Contactor measuring device

Abstract

The utility model relates to the field of low voltage apparatus, concretely relates to a contactor measuring device, including drive mechanism and mounting bracket, drive mechanism sets up on mounting bracket, still include force measurement distance measuring component, force measurement distance measuring component includes force measurement mechanism, distance measuring mechanism and the same position connecting piece that connects between force measurement mechanism and distance measuring mechanism, force measurement mechanism is equipped with force measurement part, drive mechanism is connected with force measurement mechanism, drive mechanism drives force measurement mechanism linear shift, makes force measurement part of force measurement mechanism close or far from the moving iron core of contactor, force measurement mechanism drives distance measuring mechanism action through same position connecting piece. Synchronous force measurement and distance measurement, measurement position is easy to grasp, and measurement result is more accurate.

Description

Technical Field

[0001] This utility model relates to the field of low-voltage electrical appliances, specifically to a contactor measuring device. Background Technology

[0002] Contactors are widely used in industrial production. Inside a contactor are a moving iron core, a stationary iron core, and a coil. When the coil is energized, the coil generates an electromagnetic force that drives the moving iron core to move toward the stationary iron core, causing the moving iron core to attract the stationary iron core. When the coil is de-energized, the moving iron core moves away from the stationary iron core under the action of the return spring, causing the moving iron core to separate from the stationary iron core.

[0003] In the contactor manufacturing process, the contact gap and contact pressure between the moving and stationary contacts are crucial parameters affecting contactor performance. Monitoring these parameters during production helps analyze the contactor's performance stability and improves its quality.

[0004] In existing technologies, these two parameters are measured manually. When measuring the contact gap, manual measurement using calipers or height gauges is often required; when measuring the contact pressure, manual measurement using a force gauge is often required. Manual measurement is difficult to control in terms of position and accuracy. It is also difficult to reproduce previous measurement results, and the results are highly susceptible to human error. Furthermore, the operation is complex and cannot meet the needs of mass production. Utility Model Content

[0005] The purpose of this invention is to overcome at least one defect of the prior art and provide a contactor measuring device.

[0006] To achieve the above objectives, the present invention adopts the following technical solution:

[0007] This application provides a contactor measuring device, including a drive mechanism and a mounting bracket. The drive mechanism is disposed on the mounting bracket and further includes a force and distance measuring assembly. The force and distance measuring assembly includes a force measuring mechanism, a distance measuring mechanism, and a co-positioning connector connecting the force measuring mechanism and the distance measuring mechanism. The force measuring mechanism has a force measuring part. The drive mechanism is connected to the force measuring mechanism. The drive mechanism drives the force measuring mechanism to move linearly, so that the force measuring part of the force measuring mechanism approaches or moves away from the moving iron core of the contactor. The force measuring mechanism drives the distance measuring mechanism to move through the co-positioning connector.

[0008] In one possible implementation, the ranging mechanism includes calipers and a second fixing structure, the calipers being mounted on a mounting bracket via the second fixing structure; the calipers are provided with a first slider, the first slider being connected to the co-positioning connector.

[0009] In one possible implementation, the force measuring mechanism includes a force measuring device and a first fixing structure, wherein the force measuring device is connected to the drive mechanism via the first fixing structure, and the first fixing structure is connected to the co-position connector.

[0010] In one possible implementation, the first fixing structure includes a first connector and a second connector that are fixedly installed. The force gauge is fixedly connected to the first connector, and the second connector is connected to the drive mechanism. The co-position connector is clamped between the first connector and the second connector, so that the co-position connector, the first connector, and the second connector are fixedly connected. The first connector is provided with a slot, and the force gauge is inserted into the slot.

[0011] In one possible implementation, the second fixing structure includes a first fixing member, a second fixing member, and a third fixing member. The first fixing member is provided with a limiting groove. The first fixing member is fixedly connected to the second fixing member, and the end of the caliper is fixed in the limiting groove, located between the first fixing member and the second fixing member. The second fixing member is connected to the mounting bracket through the third fixing member. The third fixing member provides a movable gap between the caliper and the mounting bracket, and the first slider on the caliper can slide within the movable gap.

