An electronic networking control method

Abstract

The application discloses an electronic networking control method, comprising outputting a port ID read-write instruction to a corresponding port under acquisition of first port change information; acquiring a port ID read-write result of the corresponding port and generating a port information based on the first port change information and the port ID read-write result; in the embodiment of the application, the state information of the change port jumper is directly acquired in the distribution frame control unit, and the port information is sent to the management server after the instruction information of the management server is acquired, so that a scanner is not needed, the communication interaction between the port and the management server is reduced, the uploading speed of the port information is improved, the management server can directly determine the connection legal state of the jumper after the port information is acquired, and an indication instruction is output to display the connection legal state of the jumper, so that the visualization of the electronic networking control is realized.

Description

TECHNICAL FIELD

[0001] The present application relates to the technical field of electronic wiring system, in particular to an electronic networking control method. BACKGROUND

[0002] The electronic distribution frame is a system using computer technology and electronic distribution equipment to manage the plug-in flexible wire in wiring in real time, mainly used to realize the following functions: real-time automatic detection of the linking relationship between the distribution frame and the jumper; real-time automatic generation of the database of the detected linking relationship; real-time automatic updating of the database according to the detected jumper change.

[0003] The electronic distribution frame system on the market is composed of three layers of electronic distribution frame, scanner and management server, each scanner is connected with 24-48 distribution frames (576-1152 ports), the scanner uses a polling mechanism to scan the port state of each distribution frame in real time, and uploads the state information to the management server, since all management and control are realized in the scanner, the scanner logic is complex, the price is expensive, and the following problems exist in engineering use:

[0004] 1. The connection state of the port jumper is detected by a micro switch, the structure is relatively complex, the detection sensitivity is affected after long-term plugging and unplugging of the jumper, and it is not convenient to disassemble and maintain;

[0005] 2. When a scanner is connected with a small number of distribution frames, it will cause waste of equipment;

[0006] 3. When the scanner fails, all electronic distribution frames managed by the scanner will be unable to connect to the network, causing multiple point failures;

[0007] 4. When a scanner is connected with a large number of distribution frames, the polling time is long, and the reading efficiency of the port state of the electronic distribution frame is low;

[0008] 5. When the port jumper information changes, the communication between the management server and the corresponding port is complex, since one management server corresponds to multiple distribution frames, the port jumper information interaction speed is slow. SUMMARY

[0009] In view of the defects of the prior art, the present application provides an electronic networking control method with strong jumper detection stability and fast response speed.

[0010] To achieve the above purpose, the present application realizes the following technical scheme.

[0011] The present application provides an electronic networking control method, comprising:

[0012] When the first port change information is obtained, the port ID read-write instruction is output to the corresponding port.

[0013] acquiring a port ID read-write result of the corresponding port and generating a port information based on the first port change information and the port ID read-write result;

[0014] The first port change information includes a port number of a changed port, and the port ID read-write result includes a jumper tag ID number corresponding to the changed port.

[0015] Further limitation, the electronic networking control method, wherein the first port change information is specifically obtained as follows:

[0016] The microswitch on the distribution frame generates the first port change information after sensing the jumper inserted into the port.

[0017] Further limitation, the electronic networking control method, wherein the port ID read-write result of the corresponding port is specifically obtained as follows:

[0018] The sensing contact on the distribution frame acquires the coupling state of the information module on the jumper;

[0019] If the coupling is established, the port ID read-write result is output as the jumper tag ID number of the corresponding jumper, and if the coupling is not established, the port ID read-write result is output as no jumper tag ID number is acquired.

[0020] Further limitation, the electronic networking control method, wherein after the port information is generated, it further includes:

[0021] Outputting the second port change information to the main distribution frame control unit or the management server;

[0022] Upon acquiring the first instruction information of the main distribution frame control unit or the management server, outputting the port information to the main distribution frame control unit or the management server.

[0023] The application provides an electronic networking control method, comprising:

[0024] Upon acquiring the second port change information of the sub-distribution frame control unit, outputting the first instruction information to the sub-distribution frame control unit;

[0025] Acquiring the port information corresponding to the output of the sub-distribution frame control unit and outputting the third port change information to the management server;

[0026] Upon acquiring the second instruction information of the management server, outputting the port information to the management server;

[0027] The port information includes a port number of a changed port of the sub-distribution frame and a corresponding jumper tag ID number.

[0028] The application provides an electronic networking control method, comprising;

[0029] When the second port change information or the third port change information of the main distribution frame control unit is acquired, the first instruction information or the second instruction information is output to the main distribution frame control unit;

[0030] The port information corresponding to the output of the main distribution frame control unit is acquired, and a judgment result is generated based on the port information;

[0031] The indication instruction is output based on the judgment result;

[0032] The port information comprises the port number of the changed port of the main distribution frame or the sub-distribution frame and the corresponding jumper label ID number.

[0033] Further limitation, the electronic networking control method, wherein the judgment result based on the port information is specifically:

[0034] The port information is compared with the preset standard library to confirm whether the jumper type or the jumper label ID number of the changed port is deviated.

[0035] Further limitation, the electronic networking control method, wherein the indication instruction output based on the judgment result is specifically:

[0036] If the jumper type or the jumper label ID number of the changed port is deviated from the standard library, the indication instruction is a warning instruction;

[0037] If the jumper type or the jumper label ID number of the changed port is consistent with the standard library, the indication instruction is an approval instruction;

[0038] The warning instruction is used for marking the corresponding changed port.

[0039] The application has at least the following beneficial effects:

[0040] 1. The state information of the jumper of the changed port is directly acquired in the distribution frame control unit, the port information is sent to the management server after the instruction information of the management server is acquired, a scanner is not needed, the communication interaction between the port and the management server is reduced, the uploading speed of the port information is improved, the management server can directly determine the connection legal state of the jumper after the port information is acquired, and the indication instruction is output to display the connection legal state of the jumper, so that the visualization of the electronic networking control is realized.

