A wireless charger detection device and detection method thereof

Abstract

The present invention discloses a wireless charger detection device and a detection method thereof. The wireless charger detection device includes a transmitting base, a receiving movable part and a dielectric part; a transmitting station for placing a transmitting coil is arranged on the transmitting base; a receiving station for placing a receiving coil is arranged on the receiving movable part, and the relative height of the receiving movable part relative to the transmitting base is adjustable; the dielectric part is arranged above the transmitting station, including a plurality of dielectric sheet groups stacked in sequence along the height direction, each dielectric sheet group can be switched between a closed state and an open state; the dielectric sheet groups in the open state form a first avoidance hole for avoiding the receiving station; the test spacing between the receiving station and the transmitting station is greater than or equal to the sum of the thicknesses of the dielectric sheet groups in the closed state. By adjusting the state of each dielectric sheet group to change the dielectric thickness, the detection requirements of matching different dielectric thicknesses of wireless chargers in laboratory scenarios are met, and the overall time consumption can be reduced and the steps can be simplified.

Description

Technical Field

[0001] The present invention relates to the technical field of wireless charging detection structures, and in particular to a wireless charger detection device and a detection method thereof. Background Art

[0002] Wireless charging technology is a technology that transfers electrical energy from a charging device to an electrical device through an electromagnetic field. In recent years, it has been widely used in fields such as smartphones, electric vehicles, and medical equipment. Compared with traditional wired charging, wireless charging does not require physical contact and transmits energy through the air medium. It has significant advantages in terms of ease of use, waterproofness, and safety. The wireless charging system is mainly composed of a transmitter (charger) and a receiver (charged device). The transmitter converts electrical energy into electromagnetic energy through a coil, and the coil at the receiver converts electromagnetic energy back into electrical energy through electromagnetic induction to achieve the charging process.

[0003] In the wireless charging system, the coil is the core component of energy transmission. The magnetic field generated by the transmitting coil will generate current in the receiving coil through electromagnetic induction, thereby realizing energy transmission. Among them, the distance between the coils and the presence of the medium will have a significant impact on the charging efficiency; the distance between the coils, the alignment and the presence of the medium will have a significant impact on the charging efficiency. For example, the larger the coil spacing, the significantly lower the transmission efficiency will usually be; poor coil alignment will affect the coupling effect of the magnetic field, thereby reducing the charging efficiency; if there is a material such as plastic or glass between the two coils as a medium, the thickness and material properties of the medium will also affect the electromagnetic energy transmission.

[0004] In this regard, the detection scheme proposed by technicians in this field is limited to the proofing test scheme, that is, pre-proofing to obtain a transmitting coil wrapped in one medium and a receiving coil wrapped in another medium, and then performing charge and discharge tests on both to verify whether the overall design of the wireless charging system is reasonable. The above scheme is suitable for the final test scenario during factory production, but in the laboratory scenario, it is necessary to explore the operation of the wireless charging system under various parameters. The proofing test scheme requires proofing coils of various media with different thicknesses, which has the disadvantages of long proofing time and cumbersome operation. Summary of the invention

[0005] The purpose of the present invention is to provide a wireless charger detection device and a detection method thereof, so as to solve the technical problems that the testing scheme of wireless chargers in the prior art is time-consuming and cumbersome to operate when applied to laboratory detection scenarios.

[0006] To achieve this object, the present invention adopts the following technical solutions:

[0007] A wireless charger detection device, comprising:

[0008] A transmitting base, wherein a transmitting station for placing a transmitting coil is provided on the transmitting base;

[0009] A receiving movable part, on which a receiving station for placing a receiving coil is arranged, and a relative height of the receiving movable part relative to the transmitting base is adjustable;

[0010] A dielectric part, which is arranged above the emission station and includes a plurality of dielectric sheet groups stacked in sequence along the height direction, each of which can be switched between a closed state and an open state;

[0011] The dielectric sheet group in the open state forms a first avoidance hole for avoiding the receiving station; and the test spacing between the receiving station and the transmitting station is greater than or equal to the sum of the thicknesses of the dielectric sheet group in the closed state.

[0012] Optionally, when all the multiple groups of the dielectric sheet groups are in an open state, the test interval is greater than or equal to the thickness of a single group of the dielectric sheet groups;

[0013] When the dielectric sheet groups of a preset number of groups are in a closed state in sequence and the dielectric sheet groups of the remaining number of groups are in an open state in sequence along a direction away from the emission station, the test spacing is greater than the sum of the thicknesses of the dielectric sheet groups in the closed state;

[0014] When all the plurality of groups of dielectric sheets are in a closed state, the test interval is greater than or equal to the thickness of the dielectric portion.