[0012] In one possible implementation, the drive mechanism includes a drive member, a coupling, a movable member, and a screw. The coupling connects the drive member and the screw, and the movable member connects the force measuring mechanism and the screw. When the screw rotates, the movable member moves along the screw axis, thereby driving the force measuring mechanism to move.

[0013] In one possible implementation, the movable component includes a fixedly mounted threaded slider and a second slider. The threaded slider has an internal threaded hole through which a screw passes. The internal thread engages with the external thread of the screw. The second slider is fixedly mounted to a force measuring mechanism. And / or, the driving mechanism further includes a bearing and a bearing housing. The bearing housing is fixedly mounted to a mounting bracket. The bearing is mounted inside the bearing housing and sleeved on the screw.

[0014] In one possible implementation, the force measuring mechanism and the distance measuring mechanism operate along a first direction X, a contactor is located at the bottom of the force measuring mechanism, a force measuring part is provided at the end of the force measuring mechanism facing the contactor, the driving mechanism is located on one side of the force measuring mechanism along a third direction Z, and the distance measuring mechanism is located on one side of the force measuring mechanism along a second direction Y. The first direction X, the second direction Y, and the third direction Z are perpendicular to each other.

[0015] In one possible implementation, the mounting bracket includes a top plate and a bottom plate arranged in parallel, and a side plate connecting the top plate and the bottom plate, the top plate and the bottom plate being perpendicular to the side plate, a coupling, a moving part and a screw being located between the top plate and the bottom plate, a driving part being located on the side of the top plate away from the bottom plate, and a test seat for mounting a contactor being provided on the side of the bottom plate facing the top plate; and / or, the driving part is a servo motor or an operating handle.

[0016] In one possible implementation, a test circuit is also included to monitor whether the contactor is conducting; and / or the ranging mechanism is a digital vernier caliper, and the force measuring mechanism includes a force measuring device, which is an electronic force measuring device.

[0017] Compared to existing technologies, the contactor measuring device of this application is equipped with a force and distance measuring component. The force and distance measuring component includes a force measuring mechanism and a distance measuring mechanism. A co-positioning connector connects the force measuring mechanism and the distance measuring mechanism. The driving mechanism is connected to the force measuring mechanism. The driving mechanism drives the force measuring mechanism to move linearly. The force measuring mechanism drives the distance measuring mechanism to move through the co-positioning connector, so that the force measuring mechanism and the distance measuring mechanism can operate synchronously, measuring force and distance simultaneously. The measurement position is easy to grasp, the measurement result is more accurate, the operation is simple, and the measurement effect can be improved.

[0018] Furthermore, the driving component is a servo motor, which is mounted on the top plate. One end of the servo motor is plugged into the screw. By installing a servo motor on the equipment, manual operation is replaced, measurement results are repeatable, testing efficiency is greatly improved, and mass production requirements can be met.

[0019] Furthermore, the force and distance measuring component is assembled using existing digital vernier calipers and electronic force measuring devices, which is simple in structure and easy to implement. Attached Figure Description

[0020] Figure 1 This is a schematic diagram of the contactor measuring device of this utility model;

[0021] Figure 2 This is a partial exploded view of the contactor measuring device of this utility model;

[0022] Figure 3 This is an exploded view of the ranging mechanism of this utility model;

[0023] Figure 4 This is an exploded view of the force measuring mechanism of this utility model;

[0024] Figure 5 This is an exploded view of the drive mechanism of this utility model;

[0025] Figure 6 This is an exploded view of the mounting bracket of this utility model;

[0026] Figure 7 This is a schematic diagram of the structure of the second embodiment of the contactor measuring device of this utility model;

[0027] The reference numerals in the attached figures include:

[0028] Drive mechanism 1;

[0029] Drive component 11; Coupling 12; Moving component 13; Screw 14; Bearing 15; Bearing housing 16;

