Arrangement for intelligent earthing with remote monitoring

Abstract

Arrangement for intelligent earthing with remote monitoring, characterized in that the arrangement comprises a conductive seat (10), a conductive plug (11), a press component (12), a position switch (18), a battery (19), a WIFI module (20) and an earth cable (17); wherein the conductive seat (10) is provided with an insertion groove (101), wherein the conductive plug (11) is connected to the grounding end of the grounding cable (17) and is inserted into the insertion groove (101), wherein the pressing component (12) is arranged on the conductive seat (10) and is used to press the conductive plug (11) in the insertion groove (101); wherein the position switch (18) is arranged in the conductive seat (10) and is used to abut the end of the conductive plug (11); wherein the position switch (18), the battery (19), and the WIFI module (20) are connected in series to form a loop, the WIFI module (20) being used to communicate with the background management system after the power supply.

Description

TECHNICAL FIELD

[0001] The present application relates to the technical field of electrical equipment and specifically to an arrangement for intelligent earthing with remote monitoring. STATE OF THE ART

[0002] When the electrical equipment of a power plant is shut down for maintenance, grounding cables are often installed as an important technical safety measure to prevent the equipment being repaired from damaging the maintenance personnel due to sudden power supply or induced electrification.

[0003] The two ends of the grounding cable are a conductor end and a grounding end. Currently, the conductor end of the grounding cable is clamped to the conductor of the power failure device with a grounding cable clamp, and the grounding end of the grounding cable is fixed to the grounding copper busbar with screws.

[0004] However, in the installation of grounding cables, the following problems are encountered in practice: 1. The grounding end of the grounding cable is easy to loosen or accidentally remove, resulting in the maintenance equipment not being truly grounded, and the on-site personnel cannot detect this situation in time. If the equipment under repair is suddenly live or electrified by induction, it may cause injury to the maintenance personnel, which reduces safety; 2. When installing the grounding cable, the conductor end is often installed first and then the grounding end. When removing the grounding cable, it is common to remove the grounding end and then the conductor end. Safe use and installation and disassembly of the grounding cable cannot be technically regulated. CONTENT OF THIS APPLICATION

[0005] The purpose of the present application is to provide an intelligent grounding system with remote monitoring to solve the problem that on-site personnel cannot detect in time that the maintenance equipment is not actually grounded.

[0006] The technical solutions used in this application to solve its technical problems are: An arrangement for intelligent earthing with remote monitoring, characterized in that the arrangement comprises a conductive seat, a conductive plug, a press component, a position switch, a battery, a WIFI module and an earth cable; wherein the conductive seat is provided with an insertion groove, wherein the conductive plug is connected to the grounding end of the grounding cable and is inserted into the insertion groove, wherein the pressing component is arranged on the conductive seat and is used to press the conductive plug in the insertion groove; wherein the position switch is arranged in the conductive seat and is used to abut the end of the conductive plug; wherein the position switch, the battery, and the WIFI module are connected in series to form a loop, the WIFI module being used to communicate with the background management system after the power supply.

[0007] Further, one side of the conductive seat is connected to an insulating housing, with the battery and the WIFI module being arranged in the insulating housing.

[0008] Furthermore, a spring locking pin is provided on the conductive seat for locking interaction with the conductive plug.

[0009] Further, the assembly further comprises a smart electromagnetic lock and a smart key; wherein the smart electromagnetic lock is arranged in the conductive seat and is used for locking cooperation with the conductive plug; wherein the smart key is arranged at the conductor end of the ground wire and is used to open the smart electromagnetic lock when the key approaches the smart electromagnetic lock.

[0010] Furthermore, the smart key includes an NFC key.

[0011] Further, the pressing component comprises a rotating portion and a pressing portion, the rotating portion being rotatably mounted on the conductive seat, the pressing portion being drivingly connected to the rotating portion and approaching or moving away from the conductive plug during rotation of the rotating portion.

[0012] Furthermore, the press component also includes a wrench to rotate the rotating section.

[0013] Further, the conductive seat comprises a conductive housing and a conductive block connected to the conductive housing, wherein an insertion groove with openings at both ends is provided on one side of the conductive block, wherein a socket is provided on an end of the conductive housing facing the insertion groove.