[0015] Optionally, it further comprises a plurality of mounting plates arranged one by one corresponding to the plurality of groups of the dielectric sheet groups, and the dielectric sheet groups can be movably mounted on the mounting plates;

[0016] The dielectric sheet group includes four dielectric sheet monomers slidably connected to the mounting plate, the dielectric sheet monomers are provided with an isosceles right angle portion, the four isosceles right angle portions are distributed in a circle, and the isosceles right angle portions are connected to adjacent isosceles right angle portions;

[0017] The mounting plate is also provided with a transmission assembly, which is used to drive the dielectric sheet monomer to slide along the extending direction of the right-angled side corresponding to the isosceles right-angled portion thereof, and the extending direction of each right-angled side is along the same rotation direction.

[0018] Optionally, the dielectric sheet monomer is formed with a rack portion at the right-angled edge;

[0019] The transmission assembly includes a first gear rotatably connected to the mounting plate corresponding to each of the rack parts, and also includes a gear ring arranged outside the medium sheet group, the gear ring is configured with internal teeth; one end of the first gear is meshed with the internal teeth of the gear ring, and the other end of the first gear is meshed with the rack part.

[0020] Optionally, the transmission assembly further comprises a second gear rotatably connected to the mounting plate, the second gear being disposed on the outer side of the gear ring and meshing with the outer teeth of the gear ring;

[0021] Along the height direction, the projections of the second gears corresponding to each group of the medium sheet groups do not overlap with each other.

[0022] Optionally, the mounting plate is rotatably connected to a transmission ring corresponding to the position of the second gear, and the second gear is sleeved outside the transmission ring and fixedly connected to the transmission ring;

[0023] An internal thread is formed on the inner ring surface of the transmission ring, and a trigger thread rod is detachably mounted on the internal thread; the transmission ring can drive the second gear to rotate through the cooperation between the internal thread and the thread of the trigger thread rod.

[0024] Optionally, the trigger threaded rods are installed on the receiving movable part in a circular array, and the trigger spacing of the external threaded parts on each trigger threaded rod relative to the receiving station is the same; the projections of each transmission ring on the launching base correspond to the circular array of each trigger threaded rod.

[0025] Optionally, a first gap is left between two adjacent mounting plates, the first gear, the second gear, the gear ring and the transmission ring are all arranged in the first gap, and a second avoidance hole is opened at a position of the mounting plate corresponding to the medium sheet group;

[0026] The dielectric sheet monomer is disposed in the first gap, and a thickened portion is protruded from the isosceles right angle portion of the dielectric sheet monomer, and the thickened portion extends to the second avoidance hole, so that the thickened portion of one dielectric sheet monomer can contact the isosceles right angle portion of another adjacent dielectric sheet monomer.

[0027] Optionally, a plurality of launching stations are arranged on the launching base, and each of the launching stations is respectively provided with a corresponding medium part; the receiving movable part can also cyclically move between the plurality of launching stations;

[0028] The receiving movable part includes a movable frame, a protrusion is protruding from the bottom of the movable frame, the protrusion is provided with a receiving groove, and the bottom wall of the receiving groove is provided with a third avoidance hole; the receiving station is arranged in the receiving groove; the protrusion can pass through the second avoidance hole, and the thickness of the protrusion protruding from the movable frame is greater than the thickness of the medium part.

[0029] A detection method for a wireless charger detection device, using the wireless charger detection device as described above, comprising:

[0030] S100, setting a transmitting coil at a transmitting station and a receiving coil at a receiving station;

[0031] S200, adjusting the relative height of the receiving active part with respect to the transmitting base so that the test interval is greater than or equal to the thickness of the dielectric part, and performing a charging test on the receiving coil;

[0032] S300, from top to bottom, each of the dielectric sheet groups is placed in an open state, and after a dielectric sheet group is placed in an open state, a relative height of the receiving active part relative to the transmitting base is adjusted so that the test interval is greater than the thickness of the dielectric sheet group in a closed state, and a charging test is performed on the receiving coil.

[0033] Compared with the prior art, the present invention has the following beneficial effects:

[0034] The wireless charger detection device and the detection method thereof provided by the present invention are suitable for detecting a scenario in which media of different thicknesses are arranged between a transmitting coil and a receiving coil. A plurality of stacked media sheet groups are arranged above a transmitting station, and each media sheet group can be switched between a closed state and an open state, so that the media thickness can be adjusted according to the number of media sheet groups in a closed state. At the same time, other media sheet groups can be in an open state to avoid the receiving coil, which means that there are only a plurality of media sheet groups in a closed state between the receiving coil and the transmitting coil. Therefore, the media thickness can be changed by adjusting the state of each media sheet group, thereby meeting the detection requirements of wireless chargers matching different media thicknesses in laboratory scenarios, saving proofing time and proofing steps, thereby reducing overall time consumption and simplifying steps. BRIEF DESCRIPTION OF THE DRAWINGS

[0035] In order to more clearly illustrate the embodiments of the present invention or the technical solutions in the prior art, the drawings required for use in the embodiments or the description of the prior art will be briefly introduced below. Obviously, the drawings described below are only some embodiments of the present invention. For ordinary technicians in this field, other drawings can be obtained based on these drawings without paying creative labor.

