A test device for detecting electric current

Abstract

The utility model discloses a kind of test devices for detecting current, comprising: display and main control module installed in the upper lining plate of cabinet in turn along the first direction and installed in the middle lining plate of cabinet, main control module includes main control module shell structure, first FPGA board, three first hall sensors and first outgoing line connector.Through three first hall sensors, the current signal of the first to-be-detected current device in cabinet is collected, and is transmitted to first FPGA board, and first FPGA board transmits first current signal to display through first outgoing line connector and displays, so as to realize the current detection of the first to-be-detected current device, and only including the component related to current detection in the utility model, so that the test device for detecting current provided by the utility model embodiment is smaller in size, can be installed in the limited space scattered in cabinet, realize the function of the current detection of the device inside large integrated cabinet.

Description

Technical Field

[0001] This utility model relates to the field of electronic testing equipment technology, and more specifically, to a testing device for detecting current. Background Technology

[0002] Currently, there is a need to perform current detection on devices inside large integrated cabinets.

[0003] However, large integrated cabinets contain numerous cables and electronic components, leaving little usable space, which is also scattered throughout.

[0004] Existing testing devices for current detection are too large to fit inside large integrated cabinets, thus preventing them from performing current detection on devices inside such cabinets. Utility Model Content

[0005] This invention provides a testing device for detecting current, capable of performing current detection on components inside large integrated cabinets. The specific technical solution is as follows:

[0006] In a first aspect, this utility model provides a testing device for detecting current, comprising:

[0007] The monitor is installed sequentially on the upper liner of the cabinet along the first direction, and the main control module is installed on the middle liner of the cabinet.

[0008] The main control module includes a main control module housing structure, a first field-programmable gate array (FPGA) board, three first Hall sensors, and a first outgoing connector.

[0009] The first FPGA board is installed in a relatively closed first cavity enclosed by the main control module housing structure. The main control module housing structure has a first outgoing connector mounting hole on one side surface along the second direction. The first outgoing connector passes through the first outgoing connector mounting hole.

[0010] The first FPGA board extends along the second direction. One end of the first FPGA board along the second direction is electrically connected to one end of the first outgoing connector located inside the first cavity. The other end of the first outgoing connector located outside the first cavity is electrically connected to the display. The other end of the first FPGA board along the second direction is electrically connected to three Hall sensors. The three Hall sensors are mounted on the other side surface of the main control module housing structure along the second direction, and the three first Hall sensors are located outside the first cavity. All three first Hall sensors are electrically connected to the first current-to-be-detected device inside the cabinet.

[0011] Wherein, the first direction and the second direction are perpendicular to each other.

[0012] Optionally, the main control module housing structure includes a main control module housing, a main control module front baffle, a main control module upper cover, and a main control module side baffle.

[0013] The main control module housing is a housing structure with an opening at one end along the first direction, an opening and a mounting platform at one end along the second direction, with the mounting platform extending along the first direction, and an opening at one end along the third direction.

[0014] The main control module upper cover is installed at the opening end of the main control module main housing along the first direction, the main control module front baffle is installed at the opening end of the main control module main housing along the second direction, and the main control module front baffle is close to the main control module upper cover, and the main control module side baffle is installed at the opening end of the main control module main housing along the third direction;

[0015] The main housing of the main control module, the front baffle of the main control module, the upper cover of the main control module, and the side baffle of the main control module are assembled to form the first cavity;

[0016] The main control module housing is mounted on the middle liner plate at the other end along the first direction. The main control module housing is provided with the first outgoing connector mounting hole on the side surface without an opening end along the second direction. The three Hall sensors are mounted on the outer surface of the mounting platform.

[0017] Wherein, the first direction, the second direction, and the third direction are perpendicular to each other.

[0018] Optionally, the main control module further includes a relay board, a first power supply board, a vertical circuit board (PCB), three first external plug-in connectors, and two second external plug-in connectors.

[0019] The relay board, the first FPGA board, and the first power board are sequentially disposed in the first cavity along the first direction, and the first power board is mounted on one side surface along the first direction on the mounting platform, the first FPGA board is mounted on one side surface along the first direction on the other side surface along the first direction, and the relay board is mounted on one side surface along the first direction on the other side surface along the first direction.

[0020] The first FPGA board is provided with a first mating connector socket on the other side surface along the first direction, and the relay board is provided with a first mating connector plug on one side surface along the first direction, which corresponds to the first mating connector socket. The first mating connector socket is plugged into the first mating connector plug.

[0021] The relay is provided with three second plug connector sockets corresponding to the three first external plug connectors on the other side surface along the first direction. The main control module cover is provided with three first through holes corresponding to the three second plug connector sockets on one side surface along the first direction. Each second plug connector socket passes through the corresponding first through hole and is plugged into the corresponding first external plug connector.

[0022] The first FPGA board is provided with two third-pair connector sockets at one end along the third direction. The upright PCB board extends along the first direction. One side surface of the upright PCB board along the third direction is mounted on the main control module side baffle. The other side surface of the upright PCB board along the third direction is provided with two second-pair connector plugs that correspond one-to-one with the two third-pair connector sockets. Each third-pair connector socket is plugged into the corresponding second-pair connector plug.

[0023] The upright PCB board has two fourth plug connector sockets corresponding to the two second external plug connectors on one side surface along the third direction. The main control module side baffle has two second through holes corresponding to the two fourth plug connector sockets on one side surface along the third direction. Each fourth plug connector socket passes through the corresponding second through hole and is plugged into the corresponding second external plug connector plug.

[0024] Optionally, a third pair of connector plugs is provided at one end of the first FPGA board along the second direction, and the third pair of connector plugs is inserted into the socket of the first outgoing connector located in the first cavity.

[0025] Optionally, the main control module further includes a first thermally conductive silicone pad;

[0026] The main control module housing has a first groove on its inner wall near the first power board along the first direction. The first thermally conductive silicone pad is installed in the first groove and abuts against the first power board.