[0030] Threaded slider 131; second slider 132;

[0031] Force measuring mechanism 2;

[0032] Force measuring device 21; force measuring part 22; first fixing structure 23;

[0033] First connector 231; Second connector 232;

[0034] Card slot 2311;

[0035] Distance measuring mechanism 3;

[0036] 31 calipers; 32 second fixing structure;

[0037] First slider 311; first fixing member 321; second fixing member 322; third fixing member 323;

[0038] Mounting bracket 4;

[0039] Top plate 41; bottom plate 42; side plate 43; test seat 44; support plate 45;

[0040] Top 411; Side 412;

[0041] Co-position connector 5;

[0042] Contactor 6;

[0043] Putter 7;

[0044] First direction X; second direction Y; third direction Z. Detailed Implementation

[0045] The specific embodiments of this utility model are further described below with reference to the accompanying drawings. The scope of protection of this utility model is not limited to the description of the following embodiments.

[0046] like Figures 1-4As shown, this application provides a contactor measuring device, including a drive mechanism 1, a force and distance measuring assembly, and a mounting frame 4. The force and distance measuring assembly includes a force measuring mechanism 2, a distance measuring mechanism 3, and a co-positioning connector 5 connecting the force measuring mechanism 2 and the distance measuring mechanism 3. The force measuring mechanism 2 is provided with a force measuring part 22. The drive mechanism 1 is connected to the distance measuring mechanism 3 and / or the force measuring mechanism 2. When the drive mechanism 1 is activated, it can simultaneously drive the distance measuring mechanism 3 and the force measuring mechanism 2 to move. In this embodiment, the distance measuring mechanism 3 is connected to the force measuring mechanism 2, and the drive mechanism 1 is connected to the force measuring mechanism 2. The drive mechanism 1 drives the force measuring mechanism 2 to move linearly, causing the force measuring mechanism 2 to drive the distance measuring mechanism 3 to move and perform distance measurement. In this embodiment, the drive mechanism 1, the force measuring mechanism 2, and the distance measuring mechanism 3 are connected to the mounting frame 4, making the structure of the device stable. As another embodiment, the mounting frame 4 can be omitted, and the measurement effect can still be achieved. The driving mechanism 1 is connected to the force measuring mechanism 2. The driving mechanism 1 drives the force measuring mechanism 2 to move linearly, so that the force measuring part 22 of the force measuring mechanism 2 moves closer to or further away from the moving iron core of the contactor 6. The force measuring mechanism 2 drives the distance measuring mechanism 3 to move through the co-positioning connector 5.

[0047] This application enables the force measuring mechanism 2 and the distance measuring mechanism 3 to operate synchronously by setting up a co-position connector 5, simultaneously measuring force and distance. This makes it easier to grasp the measurement position, resulting in more accurate measurement results. The operation is simple and can improve the measurement effect.

[0048] like Figure 1 and Figure 2 As shown, the force measuring mechanism 2 includes a force measuring device 21 or a pressure sensor. Preferably, the force measuring mechanism 2 includes a force measuring device 21, which is an electronic force measuring device. The force measuring device 21 is equipped with a first display screen and a force measuring part 22. The force measuring part 22 contacts and presses against the object being measured, causing the force measuring device 21 to produce a change in reading. The first display screen can display the force value. The force measuring part 22 can be a planar structure or a rod-shaped structure. In this embodiment, the force measuring part 22 is a force measuring rod. The force measuring rod abuts against the moving iron core of the contactor 6, driving the moving iron core to move.