[0036] The structures, proportions, sizes, etc. illustrated in the drawings of this specification are only used to match the contents disclosed in the specification so as to facilitate understanding and reading by persons familiar with this technology. They are not used to limit the conditions under which the present invention can be implemented, and therefore have no substantive technical significance. Any structural modification, change in proportion or adjustment of size, without affecting the effects and purposes that can be achieved by the present invention, should still fall within the scope of the technical contents disclosed by the present invention.

[0037] Figure 1 A schematic diagram of the overall structure of a wireless charger detection device provided by an embodiment of the present invention;

[0038] Figure 2 A schematic diagram of a top view of a wireless charger detection device provided in an embodiment of the present invention;

[0039] Figure 3 It is a schematic diagram of the isometric structure of the receiving movable part and the frame in the embodiment of the present invention;

[0040] Figure 4 It is a schematic diagram of the top view of the receiving movable part and the frame in an embodiment of the present invention;

[0041] Figure 5 for Figure 4 Schematic diagram of the cross-sectional structure along AA;

[0042] Figure 6 A schematic diagram of a partial structure of a wireless charger detection device provided by an embodiment of the present invention;

[0043] Figure 7 A schematic diagram of a partial explosion structure of a wireless charger detection device provided by an embodiment of the present invention;

[0044] Figure 8 is a schematic structural diagram of a dielectric sheet group in a closed state in an embodiment of the present invention;

[0045] Fig. 9 It is a structural schematic diagram of a dielectric sheet group in an embodiment of the present invention in an open state;

[0046] Illustration: 001, transmitting station; 002, receiving station; 003, first avoidance hole; 004, first gap;

[0047] 100, launching base; 110, mounting column; 200, receiving movable part; 210, movable frame; 211, frame groove; 220, protruding part; 221, receiving groove; 222, third avoidance hole; 231, first horizontal moving assembly; 232, second horizontal moving assembly; 233, vertical moving assembly;

[0048] 300, dielectric part; 310, dielectric sheet group; 311, dielectric sheet monomer; 312, isosceles right angle part; 313, rack part; 314, thickening part; 400, mounting plate; 410, second avoidance hole; 420, transmission hole;

[0049] 500, transmission assembly; 510, first gear; 520, second gear; 530, gear ring; 540, transmission ring; 550, trigger threaded rod; 600, frame. DETAILED DESCRIPTION

[0050] In order to make the purpose, features and advantages of the present invention more obvious and easy to understand, the technical solutions in the embodiments of the present invention will be clearly and completely described below in conjunction with the drawings in the embodiments of the present invention. Obviously, the embodiments described below are only part of the embodiments of the present invention, not all of the embodiments. Based on the embodiments of the present invention, all other embodiments obtained by ordinary technicians in this field without creative work are within the scope of protection of the present invention.

[0051] In the description of the present invention, it should be understood that the terms "upper", "lower", "top", "bottom", "inside", "outside" and the like indicate positions or positional relationships based on the positions or positional relationships shown in the drawings, and are only for the convenience of describing the present invention and simplifying the description, rather than indicating or implying that the device or element referred to must have a specific orientation, be constructed and operated in a specific orientation, and therefore cannot be understood as a limitation of the present invention. It should be noted that when a component is considered to be "connected" to another component, it may be directly connected to the other component or there may be a centrally arranged component at the same time.

[0052] The technical solution of the present invention is further described below with reference to the accompanying drawings and through specific implementation methods.

[0053] Embodiment 1:

[0054] The wireless charger detection device provided in this embodiment is suitable for quickly testing and evaluating the performance of wireless chargers under different media conditions in a laboratory environment. For example, it can realize charging efficiency testing of different media thicknesses. In this embodiment, the structure of the wireless charger detection device is improved to simplify the cumbersome proofing test process, significantly improve the test efficiency and equipment adaptability, and simplify the operation.

[0055] In the specific application scenario of the wireless charger, the wireless charger includes a transmitting coil and a receiving coil. The transmitting coil converts electrical energy into electromagnetic energy, and the receiving coil converts the electromagnetic energy back into electrical energy through electromagnetic induction to complete the electrical energy transfer. In this charging process, various performance tests are involved, such as charging efficiency test, thermal management performance test, electromagnetic compatibility test, etc. The above performance tests are well known to those skilled in the art and are not specifically expanded in this embodiment. The improvement focus in this embodiment is to provide an efficient, fast and convenient switching method for the test environment of the wireless charger.