[0027] Optionally, the above-mentioned testing device for detecting current further includes:

[0028] The cabinet includes a remote module and three second Hall sensors. The remote module is mounted on the lower liner of the cabinet. The upper liner, the middle liner, and the lower liner are arranged sequentially along the first direction. The three second Hall sensors are mounted on any one of the liners.

[0029] The remote module includes a remote module housing structure, a second FPGA board, a second outgoing connector, and a third outgoing connector. The second FPGA board is installed in the second cavity enclosed by the remote module housing structure. The second FPGA board extends along the second direction. The remote module housing structure has a second outgoing connector mounting hole on one side surface along the second direction and a third outgoing connector mounting hole on the other side surface along the second direction. The second outgoing connector passes through the second outgoing connector mounting hole, and the third outgoing connector passes through the third outgoing connector mounting hole.

[0030] The main control module further includes a fourth outgoing connector, which passes through the mounting hole of the first outgoing connector. One end of the first FPGA board along the second direction is electrically connected to one end of the fourth outgoing connector located inside the first cavity. The one end of the fourth outgoing connector outside the first cavity is electrically connected to one end of the second outgoing connector outside the second cavity. One end of the second outgoing connector inside the second cavity is electrically connected to one end of the second FPGA board along the second direction. The other end of the second FPGA board along the second direction is electrically connected to one end of the third outgoing connector inside the second cavity. The one end of the third outgoing connector outside the second cavity is electrically connected to three second Hall sensors. All three second Hall sensors are electrically connected to a second current-detecting device inside the cabinet.

[0031] Optionally, the remote module includes a remote module main housing, a remote module front baffle, and a remote module upper cover.

[0032] The remote module main housing is a housing structure with an opening at one end along the first direction and an opening on one side surface along the second direction.

[0033] The remote module top cover is installed at the opening end of the remote module main housing along the first direction, and the remote module front baffle is installed at the opening end of the remote module main housing along the second direction.

[0034] The remote module main housing, the remote module front baffle, and the remote module top cover are assembled to form the second cavity;

[0035] The other end of the remote module main housing along the first direction is mounted on the lower liner plate. The second outgoing connector mounting hole is provided on one side surface of the remote module main housing with an opening along the second direction. The third outgoing connector mounting hole is provided on the other side surface of the remote module main housing opposite to the front baffle of the remote module.

[0036] Optionally, the remote module further includes a second power board, wherein the second power board and the second FPGA board are sequentially disposed in the second cavity along the second direction;

[0037] The remote module main housing has four mounting posts on one side surface along the first direction. The second power board is mounted on one side surface along the first direction of the second FPGA board, and the second FPGA board is mounted on one side surface along the first direction of the four mounting posts.

[0038] The second FPGA board has a fifth pair of connector sockets on one side surface along the first direction, and the second power board has a fourth pair of connector plugs on one side surface along the first direction. The fifth pair of connector sockets is plugged into the fourth pair of connector plugs.

[0039] Optionally, the remote module further includes a second thermally conductive silicone pad;

[0040] The remote module main housing has a second groove on the inner wall near the second power board along the first direction. The second thermally conductive silicone pad is installed in the second groove and abuts against the second power board.

[0041] Optionally, the main control module housing is provided with multiple wire mounting holes.

[0042] As can be seen from the above, the testing device for detecting current provided by this utility model embodiment includes: a display mounted sequentially on the upper liner of the cabinet along a first direction and a main control module mounted on the middle liner of the cabinet; the main control module includes a main control module housing structure, a first FPGA board, three first Hall sensors, and a first outgoing connector; the first FPGA board is mounted in a relatively closed first cavity enclosed by the main control module housing structure, and a first outgoing connector mounting hole is provided on one side surface of the main control module housing structure along a second direction, through which the first outgoing connector passes; the first FPGA board extends along the second direction, one end of the first FPGA board along the second direction is electrically connected to one end of the first outgoing connector located in the first cavity, the other end of the first outgoing connector located outside the first cavity is electrically connected to the display, and the other end of the first FPGA board along the second direction is electrically connected to the three Hall sensors respectively, the three Hall sensors are mounted on the other side surface of the main control module housing structure along the second direction, and the three first Hall sensors are located outside the first cavity, and all three first Hall sensors are electrically connected to a first current-to-be-detected device inside the cabinet; wherein, the first direction and the second direction are perpendicular to each other. Therefore, the current signal of the first current-detecting device in the cabinet is collected by three first Hall sensors and transmitted to the first FPGA board. The first FPGA board transmits the first current signal to the display through the first outgoing connector, thereby realizing the current detection of the first current-detecting device. The present invention only includes components related to current detection, so that the test device for detecting current provided by the present invention is small in size and can be installed in the dispersed limited space in the cabinet, so as to realize the function of current detection of devices inside large integrated cabinets.

[0043] The innovative aspects of this utility model embodiment include:

[0044] 1. The current signal of the first current device to be tested in the cabinet is collected by three first Hall sensors and transmitted to the first FPGA board. The first FPGA board transmits the first current signal to the display through the first outgoing connector, thereby realizing the current detection of the first current device to be tested. The present invention only includes components related to current detection, so that the test device for detecting current provided by the present invention is small in size and can be installed in the dispersed limited space in the cabinet, so as to realize the function of current detection of devices inside large integrated cabinets.

[0045] 2. Since the testing device for detecting current provided in this embodiment of the utility model is small in size, it can be installed in the dispersed limited space inside the cabinet. Therefore, it also provides a solution for the temporary functional requirements added to the cabinet later.

[0046] 3. The testing device for detecting current provided in this embodiment of the utility model has a simple structure, is easy to assemble and operate, and has low processing cost.