[0041] 2. The port change information and the jumper information between the sub-distribution frame and the management server are interacted through the main distribution frame, the workload of the management server directly scanning all the distribution frames is greatly reduced, and the acquisition efficiency of the port change information and the jumper information is improved. BRIEF DESCRIPTION OF DRAWINGS

[0042] Figure 1 The specific structure diagram of the electronic distribution frame of the embodiment of the present application;

[0043] Figure 2 The structure explosion diagram of the electronic distribution frame of the embodiment of the present application;

[0044] Figure 3 The structure explosion diagram of the electronic distribution frame of the embodiment of the present application;

[0045] Figure 4 The structure diagram of the "electronic antenna 210" in the electronic distribution frame of the embodiment of the present application;

[0046] Figure 5 The structure diagram of the "mounting frame 130" in the electronic distribution frame of the embodiment of the present application;

[0047] Figure 6 The structure diagram of the "transition support 240" in the electronic distribution frame of the embodiment of the present application;

[0048] Figure 7 The structure enlarged diagram of the "trigger piece 230" part in the electronic distribution frame of the embodiment of the present application;

[0049] Figure 8 The structure diagram of the chip jumper of the embodiment of the present application;

[0050] Figure 9 The structure diagram of the networking system of the embodiment of the present application;

[0051] Figure 10 The structure diagram of the networking system of the embodiment of the present application;

[0052] Figure 11 The structure diagram of the networking system of the embodiment of the present application;

[0053] Figure 12 The structure diagram of the electronic networking system of the embodiment of the present application;

[0054] Figure 13 The structure diagram of the electronic networking system of the embodiment of the present application;

[0055] Figure 14 The flow diagram of the electronic networking control method of the embodiment of the present application;

[0056] Figure 15 The flow diagram of the electronic networking control method of the embodiment of the present application;

[0057] Figure 16 The flow diagram of the electronic work order control method of the networking system of the embodiment of the present application;

[0058] Figure 17 A flowchart of an electronic work order control method of a networking system according to an embodiment of the present application;

[0059] Figure 18 A flowchart of an electronic work order control method of a networking system according to an embodiment of the present application;

[0060] Figure 19 A flowchart of an electronic work order control method of a networking system according to an embodiment of the present application.

[0061] Reference signs

[0062] Main distribution frame-A1, sub-distribution frame-A2, distribution frame body-100, bottom plate-110, fixing lug-120, mounting rack-130, main rack body-131, first embedding groove-132, positioning groove-133, antenna system-200, electronic antenna-210, antenna plate-211, micro switch-212, sensing contact-213, reinforcing plate-220, trigger-230, sliding plate-231, resisting groove-232, sensing protrusion-233, transition bracket-240, bracket main body-241, second embedding groove-242, sliding groove-243, detection hole-244, identification strip-250, cover plate-260, management server-300, scanner-400, jumper plug part-510, sensing needle-520. DETAILED DESCRIPTION

[0063] The technical solutions in the embodiments of the present application will be clearly described below with reference to the drawings in the embodiments of the present application. Obviously, the described embodiments are only some of the embodiments of the present application, rather than all the embodiments of the present application. Based on the embodiments in the present application, all other embodiments obtained by a person of ordinary skill in the art belong to the scope of protection of the present application.

[0064] The terms "first", "second", and the like in the specification and claims of the present application are used to distinguish similar objects, and are not used to describe a specific order or sequence. It should be understood that the data used in this way can be interchanged under appropriate circumstances, so that the embodiments of the present application can be implemented in an order other than that illustrated or described herein, and the objects distinguished by "first", "second", etc. are generally of a kind and do not limit the number of objects, for example, the first object can be one or more. In addition, "and / or" in the specification and claims indicates at least one of the connected objects, and the character " / ", generally indicates that the objects before and after are in a "or" relationship.

[0065] The electronic networking control method provided by the embodiments of the present application will be described in detail below with reference to the drawings and specific embodiments and their application scenarios.

[0066] The embodiment of the present application provides an electronic distribution frame, such as Figures 1 to 2 As shown in the figure, the electronic distribution frame comprises an antenna system 200 and a distribution frame body 100 for mounting the antenna system 200.

[0067] The distribution frame body 100 is provided with at least one port, and the antenna system 200 is provided with a smart information unit coupled with the port of the distribution frame body 100, and the smart information unit is used for scanning the port of the distribution frame body 100, so as to obtain the jumper connection information of the port of the distribution frame body 100.

[0068] As shown in the figure, Figure 3 The antenna system 200 comprises a reinforcing plate 220 fixedly arranged on the distribution frame body 100, the smart information unit comprises an electronic antenna 210 fixedly arranged on the end face of the reinforcing plate 220 away from the distribution frame body 100, and the antenna system 200 further comprises a transition support 240 arranged on the side of the electronic antenna 210 away from the reinforcing plate 220 and fixedly connected with the distribution frame body 100, and the transition support 240 is fixedly provided with an identification strip 250 on the end face of the side of the transition support 240 away from the reinforcing plate 220, the identification strip 250 is used for marking the positions and numbers of the ports of the distribution frame body 100, and the identification strip 250 is provided with a cover plate 260 fixedly connected with the transition support 240 on the side of the identification strip 250 away from the transition support 240, and the cover plate 260 is made of transparent material and is used for protecting the identification strip 250 and displaying the identification content of the identification strip 250.

[0069] In the embodiment of the present application, the electronic distribution frame is used, the jumper connection state information of the port is detected in real time through the smart information unit, the jumper connection state of the port is directly detected on the electronic distribution frame, so that an external scanner can be omitted, and the equipment cost is reduced.

[0070] It can be understood that the reinforcing plate 220 is mainly used for reinforcing the overall strength of the electronic antenna 210, and can be made of bent iron or other rigid materials.

[0071] In a preferable embodiment, as shown in the figure, Figure 3 , Figure 4 The electronic antenna 210 comprises an antenna plate 211 and a micro switch 212 arranged on the antenna plate 211, the micro switch 212 is provided with a plurality of micro switches 212 on the antenna plate 211 and corresponds to the positions of the ports of the distribution frame body 100 respectively, the micro switch 212 can be triggered when the ports of the distribution frame body 100 are connected with jumpers, so that the jumper connection state of the ports of the distribution frame body 100 is obtained through the triggering result of the micro switch 212.

[0072] The intelligent information unit further comprises a plurality of trigger pieces 230 between the electronic antenna 210 and the transition support 240, the trigger pieces 230 are located at corresponding positions of the ports on the wiring rack body 100 and can trigger the microswitch 212 at the corresponding position under the abutting action of the jumper wire connected to the port.

[0073] The intelligent information unit further comprises an indicator lamp arranged on the identification strip 250 and coupled with the electronic antenna 210, the indicator lamp can output different types (different colors or different flashing modes) of indicator light based on the jumper wire state of the port on the wiring rack body 100, so as to realize the indication or warning of the jumper wire state.

[0074] It can be understood that the setting form of the indicator lamp is not limited to the above one, and it can also be directly arranged on the wiring rack body 100 or the transition support 240, as long as it can display the jumper wire state of the port, which will not be described in detail here.

[0075] In a preferred embodiment, as shown in Figure 3 The wiring rack body 100 comprises a bottom plate 110, a mounting rack 130 and a fixing lug 120 fixedly arranged on the bottom plate 110, wherein the mounting rack 130 is used for connecting the reinforcing plate 220 and is provided with a plurality of ports, and the reinforcing plate 220 is fixedly arranged on the fixing lug 120 by bolts.

[0076] In a preferred embodiment, as shown in Figure 5 The mounting rack 130 comprises a main rack body 131, the main rack body 131 is provided with a positioning slot 133 for cooperating with the trigger piece 230 at the position of the port, and the first embedding groove 132 capable of being embedded with the reinforcing plate 220 is arranged on the end face of the main rack body 131 away from the bottom plate 110.