[0049] Preferred, such as Figure 2 and Figure 4As shown, the force measuring mechanism 2 further includes a first fixing structure 23 for mounting the force measuring device 21 to the drive mechanism 1. The first fixing structure 23 is connected to the co-positioning connector 5. The first fixing structure 23 includes a first connector 231 and a second connector 232 fixedly mounted. The force measuring device 21 is fixedly connected to the first connector 231, and the second connector 232 is connected to the drive mechanism 1, so that the force measuring device 21 is connected to the drive mechanism 1 through the first connector 231 and the second connector 232. The co-positioning connector 5 connects the first connector 231 and / or the second connector 232. In this embodiment, the co-positioning connector 5 is a connecting plate, connected between the first connector 231 and the second connector 232, so that the co-positioning connector 5, the first connector 231, and the second connector 232 are fixedly connected. In other embodiments, the first connector 231 and the co-position connector 5 can be integrally formed, or the co-position connector 5 and the second connector 232 can be integrally formed, or the first connector 231, the co-position connector 5 and the second connector 232 can be integrally formed.

[0050] Furthermore, such as Figure 4 As shown, the first connector 231 is a connecting plate with a slot 2311. The force gauge 21 is inserted into the slot 2311 for easier disassembly and assembly.

[0051] Preferred, such as Figure 2 and Figure 3 As shown, the ranging mechanism 3 includes a caliper 31 and a second fixing structure 32. The caliper 31 is mounted on the mounting frame 4 via the second fixing structure 32. The second fixing structure 32 includes a first fixing member 321, a second fixing member 322, and a third fixing member 323. The first fixing member 321 has a limiting groove and is fixedly connected to the second fixing member 322, fixing the end of the caliper 31 within the limiting groove, located between the first fixing member 321 and the second fixing member 322. The first fixing member 321 and the second fixing member 322 fix and lock the caliper 31. The first fixing member 321 and the second fixing member 322 are connected to the mounting frame 4 via the third fixing member 323. The third fixing member 323 provides a movable gap between the caliper 31 and the mounting frame 4, allowing the first slider 311 on the caliper 31 to slide within the movable gap. In this embodiment, the second fixing structure 32 is provided at both ends of the caliper 31. In this embodiment, the ranging mechanism 3 is a digital vernier caliper. The first slider 311 of the caliper 31 is equipped with a second display screen. Moving the first slider 311 can change the reading on the second display screen.

[0052] Furthermore, the co-position connector 5 is connected to the first slider 311 of the caliper 31, so that when the force measuring mechanism 2 moves, it can drive the first slider 311 of the caliper 31 to move.

[0053] Preferred, such as Figure 2 and Figure 5 As shown, the driving mechanism 1 includes a driving component 11, a coupling 12, a moving component 13, and a screw 14. The coupling 12 connects the driving component 11 and the screw 14, and is used to drive the screw 14 to rotate. The moving component 13 is connected to the screw 14, and moves along the axial direction of the screw 14 when the screw 14 rotates. The moving component 13 is connected to the force measuring mechanism 2, and the movement of the moving component 13 can drive the force measuring mechanism 2 to move. In this embodiment, the moving component 13 is fixedly connected to the second connecting member 232 of the force measuring mechanism 2.

[0054] Furthermore, such as Figure 5 As shown, the movable component 13 includes a fixedly installed threaded slider 131 and a second slider 132. The threaded slider 131 has an internal threaded hole through which the screw 14 passes, and the internal thread engages with the external thread of the screw 14. The second slider 132 is fixedly installed with the force measuring mechanism 2. In this embodiment, the second slider 132 has a through hole, and one end of the threaded slider 131 has a protrusion that inserts into the through hole for limiting its installation.

[0055] Furthermore, such as Figure 5 As shown, the drive mechanism 1 also includes a bearing 15 and a bearing housing 16. The bearing housing 16 is fixedly installed with the mounting bracket 4, and the bearing 15 is installed inside the bearing housing 16. The bearing 15 is sleeved on the screw 14, providing lubrication and limiting for the screw 14. In this embodiment, the screw 14 is provided with a bearing 15 and a bearing housing 16 at both ends, which improves the fixing and lubrication effect of the screw 14.