[0047] 4. By setting a first screw mounting hole at the other end of the main housing of the main control module along the first direction, screw installation with the middle liner plate can be achieved, which is convenient for cabinets with high integration.

[0048] 5. Electrical connection between the first FPGA board and the relay board is achieved by connecting the first connector socket to the first connector plug. Electrical connection between the relay and the three first external connectors is achieved by connecting the three second connector sockets to the corresponding first external connector plugs, allowing the relay board to output signals from the first FPGA board through the three first external connectors. Electrical connection between the first FPGA board and the vertical PCB board is achieved by connecting the two third connector sockets to the corresponding two second connector plugs. Electrical connection between the vertical PCB board and the two second external connectors is achieved by connecting the two fourth connector sockets to the corresponding two second external connector plugs, allowing the vertical PCB board to output signals from the first FPGA board through the two second external connectors.

[0049] 6. Since the relay board, the first FPGA board, and the first power board are arranged in layers, the volume occupied by the three boards is greatly reduced, which further reduces the volume of the main control module. This allows the main control module to be installed in the limited space of the cabinet, enabling it to perform current detection on the devices inside the large integrated cabinet.

[0050] 7. By connecting the third pair of connector plugs to the socket of the first outgoing connector located in the first cavity, the electrical connection between the first FPGA board and the first outgoing connector is realized, so that the first FPGA board can send current signals to the display for display through the first outgoing connector.

[0051] 8. By setting a first groove on the inner wall near the first power board and installing a first thermally conductive silicone pad in the first groove, with the first thermally conductive silicone pad in contact with the first power board, the first power board is cooled down to prevent overheating and failure.

[0052] 9. The second current signal of the second current device to be detected in the cabinet is collected by three second Hall sensors and transmitted to the second FPGA board through the third outgoing connector. The second FPGA board transmits the second current signal to the first FPGA board through the second outgoing connector and the fourth outgoing connector in sequence. The first FPGA board transmits the second current signal to the display through the first outgoing connector for display, thereby realizing the current detection of the second current device to be detected. The remote module only contains the second FPGA board, which makes the remote module small in size and can be installed in the dispersed limited space in the cabinet to realize the function of current detection of devices inside large integrated cabinets.

[0053] 10. By connecting the remote module to the main control module, and the main control module to the display, the second current signal detected by the remote module can also be transmitted to the display for display via the main control module, eliminating the need to add a new display, reducing the number of displays and lowering costs.

[0054] 11. By setting a second screw mounting hole at the other end of the main housing of the remote module along the first direction, screw installation with the lower liner is achieved, which is convenient for cabinets with high integration.

[0055] 12. The electrical connection between the second power board and the second FPGA board is achieved by connecting the fifth pair of connector sockets and the fourth pair of connector plugs, so that the second power board supplies power to the second FPGA board.

[0056] 13. By setting a second groove on the inner wall near the second power board and installing a second thermally conductive silicone pad in the second groove, with the second thermally conductive silicone pad in contact with the second power board, the second power board is cooled down to prevent overheating and failure.

[0057] Of course, implementing any product or method of this utility model does not necessarily require achieving all of the advantages described above at the same time. Attached Figure Description

[0058] To more clearly illustrate the technical solutions in the embodiments of this utility model or the prior art, the drawings used in the description of the embodiments or the prior art will be briefly introduced below. Obviously, the drawings described below are merely some embodiments of this utility model. For those skilled in the art, other drawings can be obtained based on these drawings without any creative effort.

[0059] Figure 1 A schematic diagram of a testing device for detecting current provided in an embodiment of this utility model;

[0060] Figure 2A front view of the main control module provided in an embodiment of this utility model;

[0061] Figure 3 A side view of the main control module provided in an embodiment of this utility model;

[0062] Figure 4 A top view of the main control module provided in an embodiment of this utility model;

[0063] Figure 5 A partial cross-sectional view of the main control module provided in an embodiment of this utility model;

[0064] Figure 6 A top sectional view of the remote module provided in an embodiment of this utility model;

[0065] Figure 7 A side view of the remote module provided in an embodiment of this utility model;

[0066] Figure 8 A side view of the remote module provided in an embodiment of this utility model from another angle;

[0067] Figure 9 A cross-sectional view of the remote module provided in an embodiment of this utility model.

[0068] Figures 1-9 The components are: 20 upper liner, 30 middle liner, 40 lower liner, 1 display, 2 main control module, 21 first FPGA board, 22 first Hall sensor, 23 first outgoing connector, 24 main control module main housing, 25 main control module front baffle, 26 main control module top cover, 27 main control module side baffle, 28 mounting platform, 291 first power board, 292 fourth outgoing connector, 3 first external mating connector, 4 second external mating connector, 5 second mating connector socket, 6 fourth mating connector socket, 7 remote module, 71 second FPGA board, 72 second outgoing connector, 73 third outgoing connector, 74 remote module main housing, 741 mounting post, 75 remote module front baffle, 76 remote module top cover, 77 second power board, and 78 second thermal conductive silicone pad. Detailed Implementation

[0069] The technical solutions of the present utility model will be clearly and completely described below with reference to the accompanying drawings of the embodiments. Obviously, the described embodiments are only a part of the embodiments of the present utility model, and not all of them. All other embodiments obtained by those skilled in the art based on the embodiments of the present utility model without creative effort are within the scope of protection of the present utility model.

[0070] It should be noted that the terms "comprising" and "having," and any variations thereof, in the embodiments and drawings of this utility model are intended to cover non-exclusive inclusion. For example, a process, method, system, product, or device that includes a series of steps or units is not limited to the steps or units listed, but may optionally include steps or units not listed, or may optionally include other steps or units inherent to these processes, methods, products, or devices.

[0071] This utility model discloses a testing device for detecting current, which can realize the function of current detection of devices inside large integrated cabinets. The following is a detailed description of this utility model embodiment.