[0056] like Figure 1 and Figure 2 As shown, the wireless charger detection device in this embodiment includes a transmitting base 100 and a receiving movable part 200 arranged on a frame 600, and a medium part 300 is arranged on the transmitting base 100. Figure 2As shown, a transmitting station 001 for placing a transmitting coil (not shown) is provided on the transmitting base 100; Figure 5 As shown, a receiving station 002 for placing a receiving coil (not shown) is provided on the receiving movable part 200, and the relative height of the receiving movable part 200 relative to the transmitting base 100 is adjustable; Figures 6 to 9 As shown, the dielectric part 300 is arranged above the emission station 001, and includes a plurality of dielectric sheet groups 310 stacked in sequence along the height direction, and each dielectric sheet group 310 can be switched between a closed state and an open state.

[0057] like Fig. 9 As shown, the dielectric sheet group 310 in the open state forms a first avoidance hole 003 for avoiding the receiving station 002; the test spacing between the receiving station 002 and the transmitting station 001 is greater than or equal to the sum of the thicknesses of the dielectric sheet group 310 in the closed state. It should be noted that the test spacing is controlled by the receiving movable part 200. Since the relative height of the receiving movable part 200 relative to the transmitting base 100 is adjustable, it means that the receiving movable part 200 can drive the receiving coil to move in a direction away from or close to the transmitting coil, so that the test spacing is adjustable.

[0058] Specifically, Figure 6 As shown, the wireless charger detection device is configured with a plurality of stacked dielectric sheet groups 310 above the transmitting station 001, and each dielectric sheet group 310 can be switched between a closed state and an open state, so that the dielectric thickness can be adjusted according to the number of dielectric sheet groups 310 in a closed state. At the same time, other dielectric sheet groups 310 can be in an open state to avoid the receiving coil, which means that there are only a plurality of dielectric sheet groups 310 in a closed state between the receiving coil and the transmitting coil. Therefore, the dielectric thickness can be changed by adjusting the state of each dielectric sheet group 310, and the receiving active part 200 is cooperated to drive the receiving coil to move to change the test spacing, thereby meeting the detection requirements of wireless chargers matching different dielectric thicknesses in laboratory scenarios, saving proofing time and proofing steps, thereby reducing overall time consumption and simplifying steps.

[0059] Furthermore, the wireless charger detection device in this embodiment has at least three test scenarios, including:

[0060] 1. When all the multiple dielectric sheet groups 310 are in an open state, the test spacing is greater than or equal to the thickness of a single dielectric sheet group 310;

[0061] 2. Along the direction away from the transmitting station 001, that is, from bottom to top, when the dielectric sheet groups 310 of a preset number of groups are in a closed state in sequence and the dielectric sheet groups 310 of the remaining number of groups are in an open state in sequence, the test spacing is greater than the thickness sum of the dielectric sheet groups 310 in the closed state, and the spacing where the test spacing exceeds the thickness sum is greater than the thickness of a single group of the dielectric sheet groups 310;

[0062] 3. When all the multiple dielectric sheet groups 310 are in a closed state, the test spacing is greater than or equal to the thickness of the dielectric portion 300 .

[0063] Through the above settings, the wireless charger detection device has the function of increasing the thickness of the medium from zero to the maximum value (the thickness of the medium part 300), or reducing the thickness of the medium from the maximum value to zero, so as to meet the detection requirements of the wireless charger matching different medium thicknesses. For example, as the thickness of the medium increases, the charging efficiency increases accordingly, and as the thickness of the medium decreases, the heat accumulation of the wireless charger becomes more obvious. Through testing at various medium thicknesses, a suitable medium thickness can be selected to meet both the charging efficiency requirements and the safety requirements of heat accumulation.

[0064] In this embodiment, if Figures 6 to 9 As shown, the wireless charger detection device also includes a plurality of mounting plates 400 arranged one by one corresponding to the plurality of dielectric sheet groups 310, and the dielectric sheet groups 310 can be movably mounted on the mounting plates 400; that is, each dielectric sheet group 310 is independently configured with a mounting plate 400. A plurality of mounting posts 110 are arranged on the transmitting base 100 corresponding to a group of mounting plates 400 to support the mounting plates 400.