[0014] Further, the conductive seat further comprises a conductive ear plate, wherein the conductive ear plate is connected to the conductive housing.

[0015] Furthermore, a conductive housing is provided.

[0016] Advantageous effects of the present application: 1. The intelligent grounding system with remote monitoring provided by embodiments of the present application uses a conductive seat for connection to a grounding copper busbar, inserts a conductive plug into an insertion groove of the conductive seat, and then presses the conductive plug through a pressing component to establish a firm and reliable connection between the grounding end of the grounding cable and the grounding copper busbar. Compared with directly fixing the grounding end of the grounding cable to the grounding copper busbar with screws, the risk of the grounding end of the grounding cable being accidentally loosened or removed is reduced, and the reliability of grounding is improved. 2. When the electrical equipment is grounded using the intelligent grounding system with remote monitoring provided by embodiments of the present application, the WIFI module is supplied with power through the conductive plug connected to the contact of the position switch. After the WIFI module is supplied with power, it communicates with the background management system. The personnel only needs to check the grounding status of the grounding end of the ground wire based on the data from the background management system, and then timely determine whether the electrical equipment to be repaired is actually grounded, thereby improving the safety of maintenance personnel when repairing the electrical equipment. BRIEF DESCRIPTION OF THE DRAWINGS

[0017] To more clearly illustrate the technical solutions of the embodiments of the present application, the following briefly presents the drawings required for use in the embodiments. It should be understood that the following drawings illustrate only certain embodiments of the present application and should therefore not be considered limiting the scope. Those of ordinary skill in the art can create additional related drawings based on these drawings without requiring any creative effort. Fig. 1 is a perspective view of a remotely monitored smart grounding arrangement provided by embodiments of the present application; Fig. 2 is a front view of Fig. 1, after the ground wire has been removed; Fig. 3 is a view in direction A in Fig. 2; Fig. 4 is a view in direction B in Fig. 2; Fig. 5 is a sectional view along the CC line in Fig. 2; Fig. 6 is a sectional view along the DD line in Fig. 3. DETAILED DESCRIPTION

[0018] With reference to Fig. 1 to Fig. 6, the intelligent grounding assembly with remote monitoring provided by embodiments of the present application comprises a conductive seat 10, a conductive plug 11, a pressing component 12, a position switch 18, a battery 19, a WIFI module 20, and a grounding cable 17; the conductive seat 10 is provided with an insertion groove 101, the conductive plug 11 is connected to the grounding end of the grounding cable 17 and is used for insertion into the insertion groove 101, and the pressing component 12 is provided on the conductive seat 10 and is used for pressing the conductive plug 11 into the insertion groove 101; wherein the position switch 18 is arranged in the conductive seat 10 and is used for abutting against the end of the conductive plug 11;wherein the position switch 18, the battery 19 and the WIFI module 20 are connected in series to form a loop, the WIFI module 20 being used to communicate with the background management system after the power supply;

[0019] With reference to Fig. 1, the conductive seat 10 is made of a material with good conductivity and is used for connecting to a grounding copper busbar. To simplify the diagram, the structure of the grounding copper busbar is shown in Fig. 1 is not shown. For example, the conductive seat 10 is made of galvanized steel, which is inexpensive and has good corrosion resistance. The conductive seat 10 is provided with an insertion groove 101 for inserting and removing the conductive plug 11. The conductive plug 11 is made of a highly conductive material and is connected to the grounding end of the grounding wire 17. For example, the conductive plug 11 is made of copper, and the grounding end of the grounding wire 17 is connected to a copper tab, which is connected to the conductive plug 11 by a screw. The pressing component 12 is arranged on the conductive seat 10 and is used to press the conductive plug 11 inserted into the insertion groove 101, so that the conductive plug 11 is firmly connected to the conductive seat 10 to establish electrical connection.