[0072] Figure 1 This is a schematic diagram of a testing device for detecting current provided in an embodiment of the present invention. Figure 2 This is a front view of the main control module provided in an embodiment of the present utility model. Figure 3 A side view of the main control module provided in an embodiment of this utility model. Figure 4 This is a top view of the main control module provided in an embodiment of the present utility model.

[0073] See Figures 1-4 The current detection device provided in this embodiment includes a display 1 and a main control module 2, which are sequentially mounted on the upper liner 20 of the cabinet along a first direction. The mounting method can be screw mounting. The display 1 can be an LCD display, and its size can be selected according to actual usage requirements. Inside the cabinet, the upper liner 20, the middle liner 30, and the lower liner 30 are sequentially arranged along the first direction, with the lower liner 30 close to the ground.

[0074] The main control module 2 includes a main control module housing structure, a first FPGA (Field Programmable Gate Array) board 21, three first Hall sensors 22, and a first outgoing connector 23. For example, the first FPGA board 21 is a PCB (Printed Circuit Board).

[0075] The first FPGA board 21 is installed in a relatively closed first cavity enclosed by the main control module housing structure. The main control module housing structure has a first outgoing connector mounting hole on one side surface along the second direction. The first outgoing connector 23 passes through the first outgoing connector mounting hole. In this embodiment of the utility model, the first cavity is relatively closed, that is, the housing structure is not completely closed.

[0076] The first FPGA board 21 extends along the second direction. One end of the first FPGA board 21 along the second direction is electrically connected to one end of the first outgoing connector 23 located inside the first cavity. The other end of the first outgoing connector 23 located outside the first cavity is electrically connected to the display 1. The other end of the first FPGA board 21 along the second direction is electrically connected to three Hall sensors 22. The three Hall sensors 22 are installed on the other side surface of the main control module housing structure along the second direction, and the three Hall sensors 22 are located outside the first cavity. All three Hall sensors 22 are electrically connected to the first current-to-be-detected device inside the cabinet.

[0077] The first direction and the second direction are perpendicular to each other.

[0078] In this application, the first direction is perpendicular to the ground, and the third direction is the length direction of each of the rack's panels, and the first, second, and third directions are mutually perpendicular. However, it should be noted that "perpendicular" in this application is not absolutely perpendicular, but can be 90°±10°. Similarly, "parallel" in this application is not absolutely parallel, but can be 180°±10°.

[0079] The working principle of the testing device for detecting current provided in this embodiment of the utility model is as follows:

[0080] Three first Hall sensors 22 collect the first current signal of the first current device to be tested in the cabinet and transmit it to the first FPGA board 21. The first FPGA board 21 transmits the first current signal to the display 1 through the first outgoing connector 23 for display, thereby realizing the current detection of the first current device to be tested.

[0081] In summary, the testing device for detecting current provided in this embodiment of the present invention includes: a display 1 and a main control module 2 installed sequentially on the upper liner 20 of the cabinet along a first direction; the main control module 2 includes a main control module housing structure, a first FPGA board 21, three first Hall sensors 22, and a first outgoing connector 23; the first FPGA board 21 is installed in a relatively closed first cavity enclosed by the main control module housing structure, and a first outgoing connector mounting hole is provided on one side surface of the main control module housing structure along a second direction, and the first outgoing connector 23 passes through the first outgoing connector mounting hole ... a first outgoing connector mounting hole is provided on one side surface of the main control module housing structure, and a first outgoing connector mounting hole is provided on one side surface of the main control module housing structure, and a first outgoing connector mounting hole is provided on one side surface of the main control module housing structure, and a first outgoing connector mounting hole is provided on one side surface of the main control module housing structure, and a first outgoing connector mounting hole is provided on one side surface of the main control module housing structure, and a first outgoing connector mounting hole is provided on one side surface of the main control module housing structure, and a first outgoing connector mounting hole is provided on one side surface of the main control module housing Board A 21 extends along the second direction. One end of the first FPGA board 21 along the second direction is electrically connected to one end of the first outgoing connector 23 located inside the first cavity. The other end of the first outgoing connector 23 located outside the first cavity is electrically connected to the display 1. The other end of the first FPGA board 21 along the second direction is electrically connected to three Hall sensors 22. The three Hall sensors 22 are installed on the other side surface of the main control module housing structure along the second direction, and the three Hall sensors 22 are located outside the first cavity. All three Hall sensors 22 are electrically connected to the first current-to-be-detected device inside the cabinet. The first direction and the second direction are perpendicular to each other. Therefore, the current signal of the first current device to be tested in the cabinet is collected by three first Hall sensors 22 and transmitted to the first FPGA board 21. The first FPGA board 21 transmits the first current signal to the display 1 through the first outgoing connector 23 for display, thereby realizing the current detection of the first current device to be tested. The present invention only includes components related to current detection, so that the test device for detecting current provided by the present invention is small in size and can be installed in the dispersed limited space in the cabinet to realize the function of current detection of devices inside large integrated cabinets.

[0082] Furthermore, since the testing device for detecting current provided in this embodiment of the utility model is small in size, it can be installed in the dispersed limited space inside the cabinet, thus providing a solution for the temporary functional requirements added to the cabinet later.

[0083] Meanwhile, the testing device for detecting current provided in this embodiment of the utility model has a simple structure, is easy to assemble and operate, and has low processing cost.

[0084] See also Figures 2-4 The main control module housing structure includes a main control module housing 24, a main control module front baffle 25, a main control module top cover 26, and a main control module side baffle 27. The main control module housing 24 is provided with multiple wire mounting holes; for example, the size of the wire mounting holes is 10.5mm × 25mm. The main control module housing 24 has dimensions of 150mm × 100mm × 60mm and a thickness of 2mm.

