Energy storage plate performance detection structure and energy storage plate performance detection method

Abstract

The invention relates to an energy storage plate performance detection structure and an energy storage plate performance detection method, the energy storage plate performance detection structure comprises a detection assembly and a heating assembly, and the heating assembly and the detection assembly are respectively located at two sides of an energy storage plate; the detection assembly comprises thermocouples, a plurality of detection grooves are formed in the energy storage plate, and part of the thermocouples are located in the detection grooves; and other thermocouples are attached to the side wall of the energy storage plate. The method has the effect of improving the detection accuracy.

Description

Technical Field

[0001] This application relates to the technical field of detection structures, and in particular to a performance detection structure for energy storage plates and a performance detection method for energy storage plates. Background Art

[0002] When an airplane needs to be quickly started after an emergency flameout in the air, due to the low temperature at high altitude, the temperature of the components will rapidly decrease, resulting in a long startup time for the airplane; when an energy storage plate is applied to the airplane components, after the airplane flameout, during the duration of the phase change of the energy storage plate, it can supply heat to the components to prevent the temperature of the components from decreasing, so as to reduce the startup duration of the airplane. The inside of the energy storage plate is filled with paraffin and copper sponge, and the paraffin is distributed in the gaps of the copper sponge, and energy is stored through the phase change of the paraffin.

[0003] Currently, a performance detection structure for an energy storage plate includes a ceramic heating sheet placed on one surface of the energy storage plate, and a thermocouple is placed in contact with the surface of the energy storage plate on the side away from the ceramic heating sheet. The ceramic heating sheet heats the energy storage plate, and then the thermocouple conducts data detection.

[0004] Because the thermocouple is only located on the surface of the energy storage plate and cannot detect the internal performance, the detection data will be inaccurate. Summary of the Invention

[0005] In order to improve the accuracy of detection, this application provides a performance detection structure for an energy storage plate and a performance detection method for an energy storage plate.

[0006] In a first aspect, a performance detection structure for an energy storage plate provided by this application adopts the following technical solution: A performance detection structure for an energy storage plate includes a detection component and a heating component, and the heating component and the detection component are respectively located on both sides of the energy storage plate; the detection component includes a thermocouple, and a plurality of detection slots are formed in the energy storage plate, and a part of the thermocouples are located in the detection slots; the other thermocouples are in contact with the side wall of the energy storage plate.

[0007] By adopting the above technical solution, the heating component heats the energy storage plate to cause the energy storage plate to undergo a phase change; because a part of the thermocouples are located in the detection slots, the thermocouples can detect the internal data of the energy storage plate, and then combined with the data detected by the other part of the thermocouples on the surface of the energy storage plate, more comprehensive detection data can be obtained; therefore, the detection structure provided by this application can improve the accuracy of detection.

[0008] Optionally, it further includes a reinforcement component, which includes a reinforcement sticker, a first silicone grease pad and a first tape. The reinforcement sticker adheres to the energy storage board and covers the detection groove, and the reinforcement sticker can also contact the thermocouple located in the detection groove. The first silicone grease pad is adhered to the energy storage board, and a placement hole is provided on the first silicone grease pad. The thermocouple contacting the side wall of the energy storage board is located in the placement hole. The first tape adheres to the first silicone grease pad and covers the placement hole.

[0009] By adopting the above technical solution, after the thermocouple is located in the detection groove, the reinforcement pad is adhered to the energy storage board and covers the detection groove, so that the thermocouple can be limited in the detection groove. The provided first silicone grease pad can limit the thermocouple on the surface contacting the energy storage board. The provided first tape can adjust the first silicone grease pad and improve the stability of the first silicone grease pad and the thermocouple on the energy storage board.

[0010] Optionally, the heating component includes a second silicone grease pad, a ceramic heating sheet and a second tape. The second silicone grease pad adheres to the energy storage board, and the ceramic heating sheet adheres to the side of the second silicone grease pad away from the energy storage board. The second tape adheres to the second silicone grease pad, and the ceramic heating sheet is also bonded to the second tape.

[0011] By adopting the above technical solution, the provided ceramic heating sheet heats the second silicone grease pad, and then the second silicone grease pad conducts heat to the energy storage board. The provided second silicone grease pad can conduct heat to the energy storage board more evenly. The provided second tape can improve the stability of the second silicone grease pad and the ceramic heating sheet on the energy storage board.

[0012] Optionally, it further includes a clamping device for keeping the energy storage board in a vertical state. The clamping device includes an asbestos pad, a reflective foil and a clamping mechanism. There are two asbestos pads, and the energy storage board, the detection component and the heating component are all located between the two asbestos pads. There are two reflective foils, and the two asbestos pads are located between the two reflective foils. The clamping mechanism clamps the two reflective foils.