[0020] The position switch 18 is also called a travel switch or limit switch and is a commonly used low-power electrical main control device that utilizes the collision of moving parts to move its contact and thus connect or disconnect the control circuit to achieve a specific control purpose. With reference to Fig. 1, Fig. 3, Fig. 5 and Fig. 6, the position switch 18 is disposed in the conductive seat 10 and used to abut the end of the conductive plug 11; the position switch 18 is also connected in series with the battery 19 and the WIFI module 20 to form a loop. When the conductive plug 11 is inserted into the insertion groove 101, the end of the conductive plug 11 abuts the contact of the position switch 18, and the normally open contact in the position switch 18 is closed and turned on, so that the WIFI module 20 is powered by the battery 19.After power supply, the WIFI module 20 wirelessly communicates with the background management system to transmit the relevant information of the grounding wire to the background management system; when the conductive plug 11 is pulled out from the insertion groove 101, the normally open contact in the position switch 18 is opened and the battery 19 cuts off the power supply to the WIFI module 20, and after the WIFI module 20 loses power supply, the WIFI module loses the communication link with the background management system; thereby, reliable monitoring can be achieved after grounding the grounding end of the grounding wire.

[0021] When the electrical device in the power plant is shut down for maintenance, the intelligent grounding arrangement with remote monitoring provided by embodiments of the present application can be used to ground the electrical device. The method for grounding the electrical device using the intelligent grounding arrangement with remote monitoring provided by embodiments of the present application includes the following steps: S1. The conductive seat 10 is firmly connected to the grounding copper busbar. In this step, the normally open contact in the position switch 18 is opened, the WIFI module 20 loses power, and the communication link with the background management system is disconnected. The personnel cannot verify the status of the grounding end of the grounding cable through the background management system, indicating that the grounding end is not actually grounded. S2. The conductive plug 11 is inserted into the insertion groove 101 on the conductive seat 10, and the end of the conductive plug 11 abuts the position switch 18. The conductive plug 11 is compressed by the pressing component 12. In this step, the conductive plug 11 is pressed by the pressing component 12 to ensure that the conductive plug 11 is in close contact with the conductive seat 10; the end of the conductive plug 11 abuts the contact of the position switch 18, so that the normally open contact in the position switch 18 is closed and turned on. The WIFI module 20 is powered and communicates with the background management system. The personnel can check the status of the grounding end of the grounding cable from the background management system and determine whether the grounding end is actually grounded. S3. The conductor end of the grounding cable 17 is connected to a conductor of the electrical device. In this step, the conductor end of the grounding cable 17 is clamped to the conductor of the electrical device with a grounding cable clamp, thereby achieving grounding of the electrical device.

[0022] After the maintenance of the electrical equipment in the power plant, firstly, the grounding terminal is removed from the conductor of the electrical equipment, and then the pressing force on the conductive plug 11 is removed via the pressing component 12, and the conductive plug 11 is pulled out from the insertion groove 101, so that the conductive plug 11 is separated from the conductive seat 10, thereby achieving the release of the grounding of the electrical equipment.

[0023] The intelligent remote grounding monitoring system provided by embodiments of the present application uses a conductive seat 10 for connection to a grounding copper busbar, inserts a conductive plug 11 into the insertion groove 101 of the conductive seat 10, and then presses the conductive plug 11 through a pressing component 12, thereby achieving a firm and reliable connection between the grounding end of the grounding cable 17 and the grounding copper busbar. Compared with directly fastening the grounding end of the grounding cable 17 to the grounding copper busbar with screws, the risk of the grounding end of the grounding cable being accidentally loosened or removed is reduced, and the reliability of the grounding is improved.When the electrical equipment is grounded using the intelligent grounding system with remote monitoring provided by embodiments of the present application, the WIFI module 20 is supplied with power through the conductive plug 11, which is applied to a contact of the position switch 18. After the WIFI module 20 is supplied with power, it communicates with the background management system. During normal operation, the personnel only needs to check the grounding status of the grounding end of the ground wire based on the data from the background management system. At the same time, they will make corresponding judgments based on the ground wire information and then timely determine whether the electrical equipment to be repaired is actually grounded, thereby improving the safety of the maintenance personnel when repairing the electrical equipment.

