Test power-on structure

Abstract

The utility model discloses a kind of power-on structures for testing, it is related to laser technology field, wherein, power-on structure for testing is used for the conduction test of pumping structure, power-on structure for testing includes frame body, conduction structure and drive structure, wherein, conduction structure includes seat body part and conduction piece, seat body part is movably mounted on frame body along vertical direction, conduction piece is installed on seat body part, and the position of conduction piece in first direction is adjustable;Drive structure includes first driving part and connecting part, first driving part is installed on frame body corresponding to seat body part, and the output end of first driving part is movably arranged along first direction, connecting part is arranged between seat body part and the output end of first driving part, to be used for let first driving part drive seat body part move in vertical direction;In the present scheme, entire test structure is relatively simple, easy to operate and compact structure, under the premise of guaranteeing test efficiency, later stage can be directly transplanted to whole machine structure, and the influence to whole machine structure is relatively smaller.

Description

Technical Field

[0001] This utility model relates to the field of laser technology, and in particular to a test power-conducting structure. Background Technology

[0002] The current production line uses manual testing of each component to test the performance of pump structures. This method is highly demanding on manual labor, has low efficiency, and is prone to issues such as poor contact. Furthermore, some automated testing structures are relatively complex and occupy a large amount of space, which is not conducive to saving space or direct transfer to the overall machine structure later. Utility Model Content

[0003] The main purpose of this utility model is to propose a test power-on structure, which aims to solve the problems of low efficiency of traditional pump power-on testing methods, poor compactness of some test equipment, and space occupation, which is not conducive to direct transplantation to the whole machine structure in the later stage.

[0004] To achieve the above objectives, the present invention proposes a test power-on structure for conducting continuity tests on pump structures. The test power-on structure includes:

[0005] Frame;

[0006] A conductive structure includes a base and a conductive member. The base is movably mounted on the frame in a vertical direction, and the conductive member is mounted on the base and its position is adjustable in a first direction.

[0007] The driving structure includes a first driving part and a connecting part. The first driving part is mounted on the frame corresponding to the seat part, and the output end of the first driving part is movably arranged along the first direction. The connecting part is disposed between the seat part and the output end of the first driving part to allow the first driving part to drive the seat part to move in the vertical direction.

[0008] Wherein, the first direction is the horizontal plane direction.

[0009] In one embodiment, the frame is further provided with a mounting plate portion, which has a travel in a second direction on the frame.

[0010] Both the base portion and the first drive portion are mounted on the mounting plate portion;

[0011] The second direction is the horizontal plane direction.

[0012] In one embodiment, the frame includes a mounting end in a first direction, and the driving structure includes a second driving part disposed on the mounting end and connected to the mounting plate portion, for driving the mounting plate portion to reciprocate in a second direction; and / or,

[0013] The frame is provided with a guide rail extending in a second direction, and the mounting plate is disposed on the guide rail.

[0014] In one embodiment, the mounting plate portion has a vertical plate portion at one end corresponding to the mounting end, and the vertical plate portion has a guide groove portion formed in the vertical direction;

[0015] The second drive unit includes:

[0016] A rotating arm is rotatably mounted on the mounting end, and at least one end of the rotating arm is located within the guide groove; and,

[0017] The push rod is rotatably mounted on the mounting end, and the output end of the push rod is rotatably connected to the rotating arm.

[0018] In one embodiment, a connecting shaft is provided at one end of the rotating arm, and one end of the connecting shaft is disposed within the guide groove; and / or,

[0019] The first drive unit is mounted on the vertical plate.

[0020] In one embodiment, the frame is further provided with a mounting plate.

[0021] The mounting part is provided with a guide shaft along the vertical direction;

[0022] The seat portion includes a seat body and a slider portion, wherein the slider portion is movably mounted on the seat body along a first direction;

[0023] The conductive element is mounted on the slider.

