A network system electronic work order control method

Abstract

This application discloses an electronic work order control method for a network system, including acquiring electronic work order information, outputting first indication information to a first target port based on the electronic work order information, and outputting second indication information to a second target port or outputting second target information to a sub-patch panel control unit upon acquiring first feedback information from the first target port. In this embodiment, control units are set in the main patch panel and the sub-patch panel. When the jumper connection status on the patch panel changes, the jumper status indication and detection verification are directly executed in the control unit. This eliminates the need for the scanner to scan and identify multiple ports in the traditional electronic work order process, reduces the communication complexity during jumper switching between multiple patch panels, and thus greatly improves control efficiency while ensuring the accuracy of the electronic work order.

Description

Technical Field

[0001] This invention relates to the field of electronic cabling system technology, and in particular to an electronic work order control method for a networking system. Background Technology

[0002] An electronic patch panel is a system that uses computer technology and electronic patching equipment to manage patch cords in real time. It is mainly used to achieve the following functions: real-time automatic detection of the connection relationship between the patch panel and patch cords; real-time automatic generation of a database of the detected connection relationships; and real-time automatic updating of the database based on the detected patch cord changes.

[0003] Commercially available electronic patch panel systems consist of a three-layer structure: electronic patch panels, scanners, and a management server. Each scanner connects to 24-48 patch panels (576-1152 ports). The scanner uses a polling mechanism to scan the port status of each patch panel in real time and uploads the status information to the management server. Because all management and control are implemented in the scanner, the scanner logic is complex, the price is high, and the following problems exist in engineering use:

[0004] 1. The connection status of the port jumper is detected by a micro switch. The structure is relatively complex. After the jumper is plugged and unplugged for a long time, the detection sensitivity is affected and it is not convenient to disassemble and maintain.

[0005] 2. When a scanner is connected to only a small number of patch panels, it results in equipment waste;

[0006] 3. When the scanner malfunctions, all electronic patch panels managed by that scanner will lose network connectivity, causing multiple points of failure.

[0007] 4. When a scanner is connected to multiple patch panels, the polling time is long, and the electronic patch panel has low efficiency in reading the port status.

[0008] 5. When the port patch cord information changes, the communication between the management server and the corresponding port becomes more complicated. Since one management server corresponds to multiple patch panels, the exchange speed of port patch cord information is slow.

[0009] 6. When switching patch cords in a traditional electronic patch panel network system, communication between the management server, scanner, and patch panel is required. When there are many ports, the control between the management server and the ports is cumbersome and affects the response speed. At the same time, the traditional electronic work order control method does not adequately monitor the legality of patch cords and cannot achieve full traceability of the patch cord switching process. Summary of the Invention

[0010] To address the shortcomings of existing technologies, this invention provides a network system electronic work order control method that is fast-responding, accurate, and highly efficient.

[0011] To achieve the above objectives, the present invention is implemented through the following technical solutions.

[0012] This application provides a method for controlling electronic work orders in a network system, including:

[0013] Obtain electronic work order information, and output first indication information to the first target port based on the electronic work order information;

[0014] Upon receiving the first feedback information from the first target port, the system outputs second indication information to the second target port, or outputs second target information to the sub-patch panel control unit.

[0015] The electronic work order information includes the change port number and jumper tag ID number.

[0016] Further specifying, the above-mentioned electronic work order control method for a network system, after outputting the second indication information to the second target port, also includes:

[0017] Upon receiving the second feedback information from the second target port, a read / write command is output to the second target port;

[0018] A judgment result is formed based on the reading result of the second target port and the electronic work order information;

[0019] Based on the judgment result, an instruction is output to the second target port or a work order completion instruction is output to the management server;

[0020] The reading result of the second target port includes the jumper tag ID number of the jumper corresponding to the second target port.

[0021] Further specifying, the above-mentioned electronic work order control method for the networking system, after outputting the second target information to the sub-distribution frame control unit, also includes:

[0022] Upon receiving the completed work order information from the sub-distribution frame control unit, a work order completion instruction is output to the management server.

[0023] This application provides a method for controlling electronic work orders in a network system, including:

[0024] Obtain electronic work order information, and output first target information to the first sub-distribution frame control unit based on the electronic work order information;

[0025] Upon receiving the first feedback information from the first sub-patch control unit, the system outputs second indication information to the second target port or outputs second target information to the second sub-patch control unit.

[0026] The electronic work order information includes the change port number and jumper tag ID number.

[0027] Further specifying, the above-mentioned electronic work order control method for a network system, after outputting the second indication information to the second target port, also includes:

[0028] Upon receiving the second feedback information from the second target port, a read / write command is output to the second target port;

[0029] A judgment result is formed based on the reading result of the second target port and the electronic work order information;

[0030] Based on the judgment result, an instruction is output to the second target port or a work order completion instruction is output to the management server;

[0031] The reading result of the second target port includes the jumper tag ID number of the jumper corresponding to the second target port.