[0085] The main control module housing 24 is a housing structure with an opening at one end along a first direction, an opening and a mounting platform 28 at one end along a second direction (the mounting platform 28 extending along the first direction), and an opening at one end along a third direction. In other words, the main control module housing 24 is a housing structure without seals at three ends. An opening at one end is considered a full opening, while an opening at one end is considered a partial opening. The end along the second direction has both an opening and a mounting platform 28, meaning that the opening at the end along the second direction is not fully open.

[0086] See also Figures 2-4 The main control module top cover 26 is installed at the opening end of the main control module main housing 24 along the first direction. The main control module front baffle 25 is installed at the opening end of the main control module main housing 24 along the second direction, and the main control module front baffle 25 is close to the main control module top cover 26. The main control module side baffle 27 is installed at the opening end of the main control module main housing 24 along the third direction. The installation method can be screw installation. Since the main control module front baffle 25 is installed at the opening end of the main control module main housing 24 along the second direction, and the main control module front baffle 25 is close to the main control module top cover 26, it indicates that the opening end of the main control module main housing 24 along the second direction is close to the main control module top cover 26.

[0087] The main control module housing 24, the main control module front baffle 25, the main control module top cover 26, and the main control module side baffle 27 are assembled to form the first cavity.

[0088] The other end of the main control module housing 24 along the first direction is mounted on the intermediate liner plate 30. The main control module housing 24 along the first direction can be mounted on the intermediate liner plate by providing four first screw mounting holes at the other end of the main control module housing 24 along the first direction, and mounting it on the intermediate liner plate 30 by four screws. For example, the size of the first screw mounting holes can be M5.

[0089] Therefore, by setting four first screw mounting holes at the other end of the main control module housing 24 along the first direction, screw installation with the middle liner plate 30 can be achieved, which is convenient for cabinets with high integration.

[0090] The main control module housing 24 has a first outgoing connector mounting hole on the side surface without an opening along the second direction. Three Hall sensors 22 are mounted on the outer surface of the mounting platform 28, which can be installed with screws, meaning the three Hall sensors 22 are located outside the first cavity. The first, second, and third directions are mutually perpendicular.

[0091] Figure 5 A partial cross-sectional view of the main control module provided in this embodiment of the present invention, see below. Figures 2-5 The main control module 2 also includes a relay board, a first power supply board 291, a vertical circuit board (PCB), three first external connectors 3, and two second external connectors 4. The first power supply board 291 is used to supply power to the main control module 2.

[0092] The first cavity contains three layers of boards arranged in sequence: a relay board, a first FPGA board 21, and a first power supply board 291, as well as a vertical PCB board on the side. For example, the relay board and the first power supply board 291 are PCB boards.

[0093] Specifically, the relay board, the first FPGA board 21, and the first power board 291 are sequentially disposed in the first cavity along the first direction, and the first power board 291 is mounted on the mounting table 28 on one side surface along the first direction. The mounting method can be screw mounting.

[0094] The first FPGA board 21 is mounted on one side of the first power board 291 along the first direction, and the relay board is mounted on one side of the first FPGA board 21 along the first direction, and the relay board is mounted on the other side of the first FPGA board 21 along the first direction. The mounting method can be copper stud mounting; for example, four copper studs are used to mount each pair of boards. Since the relay board, the first FPGA board 21, and the first power board 291 all have a certain number of electronic components, there are gaps between the three boards.

[0095] The first FPGA board 21 has a first mating connector socket on the other side of the first direction, and the relay board has a first mating connector plug on one side of the first direction that corresponds to the first mating connector socket. The first mating connector socket and the first mating connector plug are connected.

[0096] The relay has three second plug connector sockets 5 on the other side of the first direction, which correspond one-to-one with the three first external plug connectors. The main control module cover plate 26 has three first through holes on one side of the first direction, which correspond one-to-one with the three second plug connector sockets 5. Each second plug connector socket 5 passes through the corresponding first through hole and is plugged into the corresponding first external plug connector 3.

[0097] The first FPGA board 21 has two third-pair connector sockets at one end along the third direction. The upright PCB board extends along the first direction and is mounted on one side surface of the upright PCB board along the third direction to the main control module side baffle 27. The mounting method can be screw mounting. For example, the main control module side baffle 27 is provided with 4 PCB board mounting holes and is fixedly mounted to the upright PCB board by 4 screws. The size of the PCB board mounting holes can be 89.5mm × 51mm.

[0098] The PCB board has two second-pair connector plugs on the other side of the third direction, which correspond one-to-one with the two third-pair connector sockets. Each third-pair connector socket is plugged into the corresponding second-pair connector plug.

[0099] The PCB board has two fourth connector sockets 6 that correspond one-to-one with the two second external connectors 4 on one side surface along the third direction. The main control module side baffle 27 has two second through holes that correspond one-to-one with the two fourth connector sockets 6 on one side surface along the third direction. Each fourth connector socket 6 passes through the corresponding second through hole and is plugged into the corresponding second external connector 4.

[0100] Therefore, the electrical connection between the first FPGA board 21 and the relay board is achieved by connecting the first plug-in connector socket to the first plug-in connector plug. The electrical connection between the relay and the three first external plug-in connectors is achieved by connecting the three second plug-in connector sockets 5 to the plugs of the three corresponding first external plug-in connectors 3, so that the relay board can output the signal of the first FPGA board 21 to the outside through the three first external plug-in connectors 3. The electrical connection between the first FPGA board 21 and the vertical PCB board is achieved by connecting the two third plug-in connector sockets to the plugs of the two corresponding second plug-in connectors 3. The electrical connection between the vertical PCB board and the two second external plug-in connectors 4 is achieved by connecting the two fourth plug-in connector sockets 6 to the plugs of the two corresponding second external plug-in connectors 4, so that the vertical PCB board can output the signal of the first FPGA board 21 to the outside through the two second external plug-in connectors 4.