[0024] In one embodiment, the conductive element includes:

[0025] A mounting base is provided on the slider portion;

[0026] Two conductive parts are movably mounted on the mounting base in the vertical direction, and an elastic element is provided between the conductive parts and the mounting base; and,

[0027] A conductive plate is disposed between the upward-facing ends of the two conductive portions.

[0028] In one embodiment, microswitches are provided at both ends of the mounting base in the first direction, and both ends of the conductive plate in the first direction protrude from the end face of the mounting base to form contact ends. The lower end faces of the two contact ends respectively abut against the spring contacts of the two microswitches; and / or,

[0029] The mounting base has a mounting groove along the vertical direction, and the slider has multiple threaded holes corresponding to the mounting groove. The mounting base is installed on the slider by threaded parts.

[0030] In one embodiment, the base portion has a drive end located away from the conductor;

[0031] The connecting part includes:

[0032] A drive frame is mounted on the output end of the first drive unit, and the other end of the connecting part extends at least partially to the drive end, and a drive shaft is provided on the extended end of the connecting part;

[0033] A protrusion is provided on the drive end, and a drive groove is provided on the protrusion. The extension direction of the drive groove is set at an angle to the horizontal plane, and one end of the drive shaft is at least partially located in the drive groove.

[0034] In one embodiment, the test power-on structure further includes a support frame, the upper end of which has a fixing surface for fixing the pump tooling.

[0035] The frame is installed at one end of the receiving frame in the second direction, and the installation position of the frame on the receiving frame is adjustable in the second direction.

[0036] The energized structure provided in this invention has a more compact design, with a smaller space occupancy in both the horizontal and vertical directions. This makes it suitable for relocation as a testing device for the entire machine structure, avoiding interference with external structural components and contributing to a more compact overall design. Furthermore, the structure enables automatic alignment and contact detection of the conductive parts, effectively preventing issues such as misalignment of contacts during manual testing or poor contact due to improper operation. This significantly improves the accuracy of test results. Attached Figure Description

[0037] To more clearly illustrate the technical solutions in the embodiments of this utility model or the prior art, the drawings used in the description of the embodiments or the prior art will be briefly introduced below. Obviously, the drawings described below are only some embodiments of this utility model. For those skilled in the art, other drawings can be obtained based on the structures shown in these drawings without creative effort.

[0038] Figure 1 A schematic diagram of the overall structure of an embodiment of the power-on structure for testing provided by this utility model;

[0039] Figure 2 for Figure 1 A partial structural diagram;

[0040] Figure 3 for Figure 1 A detailed structural diagram of the connecting part;

[0041] Figure 4 for Figure 2 A schematic diagram of the specific structure of the middle slider section.

[0042] Explanation of icon numbers:

[0043] 100. Test power-conducting structure; 1. Frame; 11. Guide rail; 2. Conducting structure; 21. Seat; 211. Seat body; 212. Slider; 2121. Threaded hole; 22. Conducting element; 221. Mounting seat; 2211. Mounting groove; 2212. Micro switch; 222. Conducting part; 223. Conducting plate; 2231. Elastic element; 3. Drive structure; 31. First drive part; 32. Connecting part; 321. Drive frame; 3211. Drive shaft; 322. Protrusion; 3221. Drive groove; 33. Second drive part; 331. Rotary arm; 3311. Connecting shaft; 332. Push rod; 4. Mounting plate; 41. Guide shaft; 42. Vertical plate; 421. Guide groove; 5. Receiving frame.

[0044] The realization of the purpose, functional features and advantages of this utility model will be further explained in conjunction with the embodiments and with reference to the accompanying drawings. Detailed Implementation

[0045] The technical solutions of the present utility model will be clearly and completely described below with reference to the accompanying drawings of the embodiments. Obviously, the described embodiments are only some embodiments of the present utility model, and not all embodiments. Based on the embodiments of the present utility model, all other embodiments obtained by those of ordinary skill in the art without creative effort are within the scope of protection of the present utility model.