[0065] The dielectric sheet group 310 includes four dielectric sheet monomers 311 slidably connected to the mounting plate 400. The dielectric sheet monomers 311 are provided with an isosceles right angle portion 312. The four isosceles right angle portions 312 are distributed in a circle, and the isosceles right angle portions 312 are connected to adjacent isosceles right angle portions 312. The mounting plate 400 is also provided with a transmission assembly 500. The transmission assembly 500 is used to drive the dielectric sheet monomers 311 to slide along the extending direction of the right angle side corresponding to the isosceles right angle portion 312. The extending direction of each right angle side is along the same rotation direction. Figure 8 and Fig. 9 As shown, when each dielectric sheet monomer 311 rotates in the clockwise direction and slides along the extension direction of its right-angle side (the upper dielectric sheet monomer 311 slides from left to right, the right dielectric sheet monomer 311 slides from top to bottom, the lower dielectric sheet monomer 311 slides from right to left, and the left dielectric sheet monomer 311 slides from bottom to top), each dielectric sheet monomer 311 is moved away from the circumferential center of the isosceles right-angle portion 312, thereby forming a first avoidance hole 003.

[0066] In a specific test scenario, along the direction away from the transmitting station 001, a portion of the dielectric sheet groups 310 are in a closed state in sequence, and the remaining number of groups of dielectric sheet groups 310 are in an open state in sequence. The receiving movable part 200 can be used to place the receiving coil in the first avoidance hole 003, so that the test spacing is greater than the thickness and thickness of the dielectric sheet group 310 in the closed state, and the spacing by which the test spacing exceeds the thickness and thickness is less than the thickness of a single group of the dielectric sheet group 310.

[0067] It is understandable that, as another optional embodiment, the dielectric sheet group 310 may include six dielectric sheet monomers in the form of equilateral triangles, and these dielectric sheet monomers are evenly distributed in a ring around the center point. The edge of the dielectric sheet monomer away from the center point is the sliding edge, and the transmission assembly 500 can drive the dielectric sheet monomer to slide along the sliding edge.

[0068] Based on the above-mentioned implementation of the four dielectric sheet monomers 311, the dielectric sheet monomers 311 are formed with racks 313 at the right angles; the transmission assembly 500 includes a first gear 510 rotatably connected to the mounting plate 400 corresponding to each rack 313, and also includes a gear ring 530 arranged outside the dielectric sheet group 310, and the gear ring 530 is provided with internal teeth; the mounting plate 400 is provided with a transmission hole 420, and the transmission hole 420 can be rotatably connected to the first gear 510 through a shaft; one end of the first gear 510 is meshed with the internal teeth of the gear ring 530, and the other end of the first gear 510 is meshed with the rack 313. It can be understood that the gear ring 530 can synchronously drive the rotation of multiple first gears 510, and correspondingly drive the rotation of the rack 313, so as to realize the synchronous opening and closing of each dielectric sheet monomer 311.

[0069] Furthermore, the transmission assembly 500 also includes a second gear 520 rotatably connected to the mounting plate 400 through a rotating shaft (not shown in the figure), and the second gear 520 is arranged on the outer side of the gear ring 530 and meshes with the outer teeth of the gear ring 530; along the height direction, the projections of the second gears 520 corresponding to each group of medium sheet groups 310 do not overlap each other. This means that each group of medium sheet groups 310 can realize the conversion between the open state and the closed state through its corresponding second gear 520, so that the independent control of each group of medium sheet groups 310 becomes possible. For example, a plurality of motors with third gears (not shown in the figure) are arranged on the outer ring of the mounting plate 400, and each third gear meshes with a second gear 520, and the state conversion of the corresponding medium sheet group 310 can be realized through the motor, which has the advantages of strong independence and higher flexibility.

[0070] In this embodiment, the mounting plate 400 is rotatably connected with a transmission ring 540 corresponding to the position of the second gear 520 thereof, and the second gear 520 is sleeved outside the transmission ring 540 and fixedly connected with the transmission ring 540; the inner ring surface of the transmission ring 540 is formed with an internal thread, and the internal thread is detachably mounted with a trigger threaded rod 550; the transmission ring 540 can drive the second gear 520 to rotate through the internal thread and the thread of the trigger threaded rod 550. Exemplarily, the height of each trigger threaded rod 550 can be independently controlled by a lifting structure such as a cylinder, a lifting rod motor, etc., that is, the state conversion of the corresponding dielectric sheet group 310 can be realized by a lifting structure such as a cylinder, a lifting rod motor, etc., which has the advantages of strong independence and higher flexibility. At the same time, the structure does not occupy the surface space of the transmitting base 100 additionally, so that the overall space utilization rate is higher, which is conducive to arranging more transmitting stations 001, so that the receiving coil of the receiving station 002 can match and test more scenes in one operation process, which can improve the test efficiency.