[0077] As shown in Figure 6 , Figure 7 The transition support 240 comprises a support main body 241, the support main body 241 is provided with a sliding groove 243 capable of being slidingly connected with the trigger piece 230 at the corresponding position of the trigger piece 230, and the second embedding groove 242 capable of being embedded with the identification strip 250 is arranged on the end face of the support main body 241 away from the wiring rack body 100.

[0078] As shown in Figure 7As shown, the trigger 230 includes a sliding plate 231 slidingly arranged in a sliding groove 243, a resistance groove 232 is arranged through the sliding plate 231, a micro switch 212 on the antenna plate 211 is located in the resistance groove 232 and the trigger end of the micro switch 212 abuts against the inner wall of the resistance groove 232 on the corresponding side, and a sensing protrusion 233 is fixedly arranged on the sliding plate 231 and embedded in a positioning groove 133 at the corresponding position. When the port on the mounting bracket 130 is inserted into the jumper, the jumper abuts against the sensing protrusion 233 at the corresponding port position, the sliding plate 231 slides in the sliding groove 243 under the abutting action of the jumper, and the inner wall of the resistance groove 232 abuts against the sensing end of the micro switch 212 at the corresponding position, so that the micro switch 212 is triggered to obtain the connection state of the jumper at the port position.

[0079] It can be understood that the sliding direction of the sliding plate 231 in the sliding groove 243 is the same as the triggering direction of the sensing end of the micro switch 212. Since the sensing end of the micro switch 212 is a resilient member, when the port jumper is removed, the trigger 230 can be automatically reset under the elastic force of the sensing end of the micro switch 212.

[0080] In a preferred embodiment, as shown in Figures 1 to 3 The wiring rack body 100 is provided with 24 ports, the micro switch 212 and the trigger 230 are provided with 24 corresponding ports for the 24 ports, and the transition bracket 240 is provided with four, each of which corresponds to six ports, thereby reducing the processing difficulty and facilitating the disassembly and maintenance of local faults.

[0081] In a preferred embodiment, the intelligent information unit further comprises:

[0082] A DC socket for power supply of the electronic wiring rack, which adopts a low-energy-consumption chip and a 5V1A power supply;

[0083] A voltage stabilizing chip arranged at the corresponding position of the DC socket for voltage stabilization of the power supply;

[0084] A main control chip for sensing the jumper at the port position and recording and outputting the connection information of the port jumper;

[0085] A sensing contact 213 provided with a plurality of and located at the corresponding positions of the ports on the wiring rack body 100, connected with the main control chip, for coupling the jumper with the main control chip;

[0086] A Type-C interface coupled with the main control chip, for inputting or updating programs, and also capable of connecting with the mobile phone software to view and control the port information of the electronic wiring rack;

[0087] A double-port RJ45 socket for cascading and POE power supply between a plurality of electronic wiring racks, the RJ45 socket has eight pins, six of which are used for data transmission and two of which are used for power supply.

[0088] Wherein, any one electronic distribution frame can be powered by 11 other electronic distribution frames through the DC socket and the dual-port RJ45 socket.

[0089] Wherein, the jumper wire is divided into common jumper wire and chip jumper wire, as shown in Figure 8 The chip jumper wire includes a jumper plug 510 and an induction needle 520 arranged on the jumper plug 510, the jumper plug 510 is provided with an information chip, and the induction needle 520 is connected with the information chip in the jumper plug 510, while the common jumper wire is not provided with the information chip and the corresponding induction needle 520.

[0090] As shown in Figure 4 The support body 241 is provided with a detection hole 244 at the corresponding position of 213, the induction needle 520 of the chip jumper wire can be connected with the induction contact 213 by inserting into the detection hole 244, that is, the chip jumper wire can be connected with the main control chip, at this time, the main control chip can read the jumper connection information of the chip jumper wire, thereby realizing the monitoring of the port state.

[0091] It can be understood that, whether it is a chip jumper wire or a common jumper wire, the micro switch 212 can be triggered after being inserted into the port, and the triggering result of the micro switch 212 is only responsible for the jumper connection state of the port, and cannot judge the specific jumper type, which is directly read and judged by the main control chip through the induction contact 213.

[0092] In the embodiment of the application, the electronic distribution frame is used, an independent main control chip is designed in each intelligent information unit, the jumper connection state of each port of the electronic distribution frame is scanned in real time by the main control chip, since a single main control chip only needs to manage 24 ports, the scanning speed is greatly improved.

[0093] In a preferred embodiment, the intelligent information unit further comprises a network port chip and / or a crystal oscillator and a communication chip arranged on the electronic antenna 210 and located at the corresponding position of the main control chip.

[0094] It can be understood that the network port chip uses TCP / ip protocol, and is used for connecting the management server 300, and the communication chip is mainly used for cascading between multiple electronic distribution frames.

[0095] In a preferred embodiment, the intelligent information unit further comprises, which is arranged on the electronic antenna 210:

[0096] A logic chip, which is provided with a plurality of and each coupled with the indicator lamps of four port positions, is used for controlling the corresponding indicator lamps to light up based on the port jumper connection information output by the main control chip;

[0097] The wiring frame body 100 is provided with 24 ports, and the logic chips are correspondingly provided with 6 ports, and the 6 logic chips are respectively located at the indicator lights of the 2nd, 6th, 10th, 14th, 18th and 22nd positions.

[0098] The embodiment of the application provides a networking system, which comprises a main wiring frame A1 and a management server 300 connected with the main wiring frame A1. Figure 9 As shown in the figure, the main wiring frame A1 adopts the electronic wiring frame structure.

[0099] The intelligent information unit of the main wiring frame A1 comprises a micro switch 212 for detecting the connection state of the port jumper and an inductive contact 213 for detecting and judging the normal jumper and the chip jumper, and further comprises a network port chip and a communication chip.

[0100] The main wiring frame A1 is directly connected with the management server 300 through the double-port RJ45 socket to form the networking, that is, plug and play, and the networking is flexible and convenient.

[0101] In the embodiment of the application, the networking system is adopted, the two-layer architecture of the electronic wiring frame and the management server 300 is adopted, the scanner 400 is not additionally arranged, the normal jumper and the chip jumper can be detected, the use cost of the system is reduced, and the networking is more flexible.

[0102] In a preferred embodiment, as shown in the figure, Figure 10 The main wiring frame A1 is provided with a plurality of main wiring frames A1, one of which is directly connected with the management server 300 through the double-port RJ45 socket, so as to form the networking.

[0103] It can be understood that one of the main wiring frames A1 is connected with the power supply through the DC socket, and the other main wiring frames A1 are connected in series through the double-port RJ45 socket and are supplied with the POE.

[0104] In the embodiment of the application, the networking system is adopted, the networking is realized by the series connection of the plurality of main wiring frames A1, each electronic wiring frame is independent, when the equipment fails, only the current equipment is damaged, so that the fault node is reduced, and since the scanner 400 is not additionally arranged, the problem that all the electronic wiring frames connected with the scanner 400 cannot be used due to the damage of the scanner 400 is avoided.

