting groove 42, and the fitting block 51 is provided with an arc surface 511 on one side close to the docking block 41, and the corresponding curvature of the fitting block 51 is smaller than the corresponding curvature of the fitting groove 42. The docking block 41 includes an adjustment block 43 provided with a conversion slide 431, and magnetic blocks 512 are provided on the fitting block 51 located on both sides of the adjustment block 43, and the conversion slide 431 is slidably connected with a ball bearing 432, and the connector 5 is rotated along the test direction to keep the adjustment block 43 stationary until the fitting block 51 abuts against the adjustment block 43 and drives the adjustment block 43 to move synchronously, and the ball bearing 432 slides in the conversion slide 431 and is magnetically attracted to the magnetic block 512 on the corresponding fitting block 51.

[0048] During the test, there will be tests in the opposite direction of the test. In this embodiment, a conversion slide 431 is provided in the adjustment block 43, so that a fast and stable position conversion can be achieved. Since the corresponding curvature of the engaging block 51 is smaller than the corresponding curvature of the engaging groove 42, there will be a gap between the engaging block 51 and the docking block 41 during use. If there is a gap between the two surfaces that need to be abutted during startup, a starting impact will be generated. Therefore, it is necessary to provide a device that can magnetically attract each other between the two surfaces. When reverse rotation detection is required, it is necessary to manually switch the position of mutual magnetic attraction and switch the attraction and repulsion relationship at the same time. The operation is relatively complicated. Therefore, a conversion slide is added to the adjustment block 43 to enable the ball 432 to move in the conversion slide 431. At the same time, an engaging block 51 with a magnetic block 512 is provided on both sides of the adjustment block 43, so that the ball 432 can change the engagement with different magnetic blocks through the conversion slide 431. 512, wherein the connection between the magnetic block 512 and the ball 432 is adopted in the present solution, and the ball 432 has the characteristic of being easy to roll. Therefore, in application, after the ball 432 is separated from the magnetic block 512 and the conversion slide 431 is tilted downward, the ball 432 will roll along the conversion slide 431 and transfer from one end of the conversion slide 431 to the other end. Due to the connection relationship between the interlocking block 51 and the docking block 41 in the present embodiment, when the docking block 41 between the two interlocking blocks 51 abuts against the interlocking block 51 on one side, the interlocking block 51 on the other side will generate a gap with the docking block 41. Therefore, the switching of the ball 432 between the conversion slides 431 can be quickly completed by manually rotating the connector 5, thereby changing the abutment with different interlocking blocks 51, so that the adjustment block 43 can quickly switch the abutment with the interlocking blocks 51 in different directions, thereby avoiding the generation of starting impact. The above device can ensure the accuracy of the test result, prevent the engaging block 51 from being subjected to radial force during the test, and avoid the start-up impact. It can adapt to the situation of axis misalignment and can quickly perform the reverse side test conversion.

Claims

1. A photoelectric motor simulated load rapid batch detection device, characterized in that: Included are: A fixed end, on which a test component is placed; A mobile end, wherein the mobile end is capable of moving relative to the fixed end; A rotating plate, the rotating plate is rotatably connected to the moving end, and a photoelectric motor is detachably connected to the rotating plate; A connector, wherein both ends of the connector can be connected to the test component and the photoelectric motor respectively.

2. According to the photoelectric motor simulated load rapid batch detection device described in claim 1, it is characterized in that: The moving end comprises a moving plate, a rotating plate is hinged on the moving plate, a telescopic unit is hinged on the moving plate, and the other end of the telescopic unit is hinged to the rotating plate.

3. According to the photoelectric motor simulated load rapid batch detection device described in claim 2, it is characterized in that: A limiter is arranged on the movable plate, and when the rotating plate rotates to abut against the limiter, the axis of the photoelectric motor is aligned with the axis of the test assembly.

4. According to the photoelectric motor simulated load rapid batch detection device described in claim 1, it is characterized in that: The rotating plate is movably connected with a clamping unit, and when the photoelectric motor is placed on the rotating plate, the clamping unit can clamp the photoelectric motor.

5. According to the photoelectric motor simulated load rapid batch detection device described in claim 4, it is characterized in that: The clamping unit includes a rotating driving member connected to a rotating plate, a clamping arm is rotatably connected to the rotating driving member, and the rotating driving member drives the clamping arm to rotate and clamp the photoelectric motor.

6. According to the photoelectric motor simulated load rapid batch detection device described in claim 1, it is characterized in that: The rotating plate is provided with a positioning groove, the positioning groove is engaged with the photoelectric motor, and a line channel is provided on the positioning groove.

7. According to the photoelectric motor simulated load rapid batch detection device described in claim 1, it is characterized in that: It also includes: a support plate, on which a slide rail is provided, and the mobile end is slidably connected to the slide rail; A fixed telescopic member is connected to the moving end and is provided with a telescopic column capable of passing through the moving end to connect to the support plate.

8. A photoelectric motor simulated load rapid batch detection device according to any one of claims 1 to 7, characterized in that: The connector includes a fitting block, the test assembly includes a docking block and a fitting groove, a circular arc surface is arranged on one side of the fitting block close to the docking block, and the corresponding arc of the fitting block is smaller than the corresponding arc of the fitting groove.

9. A photoelectric motor simulated load rapid batch detection device according to claim 8, characterized in that: Magnetic units are arranged on the corresponding abutting surfaces of the engaging block and the docking block.

10. The photoelectric motor simulated load rapid batch detection device according to claim 8, characterized in that: The docking block includes an adjustment block with a conversion slide, and magnetic blocks are provided on the engaging blocks on both sides of the adjustment block. Balls are slidably connected in the conversion slide. The connector is rotated along the test direction to keep the adjustment block stationary until the engaging block abuts against the adjustment block and drives the adjustment block to move synchronously. The ball slides in the conversion slide and is magnetically attracted to the magnetic block on the corresponding engaging block.

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