[0013] By adopting the above technical solution, the two asbestos pads are respectively contacted with both sides of the energy storage board, and then the two reflective foils are respectively contacted with the sides of the two asbestos pads away from each other. Then the clamping mechanism clamps the two reflective foils, and when detecting the energy storage board, the energy storage board is kept in a vertical state, reducing the phenomenon that the heating component or the detection component is squeezed when the energy storage board is placed flat. Moreover, the provided reflective foil can reduce the phenomenon of heat conduction between the clamping mechanism and the energy storage board, thereby improving the accuracy of detection.

[0014] Optionally, the clamping mechanism includes a support block and a plurality of clamping components. Each clamping component includes a first clamping strip, a second clamping strip and a connecting piece. The first clamping strip abuts against one of the reflective foils, and the second clamping strip abuts against the other reflective foil; the connecting piece connects the first clamping strip and the second clamping strip; there are two support blocks. The two ends of the first clamping strip in one set of clamping components respectively abut against the two support blocks, and the two ends of the second clamping strip respectively abut against the two support blocks.

[0015] By adopting the above technical solution, the first clamping strip abuts against one of the reflective foils, the second clamping strip abuts against the other reflective foil, and then the first clamping strip and the second clamping strip are connected by a connecting piece; then the two ends of the first clamping block in one set respectively abut against the fast support block, and the two ends of the second clamping block respectively abut against the two support blocks; the plurality of clamping components provided can better connect the asbestos gasket and the reflective foil to the energy storage plate, and the plurality of clamping components can reduce the widths of the first clamping strip and the second clamping strip, and reduce the phenomenon that the first clamping strip and the second clamping strip squeeze the detection component and the heating component.

[0016] Optionally, the clamping mechanism includes a main body, a limiting block, a first fixing block, a second fixing block, a first clamping block, a second clamping block, a first adjusting component and a second adjusting component. The limiting block is arranged on the main body. There are a plurality of limiting blocks, and the plurality of limiting blocks form a limiting space on the main body. The energy storage plate is located in the limiting space; the first fixing block is arranged on the main body, and the second fixing block is arranged on the first fixing block through the first adjusting component; the first clamping block is fixedly arranged on the second fixing block, and the first clamping block abuts against one of the reflective foils; the second clamping block is slidably arranged on the second fixing block through the second adjusting component, and the second clamping block abuts against the other reflective foil.

[0017] By adopting the above technical solution, at the beginning, the first clamping block is located in the limiting space. Then, one of the reflective foils is placed on the first clamping block, and then an asbestos gasket is placed above the reflective foil. Then, the energy storage plate is placed into the limiting space and located above the asbestos gasket, and the limiting block abuts against the energy storage plate. Then, another asbestos gasket is placed above the energy storage plate, and then a reflective foil is placed on the other asbestos gasket; then the second adjusting component drives the second clamping block to move so that the second clamping block abuts against the other reflective foil, so that the first clamping block and the second clamping block respectively abut against the two reflective foils; then the first adjusting component drives the second fixing block to move away from the main body, so that the energy storage plate leaves the limiting space, and the energy storage plate will rotate after leaving the energy storage space, so that the energy storage changes from a horizontal state to a vertical state.

[0018] Optionally, a lifting mechanism is provided on the main body. The lifting mechanism includes a lifting block and a third adjustment component. The lifting block is slidably disposed on the main body, and a plurality of the limiting blocks are all connected to the lifting block; the third adjustment component is disposed on the main body, and both the first adjustment component and the lifting block are connected to the third adjustment component.

[0019] By adopting the above technical solution, when the first adjustment component drives the second fixing block to move away from the main body, the first adjustment component drives the third adjustment component to move, the third adjustment component drives the lifting block to move, so that the lifting block moves away from the second fixing block, and the lifting block drives the limiting block to move. In this way, the energy storage plate can be quickly moved above the limiting block, thereby shortening the time and improving the efficiency.

[0020] Optionally, a stabilizing mechanism is further included. The stabilizing mechanism includes a first rotating shaft, a first stabilizing block, a second stabilizing block, and a fourth adjustment component. The first rotating shaft is rotatably disposed at one end of the first clamping block away from the second fixing block; the first stabilizing block is fixedly disposed on the first rotating shaft, the second stabilizing block is disposed on the first stabilizing block, and a stabilizing groove for engaging with the second stabilizing block is formed on the second clamping block; a first chamfer is formed on the second stabilizing block, a second chamfer communicating with the stabilizing groove is formed on the second clamping block, and the second chamfer cooperates with the first chamfer; the fourth adjustment component is disposed on the first clamping block, and both the second clamping block and the first rotating shaft are connected to the fourth adjustment component.