[0105] In a preferred embodiment, as shown in the figure, Figure 11 The main wiring frame A1 is provided with a plurality of main wiring frames A1, one of which is directly connected with the management server 300 through the double-port RJ45 socket, so as to form the networking.

[0106] In the embodiment of the application, the network system, the electronic distribution frame and the management server 300 and the scanner 400 adopt the traditional three-layer architecture. Since the main control chip scans the 24 ports on the single main distribution frame A1, the scanner 400 can directly obtain the port state information on each port through the main control chip on the plurality of main distribution frames A1, thereby greatly reducing the scanning amount of the scanner 400 and improving the scanning speed.

[0107] The network system further comprises a radar sensor. When there is no one, the network system works. When the radar sensor detects that there is no one operating, the network system enters a standby state, thereby increasing the overall service life of the network system.

[0108] The network system further comprises a visual sensing unit. When there is unauthorized operation of the network system, the visual sensing unit takes a photo or records a video and sends it to the management server 300, thereby realizing monitoring and recording of the illegal operation.

[0109] The embodiment of the application further provides a network system, as shown in the figure. Figure 12 The network system comprises a main distribution frame A1, a sub-distribution frame A2 and a management server 300 connected with the main distribution frame A1. The main distribution frame A1 and the sub-distribution frame A2 adopt the electronic distribution frame structure described above.

[0110] The intelligent information unit of the main distribution frame A1 and the sub-distribution frame A2 comprises a micro switch 212 for detecting the connection state of the port jumper and an inductive contact 213 for detecting and judging the normal jumper and the chip jumper.

[0111] The main distribution frame A1 further comprises a network port chip and a communication chip, and the sub-distribution frame A2 is not provided with a network port chip but only with a communication chip.

[0112] The main distribution frame A1 and the sub-distribution frame A2 are connected in series through double-port RJ45 sockets. One of the main distribution frames A1 is directly connected with the management server 300 through the double-port RJ45 socket, thereby forming the network.

[0113] It can be understood that one of the main distribution frames A1 or the sub-distribution frames A2 is connected with the power supply through the DC socket, and the other main distribution frames A1 or the sub-distribution frames A2 are powered through the double-port RJ45 socket.

[0114] It can be understood that since the scanner 400 is not provided and the main distribution frame A1 is provided with the network port chip, the main distribution frame A1 can be connected with the management server 300. The main distribution frame A1 and the sub-distribution frame A2 realize information transmission through the communication chip, and the sub-distribution frame A2 does not contain the network port chip and thus cannot be connected with the management server 300 alone.

[0115] It can be understood that the main distribution frame A1 or the sub-distribution frame A2 can also be configured to contain only the micro switch 212 and discard the inductive contact 213, at which time the acquisition of the port jumper connection state can be realized through the micro switch 212, but the chip jumper cannot be distinguished.

[0116] It can be understood that the main distribution frame A1 or the sub-distribution frame A2 can also be configured to contain only the inductive contact 213 and discard the micro switch 212, at which time the distribution frame can only acquire the port connection information of the chip jumper, and is suitable for the connection scene of a single chip jumper.

[0117] In the embodiment of the application, the above-mentioned networking system is adopted, the main distribution frame A1 and the sub-distribution frame A2 are combined to realize the detection of different types of jumpers, the control cost is reduced, and the flexibility of networking is increased.

[0118] In a preferred embodiment, as shown in Figure 13 The sub-distribution frame A2 is provided with a plurality of and is connected with the scanner 400 through a double-port RJ45 socket, the scanner 400 is directly connected with the management server 300, so as to form a network.

[0119] It can be understood that although the sub-distribution frame A2 does not contain a network port chip, it can be connected with the management server 300 through the scanner 400, and the scanner 400 can directly acquire the port state information on each port through the main control chip on the plurality of sub-distribution frames A2, so that the scanning amount of the scanner 400 is greatly reduced, and the scanning speed is improved.

[0120] The embodiment of the application also provides an electronic networking control method, as shown in Figure 14 The embodiment of the application also provides an electronic networking control method, as shown in

[0121] S1, when the main distribution frame is inserted with the jumper, the corresponding port outputs first port change information to the main distribution frame control unit;

[0122] S2, the main distribution frame control unit receives the first port change information and outputs a port ID read-write instruction to the corresponding port, and the corresponding port outputs a port ID read-write result to the main distribution frame control unit under the reception of the port ID read-write instruction;

[0123] S3, the main distribution frame control unit receives the port ID read-write result and outputs second port change information to the management server;

[0124] S4, the management server receives the second port change information and outputs first instruction information to the main distribution frame control unit, and the main distribution frame control unit outputs port information to the main distribution frame control unit under the reception of the first instruction information;

[0125] S5, the management server receives the port information and generates a judgment result based on the port information, and outputs an indication instruction to the electronic networking system based on the judgment result.

[0126] In step S1, the first port change information is specifically the sensing information generated by the microswitch on the main distribution frame based on the jumper wire insertion trigger;

[0127] In step S2, when the main distribution frame control unit receives the first port change information, the change of the port of the main distribution frame is obtained, and a port ID read-write instruction is output to the port whose jumper wire connection state changes, so as to control the corresponding port to perform scanning on the jumper wire type. The scanning result can determine whether the jumper wire is a normal jumper wire or a chip jumper wire, and a port ID read-write result is output to the main distribution frame control unit based on the scanning result. It can be understood that the port ID read-write result includes two cases. Case one is to obtain the jumper wire label ID number, and at this time it is determined that the jumper wire type is a chip jumper wire. Case two is that the jumper wire label ID number is not obtained, and at this time it is determined that the jumper wire type is a normal jumper wire.

[0128] In step S3, the main distribution frame control system outputs second port change information to the management server after receiving the port ID read-write result. The second port change information is used to inform the management server of the port jumper wire change, so as to trigger the subsequent control instruction of the management server.

[0129] In step S4, the main distribution frame control unit outputs port information to the main distribution frame control unit after receiving the first instruction information. The port information includes the change port number and the jumper wire type. If the jumper wire type is a chip jumper wire, the corresponding jumper wire label ID number is also included.

[0130] In step S5, the management server receives the port information and compares it with the preset standard library. If the jumper wire type or the jumper wire label ID number deviates, an alert instruction is output to the electronic networking system. Otherwise, an approval instruction is output. The electronic networking system performs corresponding indication actions based on the indication instruction output by the management server.

[0131] In the embodiment of the application, the electronic networking control method is used to directly scan and obtain the state information of the port jumper wire in the main distribution frame control unit. After obtaining the instruction information of the management server, the port information is sent to the management server, without the need to set up a scanner. The management server can directly determine the connection legality state of the jumper wire after obtaining the port information, and realize the display of the connection legality state of the jumper wire through the electronic networking system. Through the above-mentioned manner, the communication interaction between the port and the management server is reduced, the uploading speed of the port information is improved, the identification of the normal jumper wire and the chip jumper wire and the connection legality indication are realized, and the visualization of the electronic networking control is improved.