[0101] Furthermore, since the relay board, the first FPGA board 21, and the first power supply board 291 are arranged in layers, the volume occupied by the three boards is greatly reduced, further reducing the volume of the main control module 2. This allows the main control module 2 to be installed in a dispersed and limited space within the cabinet, enabling it to perform current detection on the devices inside a large integrated cabinet.

[0102] In one implementation, a third pair of connector plugs is provided at one end of the first FPGA board 21 along the second direction, and the third pair of connector plugs is inserted into the socket of the first outgoing connector 23 located in the first cavity.

[0103] Thus, by plugging the third pair of connectors into the socket of the first outgoing connector 23 located in the first cavity, the electrical connection between the first FPGA board 21 and the first outgoing connector 23 is realized, so that the first FPGA board 21 can send current signals to the display 1 for display through the first outgoing connector 23.

[0104] In one implementation, the main control module 2 also includes a first thermally conductive silicone pad.

[0105] The main control module housing 24 has a first groove on its inner wall near the first power board 291 along a first direction. A first thermally conductive silicone pad is installed in the first groove and abuts against the first power board 291. The installation method can be screw mounting. For example, the dimensions of the first groove are 48.2mm × 71.25mm × 0.7mm.

[0106] Therefore, by providing a first groove on the inner wall near the first power board 291 and installing a first thermally conductive silicone pad in the first groove, with the first thermally conductive silicone pad in contact with the first power board 291, the first power board 291 is cooled down, thus preventing the first power board 291 from overheating and malfunctioning.

[0107] Figure 6 This is a top sectional view of the remote module provided in an embodiment of the present utility model. Figure 7 This is a side view of the remote module provided in an embodiment of the present invention. Figure 8 This is a side view of the remote module provided in an embodiment of the present invention from another angle. Figure 9 A cross-sectional view of the remote module provided in an embodiment of this utility model.

[0108] See Figure 1 , Figures 6-9 The testing device for detecting current also includes:

[0109] The remote module 7 and three second Hall sensors are mounted on the lower liner 40 of the cabinet. The upper liner 20, middle liner 30 and lower liner 40 are arranged sequentially along the first direction. The three second Hall sensors are mounted on any one of the liners. The specific liner on which the sensors are mounted depends on the space available on that liner to accommodate all three sensors. The mounting method can be screw mounting.

[0110] The remote module 7 includes a remote module housing structure, a second FPGA board 71, a second outgoing connector 72, and a third outgoing connector 73. The second FPGA board 71 is installed in the second cavity enclosed by the remote module housing structure. The second FPGA board 71 extends along the second direction. The remote module housing structure has a second outgoing connector mounting hole on one side surface along the second direction and a third outgoing connector mounting hole on the other side surface along the second direction. The second outgoing connector 72 passes through the second outgoing connector mounting hole, and the third outgoing connector 73 passes through the third outgoing connector mounting hole.

[0111] The main control module 2 also includes a fourth outgoing connector 292, which passes through the first outgoing connector mounting hole. One end of the first FPGA board 21 along the second direction is electrically connected to the end of the fourth outgoing connector 292 located inside the first cavity. The end of the fourth outgoing connector 292 outside the first cavity is electrically connected to the end of the second outgoing connector 72 outside the second cavity. The end of the second outgoing connector 72 inside the second cavity is electrically connected to the end of the second FPGA board 71 along the second direction. The other end of the second FPGA board 71 along the second direction is electrically connected to the end of the third outgoing connector 73 inside the second cavity. The end of the third outgoing connector 73 outside the second cavity is electrically connected to three second Hall sensors. All three second Hall sensors are electrically connected to the second current-detecting device inside the cabinet.

[0112] The electrical connections between the first FPGA board 21 and the fourth outgoing connector 292, the second outgoing connector 72 and the second FPGA board 71, the second FPGA board 71 and the third outgoing connector 73, and the third outgoing connector 73 and the three second Hall sensors are all plug-and-socket connections. For details, please refer to the description of the plug-and-socket connections between the components in the main control module 2 above, which will not be repeated here.

[0113] The working principle of current detection via remote module 7 is as follows:

[0114] Three second Hall sensors collect the second current signal of the second current device to be detected in the cabinet and transmit it to the second FPGA board 71 through the third outgoing connector 73. The second FPGA board 71 transmits the second current signal to the first FPGA board 21 through the second outgoing connector 72 and the fourth outgoing connector 292 in sequence. The first FPGA board 21 transmits the second current signal to the display 1 through the first outgoing connector 23 for display, thereby realizing the current detection of the second current device to be detected.

[0115] Therefore, the second current signal of the second current device to be detected in the cabinet is collected by three second Hall sensors and transmitted to the second FPGA board 71 through the third outgoing connector 73. The second FPGA board 71 transmits the second current signal to the first FPGA board 21 through the second outgoing connector 72 and the fourth outgoing connector 292 in sequence. The first FPGA board 21 transmits the second current signal to the display 1 through the first outgoing connector 23 for display, thereby realizing the current detection of the second current device to be detected. The remote module 7 only contains the second FPGA board 71, which makes the remote module 7 small in size and can be installed in the dispersed limited space in the cabinet to realize the function of current detection of devices inside large integrated cabinets.

[0116] Furthermore, by connecting the remote module 7 to the main control module 2, and the main control module 2 to the display 1, the second current signal detected by the remote module 7 can also be transmitted to the display 1 for display via the main control module 2, eliminating the need to add a new display, thus reducing the number of displays and lowering costs.

[0117] See also Figures 6-9 The remote module 7 includes a remote module main housing 74, a remote module front baffle 75, and a remote module upper cover 76.

[0118] The remote module main housing 74 is a housing structure with an opening at one end along the first direction and an opening on one side surface along the second direction. Since the remote module main housing 74 has an opening on one side surface along the second direction instead of an opening at one end, the opening on one side surface along the second direction of the remote module main housing 74 is not a full opening.