[0021] By adopting the above technical solution, when the first clamping block abuts against one of the reflecting foils and the second clamping block abuts against the other second reflecting foil, the second clamping block drives the first rotating shaft to rotate through the fourth adjustment component, and the first stabilizing block on the first rotating shaft drives the second stabilizing block to rotate, so that the second stabilizing block enters the stabilizing groove, and the first chamfer on the second stabilizing block cooperates with the second chamfer on the stabilizing groove; the provided stabilizing mechanism strengthens one end of the first clamping block away from the second fixing block and one end of the second clamping block away from the second fixing block, thereby improving the stability when the clamping mechanism clamps the energy storage plate.

[0022] In a second aspect, a method for detecting the performance of an energy storage plate provided by the present application adopts the following technical solution: A method for detecting the performance of an energy storage plate includes the following steps: S1: First, install the detection component and the heating component on both sides of the energy storage plate respectively; S2: Then, keep the energy storage plate installed with the detection component and the heating component in a vertical state under the clamping device; S3: Finally, detect the energy storage plate in the vertical state.

[0023] In summary, the present application includes at least one of the following beneficial technical effects: 1. The detection structure provided in this application can improve the accuracy of detection; 2. Moreover, the provided reflective foil can reduce the phenomenon of heat conduction between the clamping mechanism and the energy storage plate, thereby improving the accuracy of detection. BRIEF DESCRIPTION OF THE DRAWINGS

[0024] Figure 1 It is a schematic structural diagram of the energy storage plate performance detection structure in Embodiment 1 of this application; Figure 2 It is a schematic structural diagram of the heating component in Embodiment 1 of this application; Figure 3 It is a schematic structural diagram of the reinforcement component in Embodiment 1 of this application; Figure 4 It is a schematic structural diagram of the clamping mechanism in Embodiment 2 of this application; Figure 5 It is a schematic structural diagram of the lifting mechanism in Embodiment 2 of this application; Figure 6 is Figure 5 an enlarged view of A in; Figure 7 It is a schematic structural diagram of the second adjustment component in Embodiment 2 of this application; Figure 8 It is a schematic structural diagram of the stabilizing machine in Embodiment 2 of this application; Figure 9 It is a schematic structural diagram of the fourth adjustment component in Embodiment 2 of this application.

[0025] Reference numerals: 1, detection component; 2, heating component; 21, second silicone grease pad; 22, ceramic heating sheet; 23, second tape; 3, reinforcement component; 31, reinforcement sticker; 32, first silicone grease pad; 33, first tape; 41, asbestos pad; 5, clamping mechanism; 51, support block; 52, clamping component; 521, first clamping strip; 522, second clamping strip; 523, connecting piece; 61, main body; 611, first groove; 62, limiting block; 63, first fixing block; 631, first chute; 632, limiting groove; 633, rotating groove; 64, second fixing block; 641, first cavity; 642, second chute; 643, third chute; 65, first clamping block; 651, first avoidance hole; 66, second clamping block; 661, stabilizing groove; 662, second chamfer; 663, second avoidance hole; 67, first adjusting component; 671, first adjusting block; 672, first lead screw; 673, first motor; 674, second rotating shaft; 675, limiting block; 676, first gear; 677, first rack; 678, torsion spring; 68, second adjusting component; 681, second adjusting block; 682, second lead screw; 683, second motor; 7, lifting mechanism; 71, lifting block; 72, third adjusting component; 8, stabilizing mechanism; 81, first rotating shaft; 82, first stabilizing block; 83, second stabilizing block; 831, first chamfer; 84, fourth adjusting component; 841, third adjusting block; 842, fourth adjusting block; 843, spring; 844, fifth adjusting block; 845, third rotating shaft; 846, second gear; 847, second rack; 848, first bevel gear; 849, second bevel gear; 9, energy storage board; 91, detection groove; 932, limiting space; 933, placement hole. Detailed implementation manners

[0026] The following further elaborates on this application Figures 1-9 in conjunction with the attached drawings.

[0027] An embodiment of this application discloses a performance detection structure for an energy storage board.

[0028] Embodiment 1 Referring to Figure 1 and Figure 2 a performance detection structure for an energy storage board includes a clamping device that keeps the energy storage board 9 in a vertical state; a heating component 2 is provided on one side of the energy storage board 9, a detection component 1 is provided on the side of the energy storage board 9 away from the heating component 2, and a reinforcement component 3 for reinforcing the detection component 1 is provided on the energy storage board 9.