[0132] In a preferred embodiment, the common jumper wire is inserted into the main distribution frame, so as to trigger the micro switch level to change from high to low, and then trigger the falling edge external interrupt of the corresponding port of the main distribution frame MCU. The main distribution frame MCU identifies that the jumper wire is inserted, sends a port ID read-write instruction to the corresponding port, and obtains the port ID read-write result. It is found that there is no jumper wire tag ID number returned, so it is identified as the insertion of the common jumper wire.

[0133] The main distribution frame MCU reports the port change information to the management server through the network port. After the management server end receives the port change information, the management server end sends an instruction information to the main distribution frame MCU through the network port. The main distribution frame MCU receives the network port interrupt and reports the port information of the corresponding port.

[0134] After the management server end receives the port information, it is identified as the insertion of the common jumper wire, an illegal insertion alarm is generated, and the alarm is displayed in the main UI interface. At the same time, the alarm is sent to the main distribution frame MCU through the network port. After the main distribution frame MCU receives the alarm command, the port number in the alarm is parsed, written into the display screen through the SPI bus, and the alarm information is displayed on the screen. At the same time, the red LED indicator of the corresponding port is lit.

[0135] In a preferred embodiment, the chip jumper wire is inserted into the main distribution frame, so as to trigger the micro switch level to change from high to low, and then trigger the falling edge external interrupt of the corresponding port of the main distribution frame MCU. The main distribution frame MCU identifies that the jumper wire is inserted, sends a port ID read-write instruction to the corresponding port, and obtains the port ID read-write result. It is found that there is no jumper wire tag ID number returned, so it is identified as the insertion of the common jumper wire.

[0136] The main distribution frame MCU reports the port change information to the management server through the network port. After the management server end receives the port change information, the management server end sends an instruction information to the main distribution frame MCU through the network port. The main distribution frame MCU receives the network port interrupt and reports the port information of the corresponding port.

[0137] After the management server end receives the port information, it is identified as the insertion of the common jumper wire, an illegal insertion alarm is generated, and the alarm is displayed in the main UI interface. At the same time, the alarm is sent to the main distribution frame MCU through the network port. After the main distribution frame MCU receives the alarm command, the port number in the alarm is parsed, written into the display screen through the SPI bus, and the alarm information is displayed on the screen. At the same time, the red LED indicator of the corresponding port is lit.

[0138] The application embodiment also provides an electronic networking control method, as shown in Figure 15 The method comprises the following steps.

[0139] S1. When a jumper is inserted into the sub-distribution frame, the corresponding port outputs the first port change information to the sub-distribution frame control unit.

[0140] S2. After receiving the first port change information, the sub-distribution frame control unit outputs a port ID read / write command to the corresponding port. Upon receiving the port ID read / write command, the corresponding port outputs the port ID read / write result to the sub-distribution frame control unit.

[0141] S3. After receiving the port ID read / write result, the sub-distribution frame control unit outputs the second port change information to the main distribution frame control unit.

[0142] S4. After receiving the second port change information, the main distribution frame control unit outputs the first instruction information to the sub-distribution frame control unit. Upon receiving the first instruction information, the sub-distribution frame control unit outputs port information to the main distribution frame control unit.

[0143] S5. After receiving the port information, the main distribution frame control unit outputs the third port change information to the management server.

[0144] S6. After receiving the third port change information, the management server outputs the second instruction information to the main patch panel control unit. Upon receiving the second instruction information, the main patch panel control unit outputs port information to the main patch panel control unit.

[0145] S7. After receiving the port information, the management server generates a judgment result based on the port information and outputs an instruction to the electronic networking system based on the judgment result.

[0146] The main patch panel is directly connected to the management server, and the main patch panel is connected to at least one sub-patch panel.

[0147] In this embodiment, the above-mentioned electronic networking control method is adopted. The main patch panel transition enables the interaction of port change information and patch cord information between the sub-patch panels and the management server. Since multiple sub-patch panels are connected through a main patch panel, the workload of the management server to directly scan all patch panels is reduced, thereby improving the efficiency of obtaining port change information and patch cord information.

[0148] In a preferred embodiment, a regular jumper is inserted into the sub-patch panel, which triggers the microswitch level to change from high to low, thereby triggering a falling edge external interrupt at the corresponding port of the sub-patch panel MCU. The sub-patch panel MCU recognizes the jumper insertion and sends a port ID read / write command to the corresponding port. After obtaining the port ID read / write result, it finds that no jumper tag ID number is returned, thus recognizing it as a regular jumper insertion.

[0149] The sub-wiring frame MCU sends port change information to the main-wiring frame MCU. The main-wiring frame MCU receives the serial port interrupt, extracts the information and identifies it as port change. Then, the main-wiring frame MCU sends instruction information to the sub-wiring frame MCU through the serial port to report the changed port number. The sub-wiring frame MCU receives the serial port interrupt and reports the port number of the inserted chip jumper through the serial port. The main-wiring frame MCU receives the serial port interrupt, extracts the port information in the data, and reports the port change information to the management server through the network port. After the management server receives the port change information, it sends instruction information to the main-wiring frame MCU through the network port. The main-wiring frame MCU receives the network port interrupt and reports the change port information.

[0150] After the management server receives the port information, it identifies it as the insertion of a normal jumper and generates an illegal insertion alarm. The alarm is displayed in the main UI interface and is sent to the main-wiring frame MCU through the network port. After the main-wiring frame MCU receives the alarm command, it writes it to the display screen through the SPI bus and displays the alarm information on the screen. At the same time, the alarm information is sent to the corresponding sub-wiring frame MCU through the serial port. After the sub-wiring frame MCU receives the alarm information, it parses the port number in the alarm and lights up the red LED indicator of the corresponding port.

[0151] In a preferred embodiment, the chip jumper is inserted into the sub-wiring frame, triggering the microswitch level to change from high to low, which in turn triggers the falling edge external interrupt of the corresponding port of the sub-wiring frame MCU. The sub-wiring frame MCU identifies the jumper insertion and sends a port ID read-write instruction to the corresponding port. After obtaining the port ID read-write result, it gets the jumper label ID number of the corresponding port, thereby identifying it as a chip jumper.

[0152] The sub-wiring frame MCU sends port change information to the main-wiring frame MCU. The main-wiring frame MCU receives the serial port interrupt, extracts the information and identifies it as port change. Then, the main-wiring frame MCU sends instruction information to the sub-wiring frame MCU through the serial port to report the changed port number. The sub-wiring frame MCU receives the serial port interrupt and reports the port number of the inserted chip jumper through the serial port. The main-wiring frame MCU receives the serial port interrupt, extracts the port information in the data, and reports the port change information to the management server through the network port. After the management server receives the port change information, it sends instruction information to the main-wiring frame MCU through the network port. The main-wiring frame MCU receives the network port interrupt and reports the change port information.