[0024] To improve security, in some embodiments, referring to Fig. 1 to 6, an insulating case 15 is connected to one side of the conductive seat 10, and a battery 19 and a WIFI module 20 are arranged in the insulating case 15. For example, an insulating partition plate is arranged in the insulating case 15, which divides the interior of the insulating case 15 into two chambers, and the battery 19 and the WIFI module 20 are arranged in the two chambers, respectively.

[0025] In some embodiments, referring to Fig. 1 to 5, a spring-loaded pin 13 is disposed on the conductive seat 10 for locking engagement with the conductive plug 11. For example, a locking groove is provided on the conductive plug 11 to match the pin head of the spring-loaded pin 13, and one end of the conductive plug 11 for insertion into the insertion groove 101 has an arcuate structure. When the conductive plug 11 is inserted into the insertion groove 101, the conductive plug 11 contacts the pin head and then causes the pin head to retract.When the pin head of the spring-loaded pin 13 is aligned with the locking groove, the pin head is pushed outward under the action of the spring and inserted into the locking groove to lock the conductive plug 11, thereby positioning the conductive plug 11, ensuring that the end of the conductive plug 11 abuts a contact of the position switch 18, so that the normally open contact of the position switch 18 closes and becomes conductive. When the locking of the spring-loaded pin 13 on the conductive plug 11 needs to be released, the spring-loaded pin 13 simply needs to be pulled upward to retract the pin head until it is released from the locking groove.

[0026] When installing or disassembling the grounding cable, the work sequence in accordance with safety regulations is to first install the grounding end and then the conductor end to install the grounding cable, and first remove the conductor end and then the grounding end of the grounding cable to disassemble the grounding cable. However, in practice, it is often the case that the conductor end is installed first and then the grounding end, or the grounding end is removed first and then the conductor end. In this case, the safe use and installation and disassembly of the grounding cable cannot be technically regulated.

[0027] To solve the above-mentioned problems, in some embodiments, referring to Fig. 1 to 5, a smart electromagnetic lock 14 and a smart key 16 are also included; wherein the smart electromagnetic lock 14 is arranged in the conductive seat 10 and is used for locking cooperation with the conductive plug 11; wherein the smart key 16 is arranged at the conductor end of the ground cable 17 and is used to open the smart electromagnetic lock 14 when the key approaches the smart electromagnetic lock 14.

[0028] With reference to Fig. 5, the intelligent electromagnetic lock 14 is arranged in the conductive seat 10 and has two states: open and locked. When the intelligent electromagnetic lock 14 is in the open state, the conductive plug 11 can be inserted into the insertion groove 101 or the conductive plug 11 can be pulled out from the insertion groove 101; when the intelligent electromagnetic lock 14 is in a locked state, it can not only prevent the conductive plug 11 located outside the insertion groove 101 from being inserted into the insertion groove 101, but also lock the conductive plug 11 pre-inserted in the insertion groove 101 to prevent accidental withdrawal of the conductive plug 11.For example, the conductive plug 11 is provided with a locking groove that matches the lock head of the smart electromagnetic lock 14; when the conductive plug 11 is inserted into the insertion groove 101, the lock head of the smart electromagnetic lock 14 extends and is inserted into the locking groove, so that the smart electromagnetic lock 14 is in a locked state to lock the conductive plug 11; the lock head of the smart electromagnetic lock 14 is retracted and separated from the locking groove, so that the smart electromagnetic lock 14 is in an open state to unlock the conductive plug 11.

[0029] With reference to Fig. 1, the smart key 16 is a key used to open the smart electromagnetic lock 14. Specifically, when the smart key 16 approaches the smart electromagnetic lock 14, the smart electromagnetic lock 14 identifies the correct identity information of the smart key 16 and issues an opening command, thereby placing the smart electromagnetic lock 14 in an open state; when the smart key 16 is away from the smart electromagnetic lock 14, the smart electromagnetic lock 14 is in a locked state after a certain delay. The smart key 16 is arranged at the conductor end of the ground wire 17. For example, the conductor end of the ground wire 17 is connected to a ground wire terminal, and the smart key 16 is fixed to the ground wire terminal.