[0032] Further specifying, the above-mentioned electronic work order control method for the networking system, after outputting the second target information to the second sub-distribution frame control unit, also includes:

[0033] Upon receiving the completion information from the second sub-patch panel control unit, a work order completion instruction is output to the management server.

[0034] The application provides a method for controlling electronic work orders in a networked system, including:

[0035] The system outputs a first indication message to the first target port based on the first target information output by the main patch panel control unit, or outputs a second indication message to the second target port based on the second target information output by the main patch panel control unit.

[0036] Further specifying, the above-mentioned electronic work order control method for a network system, after outputting the first indication information to the first target port, also includes:

[0037] Upon receiving the first feedback information output from the first target port, the first feedback information is output to the main patch panel control unit.

[0038] Further specifying, the above-mentioned electronic work order control method for a network system, after outputting the second indication information to the second target port, also includes:

[0039] Upon receiving the second feedback information from the second target port, a read / write command is output to the second target port.

[0040] A judgment result is formed based on the reading result of the second target port and the second target information;

[0041] Based on the judgment result, an instruction is output to the second target port or a completion information is output to the main distribution frame control unit;

[0042] The reading result of the second target port includes the jumper tag ID number of the jumper corresponding to the second target port.

[0043] The present invention has at least the following beneficial effects:

[0044] Control units are installed in the main patch panel and sub-patch panels. When the patch cord connection status on the patch panel changes, the status indication and detection verification of the patch cord are directly executed in the control unit. This eliminates the need for the scanner to scan and identify multiple ports in the traditional electronic work order process, and reduces the communication complexity during the patch cord switching process between multiple patch panels. As a result, the control efficiency is greatly improved while ensuring the accuracy of the electronic work order. Attached Figure Description

[0045] Figure 1 This is a schematic diagram of the specific structure of the electronic patch panel according to an embodiment of this application;

[0046] Figure 2 This is an exploded view of the electronic patch panel structure according to an embodiment of this application;

[0047] Figure 3 This is an exploded view of the electronic patch panel structure according to an embodiment of this application;

[0048] Figure 4 This is a schematic diagram of the structure of the "electronic antenna 210" in the electronic patch panel of an embodiment of this application;

[0049] Figure 5 This is a structural schematic diagram of the "mounting bracket 130" in the electronic patch panel of this application embodiment;

[0050] Figure 6 This is a schematic diagram of the structure of the "transition bracket 240" in the electronic patch panel of this application embodiment;

[0051] Figure 7 This is an enlarged structural diagram of the "trigger element 230" portion in the electronic patch panel of an embodiment of this application;

[0052] Figure 8 This is a schematic diagram of the chip jumper structure in an embodiment of this application;

[0053] Figure 9 This is a schematic diagram of the networking system according to an embodiment of this application;

[0054] Figure 10 This is a schematic diagram of the networking system according to an embodiment of this application;

[0055] Figure 11This is a schematic diagram of the networking system according to an embodiment of this application;

[0056] Figure 12 This is a schematic diagram of the electrical network system according to an embodiment of this application;

[0057] Figure 13 This is a schematic diagram of the electronic networking system according to an embodiment of this application;

[0058] Figure 14 This is a flowchart illustrating the electronic networking control method according to an embodiment of this application;

[0059] Figure 15 This is a flowchart illustrating the electronic networking control method according to an embodiment of this application;

[0060] Figure 16 This is a flowchart illustrating the electronic work order control method for a network system according to an embodiment of this application.

[0061] Figure 17 This is a flowchart illustrating the electronic work order control method for a network system according to an embodiment of this application.

[0062] Figure 18 This is a flowchart illustrating the electronic work order control method for a network system according to an embodiment of this application.

[0063] Figure 19 This is a flowchart illustrating the electronic work order control method for a network system according to an embodiment of this application.

[0064] Figure Labels

[0065] Main patch panel - A1, Sub-patch panel - A2, Patch panel body - 100, Base plate - 110, Fixing lug - 120, Mounting bracket - 130, Main frame body - 131, First recess - 132, Positioning slot - 133, Antenna system - 200, Electronic antenna - 210, Antenna board - 211, Micro switch - 212, Sensing contact - 213, Reinforcing plate - 220, Trigger - 230, Slide plate - 231, Abutment groove - 232, Sensing protrusion - 233, Transition bracket - 240, Bracket body - 241, Second recess - 242, Slide groove - 243, Detection hole - 244, Identification strip - 250, Cover plate - 260, Management server - 300, Scanner - 400, Jumper plug - 510, Sensing pin - 520. Detailed Implementation

[0066] The technical solutions of the embodiments of this application will be clearly described below with reference to the accompanying drawings. Obviously, the described embodiments are only some, not all, of the embodiments of this application. All other embodiments obtained by those skilled in the art based on the embodiments of this application are within the scope of protection of this application.