[0046] It should be noted that if the embodiments of this utility model involve directional indicators (such as up, down, left, right, front, back, etc.), the directional indicators are only used to explain the relative positional relationship and movement of the components in a specific posture. If the specific posture changes, the directional indicators will also change accordingly.

[0047] Furthermore, if the embodiments of this utility model involve descriptions such as "first" or "second," these descriptions are for descriptive purposes only and should not be construed as indicating or implying their relative importance or implicitly specifying the number of technical features indicated. Therefore, a feature defined with "first" or "second" may explicitly or implicitly include at least one of those features. Additionally, the use of "and / or" or "and / or" throughout the text includes three parallel solutions. For example, "A and / or B" includes solution A, solution B, or a solution where both A and B are satisfied simultaneously. Furthermore, the technical solutions of the various embodiments can be combined with each other, but this must be based on the ability of those skilled in the art to implement them. When the combination of technical solutions is contradictory or impossible to implement, it should be considered that such a combination of technical solutions does not exist and is not within the scope of protection claimed by this utility model.

[0048] The current production line uses manual testing of each component to test the performance of pump structures. This method is highly demanding on manual labor, has low efficiency, and is prone to issues such as poor contact. Furthermore, some automated testing structures are relatively complex and occupy a large amount of space, which is not conducive to saving space or direct transfer to the overall machine structure later.

[0049] This invention proposes a test-type energized structure to solve the above problems.

[0050] Please see Figures 1 to 2 In one embodiment of this utility model, the test power-conducting structure 100 is used for conducting continuity tests on a pump structure. The test power-conducting structure 100 includes a frame 1, a conduction structure 2, and a drive structure 3. The conduction structure 2 includes a base portion 21 and a conduction member 22. The base portion 21 is movably mounted on the frame 1 in a vertical direction, and the conduction member 22 is mounted on the base portion 21, with its position adjustable in the first direction. The drive structure 3 includes a first drive portion 31 and a connecting portion 32. The first drive portion 31 is mounted on the frame 1 corresponding to the base portion 21, and its output end is movably disposed in the first direction. The connecting portion 32 is located between the base portion 21 and the output end of the first drive portion 31, allowing the first drive portion 31 to drive the base portion 21 to move in the vertical direction. The first direction is the horizontal plane direction.

[0051] The described energized structure is primarily used for energizing the pump structure. Unlike conventional energizing test structures, the energizing structure provided in the above embodiment has a more compact structure with a smaller space occupancy in both the horizontal and vertical directions. This makes it suitable for relocation as a test device for the entire machine structure, avoiding interference with external structural components and contributing to a more compact overall design. Furthermore, it should be noted that the above structure establishes an automatic alignment and contact detection method for the conductive part 222. This effectively avoids issues such as difficulty in contact alignment or poor contact due to improper operation during manual testing, thus significantly improving the accuracy of the test results.

[0052] Specifically, during the power-on test, the energized component needs to move vertically and connect with the electrical connection 32 on the pump structure. Traditional structures often arrange the linear drive structure 3 vertically, and the outer shell structure of the drive component and the stroke of its output end increase the vertical space occupied by the entire test structure. Considering the above problem, in the above embodiment, the output end of the first drive unit 31 is movably arranged along the first direction, which corresponds to the direction in the horizontal plane. During the horizontal movement of the output end of the first drive unit 31, it can drive the connection part 32 to move. The connection part 32 can convert the horizontal movement of the output end of the first drive unit 31 into the vertical movement of the base part 21. Because the conductive component 22 is a contact-type conductive structure 2, it essentially does not require a large-stroke drive structure 3 in the vertical direction. Using the structure of the first drive unit 31 in this solution, the maximum vertical stroke of the power-on structure test part can be set according to the specific length and stroke of the conductive component 22, directly avoiding the space occupied by the vertical installation of the drive unit, thus reducing the vertical space occupied by the entire structure.