[0030] The method for grounding an electrical device using the intelligent grounding device of the above embodiment comprises the following steps: K1. The conductive seat 10 is firmly connected to the grounding copper busbar. In this step, the intelligent electromagnetic lock 14 in the conductive seat 10 is always locked, preventing the conductive plug 11 from being inserted into the insertion groove 101 of the conductive seat 10; the normally open contact in the position switch 18 is opened, and the WIFI module 20 loses power. K2. The smart key 16 at the conductor end of the ground wire 17 is located near the smart electromagnetic lock 14 in the conductive seat 10 to open the smart electromagnetic lock 14. In this step, when the smart key 16 approaches the smart electromagnetic lock 14, the smart electromagnetic lock 14 identifies the correct identity information of the smart key 16 and issues an opening command, thereby setting the smart electromagnetic lock 14 into an open state. At this time, the conductive plug 11 can be inserted into the insertion groove 101 of the conductive seat 10. K3. The conductive plug 11 of the grounding end of the grounding cable 17 is inserted into the insertion groove 101 on the conductive seat 10, and the end of the conductive plug 11 abuts the position switch 18. The conductive plug 11 is pressed by the pressing component 12, and the conductive plug 11 is locked by the intelligent electromagnetic lock 14.In this step, the conductive plug 11 is pressed by the pressing component 12 to ensure that the conductive plug 11 is in close contact with the conductive seat 10; the conductive plug 11 is locked by the intelligent electromagnetic lock 14 to prevent accidental withdrawal of the conductive plug 11; by abutting the end of the conductive plug 11 against the contact of the position switch 18, the normally open contact in the position switch 18 is closed and turned on, the WIFI module 20 is powered and communicates with the background management system. K4. The conductor end of the grounding cable 17 is connected to a conductor of the electrical device. In this step, the conductor end of the grounding cable 17 is clamped to the conductor of the electrical device with a grounding cable clamp, thereby achieving grounding of the electrical device.

[0031] After the maintenance of the electrical equipment in the power plant, its grounding must be released, and the specific process is as follows: first, the conductor end of the grounding wire 17 is removed from the conductor of the electrical equipment, and the smart key 16 on the conductor end of the grounding wire 17 is brought close to the smart electromagnetic lock 14 in the conductive seat 10 to open the smart electromagnetic lock 14, and the pressing force on the conductive plug 11 is then removed by the pressing component 12, and the conductive plug 11 is then pulled out from the insertion groove 101, so that the conductive plug 11 is separated from the conductive seat 10, thereby releasing the grounding of the electrical equipment.

[0032] In the intelligent grounding arrangement with remote monitoring provided by embodiments of the present application, the intelligent key 16 is arranged at the conductor end of the grounding cable 17, and the intelligent key 16 can only open the intelligent electromagnetic lock 14 when it is in the vicinity of the intelligent electromagnetic lock 14 paired with it. Therefore, when assembling or disassembling the grounding cable 17, the grounding cable 17 can only be assembled by first assembling the grounding end of the grounding cable 17 and then assembling the conductor end of the grounding cable 17, and the grounding cable 17 can only be removed by first removing the conductor end of the grounding cable 17 and then removing the grounding end of the grounding cable 17, thereby avoiding the need to assemble the conductor end first and then the grounding end, or to first remove the grounding end and then the conductor end.Thus, the safe use and assembly or disassembly of the earthing cable 17 is standardized from a technical point of view.

[0033] In some embodiments, the smart key 16 comprises an NFC key; the smart electromagnetic lock 14 comprises an electromagnetic lock body, a battery 19 connected to the electromagnetic lock body, and an electrical control system; the battery 19 is used to power the electromagnetic lock body, and the electrical control system includes an NFC module 21 used to issue an opening command after the identity information of the smart key 16 is correctly identified, thereby retracting the lock head of the electromagnetic lock body so that the smart electromagnetic lock 14 is in an open state. To improve security, the NFC module 21, with reference to Fig. 6, arranged in the insulating housing 15, and the NFC module 21 and the WIFI module 20 are arranged in the same chamber.