[0119] The remote module top cover 76 is installed on the opening end of the remote module main housing 74 along the first direction, and the remote module front baffle 75 is installed on the opening end of the remote module main housing 74 along the second direction. The installation method can be screw installation.

[0120] The remote module main housing 74, the remote module front baffle 75, and the remote module upper cover 76 are assembled to form a second cavity.

[0121] The other end of the remote module main housing 74 along the first direction is mounted on the lower liner 40. The remote module main housing 74 is mounted on the lower liner 40 by providing four second screw mounting holes at the other end of the remote module main housing 74 along the first direction, and is mounted on the lower liner 40 by four screws. For example, the size of the second screw mounting holes can be M5.

[0122] Therefore, by setting four second screw mounting holes at the other end of the remote module main housing 74 along the first direction, screw installation with the lower liner 40 can be achieved, which is convenient for cabinets with high integration.

[0123] The remote module main housing 74 has a second outgoing connector mounting hole on one side surface with an opening along the second direction, and a third outgoing connector mounting hole on the other side surface of the remote module main housing 74 opposite to the remote module front baffle 75.

[0124] See also Figure 9 The remote module 7 also includes a second power board 77, which and the second FPGA board 71 are sequentially disposed in the second cavity along the second direction. The second power board 77 is used to supply power to the remote module 7.

[0125] The remote module main housing 74 has four mounting posts 741 on one side surface along the first direction. The second power board 77 is mounted on one side surface along the first direction of the second FPGA board 71, and the second FPGA board 71 is mounted on the four mounting posts 741 on one side surface along the first direction. The mounting method can be screw mounting. For example, the size of the screw used can be M2.

[0126] The second FPGA board 71 has a fifth pair of connector sockets on one side surface along the first direction, and the second power board 77 has a fourth pair of connector plugs on the other side surface along the first direction. The fifth pair of connector sockets and the fourth pair of connector plugs are connected.

[0127] Thus, by connecting the fifth pair of connector sockets to the fourth pair of connector plugs, an electrical connection is achieved between the second power board 77 and the second FPGA board 71, enabling the second power board 77 to supply power to the second FPGA board 71.

[0128] See also Figure 9 The remote module 7 also includes a second thermally conductive silicone pad 78.

[0129] The remote module main housing 74 has a second groove on its inner wall along the first direction near the second power board 77. A second thermally conductive silicone pad 78 is installed in the second groove and abuts against the second power board 77. The installation method can be screw mounting. For example, the dimensions of the first groove are 59mm × 59mm × 0.7mm.

[0130] Therefore, by providing a second groove on the inner wall near the second power board 77, and installing a second thermally conductive silicone pad 78 in the second groove, with the second thermally conductive silicone pad 78 in contact with the second power board 77, the second power board 77 is cooled down, thus preventing the second power board 77 from overheating and malfunctioning.

[0131] Those skilled in the art will understand that the accompanying drawings are merely schematic diagrams of one embodiment, and the modules or processes shown in the drawings are not necessarily essential for implementing this utility model.

[0132] Those skilled in the art will understand that the modules in the apparatus of the embodiments can be distributed in the apparatus of the embodiments as described in the embodiments, or they can be located in one or more devices different from this embodiment with corresponding changes. The modules of the above embodiments can be combined into one module, or they can be further divided into multiple sub-modules.

[0133] Finally, it should be noted that the above embodiments are only used to illustrate the technical solutions of this utility model, and not to limit it; although the utility model has been described in detail with reference to the foregoing embodiments, those skilled in the art should understand that modifications can still be made to the technical solutions described in the foregoing embodiments, or equivalent substitutions can be made to some of the technical features; and these modifications or substitutions do not cause the essence of the corresponding technical solutions to deviate from the spirit and scope of the technical solutions of the embodiments of this utility model.

Claims

1. A testing device for detecting current, characterized in that, include: The monitor is installed sequentially on the upper liner of the cabinet along the first direction, and the main control module is installed on the middle liner of the cabinet. The main control module includes a main control module housing structure, a first field-programmable gate array (FPGA) board, three first Hall sensors, and a first outgoing connector. The first field-programmable gate array (FPGA) board is installed in a relatively closed first cavity enclosed by the main control module housing structure. The main control module housing structure has a first outgoing connector mounting hole on one side surface along the second direction, and the first outgoing connector passes through the first outgoing connector mounting hole. The first field-programmable gate array (FPGA) board extends along the second direction. One end of the first FPGA board along the second direction is electrically connected to one end of the first outgoing connector located inside the first cavity. The other end of the first FPGA board located outside the first cavity is electrically connected to the display. The other end of the first FPGA board along the second direction is electrically connected to three Hall sensors. The three Hall sensors are mounted on the other side surface of the main control module housing structure along the second direction, and the three first Hall sensors are located outside the first cavity. All three first Hall sensors are electrically connected to the first current-to-be-detected device inside the cabinet. Wherein, the first direction and the second direction are perpendicular to each other.

2. The testing apparatus as described in claim 1, characterized in that, The main control module housing structure includes a main control module housing, a main control module front baffle, a main control module top cover, and a main control module side baffle. The main control module housing is a housing structure with an opening at one end along the first direction, an opening and a mounting platform at one end along the second direction, with the mounting platform extending along the first direction, and an opening at one end along the third direction. The main control module upper cover is installed at the opening end of the main control module main housing along the first direction, the main control module front baffle is installed at the opening end of the main control module main housing along the second direction, and the main control module front baffle is close to the main control module upper cover, and the main control module side baffle is installed at the opening end of the main control module main housing along the third direction; The main housing of the main control module, the front baffle of the main control module, the upper cover of the main control module, and the side baffle of the main control module are assembled to form the first cavity; The main control module housing is mounted on the middle liner plate at the other end along the first direction. The main control module housing is provided with the first outgoing connector mounting hole on the side surface without an opening end along the second direction. The three Hall sensors are mounted on the outer surface of the mounting platform. Wherein, the first direction, the second direction, and the third direction are perpendicular to each other.