[0053] In actual production, to improve testing efficiency, an automatic feeding method is generally used for feeding the pump fixture structure. The aforementioned conductive component 22 moves vertically during testing, allowing it to connect with the positive and negative electrode structures on the pump fixture below. To facilitate feeding, the pump fixture is placed directly from top to bottom, avoiding interference from the conductive component 22 in the vertical direction. In this embodiment, a mounting plate 4 is also provided on the frame 1, and the mounting plate 4 has a travel distance in a second direction on the frame 1; the seat 21 and the first drive 31 are both mounted on the mounting plate 4; wherein, the second direction is the horizontal plane direction.

[0054] Preferably, the first direction and the second direction are two mutually perpendicular directions in the horizontal plane. Specifically, during automatic feeding of the pump fixture, the mounting plate 4 can move in the second direction, allowing one end of the conductive member 22 to be withdrawn from the vertical direction of the pump fixture placement area. At this time, the feeding structure, such as a robotic arm structure, can directly place the pump fixture in a fixed position on the fixture from the vertical direction. This helps optimize the movement trajectory of the feeding structure, thereby improving feeding efficiency. During testing, the movable plate drives the conductive member 22 to a position above the positive and negative poles of the pump structure, and then the first drive unit 31 is activated to complete the relevant continuity test.

[0055] The frame 1 includes a mounting end in a first direction, and the drive structure 3 includes a second drive unit 33. The second drive unit 33 is disposed on the mounting end and connected to the mounting plate 4, for driving the mounting plate 4 to reciprocate in a second direction. In this embodiment, the second drive unit 33 is used to drive the mounting plate 4 to move, realizing automatic control of the movement of the mounting plate 4, which can effectively improve the movement control accuracy of the mounting plate 4 in the second direction.

[0056] Specifically, the mounting plate portion 4 has a vertical plate portion 42 at one end corresponding to the mounting end, and the vertical plate portion 42 has a guide groove portion 421 formed in the vertical direction; the second driving portion 33 includes a rotating arm portion 331 and a push rod portion 332. The rotating arm portion 331 is rotatably mounted on the mounting end, and at least one end of the rotating arm portion 331 is located in the guide groove; the push rod portion 332 is rotatably mounted on the mounting end, and the output end of the push rod portion 332 is rotatably connected to the rotating arm portion 331.

[0057] like Figure 2 and Figure 3 As shown, in the above embodiment, when the push rod 332 starts working, it will drive the rotating arm 331 to rotate a certain angle around the axis in the first direction on the mounting end. When the rotating arm 331 rotates, its end slides in the guide groove 421 on the vertical plate 42. The guide groove 421 extends vertically. When one end of the rotating arm 331 rotates, the end that contacts the guide groove 421 will generate a pushing and pulling force in the first direction on the vertical plate 42 (the pushing and pulling forces correspond to the rotation direction of the rotating arm 331). This will drive the mounting plate 4 to move in the second direction.

[0058] It should be noted that the specific shape of the rotating arm 331 can be set according to the actual situation. For example, as Figure 2As shown, in its structure, the rotating arm 331 is a central rotating structure, with its rotational mounting position at its central location. One end of the rotating arm 331 is connected to the vertical plate 42, and the other end is connected to the output end of the push rod 332. With the mounting end facing upwards, this structure allows the rotating arm 331 to rotate counterclockwise when the output end of the push rod 332 extends, thereby pushing the mounting plate 4 to the left. Similarly, when the push rod 332 retracts, it will drive the mounting plate 4 to the right. In this structure, the angles of the two support arms at both ends of the rotating arm 331's rotational mounting position can also be adjusted according to actual requirements.