[0034] In some embodiments, with reference to Fig. 2, Fig. 3 and Fig. 4, the pressing component 12 includes a rotating portion 121 and a pressing portion 122, wherein the rotating portion 121 is rotatably mounted on the conductive seat 10, and the pressing portion 122 is drivingly connected to the rotating portion 121 and approaches or moves away from the conductive plug 11 upon rotation of the rotating portion 121.

[0035] For example, the rotary portion 121 is mounted on the conductive seat 10 so that the rotary portion 121 rotates about its own axis; the two ends of the rotary portion 121 are an operating end and a transmitting end, respectively, and the operating end of the rotary portion 121 is disposed outside the conductive seat 10, and the transmitting end of the rotary portion 121 is disposed inside the conductive seat 10; the pressing portion 122 is disposed inside the conductive seat 10 and can be located near or away from the conductive plug 11 along a straight line; the transmitting end of the rotary portion 121 is drivingly connected to the pressing portion 122 to convert the rotary motion of the rotary portion 121 into the linear motion of the pressing portion 122.During operation, a force is applied to the operating end of the rotating portion 121 by a tool to rotate the rotating portion 121 clockwise, and the rotating portion 121 drives the pressing portion 122 to approach the conductive plug 11 until the conductive plug 11 is pressed; a force in the opposite direction is applied to the operating end of the rotating portion 121 by a tool to rotate the rotating portion 121 counterclockwise, and the rotating portion 121 drives the pressing portion 122 away from the conductive plug 11 to remove the pressing force on the conductive plug 11.

[0036] In some embodiments, with reference to Fig. 2, Fig. 3 and Fig. 4, the pressing component 12 further includes a wrench 123 for driving the rotation of the rotating portion 121. The wrench 123 applies a force to the operating end of the rotating portion 121 to rotate the rotating portion 121, and then the pressing portion 122 applies a compressive force to the conductive plug 11 that meets the requirements. To improve operating efficiency, the wrench 123 is a ratchet wrench in some embodiments.By providing a ratchet wrench, the operator can achieve reciprocating motion between the wrench and the rotating portion 121 by holding the ratchet wrench and performing a simple pivoting motion without having to repeatedly hold and adjust the position, thereby improving work efficiency. Furthermore, when grounding the electrical device using the intelligent grounding device provided in the embodiments of the application, the unlocking switching tab of the ratchet wrench can be pushed to the locked position, rendering the ratchet wrench inoperable and unable to exert force on the rotating portion 121, thereby preventing accidental removal of the grounding end of the ground wire. Furthermore, the wrench 123 is detachably connected to the rotating portion 121.After the electrical equipment is grounded, the wrench 123 can be removed and stored in a toolbox so that other personnel cannot rotate the rotating portion 121 without the wrench, thereby ensuring that the grounding end of the grounding wire is reliably grounded.

[0037] In some embodiments, with reference to Fig. 5, the conductive seat 10 comprises a conductive housing 102 and a conductive block 103 connected to the conductive housing 102, on one side of the conductive block 103 there is an insertion groove 101 with two openings at both ends, and on one end of the conductive housing 102 facing the insertion groove 101 there is a socket 104.

[0038] For example, the conductive housing 102 is a cubic structure surrounded by a plurality of galvanized steel plates, and adjacent galvanized steel plates can be connected to each other by welding or bolting; the conductive block 103 is made of galvanized steel plates and is fixed in the conductive housing 102; on one side of the conductive block 103, an insertion groove 101 with openings at both ends for inserting the conductive plug 11 is arranged, and a socket 104 for inserting the conductive plug 11 is arranged on the conductive housing 102. During operation, the conductive plug 11 is inserted into the insertion groove 101 through the socket 104, and then the conductive plug 11 is pressed into the insertion groove 101 by the pressing component 12.

[0039] The conductive seat 10 can be connected to the grounding copper busbar by welding. In some embodiments, with reference to Fig. 2, Fig. 3 and Fig. 4, the conductive seat 10 further includes a conductive ear plate 105, and the conductive ear plate 105 is connected to the conductive housing 102. For example, the conductive ear plate 105 is made of galvanized steel plates, and the conductive ear plates 105 are provided in two pieces. Two conductive ear plates 105 are arranged on both sides of the conductive housing 102, and the conductive ear plates 105 are connected to the conductive housing 102 by welding. When the conductive seat 10 is connected to the grounding copper busbar, the conductive ear plate 105 can abut against the grounding copper busbar, and the two can be connected by welding or screwing.