[0029] Referring to Figure 1 and Figure 2, the side wall of the energy storage plate 9 connected to the heating component 2 is the first side wall, and the side wall connected to the detection component 1 is the second side wall. The heating component 2 includes a second silicone grease pad 21 adhered to the first side wall of the energy storage plate 9, and a ceramic heating sheet 22 is adhered to the side of the second silicone grease pad 21 away from the first side wall of the energy storage plate 9; a second adhesive tape 23 is adhered to the first side wall of the energy storage plate 9, and both the second silicone grease pad 21 and the ceramic heating sheet 22 are adhered to the second adhesive tape.

[0030] Reference Figure 1 and Figure 3 , a plurality of detection grooves 91 are formed on the second side wall of the energy storage plate 9. In this embodiment, the number of detection grooves 91 is four. From Figure 3 left to right, they are the first detection groove 91, the second detection groove 91, the third detection groove 91, and the fourth detection groove 91 in sequence. The axes of the first detection groove 91, the second detection groove 91, the third detection groove 91, and the fourth detection groove 91 are located in the same plane, and the third detection groove 91 is located in the central area of the energy storage plate 9, and the fourth detection groove 91 is located at the edge position of the energy storage plate 9; the depths in the first detection groove 91, the second detection groove 91, and the third detection groove 91 are all different, and the depths of the third detection groove 91 and the fourth detection groove 91 are the same.

[0031] The detection component 1 includes a plurality of thermocouples. In this embodiment, the number of thermocouples is five, and one of them is the first thermocouple that abuts against the second side wall of the energy storage plate 9; the other four thermocouples are respectively inserted into the four detection grooves 91 and abut against the bottom walls of the detection grooves 91.

[0032] Reference Figure 1 and Figure 3 , the reinforcement component 3 includes a reinforcement sticker 31 adhered to the energy storage plate 9. After the thermocouple is inserted into the detection groove 91, the reinforcement sticker 31 covers the detection groove 91, and the thermocouple abuts against the reinforcement sticker 31; a first silicone grease pad 32 is adhered to the second side wall of the energy storage plate 9, and a placement hole 933 for placing the thermocouple is formed on the first silicone grease pad 32; a first adhesive tape 33 is adhered to the first silicone grease pad 32. The first adhesive tape 33 can be adhered to the energy storage plate 9, and the first adhesive tape 33 can cover the placement hole 933.

[0033] Reference Figure 1 , the clamping device includes two asbestos pads 41. The energy storage plate 9 is located between the two asbestos pads 41, and the first silicone grease pad 32, the heating ceramic plate, and the second adhesive tape 23 abut against one of the asbestos pads 41, and the second silicone grease pad 21, the second adhesive tape 23, and the reinforcement sticker 31 abut against the other asbestos pad 41. Reflective foils are provided on the sides of the two asbestos pads 41 away from each other, that is, the two asbestos pads 41 are located between the two reflective foils, and the reflective foils abut against the asbestos pads 41.

[0034] The clamping device further includes a clamping mechanism 5 for clamping two reflecting foils. The clamping mechanism 5 includes a plurality of clamping components 52. Each clamping component 52 includes a first clamping strip 521 and a second clamping strip 522. The two reflecting foils are located between the first clamping strip 521 and the second clamping strip 522, that is, the first clamping strip 521 abuts against one of the reflecting foils, and the second clamping strip 522 abuts against the other reflecting foil. A first through hole is provided on the first clamping strip 521, and a threaded hole is provided on the second clamping strip 522. A connecting member 523 is provided on the first clamping strip 521. In this embodiment, the connecting member 523 is a connecting bolt, and the connecting bolt passes through the first through hole on the first clamping strip 521 and is threadedly connected to the threaded hole on the second clamping strip 522.

[0035] In this embodiment, two clamping components 52 are provided. The fixing pad, the thermocouple, the second silicone grease pad 21, and the heating ceramic sheet are all located between the two clamping components 52. In order to keep the energy storage plate 9 in a vertical state, two support blocks 51 are provided. The two ends of the first clamping strip 521 that are clamped on the energy storage plate 9 and are at the lowest end in the vertical state respectively abut against the two support blocks 51, and the two ends of the second clamping strip 522 respectively abut against the two support blocks 51.

[0036] Embodiment 2 Reference Figure 4 , which is different from Embodiment 1 in that the clamping mechanism 5 includes a main body 61. A first fixing block 63 is fixedly connected to the main body 61, and a second fixing block 64 is provided on the first fixing block 63. A first adjusting component 67 for connecting to the second fixing block 64 is provided on the first fixing block 63.