[0071] As a preferred embodiment, Figures 3 to 9 As shown, the transmission assembly 500 also includes a second gear 520 rotatably connected to the mounting plate 400 through a rotating shaft (not shown), the second gear 520 is arranged on the outer side of the gear ring 530, and meshes with the outer teeth of the gear ring 530; along the height direction, the projections of the second gears 520 corresponding to each group of medium sheet groups 310 do not overlap each other. The mounting plate 400 is rotatably connected to a transmission ring 540 corresponding to the position of its second gear 520, the second gear 520 is sleeved outside the transmission ring 540, and is fixedly connected to the transmission ring 540; the inner ring surface of the transmission ring 540 is formed with an internal thread, and a trigger threaded rod 550 is detachably installed on the internal thread; the transmission ring 540 can drive the second gear 520 to rotate through the internal thread and the thread of the trigger threaded rod 550.

[0072] Among them, the trigger threaded rods 550 are installed on the receiving movable part 200 in a circular array, and the trigger spacing of the external threaded parts on each trigger threaded rod 550 relative to the receiving station 002 is the same. Since the transmission ring 540 is installed on the mounting plate 400 at different heights, it means that as the receiving station 002 descends, the transmission ring 540 will be driven to rotate one by one by the corresponding trigger threaded rod 550; the projection of each transmission ring 540 on the launch base 100 corresponds to each trigger threaded rod 550 in a circular array, making the overall weight distribution more reasonable and improving the stability. In addition, by adopting the above layout, the state conversion of each dielectric sheet group 310 can be realized without arranging a motor on the launch base 100, which means that this setting can avoid electromagnetic interference components such as motors from interfering with the test at the launch station 001 and the receiving station 002, thereby improving the accuracy of the test, completing the test under different conditions, and simplifying the structure.

[0073] In this preferred embodiment, the external thread of each trigger thread rod 550 should be compatible with the internal thread of the corresponding transmission ring 540. When the trigger thread rod 550 passes through the internal thread of the transmission ring 540, the transmission ring 540 can only rotate because the position of the transmission ring 540 in the height direction is unchanged. Then, after the length and position of the external thread are preset, the trigger thread rod 550 is allowed to pass through the internal thread of the transmission ring 540. Even if the rotation angle of the transmission ring 540 changes accordingly, the rotation angle of the transmission ring 540 can be controlled, and then the state conversion of the medium sheet group 310 can be controlled in cooperation with the second gear 520, the ring gear 530, the first gear 510 and the rack portion 313.

[0074] On this basis, the length of the external threaded portion of the trigger threaded rod 550 is called the transmission pitch, which is the height of the external threaded portion from the "starting position of connection with the internal thread" to the "ending position of connection with the internal thread", that is, the height of the external threaded portion.

[0075] Illustratively, in this embodiment, the receiving movable part 200 is provided with 8 trigger threaded rods 550 distributed in a circle, and along the height direction, the 8 external threaded parts are connected end to end to ensure that each medium sheet group 310 can switch the state respectively, and the installation height of the mounting plate 400 where each transmission ring 540 is located is matched one by one.

[0076] More specifically, in order to ensure that the receiving coil does not collide with the dielectric portion 300, the transmission spacing can be made equal to the thickness of the single dielectric sheet 311. For this purpose, the test spacing in different test scenarios can be set:

[0077] 1. When all the multiple groups of dielectric sheet groups 310 are in the closed state, a transmission gap is left between the receiving station 002 and the uppermost dielectric sheet group 310. The test gap is equal to the sum of the thickness of the dielectric part 300 and the transmission gap, so as to ensure that the receiving coil on the receiving station 002 will not collide with the dielectric part 300. The transmission ring 540 of the uppermost dielectric sheet group 310 begins to mesh with the trigger threaded rod 550.

[0078] 2. The receiving movable part 200 drives the receiving station 002 to move down by the thickness of a single dielectric sheet 311. Since the transmission spacing is equal to the thickness of the single dielectric sheet 311, the transmission ring 540 of the uppermost dielectric sheet group 310 ends the engagement with the trigger threaded rod 550, so that the dielectric sheet group 310 enters the open state; at this time, the test spacing should be equal to the sum of the thickness of the 7 dielectric sheet groups 310 and the transmission spacing;

[0079] 3. The process is repeated in the same manner until all the dielectric sheet groups 310 enter the open state and the test spacing is equal to the transmission spacing.

[0080] Furthermore, a first gap 004 is left between two adjacent mounting plates 400, the first gear 510, the second gear 520, the gear ring 530 and the transmission ring 540 are all arranged in the first gap 004, and a second avoidance hole 410 is opened at the position of the mounting plate 400 corresponding to the dielectric sheet group 310; the dielectric sheet monomer 311 is arranged in the first gap 004, and the dielectric sheet monomer 311 is provided with a thickening portion 314 protruding at the isosceles right angle portion 312, and the thickening portion 314 extends to the second avoidance hole 410, so that the thickening portion 314 of one dielectric sheet monomer 311 can contact the isosceles right angle portion 312 of another adjacent dielectric sheet monomer 311. Through this arrangement, the overall structure is made more compact, and at the same time, it is ensured that the dielectric sheet monomers 311 can be directly stacked.