[0056] Preferred, such as Figure 1 and Figure 2 As shown, the screw 14 is arranged along the first direction X in its length direction, and the driving component 11, coupling 12, and moving component 13 are arranged sequentially from top to bottom along the first direction X. The moving component 13 is located between two bearing seats 16. The caliper 31 of the distance measuring mechanism 3 is arranged along the first direction X in its length direction, and two second fixing structures 32 are arranged at both ends of the caliper 31 along the first direction X. The force measuring mechanism 2 and the distance measuring mechanism 3 operate along the first direction X. The contactor 6 is located at the bottom of the force measuring mechanism 2, and a force measuring part 22 is provided at one end of the force measuring mechanism 2 facing the contactor 6. The driving mechanism 1 is located on one side of the force measuring mechanism 2 along the third direction Z, and the distance measuring mechanism 3 is located on one side of the force measuring mechanism 2 along the second direction Y. The first direction X, the second direction Y, and the third direction Z are perpendicular to each other.

[0057] Preferred, such as Figure 1 and Figure 2As shown, the mounting frame 4 includes a top plate 41 and a bottom plate 42 arranged in parallel, and a side plate 43 connecting the top plate 41 and the bottom plate 42. The top plate 41 and the bottom plate 42 are perpendicular to the side plate 43. The coupling 12, the moving part 13, and the screw 14 are located between the top plate 41 and the bottom plate 42. The driving part 11 is located on the side of the top plate 41 away from the bottom plate 42. The top plate 41 and the bottom plate 42 are located at the upper and lower ends along the first direction X. The driving mechanism 1 is located along the third direction Z between the plane where the side plate 43 is located and the force measuring mechanism 2.

[0058] Furthermore, such as Figure 2 and Figure 6 As shown, the top plate 41 includes a bent and connected top 411 and a side 412. The top 411 is parallel to the bottom plate 42, and the side 412 is fixedly installed after being attached to the side plate 43.

[0059] Preferred, such as Figure 2 and Figure 6 As shown, a test base 44 is provided on the base plate 42 of the mounting bracket 4, and the contactor 6 is fixed on the test base 44, making the testing process more convenient. As another embodiment, the test base 44 may not be provided, and the contactor 6 can be placed directly on the test platform or stabilized by hand, and the testing effect can still be achieved.

[0060] Preferred, such as Figure 2 and Figure 6 As shown, the mounting frame 4 further includes a support plate 45, which is located on the side of the side plate 43 away from the force measuring mechanism 2. The support plate 45 is vertically connected to the base plate 42 and the side plate 43. In this embodiment, the mounting frame 4 includes two parallel support plates 45, which are located on both sides of the side plate 43 along the second direction Y.

[0061] Preferred, such as Figure 1 As shown, the driving component 11 is a servo motor, which is mounted on the top plate 41. One end of the servo motor is plugged into the screw 14. By installing a servo motor on the equipment, manual operation is replaced, measurement results are repeatable, testing efficiency is greatly improved, and mass production requirements can be met.

[0062] Preferred, such as Figure 7 As shown, the driving component 11 is an operating handle, which allows manual rotation of the screw 14. In this embodiment, the mounting bracket 4 may not have a top plate 41.

[0063] As other embodiments, such as Figure 7 As shown, the force measuring device 21 of the force measuring mechanism 2 of this application can be replaced by the push rod 7. The stroke parameters of the contactor 6 can be tested separately through the push rod 7. The measuring device has a simple structure and lower cost.

[0064] This device is a semi-automatic measuring device, and its working process is as follows:

[0065] The contactor 6 is fixedly mounted on the test socket 44 and connected to the test circuit to monitor whether the contactor 6 is conducting. For example, the test circuit may include a test power supply and an indicator light. The contactor 6 is connected between the test power supply and the indicator light, which is the load terminal. When the contactor 6 is conducting, the indicator light lights up.