[0037] Reference Figure 5 and Figure 6, a first fixing block 63 is provided with a first sliding groove 631, a limiting groove 632 communicating with the first sliding groove 631, and a rotating groove 633 communicating with the first sliding groove 631. The rotating groove 633 communicates with one end of the limiting groove 632 away from the main body 61, and the cross-section of the rotating groove 633 is larger than that of the limiting groove 632. The first adjusting assembly 67 includes a first adjusting block 671 slidably connected in the first sliding groove 631; a first lead screw 672 is rotatably connected to the first fixing block 63. The first lead screw 672 passes through the first adjusting block 671 and is threadedly connected to the first adjusting block 671; one end of the first fixing block 63 away from the main body 61 is fixedly connected with a first motor 673, and the output shaft of the first motor 673 is connected to one end of the first lead screw 672. A second rotating shaft 674 is rotatably connected to the first street block. A second fixing block 64 is fixedly connected to the second rotating shaft 674. One end of the second rotating shaft 674 away from the second fixing block 64 is located in the limiting groove 632. A limiting block 675 slidably connected to the limiting groove 632 is fixedly connected to the second rotating shaft 674. The cross-section of the limiting block 675 is the same as that of the limiting groove 632, that is, the limiting block 675 can only slide up and down in the limiting groove 632, and the limiting block 675 can rotate in the rotating groove 633; a first gear 676 is key-connected to the second rotating shaft 674, and a first rack 677 meshing with the first gear 676 is fixedly connected to the first fixing block 63. The first rack 677 is located in the rotating groove 633; a torsion spring 678 is sleeved on the second rotating shaft 674. One end of the torsion spring 678 is connected to the second rotating shaft 674 and the other end is connected to the first adjusting block 671.

[0038] Start the first motor 673. The output shaft of the first motor 673 drives the first lead screw 672 to rotate. The first lead screw 672 drives the first adjusting block 671 to slide upward in the first sliding groove 631. The second rotating shaft 674 on the first adjusting block 671 drives the limiting block 675 to move in the limiting groove 632; when the limiting block 675 completely moves out of the limiting groove 632, that is, when the limiting block 675 is completely located in the rotating groove 633, the first gear 676 still does not mesh with the first rack 677, but under the action of the torsion spring 678, the second rotating shaft 674 still does not drive the limiting block 675 to rotate; when the first adjusting block 671 moves upward a small distance, that is, when the rotation of the limiting block 675 in the rotating groove 633 is not blocked, the first gear 676 will mesh with the first rack 677. Continue to move the first adjusting block 671 upward. Under the action of the fixed first rack 677, the first gear 676 will rotate, and the first gear 676 will drive the second rotating shaft 674 to rotate, and the second rotating shaft 674 drives the second fixing block 64 to rotate.

[0039] Reference Figure 4 and Figure 7, a first cavity 641, a second chute 642 communicating with the first cavity 641, and a third chute 643 communicating with the first cavity 641 are formed in the second fixing block 64. The axis of the second chute 642 is parallel to the axis of the first cavity 641, the axis of the third chute 643 is perpendicular to the axis of the second chute 642, and the third chute 643 communicates with the second chute 642. A first clamping block 65 is fixedly connected to the second fixing block 64, and a first avoidance hole 651 is formed in the first clamping block 65; a first groove 611 is formed in the main body 61, and a part of the first clamping block 65 can be located in the first groove 611. A second adjusting assembly 68 is arranged on the second fixing block 64. The second adjusting assembly 68 includes a second adjusting block 681 slidably connected to the third chute 643 in the second chute 642, that is, the second adjusting block 681 can slide from the third chute 643 into the second chute 642; a second lead screw 682 is rotatably connected in the first cavity 641, the second lead screw 682 passes through the second adjusting block 681 and is threadedly connected to the second adjusting block 681; a second motor 683 is fixedly connected to the second fixing block 64, and an output shaft of the second motor 683 is connected to one end of the second lead screw 682. A second clamping block 66 is fixedly connected to an end of the second adjusting block 681 away from the second lead screw 682, and a second avoidance hole 663 is formed in the second clamping block 66.

[0040] At the beginning, the second adjusting block 681 is located at an end of the third chute 643 away from the second chute 642. The second motor 683 is started, and the output shaft of the second motor 683 drives the second lead screw 682 to rotate. The second lead screw 682 drives the second adjusting block 681 to rotate, so that the second adjusting block 681 moves from the third chute 643 towards the second chute 642. When the second adjusting block 681 moves into the second chute 642, under the action of the rotating second lead screw 682, the second adjusting block 681 will move in the second chute 642 away from the third chute 643, and the second adjusting block 681 drives the second clamping block 66 to move towards the first clamping block 65.