[0081] Furthermore, a plurality of launching stations 001 are arranged on the launching base 100, and each launching station 001 is respectively provided with a corresponding dielectric part 300; the receiving movable part 200 can also cyclically move between the plurality of launching stations 001; the receiving movable part 200 includes a movable frame 210 configured with a frame groove 211, a protrusion 220 is protruding from the bottom of the movable frame 210, the protrusion 220 is provided with a receiving groove 221, and a third avoidance hole 222 is provided on the bottom wall of the receiving groove 221; the receiving station 002 is arranged in the receiving groove 221; the protrusion 220 can pass through the second avoidance hole 410, and the thickness of the protrusion 220 protruding from the movable frame 210 is greater than the thickness of the dielectric part 300.

[0082] It should be added that circuit devices required for charging tests and other tests can be set in the movable frame 210. The above-mentioned circuit devices are well known to those skilled in the art and are not specifically expanded in this embodiment; in addition, in order to reduce electromagnetic interference, structures such as the transmitting base 100, the movable frame 210, the transmission assembly 500, etc. can be set to non-metallic materials such as wood, plastic, and ceramics.

[0083] On the basis of the above-mentioned implementation mode, the first horizontal moving component 231, the second horizontal moving component 232, and the vertical moving component 233 are sequentially installed on the frame 600. The above-mentioned moving components include but are not limited to a ball screw module equipped with a motor, a linear motor, etc., which can form a movable structure that can perform three-axis movement in space, and the movable structure can drive the movable frame 210 to move.

[0084] Embodiment 2:

[0085] This embodiment also provides a detection method for a wireless charger detection device, using the above wireless charger detection device, including:

[0086] S100, setting a transmitting coil on the transmitting station 001, and setting a receiving coil on the receiving station 002;

[0087] S200, adjusting the relative height of the receiving movable part 200 with respect to the transmitting base 100, so that the test interval is greater than or equal to the thickness of the dielectric part 300, and performing a charging test on the receiving coil;

[0088] S300, from top to bottom, each dielectric sheet group 310 is opened, and after a dielectric sheet group 310 is opened, the relative height of the receiving movable part 200 with respect to the transmitting base 100 is adjusted so that the test spacing is larger than the thickness of the dielectric sheet group 310 in the closed state, and a charging test is performed on the receiving coil.

[0089] S400 , repeat steps S100 to S400 for other emission stations 001 .

[0090] Through the above settings, the detection requirements of wireless chargers matching different dielectric thicknesses in laboratory scenarios can be met, saving proofing time and proofing steps, thereby reducing overall time consumption and simplifying steps.

[0091] As described above, the above embodiments are only used to illustrate the technical solutions of the present invention, rather than to limit the same. Although the present invention has been described in detail with reference to the aforementioned embodiments, those skilled in the art should understand that the technical solutions described in the aforementioned embodiments may still be modified, or some of the technical features thereof may be replaced by equivalents. However, these modifications or replacements do not deviate the essence of the corresponding technical solutions from the spirit and scope of the technical solutions of the embodiments of the present invention.

Claims

1. A wireless charger detection device, characterized in that: include: A transmitting base (100), wherein a transmitting station (001) for placing a transmitting coil is provided on the transmitting base (100); A receiving movable part (200), wherein a receiving station (002) for placing a receiving coil is provided on the receiving movable part (200), and the relative height of the receiving movable part (200) relative to the transmitting base (100) is adjustable; A dielectric part (300), the dielectric part (300) being arranged above the emission station (001), comprising a plurality of dielectric sheet groups (310) stacked in sequence along a height direction, each of the dielectric sheet groups (310) being capable of switching between a closed state and an open state; The dielectric sheet group (310) in the open state forms a first avoidance hole (003) for avoiding the receiving station (002); and the test spacing between the receiving station (002) and the transmitting station (001) is greater than or equal to the sum of the thicknesses of the dielectric sheet group (310) in the closed state.

2. A wireless charger detection device according to claim 1, characterized in that: When all the multiple groups of the dielectric sheet groups (310) are in an open state, the test spacing is greater than or equal to the thickness of a single group of the dielectric sheet groups (310); When a preset number of groups of dielectric sheet groups (310) are in a closed state in sequence and a remaining number of groups of dielectric sheet groups (310) are in an open state in sequence along a direction away from the emission station (001), the test spacing is greater than the sum of the thicknesses of the dielectric sheet groups (310) in the closed state; When all the multiple groups of the dielectric sheet groups (310) are in a closed state, the test spacing is greater than or equal to the thickness of the dielectric part (300).