[0153] After the management server end receives the port information, it identifies that the chip jumper is inserted, extracts the port number and the corresponding jumper label ID number, and compares the jumper label ID number with the jumper label ID number in the standard library pre-stored in the current management server end. If the jumper label ID number is inconsistent, an illegal insertion alarm is generated, which is displayed in the main UI interface, and the alarm is sent to the main distribution frame MCU through the network port. After the main distribution frame MCU receives the alarm command, it is written into the display screen through the SPI bus, and the alarm information is displayed on the screen. At the same time, the alarm information is sent to the corresponding sub-distribution frame MCU through the serial port. After the sub-distribution frame MCU receives the alarm information, the port number in the alarm is parsed, and the red LED indicator light of the corresponding port is lit.

[0154] The embodiment of the application also provides a network system electronic work order control method, as shown in the figure, comprising: Figure 16

[0155] S1, the management server sends electronic work order information to the main distribution frame control unit, and the main distribution frame control unit extracts the changed port number and the jumper label ID number contained in the electronic work order information;

[0156] S2, the main distribution frame control unit outputs first indication information to the first target port on the main distribution frame based on the electronic work order information;

[0157] S3, when the first target port senses that the jumper of the first target port is pulled out by the staff, the first feedback information is output to the main distribution frame control unit;

[0158] S4, the main distribution frame control unit outputs second indication information to the second target port on the main distribution frame after obtaining the first feedback information;

[0159] S5, when the second target port senses that the jumper is inserted in the second target port by the staff, the second feedback information is output to the main distribution frame control unit;

[0160] S6, the main distribution frame control unit outputs a read-write instruction to the second target port on the main distribution frame after obtaining the second feedback information;

[0161] S7, the second target port scans the jumper in the port after receiving the read-write instruction, and outputs the jumper scanning result directly to the main distribution frame control unit;

[0162] S8, the main distribution frame control unit compares the obtained scanning result with the electronic work order information. If the comparison does not pass, an indication instruction is output to the second target port. After the second target port receives the indication instruction, an alarm is issued. If the comparison result passes, a work order completion instruction is output to the management server.

[0163] ​It can be understood that the above steps are used for transposition of jumpers on the same main distribution frame, and the first indication information and the second indication information specifically represent indication of indicator lights on corresponding ports, and the forms of representation are not limited to changes in colors of the indicator lights, changes in flashing modes, etc.

[0164] In a preferred embodiment, a user issues a work order under a software interface, a management server issues corresponding electronic work order information to a main distribution frame MCU through a network port, the main distribution frame MCU parses the electronic work order information into a work order command, and extracts port numbers and jumper label ID numbers contained in the work order. If both are main electronic distribution frame port changes, a blue light is first lit at a corresponding position before the port change, and after a staff member pulls out the jumper of the port, the level of the micro switch changes from low to high, triggering a rising edge external interrupt of the main distribution frame MCU corresponding to the port. The main distribution frame MCU identifies that the jumper has been pulled out, and then lights a blue LED lamp of a port that needs to be inserted. When a staff member inserts a jumper into the port, the level of the micro switch changes from high to low, triggering a falling edge external interrupt of the main distribution frame MCU corresponding to the port. The main distribution frame MCU sends a jumper label ID number reading command to the port, so as to obtain the jumper label ID number of the port. Then, the jumper label ID number is compared with the jumper label ID number contained in the work order. If they are inconsistent, it is indicated that the jumper inserted is not the jumper pulled out, so that an alarm process of the corresponding port is triggered. If they are consistent, a work order completion instruction is output to the management server. After the management server receives the work order completion instruction, the management server identifies that the work order is completed. The management server changes a label position according to the work order, and the UI side displays that the work order is completed.

[0165] The embodiment of the application further provides a network system electronic work order control method, as shown in the figure, which comprises the following steps: Figure 17

[0166] S1, a management server sends electronic work order information to a main distribution frame control unit, and the main distribution frame control unit extracts change port numbers and jumper label ID numbers contained in the electronic work order information;

[0167] S2, the main distribution frame control unit outputs first indication information to a first target port on a main distribution frame based on the electronic work order information;

[0168] S3, when the first target port senses that a staff member pulls out a jumper of the first target port, the first target port outputs first feedback information to the main distribution frame control unit;

[0169] S4, after the main distribution frame control unit obtains the first feedback information, the main distribution frame control unit outputs second target information to a sub-distribution frame control unit where a second target port is located;

[0170] S5, after the sub-distribution frame control unit receives the second target information, the sub-distribution frame control unit outputs second indication information to the second target port;

[0171] ​S6, outputting second feedback information to the sub-distribution frame control unit when the second target port senses that the worker inserts the jumper wire in the second target port;

[0172] S7, outputting read-write instruction to the second target port after the sub-distribution frame control unit acquires the second feedback information;

[0173] S8, scanning the jumper wire in the port and outputting the jumper wire scanning result directly to the sub-distribution frame control unit after the second target port receives the read-write instruction;

[0174] S9, comparing the acquired scanning result with the second target information, outputting indication instruction to the second target port if the comparison does not pass, outputting work order completion information to the main distribution frame control unit if the comparison result passes, and outputting work order completion instruction to the management server after the main distribution frame control unit receives the work order completion information.

[0175] It can be understood that the above steps are used for transposition of the jumper wire on the main distribution frame to the connected sub-distribution frame. One main distribution frame can connect at least one sub-distribution frame. Through the above steps, indication, detection and monitoring during the transfer of the jumper wire from the main distribution frame to the sub-distribution frame can be realized.

[0176] In a preferred embodiment, the work order is to switch the jumper wire from the port of the main distribution frame to the port of the sub-distribution frame. First, the corresponding position of the port on the main distribution frame is changed to light a blue lamp. After the worker pulls out the jumper wire, the micro switch level changes from low to high, triggering the rising edge external interrupt of the corresponding port of the main distribution frame MCU. The main distribution frame MCU identifies that the jumper wire has been pulled out, and then sends the work order command, the port number to be inserted and the jumper wire label ID to the corresponding sub-distribution frame MCU through the serial port. The corresponding sub-distribution frame MCU receives the serial port interrupt, extracts the serial port information, identifies it as a work order, extracts the port number and jumper wire label ID number, and lights the blue LED lamp of the corresponding port. When the worker inserts the jumper wire in the port, the micro switch level changes from high to low, triggering the falling edge external interrupt of the corresponding port of the sub-distribution frame MCU. The sub-distribution frame sends the jumper wire label ID number reading command to acquire the jumper wire label ID number of the port, and compares it with the jumper wire label ID number contained in the work order. If they are inconsistent, it means that the inserted jumper wire is not the pulled-out jumper wire, and the alarm process of the second target port is triggered. If they are consistent, the main distribution frame MCU returns the work order completion information to the main distribution frame MCU through the serial port. After the main distribution frame MCU receives the work order completion information, the main distribution frame MCU uploads the work order completion instruction to the management server through the network port. After the management server end receives the instruction, it identifies the work order completion. The management server changes the label position according to the work order, and the UI side displays the work order completion.