[0041] Reference Figure 8 and Figure 9, one end of the first clamping block 65 close to the second clamping block 66 is provided with a second groove, and one side of the first clamping block 65 far from the second groove can be located in the first groove 611 of the main body 61. A stabilizing mechanism 8 is arranged on the first clamping block 65. The stabilizing mechanism 8 includes a first rotating shaft 81 rotatably connected to the first clamping block 65. The first rotating shaft 81 is located in the second groove. A first stabilizing block 82 is fixedly connected to the first rotating shaft 81. One end of the first stabilizing block 82 far from the first rotating shaft 81 is fixedly connected to a second stabilizing block 83. A stabilizing groove 661 for the second stabilizing block 83 is formed on the second clamping block 66; a first chamfer 831 is formed on the second stabilizing block 83, and a second chamfer 662 communicating with the stabilizing groove 661 is formed on the second clamping block 66. The first chamfer 831 can abut against the second chamfer 662.

[0042] A second cavity is formed in the first clamping block 65, and the second groove communicates with the second cavity; a third groove communicating with the second cavity is formed at one end of the first clamping block 65 far from the second groove. A fourth adjusting component 84 is arranged on the first clamping block 65. The fourth adjusting component 84 includes a third adjusting block 841 fixedly connected to the second clamping block 66; a fourth adjusting block 842 is slidably connected in the third groove of the first clamping block 65. A spring 843 is arranged in the third groove. One end of the spring 843 is connected to the fourth adjusting block 842 and the other end is connected to the first clamping block 65. A fifth adjusting block 844 is fixedly connected to the fourth adjusting block 842; a third rotating shaft 845 is rotatably connected in the second cavity. A second gear 846 is key-connected to one end of the third rotating shaft 845. A second rack 847 meshing with the second gear 846 is fixedly connected to the fifth adjusting block 844; a first bevel gear 848 is key-connected to the end of the third rotating shaft 845 far from the second gear 846. A second bevel gear 849 meshing with the first bevel gear 848 is key-connected to the first rotating shaft 81.

[0043] When the second clamping block 66 moves towards the first clamping block 65, the third adjusting block 841 on the second clamping block 66 will abut against the fourth adjusting block 842 and push the fourth adjusting block 842 to move. The fifth adjusting block 844 on the fourth adjusting block 842 drives the second rack 847 to move. The second rack 847 drives the second gear 846 to rotate. The second gear 846 drives the third rotating shaft 845 to rotate. The third rotating shaft 845 drives the first bevel gear 848 to rotate. The first bevel gear 848 drives the second bevel gear 849 to rotate. Then the second bevel gear 849 will drive the first rotating shaft 81 to rotate. The first rotating shaft 81 drives the first stabilizing block 82 to rotate; when the second adjusting block 681 on the second clamping block 66 moves to the end of the second chute 642 far from the third chute 643, the second stabilizing block 83 is clamped with the stabilizing groove 661 on the second clamping block 66.

[0044] Reference Figure 4 andFigure 5 , a third cavity and a plurality of second through holes communicating with the third cavity are provided in the main body 61. A lifting mechanism 7 is provided on the main body 61. The lifting includes a lifting block 71 slidably connected in the third cavity. A third adjusting assembly 72 is provided on the main body 61. The third adjusting assembly 72 includes a third lead screw. The third lead screw rotates on the main body 61. One end of the third lead screw is fixedly connected to the first lead screw 672 away from the first motor 673, and the helical direction of the third lead screw is opposite to the helical direction of the first lead screw 672; the third lead screw passes through the lifting block 71 and is threadedly connected to the lifting block 71. A plurality of limiting blocks 62 are fixedly connected to the lifting block 71. One limiting block 62 passes through one second through hole. When the plurality of limiting blocks 62 pass through the second through holes, the plurality of limiting blocks 62 will form a limiting space 932 on the main body 61.

[0045] When the first lead screw 672 rotates to move the second fixing block 64 away from the main body 61, the first lead screw 672 drives the third lead screw to rotate, and the third lead screw drives the lifting block 71 to move away from the first fixing block 63, and the lifting block 71 will drive the plurality of limiting blocks 62 to descend.

[0046] The implementation principle of Embodiment 2 of this application is as follows: At the beginning, a part of the first clamping block 65 is located in the first groove 611. A limiting space 932 is formed on the main body 61 by the plurality of limiting blocks 62. The second adjusting block 681 is located at one end of the third chute 643 away from the second chute 642. The second clamping block 66 is not located directly above the first clamping block 65 and the limiting space 932.

[0047] Then, first place one of the reflective foils on the first clamping block 65, then place an asbestos pad 41 above the reflective foil, then place the energy storage plate 9 into the limiting space 932 and above the asbestos pad 41, and the limiting block 62 abuts against the energy storage plate 9; then place another asbestos pad 41 above the energy storage plate 9, and then place a reflective foil on another asbestos pad 41; in this way, the energy storage plate 9, two asbestos pads 41 and two reflective foils are all located in the limiting space 932.