[0059] In another embodiment of this application, the rotating arm 331 can also be configured as a single-arm structure with an end rotatably mounted. If configured as a single-arm structure, one end is rotatably mounted on the mounting surface, and the other end is also mounted in the guide groove 421. In this case, the output end of the push rod 332 is rotatably mounted at the middle position of the rotating arm 331. In this embodiment, with the mounting end facing the wall as a reference, when the output end of the push rod 332 extends outward, it will drive the rotating arm 331 to rotate clockwise, thereby driving the mounting plate 4 to move to the right. Conversely, it will drive the mounting plate 4 to move to the left. This can be configured according to actual conditions.

[0060] Additionally, it should be noted that the rotating arm 331 is a rotating structure. This design does not employ a motor as the driving component, nor does it use a cylinder structure installed in the second direction of the frame 1. This is because using a motor or a cylinder structure in the second direction would increase the overall dimensions of the frame 1 in both the first and second directions. During actual movement, the push rod 332 does not significantly increase the overall length of the frame 1 in the first direction, contributing to the compactness and miniaturization of the entire structure.

[0061] To ensure the stability of the mounting plate portion 4 during movement in the second direction, a guide rail portion 11 extending along the second direction is provided on the frame 1, and the mounting plate portion 4 is disposed on the guide rail portion 11. The guide rail portion 11 reduces the contact area, thereby reducing the resistance encountered by the mounting plate portion 4 during movement.

[0062] For the first drive unit 31, it is preferable to detachably install one end of the first drive unit 31 onto the vertical plate part 42 by means of screws or bolts.

[0063] To further ensure the stability of the seat body 21 during vertical movement, in this embodiment, a mounting plate 4 is also provided on the frame 1; a guide shaft 41 is provided on the mounting plate along the vertical direction; the seat body 21 includes a seat body 221 and a slider 212, the slider 212 is movably mounted on the seat body 221 along a first direction; the guide member 22 is mounted on the slider.

[0064] During the vertical movement of the seat body 221 driven by the connecting part 32, the guide shaft part 41 can guide the movement of the seat body 221. Furthermore, considering that the conductive member 22 requires alignment adjustment during installation, in the above embodiment, the conductive member 22 is installed on the slider part 212. The slider part 212 can be adjusted in position on the seat body 221 along the first direction, thereby allowing the conductive member 22 to better communicate with the positive and negative electrode conductive parts on the pump structure.

[0065] Specifically, in one embodiment of this application, the conductive member 22 includes a mounting base 221, two conductive portions 222, and a conductive plate 223. The mounting base 221 is disposed on the slider portion 212, and both conductive portions 222 are movably mounted on the mounting base 221 in a vertical direction. An elastic member 2231 is provided between the conductive portions 222 and the mounting base 221. The conductive plate 223 is disposed between the upward-facing ends of the two conductive portions 222.

[0066] The two conductive parts 222 are arranged vertically, with their downward-facing end walls serving as contact ends for making contact and conducting with the positive and negative electrodes on the pump structure. The upward-facing ends of the two conductive parts 222 are connected by the conductive plate 223 to form a passage. When the conductive part 222 actually contacts the external conductive structure 2, it will move downwards a small distance to ensure effective contact. During this process, to avoid hard contact, the conductive part 22 is vertically movable and can automatically reset after separation from the external structure. In the actual structural setup, the two conductive parts 222 are preferably configured as probe structures because probe structures have a telescopic effect, effectively avoiding deformation of the positive and negative electrodes of the pump structure caused by hard contact.

[0067] To verify whether the two conductive parts 222 make contact with the positive and negative electrodes of the pump structure during the downward movement, thereby avoiding misjudgment during the testing process, in one embodiment of this application, microswitches 2212 are provided at both ends of the mounting base 221 in the first direction, and both ends of the conductive plate 223 in the first direction protrude from the end face of the mounting base 221 to form contact ends. The lower end faces of the two contact ends respectively abut against the spring contacts of the two microswitches 2212.