[0177] The embodiment of the application also provides a network system electronic work order control method, which comprises the following steps:Figure 18 As shown in the figure, comprising:

[0178] S1, the management server sends electronic work order information to the main distribution frame control unit, and the main distribution frame control unit extracts the change port number and the jumper label ID number contained in the electronic work order information;

[0179] S2, the main distribution frame control unit outputs first target information to the sub-distribution frame control unit corresponding to the first target port based on the electronic work order information;

[0180] S3, the sub-distribution frame control unit outputs first indication information to the first target port based on the first target information;

[0181] S4, when the first target port senses that the jumper of the first target port is pulled out by the staff, the first feedback information is output to the sub-distribution frame control unit;

[0182] S5, the sub-distribution frame control unit outputs the first feedback information to the main distribution frame control unit after receiving the first feedback information;

[0183] S6, the main distribution frame control unit outputs second indication information to the second target port on the main distribution frame after obtaining the first feedback information;

[0184] S7, when the second target port senses that the jumper is inserted into the second target port by the staff, the second feedback information is output to the main distribution frame control unit;

[0185] S8, the main distribution frame control unit outputs read-write instructions to the second target port on the main distribution frame after obtaining the second feedback information;

[0186] S9, the second target port scans the jumper in the port after receiving the read-write instruction, and outputs the jumper scanning result directly to the main distribution frame control unit;

[0187] S10, the main distribution frame control unit compares the obtained scanning result with the electronic work order information, if the comparison does not pass, the indication instruction is output to the second target port, and the second target port issues an alarm after receiving the indication instruction, if the comparison result passes, the work order completion instruction is output to the management server.

[0188] It can be understood that the above steps are used for the transposition of the jumper on the sub-distribution frame to the main distribution frame connected thereto, and one main distribution frame can connect at least one sub-distribution frame, through the above steps, the indication, detection and monitoring of the jumper during the transfer process from the sub-distribution frame to the main distribution frame can be realized.

[0189] The embodiment of the application also provides a network system electronic work order control method, as shown in the figure, comprising: Figure 19 ​

[0190] S1, the management server sends electronic work order information to the main distribution frame control unit, and the main distribution frame control unit extracts the change port number and the jumper label ID number contained in the electronic work order information;

[0191] S2, the main distribution frame control unit outputs first target information to the first sub-distribution frame control unit corresponding to the first target port based on the electronic work order information;

[0192] S3, the first sub-distribution frame control unit outputs first indication information to the first target port based on the first target information;

[0193] S4, when the first target port senses that the jumper of the first target port is pulled out by the staff, the first feedback information is output to the first sub-distribution frame control unit;

[0194] S5, the first sub-distribution frame control unit outputs the first feedback information to the main distribution frame control unit after receiving the first feedback information;

[0195] S6, the main distribution frame control unit outputs second target information to the second sub-distribution frame control unit where the second target port is located after obtaining the first feedback information;

[0196] S7, the second sub-distribution frame control unit outputs second indication information to the second target port after receiving the second target information;

[0197] S8, when the second target port senses that the jumper is inserted into the second target port by the staff, the second feedback information is output to the second sub-distribution frame control unit;

[0198] S9, the second sub-distribution frame control unit outputs read-write instructions to the second target port after obtaining the second feedback information;

[0199] S10, the second target port receives the read-write instructions and scans the jumper in the port, and outputs the jumper scanning result directly to the second sub-distribution frame control unit;

[0200] S11, the second sub-distribution frame control unit compares the obtained scanning result with the second target information, if the comparison does not pass, the indication instruction is output to the second target port, the second target port receives the indication instruction and issues an alarm, if the comparison result passes, the complete order information is output to the main distribution frame control unit, and the main distribution frame control unit outputs the work order completion instruction to the management server after receiving the complete order information.

[0201] It can be understood that the above steps are used for jumper transposition on two sub-distribution frames, and the two sub-distribution frames are connected with the same main distribution frame. Through the above steps, indication, detection and monitoring during the transfer process of the jumper between the two sub-distribution frames can be realized.

[0202] In the embodiments of the present application, the network system electronic work order control method is used, the control unit is arranged in the main distribution frame and the sub distribution frame, when the jumper connection state of the distribution frame changes, the state indication and detection of the jumper are directly executed in the control unit, the scanning and identifying action of the scanner on the multiple ports in the traditional electronic work order process is omitted, the communication complexity in the jumper switching process between the multiple distribution frames is reduced, thereby the control efficiency is greatly improved while the accuracy of the electronic work order is ensured.

[0203] It should be noted that in this document, the terms "comprise", "comprising", or any other variant thereof are intended to cover a non-exclusive inclusion, such that a process, method, article, or apparatus that comprises a list of elements does not include only those elements, but can also include other elements not expressly listed or inherent to such process, method, article, or apparatus. Without more limitations, an element defined by the statement "comprising a" does not exclude the existence of additional identical elements in the process, method, article, or apparatus that includes the element. In addition, it should be pointed out that the scope of the methods and apparatus in the embodiments of the present application is not limited to the order of performing the functions shown or discussed, but can also include performing the functions in a substantially simultaneous manner or in reverse order, for example, the described method can be performed in an order different from that described, and various steps can also be added, omitted, or combined. In addition, the features described with reference to certain examples can be combined in other examples.

[0204] The embodiments of the present application are described above in combination with the drawings, but the present application is not limited to the above-described specific embodiments, the above-described specific embodiments are only illustrative, but not restrictive, and a person of ordinary skill in the art can make many forms under the inspiration of the present application without departing from the scope of the present application and the scope protected by the claims.

Claims

1. An electronic networking control method, characterized by, The application is applied to an electronic distribution frame, which comprises an antenna system and a distribution frame body for mounting the antenna system, and the antenna system is provided with a smart information unit and a transition support coupled with a port on the distribution frame body. The smart information unit is used for scanning the port on the distribution frame body, and the smart information unit comprises an electronic antenna and a plurality of trigger pieces between the electronic antenna and the transition support. The trigger pieces are located at corresponding positions of the port on the distribution frame body and can trigger a micro switch at the corresponding position under the abutting action of a jumper wire connected to the port. The trigger piece comprises a sliding plate slidingly arranged in a sliding groove, and a resistance groove is formed through the sliding plate. The micro switch at the corresponding position of the electronic antenna is located in the resistance groove and the trigger end abuts against the inner wall of the corresponding side of the resistance groove. An inductive protrusion is fixedly arranged on the sliding plate and embedded in a positioning groove at the corresponding position. When the jumper wire is inserted into the port on the mounting frame, the jumper wire abuts against the inductive protrusion at the corresponding position of the port, and the sliding plate slides in the sliding groove under the abutting action of the jumper wire. At the same time, the inner wall of the resistance groove abuts against the inductive end of the micro switch at the corresponding position, and the micro switch is triggered to obtain the connection state of the jumper wire at the port position. The electronic distribution frame comprises inductive contacts for detecting and judging common jumpers and chip jumpers. The electronic distribution frame is provided with a detection hole passing through the corresponding position of the inductive contacts, and an inductive needle on the chip jumper can be connected with the inductive contacts by being inserted into the detection hole. The electronic network control method comprises the following steps: The main distribution frame control unit outputs a port ID read-write instruction to the corresponding port under the acquisition of first port change information. The main distribution frame control unit outputs second port change information to the management server under the acquisition of the port ID read-write result of the corresponding port, and outputs port information to the management server under the acquisition of first instruction information of the management server. The first port change information comprises the port number of the changed port, and the port ID read-write result comprises the jumper label ID number corresponding to the changed port. The acquisition of the port ID read-write result of the corresponding port is that the inductive contacts on the electronic distribution frame acquire the coupling state with the information module on the jumper. If the coupling is established, the port ID read-write result is output as the jumper label ID number of the corresponding jumper. If the coupling is not established, the port ID read-write result is output as no jumper label ID number is acquired.