[0048] Then the second motor 683 is started to move the second adjustment block 681 from the third slide slot 643 to the second slide slot 642, and the second adjustment block 681 drives the second clamping block 66 to move to the top of the first clamping block 65; when the second adjustment block 681 slides downward from the second slide slot 642, the second clamping block 66 moves toward the direction close to the first clamping block 65; when the second adjustment block 681 contacts the side wall of the second slide slot 642 away from the third slide slot 643, the second clamping block 66 contacts the reflector away from the first clamping block 65, and the ceramic heating plate 22 and the thermocouple are located in the avoidance hole. When the second adjustment block 681 contacts the side wall of the second slide slot 642 away from the third slide slot 643, the second stabilizing block 83 engages with the stabilizing groove 661 on the second clamping block 66.

[0049] Start the first motor 673 to make the first adjusting block 671 move in the direction away from the main body 61, and the second fixed block 64 on the first adjusting block 671 drives the first clamping block 65 and the second clamping block 66 to move, and the first clamping block 65 and the second clamping block drive the reflecting mirror to move in the direction away from the main body 61; and when the first adjusting block 671 moves in the direction away from the main body 61, the lifting block 71 will move in the direction away from the first fixed block 63, so that the reflecting mirror can quickly escape from the limited space 932 formed by the multiple limiting blocks 62.

[0050] When the first rotating shaft 81 on the first adjusting block 671 drives the limiting block 675 to move into the rotating groove 633 of the first fixed block 63, and the first gear 676 and the first rack 677 are meshed, the first rack 677 can drive the first gear 676 to rotate, the first gear 676 drives the first rotating shaft 81 to rotate, the first rotating shaft 81 drives the second fixed block 64 to rotate, and the first clamping block 65 and the second clamping block 66 on the second fixed block 64 drive the energy storage plate 9 to rotate, so that the energy storage plate 9 changes from a horizontal state to a vertical state.

[0051] The embodiment of the present application also discloses a method for detecting the performance of an energy storage panel.

[0052] A method for detecting the performance of an energy storage board includes the following steps: S1: firstly adhere the second silicone pad 21 to the energy storage board 9, then adhere the ceramic heating plate 22 to the second silicone pad 21, and then use the second adhesive tape 23 to adhere the ceramic heating plate 22, the second silicone pad 21 and the energy storage board 9. Then, four of the five thermocouples are placed in the detection slot 91 of the energy storage board 9, and the reinforcement sticker 31 is adhered to the energy storage board 9 and covers the detection slot 91; then, adhere the first silicone pad 32 to the energy storage board 9, and then place the last thermocouple in the placement hole 933 of the first silicone pad 32, and finally, adhere the first adhesive tape 33 to the first silicone pad 32 and the energy storage board 9.

[0053] S2: Then, make an asbestos gasket 41 contact the side of the energy storage plate 9 where the ceramic clamping piece is adhered, and the other asbestos gasket 41 contact the side of the energy storage plate 9 where the thermocouple is connected; then make two reflective foils contact the sides of the two asbestos gaskets 41 away from each other; finally, use the clamping mechanism 5 to clamp the two reflective foils and make the energy storage plate 9 become vertical.

[0054] S3: Make the ceramic heating sheet 22 heat the energy storage plate 9, and then five thermocouples measure different positions of the energy storage plate 9 and form corresponding temperature measurement curves. The five temperature measurement curves are distributed in parallel, indicating that each part of the energy storage plate 9 can be heated evenly. At the same time point, the smaller the distance between the five temperature measurement curves, the more uniform the temperature distribution inside the energy storage plate 9.

[0055] The above are all preferred embodiments of the present application, and the protection scope of the present application is not limited thereby. Therefore, all equivalent changes made according to the structure, shape, and principle of the present application should be covered within the protection scope of the present application.

Claims

1. A performance detection structure for energy storage plates, characterized in that, It includes a detection component (1) and a heating component (2), and the heating component (2) and the detection component (1) are respectively located on both sides of the energy storage plate (9); The detection component (1) includes a thermocouple. A plurality of detection grooves (91) are formed on the energy storage plate (9), and a part of the thermocouples are located in the detection grooves (91); the other thermocouples are attached to the side wall of the energy storage plate (9).

2. The performance detection structure of an energy storage board according to claim 1, wherein It further includes a reinforcement component (3), and the reinforcement component (3) includes a reinforcement sticker (31), a first silicone grease pad (32) and a first tape (33). The reinforcement sticker (31) is adhered to the energy storage plate (9) and covers the detection grooves (91), and the reinforcement sticker (31) can also abut against the thermocouples located in the detection grooves (91); The first silicone grease pad (32) is adhered to the energy storage plate (9), and a placement hole (933) is formed on the first silicone grease pad (32), and the thermocouples abutting against the side wall of the energy storage plate (9) are located in the placement hole (933); The first tape (33) is adhered to the first silicone grease pad (32) and covers the placement hole (933).