[0068] like Figure 2 and Figure 3 As shown, the two microswitches 2212 are respectively mounted on both ends of the mounting base 221, and positioned below the conductive plate 223. In the non-test state, the contact springs of the microswitches 2212 and the conductive plate 223 are in a conductive state, corresponding to the non-contact state of the conductive part 222. When the downward-facing end of the conductive part 222 contacts and abuts against the external contact point, the conductive part 222 will move upwards in the vertical direction, thereby causing the conductive plate 223 and the contact springs of the microswitches 2212 to separate. This state corresponds to the contact and conductive state of the conductive part 222. The configuration of the microswitches 2212 further improves the accuracy of test results during the testing process.

[0069] In another embodiment of this solution, in order to further adjust the mounting positions of the two conductive parts 222, such as... Figure 2 and Figure 4 As shown, a mounting groove 2211 is provided on the mounting base 221 along the vertical direction, and a plurality of threaded holes 2121 are provided on the slider part 212 corresponding to the mounting groove 2211. The mounting base 221 is mounted on the slider part 212 by threaded parts.

[0070] During actual installation, the multiple threaded holes 2121 can be aligned with the mounting groove 2211, and the actual position of the mounting base 221 can be adjusted vertically. After adjustment, the bolts are inserted through the mounting groove 2211 into the threaded holes 2121 and tightened for fixation. This structure has multiple threaded holes 2121; to improve the fixing effect, the mounting base 221 can be fixed simultaneously using multiple bolts.

[0071] In one embodiment of this application, the seat portion 21 has a driving end away from the conductor 22; the connecting portion 32 includes a driving frame portion 321 and a protrusion portion 322, wherein the driving frame portion 321 is mounted on the output end of the first driving portion 31, and the other end of the connecting portion 32 extends at least partially to the driving end, and a driving shaft portion 3211 is provided on the extended end of the connecting portion 32; the protrusion portion 322 is provided on the driving end, and a driving groove portion 3221 is provided on the protrusion portion 322, the extending direction of the driving groove portion 3221 is set at an angle to the horizontal plane, and one end of the driving shaft portion 3211 is at least partially provided in the driving groove portion 3221.

[0072] like Figure 3 As shown, the drive frame 321 is generally an L-shaped frame 1. A portion of the frame 1 is connected to the output end of the first drive unit 31, while another portion extends to the drive end. The drive end is the end of the seat 21 away from the guide member 22, and also the end of the seat body 221 away from the slider 212. When the drive frame 321 moves in the first direction, the drive shaft 3211 can slide inside the inclined drive groove 3221, thereby driving the entire seat body 221 to move on the guide shaft 41. Furthermore, since the first drive unit 31 has a reciprocating motion characteristic, its output end, during its reciprocating motion in the first direction, will also simultaneously drive the guide member 222 to reciprocate in the vertical direction, thereby achieving contact and separation between the guide member 222 and the external contact point.

[0073] It should be noted that the protrusion 322 and the seat body 221 are an integral structure. In the above structure, the upper end face of the mounting plate 4 can serve as the lowest point of the seat body 221. The output end of the first drive unit 31 is arranged horizontally. In the actual structure, the first drive unit 31 can be configured as a cylinder or an electric actuator. Its horizontal installation can effectively reduce its overall height, and even during operation, the overall height of the entire structure can be kept at a relatively small level.

[0074] In one embodiment of this application, the test power-on structure 100 further includes a support frame 5, the upper end of which is formed with a fixing surface for fixing the pump tooling; the frame body 1 is installed at one end of the support frame 5 in a second direction, and the installation position of the frame body 1 on the support frame 5 is adjustable in the second direction.

[0075] The receiving frame 5 is mainly used for positioning and installing the pump fixture. By setting up the receiving frame 5, the positive and negative electrode structures on the pump structure can be positioned at specific test locations, ensuring the correspondence between the conductive part 222 and the positive and negative electrodes of the pump structure as much as possible. In addition, the horizontal position of the frame 1 on the receiving frame 5 is adjustable, allowing for adjustments according to actual installation requirements.