2. The electronic networking control method according to claim 1, wherein, The main distribution frame control unit acquires the first port change information in the following manner: The micro switch on the distribution frame generates the first port change information after the jumper is inserted into the port.

3. An electronic networking control method, characterized by, The application is applied to a main distribution frame, which adopts an electronic distribution frame including an antenna system and a distribution frame body for mounting the antenna system. The antenna system is provided with an intelligent information unit and a transition support coupled with ports on the distribution frame body. The intelligent information unit is used for scanning the ports on the distribution frame body. The intelligent information unit includes an electronic antenna and a plurality of trigger pieces between the electronic antenna and the transition support. The trigger pieces are located at corresponding positions of the ports on the distribution frame body and can trigger micro switches at the corresponding positions under the abutting action of the jumpers connected with the ports. The trigger pieces include a sliding plate slidingly arranged in a sliding groove. A resisting groove is formed through the sliding plate. The micro switch at the corresponding position of the electronic antenna is located in the resisting groove and has a trigger end abutting against the inner wall of the corresponding side of the resisting groove. An inductive protrusion is fixedly arranged on the sliding plate and embedded in a positioning groove at the corresponding position. When the jumper is inserted into the jumper of the port on the mounting frame, the jumper abuts against the inductive protrusion at the corresponding position of the port. The sliding plate slides in the sliding groove under the abutting action of the jumper. Meanwhile, the inner wall of the resisting groove abuts against the inductive end of the micro switch at the corresponding position. The micro switch is triggered to obtain the connection state of the jumper at the port position. The main distribution frame includes inductive contacts for detecting and judging common jumpers and chip jumpers. The main distribution frame is provided with detection holes corresponding to the inductive contacts. The inductive needle on the chip jumper can be connected with the inductive contacts by being inserted into the detection holes. The electronic network control method includes the following steps: The main distribution frame control unit outputs first instruction information to the sub-distribution frame control unit when obtaining the second port change information of the sub-distribution frame control unit; The main distribution frame control unit obtains port information corresponding to the output of the sub-distribution frame control unit and outputs third port change information to the management server; The main distribution frame control unit outputs the port information to the management server when obtaining the second instruction information of the management server; The port information includes the port number of the changed port of the sub-distribution frame and the jumper label ID number corresponding thereto; The inductive contacts on the sub-distribution frame obtain the coupling state with the information module on the jumper. If the coupling is established, the output port ID read-write result is the jumper label ID number of the corresponding jumper. If the coupling is not established, the output port ID read-write result is that the jumper label ID number is not obtained.

4. An electronic networking control method, characterized by, The application is applied to a management server which communicates with a main distribution frame control unit, the main distribution frame adopts an electronic distribution frame, the electronic distribution frame comprises an antenna system and a distribution frame body for mounting the antenna system, the antenna system is provided with a smart information unit and a transition support which are coupled with ports on the distribution frame body, the smart information unit is used for scanning the ports on the distribution frame body, the smart information unit comprises an electronic antenna and a plurality of trigger pieces between the electronic antenna and the transition support, the trigger pieces are located at corresponding positions of the ports on the distribution frame body and can trigger micro switches at the corresponding positions under the abutting action of the jumpers connected with the ports, the trigger pieces comprise a sliding plate which is slidingly arranged in a sliding groove, the sliding plate is provided with an abutting groove, the micro switch at the corresponding position of the electronic antenna is located in the abutting groove and the trigger end abuts against the inner wall of the corresponding side of the abutting groove, and the sliding plate is further provided with a sensing protrusion which is embedded in a positioning groove at the corresponding position; when the jumper is inserted into the port on the mounting frame, the jumper abuts against the sensing protrusion at the corresponding position of the port, the sliding plate slides in the sliding groove under the abutting action of the jumper, and the inner wall of the abutting groove abuts against the sensing end of the micro switch at the corresponding position, so that the jumper connection state of the port position is acquired by triggering the micro switch. The management server communicates with the main distribution frame control unit, which comprises: The management server acquires the second port change information of the main distribution frame control unit and outputs first instruction information to the main distribution frame control unit; The management server acquires the port information corresponding to the output of the main distribution frame control unit and generates a judgment result based on the port information; The management server outputs an indication instruction based on the judgment result; The port information comprises the port number of the changed port of the main distribution frame and the jumper label ID number corresponding thereto. The sensing contact on the main distribution frame acquires the coupling state of the information module on the jumper; if the coupling is established, the port ID read-write result is the jumper label ID number of the corresponding jumper, and if the coupling is not established, the port ID read-write result is that the jumper label ID number is not acquired. Or, the management server communicates with the main distribution frame control unit, which comprises: The management server acquires the third port change information of the main distribution frame control unit and outputs second instruction information to the main distribution frame control unit; The management server acquires the port information corresponding to the output of the main distribution frame control unit and generates a judgment result based on the port information; The management server outputs an indication instruction based on the judgment result; The port information comprises the port number of the changed port of the main distribution frame and the jumper label ID number corresponding thereto. The sensing contact on the main distribution frame acquires the coupling state of the information module on the jumper; if the coupling is established, the port ID read-write result is the jumper label ID number of the corresponding jumper, and if the coupling is not established, the port ID read-write result is that the jumper label ID number is not acquired.

5. The electronic networking control method according to claim 4, wherein, The judgment result based on the port information is specifically: The port information is compared with a preset standard library to confirm whether the jumper type or the jumper label ID number of the changed port is deviated.

6. The electronic networking control method according to claim 5, wherein The indication instruction based on the judgment result is specifically: If the jumper type or jumper label ID number of the changed port deviates from the standard library, the indication instruction is output as a warning instruction; If the jumper type or jumper label ID number of the changed port is consistent with the standard library, the indication instruction is output as an approval instruction; The warning instruction is used for marking the corresponding changed port.

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