3. The testing apparatus as described in claim 2, characterized in that, The main control module also includes a relay board, a first power supply board, a vertical circuit board (PCB), three first external plug-in connectors, and two second external plug-in connectors. The relay board, the first field-programmable gate array (FPGA) board, and the first power board are sequentially disposed in the first cavity along the first direction, and the first power board is mounted on one side surface along the first direction on the mounting platform, the first FPGA board is mounted on one side surface along the first direction on the other side surface along the first direction on the first power board, and the relay board is mounted on one side surface along the first direction on the other side surface along the first direction on the first FPGA board. The first field-programmable gate array (FPGA) board has a first mating connector socket on the other side of the first direction, and the relay board has a first mating connector plug on one side of the first direction that corresponds to the first mating connector socket. The first mating connector socket is plugged into the first mating connector plug. The relay is provided with three second plug connector sockets corresponding to the three first external plug connectors on the other side surface along the first direction. The main control module cover is provided with three first through holes corresponding to the three second plug connector sockets on one side surface along the first direction. Each second plug connector socket passes through the corresponding first through hole and is plugged into the corresponding first external plug connector. The first field-programmable gate array (FPGA) board is provided with two third-pair connector sockets at one end along the third direction. The upright circuit board (PCB) extends along the first direction. One side surface of the upright circuit board (PCB) along the third direction is mounted on the side baffle of the main control module. The other side surface of the upright circuit board (PCB) along the third direction is provided with two second-pair connector plugs that correspond one-to-one with the two third-pair connector sockets. Each third-pair connector socket is plugged into the corresponding second-pair connector plug. The PCB board has two fourth connector sockets corresponding to the two second external connectors on one side surface along the third direction. The main control module side baffle has two second through holes corresponding to the two fourth connector sockets on one side surface along the third direction. Each fourth connector socket passes through the corresponding second through hole and is plugged into the corresponding second external connector.

4. The testing apparatus as described in claim 1, characterized in that, The first field-programmable gate array (FPGA) board is provided with a third pair of connector plugs at one end along the second direction, and the third pair of connector plugs is inserted into the socket of the first outgoing connector located in the first cavity.

5. The testing apparatus as described in claim 3, characterized in that, The main control module also includes a first thermally conductive silicone pad; The main control module housing has a first groove on its inner wall near the first power board along the first direction. The first thermally conductive silicone pad is installed in the first groove and abuts against the first power board.

6. The testing apparatus as described in claim 1, characterized in that, The testing device for detecting current also includes: The cabinet includes a remote module and three second Hall sensors. The remote module is mounted on the lower liner of the cabinet. The upper liner, the middle liner, and the lower liner are arranged sequentially along the first direction. The three second Hall sensors are mounted on any one of the liners. The remote module includes a remote module housing structure, a second FPGA board, a second outgoing connector, and a third outgoing connector. The second FPGA board is installed in the second cavity enclosed by the remote module housing structure. The second FPGA board extends along the second direction. The remote module housing structure has a second outgoing connector mounting hole on one side surface along the second direction and a third outgoing connector mounting hole on the other side surface along the second direction. The second outgoing connector passes through the second outgoing connector mounting hole, and the third outgoing connector passes through the third outgoing connector mounting hole. The main control module further includes a fourth outgoing connector, which passes through the mounting hole of the first outgoing connector. One end of the first field-programmable gate array (FPGA) board along the second direction is electrically connected to one end of the fourth outgoing connector located inside the first cavity. One end of the fourth outgoing connector outside the first cavity is electrically connected to one end of the second outgoing connector outside the second cavity. One end of the second outgoing connector inside the second cavity is electrically connected to one end of the second FPGA board along the second direction. The other end of the second FPGA board along the second direction is electrically connected to one end of the third outgoing connector inside the second cavity. One end of the third outgoing connector outside the second cavity is electrically connected to three second Hall sensors. All three second Hall sensors are electrically connected to a second current-detecting device inside the cabinet.

7. The testing apparatus as described in claim 6, characterized in that, The remote module includes a remote module main housing, a remote module front baffle, and a remote module upper cover. The remote module main housing is a housing structure with an opening at one end along the first direction and an opening on one side surface along the second direction. The remote module top cover is installed at the opening end of the remote module main housing along the first direction, and the remote module front baffle is installed at the opening end of the remote module main housing along the second direction. The remote module main housing, the remote module front baffle, and the remote module top cover are assembled to form the second cavity; The other end of the remote module main housing along the first direction is mounted on the lower liner plate. The second outgoing connector mounting hole is provided on one side surface of the remote module main housing with an opening along the second direction. The third outgoing connector mounting hole is provided on the other side surface of the remote module main housing opposite to the front baffle of the remote module.

8. The testing apparatus as described in claim 7, characterized in that, The remote module also includes a second power board, and the second power board and the second FPGA board are sequentially disposed in the second cavity along the second direction; The remote module main housing has four mounting posts on one side surface along the first direction. The second power board is mounted on one side surface along the first direction of the second FPGA board, and the second FPGA board is mounted on one side surface along the first direction of the four mounting posts. The second FPGA board has a fifth pair of connector sockets on one side surface along the first direction, and the second power board has a fourth pair of connector plugs on one side surface along the first direction. The fifth pair of connector sockets is plugged into the fourth pair of connector plugs.

9. The testing apparatus as described in claim 8, characterized in that, The remote module also includes a second thermally conductive silicone pad; The remote module main housing has a second groove on the inner wall near the second power board along the first direction. The second thermally conductive silicone pad is installed in the second groove and abuts against the second power board.

10. The testing apparatus as described in claim 2, characterized in that, The main control module housing has multiple wire mounting holes.

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