3. The performance detection structure of an energy storage board according to claim 1, characterized in that The heating component (2) includes a second silicone grease pad (21), a ceramic heating sheet (22) and a second tape (23). The second silicone grease pad (21) is adhered to the energy storage plate (9), and the ceramic heating sheet (22) is adhered to the side of the second silicone grease pad (21) away from the energy storage plate (9); The second tape (23) is adhered to the second silicone grease pad (21), and the ceramic heating sheet (22) is also bonded to the second tape (23).

4. A performance detection structure for an energy storage plate according to claim 1, characterized in that, It further includes a clamping device for keeping the energy storage plate (9) in a vertical state. The clamping device includes an asbestos pad (41), a reflective foil and a clamping mechanism (5). There are two asbestos pads (41), and the energy storage plate (9), the detection component (1) and the heating component (2) are all located between the two asbestos pads (41); There are two reflective foils, and the two asbestos pads (41) are located between the two reflective foils; The clamping mechanism (5) clamps the two reflective foils.

5. The performance detection structure of an energy storage board according to claim 4, characterized in that The clamping mechanism (5) includes a support block (51) and a plurality of clamping components (52). Each clamping component (52) includes a first clamping strip (521), a second clamping strip (522) and a connecting piece (523). The first clamping strip (521) abuts against one of the reflective foils, and the second clamping strip (522) abuts against the other reflective foil; the connecting piece (523) connects the first clamping strip (521) and the second clamping strip (522); There are two support blocks (51). The two ends of the first clamping strip (521) in one group of the clamping components (52) respectively abut against the two support blocks (51), and the two ends of the second clamping strip (522) respectively abut against the two support blocks (51).

6. The performance detection structure of an energy storage board according to claim 4, characterized in that, The clamping mechanism (5) includes a main body (61), a limiting block (62), a first fixing block (63), a second fixing block (64), a first clamping block (65), a second clamping block (66), a first adjusting component (67) and a second adjusting component (68). The limiting block (62) is arranged on the main body (61). There are a plurality of the limiting blocks (62), and the plurality of limiting blocks (62) form a limiting space (932) on the main body (61). The energy storage plate (9) is located in the limiting space (932). The first fixing block (63) is arranged on the main body (61). The second fixing block (64) is arranged on the first fixing block (63) through the first adjusting component (67). The first clamping block (65) is fixedly arranged on the second fixing block (64), and the first clamping block (65) abuts against one of the reflecting foils. The second clamping block (66) is slidably arranged on the second fixing block (64) through the second adjusting component (68), and the second clamping block (66) abuts against the other reflecting foil.

7. The performance detection structure of an energy storage board according to claim 6, characterized in that, A lifting mechanism (7) is arranged on the main body (61). The lifting mechanism (7) includes a lifting block (71) and a third adjusting component (72). The lifting block (71) is slidably arranged on the main body (61), and the plurality of limiting blocks (62) are all connected to the lifting block (71). The third adjusting component (72) is arranged on the main body (61), and both the first adjusting component (67) and the lifting block (71) are connected to the third adjusting component (72).

8. The performance detection structure of an energy storage board according to claim 6, characterized in that, It further includes a stabilizing mechanism (8). The stabilizing mechanism (8) includes a first rotating shaft (81), a first stabilizing block (82), a second stabilizing block (83) and a fourth adjusting component (84). The first rotating shaft (81) is rotatably arranged at one end of the first clamping block (65) away from the second fixing block (64). The first stabilizing block (82) is fixedly arranged on the first rotating shaft (81). The second stabilizing block (83) is arranged on the first stabilizing block (82). A stabilizing groove (661) for clamping with the second stabilizing block (83) is formed on the second clamping block (66). A first chamfer (831) is formed on the second stabilizing block (83), and a second chamfer (662) communicating with the stabilizing groove (661) is formed on the second clamping block (66). The second chamfer (662) cooperates with the first chamfer (831). The fourth adjusting component (84) is arranged on the first clamping block (65), and both the second clamping block (66) and the first rotating shaft (81) are connected to the fourth adjusting component (84).

9. A method for detecting the performance of an energy storage board, characterized in that, It includes the following steps: S1: First, respectively install the detection component (1) and the heating component (2) as described in claim 4 on both sides of the energy storage plate (9). S2: Then, keep the energy storage plate (9) installed with the detection component (1) and the heating component (2) in a vertical state under the clamping device. S3: Finally, the energy storage plate (9) in a vertical state is detected.

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