[0076] The above description is merely an exemplary embodiment of the present utility model and does not limit the patent scope of the present utility model. Any equivalent structural transformations made based on the technical concept of the present utility model and the contents of the present utility model specification and drawings, or direct / indirect applications in other related technical fields, are included within the patent protection scope of the present utility model.

Claims

1. A test energizing structure for on test of a pump structure, characterized by, The test power-on structure includes: Frame; A conductive structure includes a base and a conductive member. The base is movably mounted on the frame in a vertical direction, and the conductive member is mounted on the base and its position is adjustable in a first direction. The driving structure includes a first driving part and a connecting part. The first driving part is mounted on the frame corresponding to the seat part, and the output end of the first driving part is movably arranged along the first direction. The connecting part is disposed between the seat part and the output end of the first driving part to allow the first driving part to drive the seat part to move in the vertical direction. Wherein, the first direction is the horizontal plane direction.

2. The test power-on structure of claim 1, wherein, The frame is also provided with a mounting plate, which has a travel in a second direction on the frame. Both the base portion and the first drive portion are mounted on the mounting plate portion; The second direction is the horizontal plane direction.

3. The test-energized structure as described in claim 2, characterized in that, The frame includes a mounting end in a first direction, and the driving structure includes a second driving part, which is disposed on the mounting end and connected to the mounting plate part, so as to drive the mounting plate part to reciprocate in a second direction. And / or, The frame is provided with a guide rail extending in a second direction, and the mounting plate is disposed on the guide rail.

4. The test-energized structure as described in claim 3, characterized in that, The mounting plate portion is provided with a vertical plate portion at one end corresponding to the mounting end, and a guide groove portion is provided on the vertical plate portion along the vertical direction; The second drive unit includes: A rotating arm is rotatably mounted on the mounting end, and at least one end of the rotating arm is located within the guide groove; and, The push rod is rotatably mounted on the mounting end, and the output end of the push rod is rotatably connected to the rotating arm.

5. The test-energized structure as described in claim 4, characterized in that, A connecting shaft is provided at one end of the rotating arm, and one end of the connecting shaft is disposed within the guide groove; and / or The first drive unit is mounted on the vertical plate.

6. The test power-on structure of claim 1, wherein, The frame is also equipped with a mounting plate. The mounting part is provided with a guide shaft along the vertical direction; The seat portion includes a seat body and a slider portion, wherein the slider portion is movably mounted on the seat body along a first direction; The conductive element is mounted on the slider.

7. The test power-on structure of claim 6, wherein, The conductive element includes: A mounting base is provided on the slider portion; Two conductive parts are movably mounted on the mounting base in the vertical direction, and an elastic element is provided between the conductive parts and the mounting base; and, A conductive plate is disposed between the upward-facing ends of the two conductive portions.

8. The test-energized structure as described in claim 7, characterized in that, Microswitches are provided at both ends of the mounting base in the first direction. Both ends of the conductive plate in the first direction protrude from the end face of the mounting base to form contact ends. The lower end faces of the two contact ends respectively abut against the spring contacts of the two microswitches; and / or, The mounting base has a mounting groove along the vertical direction, and the slider has multiple threaded holes corresponding to the mounting groove. The mounting base is installed on the slider by threaded parts.

9. The test-energized structure as described in claim 1, characterized in that, The base portion has a drive end that is away from the conductive element; The connecting part includes: A drive frame is mounted on the output end of the first drive unit, and the other end of the connecting part extends at least partially to the drive end, and a drive shaft is provided on the extended end of the connecting part; A protrusion is provided on the drive end, and a drive groove is provided on the protrusion. The extension direction of the drive groove is set at an angle to the horizontal plane, and one end of the drive shaft is at least partially located in the drive groove.

10. The test-energized structure as described in claim 1, characterized in that, The test power-on structure also includes a support frame, the upper end of which has a fixing surface for fixing the pump tooling. The frame is installed at one end of the receiving frame in the second direction, and the installation position of the frame on the receiving frame is adjustable in the second direction.

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