3. A wireless charger detection device according to claim 1, characterized in that: It also includes a plurality of mounting plates (400) arranged one by one corresponding to the plurality of medium sheet groups (310), and the medium sheet groups (310) can be movably mounted on the mounting plates (400); The dielectric sheet group (310) comprises four dielectric sheet monomers (311) slidably connected to the mounting plate (400), each dielectric sheet monomer (311) being provided with an isosceles right-angle portion (312), the four isosceles right-angle portions (312) being distributed in a circular pattern, and the isosceles right-angle portions (312) being connected to adjacent isosceles right-angle portions (312); The mounting plate (400) is also provided with a transmission assembly (500), and the transmission assembly (500) is used to drive the dielectric sheet monomer (311) to slide along the extension direction of the right-angled side corresponding to the isosceles right-angled portion (312), and the extension direction of each right-angled side is along the same rotation direction.

4. A wireless charger detection device according to claim 3, characterized in that: The dielectric sheet monomer (311) is formed with a rack portion (313) at the right-angled edge; The transmission assembly (500) comprises a first gear (510) rotatably connected to the mounting plate (400) corresponding to each of the rack portions (313), and also comprises a gear ring (530) arranged outside the medium sheet group (310), wherein the gear ring (530) is provided with internal teeth; one end of the first gear (510) is meshed with the internal teeth of the gear ring (530), and the other end of the first gear (510) is meshed with the rack portion (313).

5. A wireless charger detection device according to claim 4, characterized in that: The transmission assembly (500) further comprises a second gear (520) rotatably connected to the mounting plate (400), wherein the second gear (520) is arranged on the outside of the gear ring (530) and meshes with the outer teeth of the gear ring (530); Along the height direction, the projections of the second gears (520) corresponding to each group of the medium sheet groups (310) do not overlap with each other.

6. A wireless charger detection device according to claim 5, characterized in that: The mounting plate (400) is rotatably connected to a transmission ring (540) corresponding to the position of the second gear (520); the second gear (520) is sleeved outside the transmission ring (540) and fixedly connected to the transmission ring (540); An internal thread is formed on the inner ring surface of the transmission ring (540), and a trigger thread rod (550) is detachably mounted on the internal thread; the transmission ring (540) can drive the second gear (520) to rotate through the engagement of the internal thread with the thread of the trigger thread rod (550).

7. A wireless charger detection device according to claim 6, characterized in that: The trigger threaded rods (550) are mounted on the receiving movable part (200) in a circular array, and the trigger spacing of the external threaded parts on each of the trigger threaded rods (550) relative to the receiving station (002) is the same; the projections of each of the transmission rings (540) on the launching base (100) correspond to each of the trigger threaded rods (550) in a circular array.

8. A wireless charger detection device according to claim 6, characterized in that: A first gap (004) is left between two adjacent mounting plates (400); the first gear (510), the second gear (520), the gear ring (530) and the transmission ring (540) are all arranged in the first gap (004); and a second avoidance hole (410) is opened at a position of the mounting plate (400) corresponding to the medium sheet group (310); The dielectric sheet monomer (311) is arranged in the first gap (004); the dielectric sheet monomer (311) is provided with a thickened portion (314) protruding from the isosceles right-angle portion (312); the thickened portion (314) extends to the second avoidance hole (410), so that the thickened portion (314) of one dielectric sheet monomer (311) can contact the isosceles right-angle portion (312) of another adjacent dielectric sheet monomer (311).

9. A wireless charger detection device according to claim 8, characterized in that: The transmitting base (100) is provided with a plurality of transmitting stations (001), and each transmitting station (001) is respectively provided with a corresponding medium portion (300); the receiving movable portion (200) can also cyclically move between the plurality of transmitting stations (001); The receiving movable part (200) comprises a movable frame (210); a protruding part (220) is protruding from the bottom of the movable frame (210); a receiving groove (221) is provided in the protruding part (220); a third avoidance hole (222) is provided in the bottom wall of the receiving groove (221); the receiving station (002) is arranged in the receiving groove (221); the protruding part (220) can pass through the second avoidance hole (410), and the thickness of the protruding part (220) protruding from the movable frame (210) is greater than the thickness of the medium part (300).

10. A detection method for a wireless charger detection device, characterized in that: The wireless charger detection device according to any one of claims 1 to 9 comprises: S100, setting a transmitting coil at a transmitting station and a receiving coil at a receiving station; S200, adjusting the relative height of the receiving active part with respect to the transmitting base so that the test interval is greater than or equal to the thickness of the dielectric part, and performing a charging test on the receiving coil; S300, from top to bottom, each of the dielectric sheet groups is placed in an open state, and after a dielectric sheet group is placed in an open state, a relative height of the receiving active part relative to the transmitting base is adjusted so that the test interval is greater than the thickness of the dielectric sheet group in a closed state, and a charging test is performed on the receiving coil.

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