[0040] In some embodiments, with reference to Fig. 1 and Fig.3, a viewing window 106 is provided on the conductive housing 102. Through the viewing window 106, the position, placement, and compression of the conductive plug 11 in the insertion groove 101 can be observed to ensure grounding reliability.

[0041] Above, the preferred embodiments of the present utility model are explained in detail with reference to figures. However, the present utility model is not limited to the details in the above embodiments. Within the scope of the technical concept of the present utility model, various simple variants can be made for the technical solution of the present utility model, and they fall within the scope of protection of the present utility model. It should be noted that the respective specific technical features explained in the above embodiments can be combined with each other in a suitable manner in the case of no conflict, and in the present utility model, the various possible combinations are not explained in detail to avoid unnecessary repetition.

Claims

[1] Arrangement for intelligent earthing with remote monitoring, characterized by that the assembly comprises a conductive seat (10), a conductive plug (11), a press component (12), a position switch (18), a battery (19), a WIFI module (20) and a ground cable (17); wherein the conductive seat (10) is provided with an insertion groove (101), wherein the conductive plug (11) is connected to the grounding end of the grounding cable (17) and is inserted into the insertion groove (101), wherein the pressing component (12) is arranged on the conductive seat (10) and is used to press the conductive plug (11) in the insertion groove (101); wherein the position switch (18) is arranged in the conductive seat (10) and is used to abut the end of the conductive plug (11); wherein the position switch (18), the battery (19), and the WIFI module (20) are connected in series to form a loop, the WIFI module (20) being used to communicate with the background management system after the power supply. [2] Arrangement for intelligent earthing with remote monitoring according to claim 1, characterized by that one side of the conductive seat (10) is connected to an insulating housing (15), wherein the battery (19) and the WIFI module (20) are arranged in the insulating housing (15). [3] Arrangement for intelligent earthing with remote monitoring according to claim 1, characterized by that a spring locking pin (13) is provided on the conductive seat (10) for locking interaction with the conductive plug (11). [4] Arrangement for intelligent earthing with remote monitoring according to claim 1, characterized by that the assembly further comprises an intelligent electromagnetic lock (14) and an intelligent key (16); wherein the intelligent electromagnetic lock (14) is arranged in the conductive seat (10) and is used for locking cooperation with the conductive plug (11); wherein the intelligent key (16) is arranged at the conductor end of the ground cable (17) and is used to open the intelligent electromagnetic lock (14) when the key approaches the intelligent electromagnetic lock (14). [5] Arrangement for intelligent earthing with remote monitoring according to claim 4, characterized by that the intelligent key (16) comprises an NFC key. [6] Intelligent earthing arrangement with remote monitoring according to claim 1, characterized byin that the pressing component (12) comprises a rotating portion (121) and a pressing portion (122), wherein the rotating portion (121) is rotatably mounted on the conductive seat (10), wherein the pressing portion (122) is drivingly connected to the rotating portion (121) and approaches or moves away from the conductive plug (11) during rotation of the rotating portion (121). [7] Arrangement for intelligent earthing with remote monitoring according to claim 6, characterized by that the pressing component (12) further comprises a wrench (123) for rotating the rotating portion (121). [8] Intelligent earthing arrangement with remote monitoring according to claim 1, characterized byin that the conductive seat (10) comprises a conductive housing (102) and a conductive block (103) connected to the conductive housing (102), wherein an insertion groove (101) with openings at both ends is provided on one side of the conductive block (103), wherein a socket (104) is provided on one end of the conductive housing (102) facing the insertion groove (101). [9] Arrangement for intelligent earthing with remote monitoring according to claim 8, characterized by that the conductive seat (10) further comprises a conductive ear plate (105), wherein the conductive ear plate (105) is connected to the conductive housing (102). [10] Arrangement for intelligent earthing with remote monitoring according to claim 8, characterized by that a viewing window (106) is provided on the conductive housing (102).

Images