[0066] When the device is in its initial position, the force measuring rod of the force gauge 21 is not yet in contact with the moving iron core of the contactor 6, and the reading on the force gauge 21 is 0. First, the drive component 11 drives the screw 14 to rotate. The screw 14, through the moving component 13, drives the force measuring mechanism 2 to move, causing the force measuring rod to move downwards along the first direction X. The force measuring rod contacts and presses against the moving iron core, and the reading on the force gauge 21 is greater than 0. Then, the screw 14 is reversed until the reading on the force gauge 21 is 0, and the digital caliper 31 is zeroed. Next, the screw 14 is rotated to drive the moving iron core until the load end connected to the contactor 6 is detected to be conducting, and the reading on the digital caliper 31 is recorded. First, record the value X1 on the force gauge 21, and then record the value F1. Next, energize the contactor 6 coil to make it engage. At this point, the moving iron core moves until the force gauge 21 reading is 0. Continue driving the screw 14 to rotate, and the test rod moves towards the moving iron core until it contacts it. When the force gauge 21 reading is greater than 0, reverse the screw 14 to return the force gauge 21 reading to 0. At this point, de-energize the contactor 6 coil, record the value X2 on the digital caliper 31, and record the value F2 on the force gauge 21. Where X1 is the contactor 6 opening distance, X2 is the contactor 6 total stroke, F1 is the contactor 6 critical reaction force, and F2 is the contactor 6 total reaction force. Therefore, the overtravel Δ... X =X2-X1, contact pressure F c =F2-F1.

[0067] The total stroke refers to the distance the moving iron core travels from the released state to the engaged state; in terms of measurement, it refers to the distance between the moving iron core and the stationary iron core.

[0068] The open distance refers to the shortest straight-line distance between the moving contact and the stationary contact in the released state of contactor 6; the measurement refers to the distance between the moving contact and the stationary contact.

[0069] Overtravel refers to the distance the moving iron core travels during the engagement process, from the moment the moving contact and the stationary contact just make contact until they are fully engaged; in measurement, overtravel = total travel - opening distance.

[0070] Critical reaction force refers to the reaction force measured by the force gauge 21 at the tail of the moving iron core at the instant when the moving contact and the stationary contact of contactor 6 just make contact;

[0071] Total reaction force refers to the reaction force measured by the force gauge 21 at the tail of the moving iron core when the contactor 6 is fully engaged.

[0072] It should be noted that in the description of this utility model, the terms "upper," "lower," "left," "right," "inner," and "outer," etc., indicate the orientation or positional relationship based on the orientation or positional relationship shown in the accompanying drawings, or the orientation or positional relationship commonly used during use. They are only for ease of description and do not indicate that the device or component referred to must have a specific orientation. Therefore, they should not be construed as limitations on this utility model. Furthermore, the terms "first," "second," and "third," etc., are only used to distinguish descriptions and should not be construed as indicating relative importance.

[0073] The above description, in conjunction with specific preferred embodiments, provides a further detailed explanation of the present invention. It should not be construed that the specific implementation of the present invention is limited to these descriptions. For those skilled in the art, various simple deductions or substitutions can be made without departing from the concept of the present invention, and all such modifications and substitutions should be considered within the protection scope of the present invention.

Claims

1. A contactor measuring device comprising a drive mechanism (1) and a mounting bracket (4), the drive mechanism (1) being provided on the mounting bracket (4), characterized in that, It also includes a force measuring and distance measuring component, which includes a force measuring mechanism (2), a distance measuring mechanism (3), and a co-positioning connector (5) connecting the force measuring mechanism (2) and the distance measuring mechanism (3). The force measuring mechanism (2) is provided with a force measuring part (22). The driving mechanism (1) is connected to the force measuring mechanism (2). The driving mechanism (1) drives the force measuring mechanism (2) to move linearly, so that the force measuring part (22) of the force measuring mechanism (2) moves closer to or further away from the moving iron core of the contactor (6). The force measuring mechanism (2) drives the distance measuring mechanism (3) to move through the co-positioning connector (5).

2. The contactor measurement device of claim 1, wherein, The ranging mechanism (3) includes a caliper (31) and a second fixing structure (32). The caliper (31) is mounted on the mounting frame (4) through the second fixing structure (32). The caliper (31) is provided with a first slider (311), which is connected to the co-position connector (5).

3. The contactor measuring device according to claim 1, characterized in that, The force measuring mechanism (2) includes a force measuring device (21) and a first fixing structure (23). The force measuring device (21) is connected to the driving mechanism (1) through the first fixing structure (23), and the first fixing structure (23) is connected to the co-position connector (5).

4. The contactor measuring device according to claim 3, characterized in that, The first fixed structure (23) includes a first connector (231) and a second connector (232) that are fixedly installed. The force measuring device (21) is fixedly connected to the first connector (231), and the second connector (232) is connected to the drive mechanism (1). The co-position connector (5) is clamped between the first connector (231) and the second connector (232) to fix the co-position connector (5), the first connector (231) and the second connector (232) together. The first connector (231) is provided with a slot (2311), and the force measuring device (21) is inserted into the slot (2311).

5. The contactor measuring device according to claim 2, characterized in that, The second fixing structure (32) includes a first fixing member (321), a second fixing member (322) and a third fixing member (323). The first fixing member (321) is provided with a limiting groove. The first fixing member (321) and the second fixing member (322) are fixedly connected to fix the end of the caliper (31) in the limiting groove, located between the first fixing member (321) and the second fixing member (322). The second fixing member (322) is connected to the mounting bracket (4) through the third fixing member (323). The third fixing member (323) makes there a movable gap between the caliper (31) and the mounting bracket (4), and the first slider (311) on the caliper (31) can slide within the movable gap.

6. The contactor measuring device according to claim 1, characterized in that, The drive mechanism (1) includes a drive component (11), a coupling (12), a moving component (13), and a screw (14). The coupling (12) is connected between the drive component (11) and the screw (14). The moving component (13) is connected between the force measuring mechanism (2) and the screw (14). When the screw (14) rotates, the moving component (13) moves along the axial direction of the screw (14), thereby driving the force measuring mechanism (2) to move.

7. The contactor measuring device according to claim 6, characterized in that, The movable component (13) includes a fixedly installed threaded slider (131) and a second slider (132). The threaded slider (131) is provided with an internal threaded hole, through which the screw (14) passes. The internal thread engages with the external thread of the screw (14). The second slider (132) is fixedly installed with the force measuring mechanism (2). And / or, the driving mechanism (1) further includes a bearing (15) and a bearing seat (16). The bearing seat (16) is fixedly installed with the mounting bracket (4). The bearing (15) is installed inside the bearing seat (16) and is sleeved on the screw (14).

8. The contactor measuring device according to claim 1, characterized in that, The force measuring mechanism (2) and the distance measuring mechanism (3) move along the first direction X. The contactor (6) is located at the bottom of the force measuring mechanism (2). A force measuring part (22) is provided at one end of the force measuring mechanism (2) facing the contactor (6). The driving mechanism (1) is located on one side of the force measuring mechanism (2) along the third direction Z. The distance measuring mechanism (3) is located on one side of the force measuring mechanism (2) along the second direction Y. The first direction X, the second direction Y and the third direction Z are perpendicular to each other.

9. The contactor measuring device according to claim 6, characterized in that, The mounting bracket (4) includes a top plate (41) and a bottom plate (42) arranged in parallel, and a side plate (43) connecting the top plate (41) and the bottom plate (42). The top plate (41) and the bottom plate (42) are perpendicular to the side plate (43). A coupling (12), a moving part (13) and a screw (14) are located between the top plate (41) and the bottom plate (42). A driving part (11) is located on the side of the top plate (41) away from the bottom plate (42). A test seat (44) for mounting a contactor (6) is provided on the side of the bottom plate (42) facing the top plate (41); and / or, the driving part (11) is a servo motor or an operating handle.

10. The contactor measuring device according to claim 1, characterized in that, It also includes a test circuit for monitoring whether the contactor (6) is conducting; and / or the distance measuring mechanism (3) is a digital vernier caliper, and the force measuring mechanism (2) includes a force measuring device (21), which is an electronic force measuring device.

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