[0067] The terms "first," "second," etc., used in the specification and claims of this application are used to distinguish similar objects and not to describe a specific order or sequence. It should be understood that such use of data can be interchanged where appropriate so that embodiments of this application can be implemented in orders other than those illustrated or described herein, and the objects distinguished by "first," "second," etc., are generally of the same class and the number of objects is not limited; for example, a first object can be one or more. Furthermore, in the specification and claims, "and / or" indicates at least one of the connected objects, and the character " / " generally indicates that the preceding and following objects are in an "or" relationship.

[0068] The electronic work order control method for a networking system provided in this application will be described in detail below with reference to the accompanying drawings, through specific embodiments and application scenarios.

[0069] This application provides an electronic patch panel, such as... Figures 1 to 2 As shown, it includes an antenna system 200 and a wiring frame 100 for mounting the antenna system 200.

[0070] The patch panel 100 is provided with at least one port, and the antenna system 200 is provided with an intelligent information unit coupled to the port on the patch panel 100. The intelligent information unit is used to scan the port on the patch panel body 11 to obtain the jumper connection information of the port on the patch panel 100.

[0071] like Figure 3 As shown, the antenna system 200 includes a reinforcing plate 220 fixedly mounted on the patch panel 100. The intelligent information unit includes an electronic antenna 210 fixedly mounted on the end face of the reinforcing plate 220 away from the patch panel 100. The antenna system 200 also includes a transition bracket 240 fixedly mounted on the side of the electronic antenna 210 away from the reinforcing plate 220 and fixedly connected to the patch panel 100. An identification strip 250 is fixedly mounted on the end face of the transition bracket 240 away from the reinforcing plate 220. The identification strip 250 is used to mark the position and number of the port on the patch panel 100. A cover plate 260 fixedly connected to the transition bracket 240 is provided on the side of the identification strip 250 away from the transition bracket 240. The cover plate 260 is made of transparent material and is used to protect the identification strip 250 and display the identification content of the identification strip 250.

[0072] In this embodiment, the aforementioned electronic patch panel is used, and the intelligent information unit detects the patch cord connection status information of the port in real time. By directly detecting the patch cord connection status of the port on the electronic patch panel, an external scanner can be eliminated, reducing equipment costs.

[0073] Understandably, the reinforcing plate 220 is mainly used to enhance the overall strength of the electronic antenna 210, and it can be made of bent iron or other rigid materials.

[0074] In a preferred embodiment, such as Figure 3 , Figure 4 As shown, the electronic antenna 210 includes an antenna plate 211 and a micro switch 212 disposed on the antenna plate 211. Multiple micro switches 212 are disposed on the antenna plate 211 and correspond to the port positions on the patch panel 100. When a jumper is connected to a port on the patch panel 100, the micro switch 212 can be triggered, thereby obtaining the jumper connection status of the port on the patch panel 100 through the triggering result of the micro switch 212.

[0075] The intelligent information unit also includes multiple triggers 230 located between the electronic antenna 210 and the transition bracket 240. The triggers 230 are located at the corresponding positions of the ports on the patch panel 100 and can trigger the micro switch 212 at the corresponding positions under the action of the jumper wire connected to the port.

[0076] The intelligent information unit also includes an indicator light set on the label strip 250 and coupled to the electronic antenna 210. The indicator light can output different types (different colors or different flashing patterns) of indicator light based on the jumper status of the port on the patch panel 100, thereby indicating or warning the jumper status.

[0077] It is understandable that the indicator light can be set in a manner not limited to the one mentioned above. It can also be set directly on the patch panel 100 or the transition bracket 240, as long as it can display the status of the port jumper. This will not be elaborated on here.

[0078] In a preferred embodiment, such as Figure 3 As shown, the patch panel 100 includes a base plate 110 and a mounting bracket 130 and a fixing ear 120 fixedly mounted on the base plate 110. The mounting bracket 130 is used to connect the reinforcing plate 220 and has multiple ports. The reinforcing plate 220 is fixedly mounted on the fixing ear 120 by bolts.

[0079] In a preferred embodiment, such as Figure 5 As shown, the mounting bracket 130 includes a main frame 131. The main frame 131 has a positioning groove 133 at the port position for cooperating with the trigger 230. The main frame 131 has a first groove 132 on the end face away from the base plate 110 that can be engaged with the reinforcing plate 220.

[0080] like Figure 6 , Figure 7As shown, the transition bracket 240 includes a bracket body 241. The bracket body 241 has a sliding groove 243 that can slide and connect with the trigger 230 at the corresponding position of the trigger 230. The bracket body 241 has a second groove 242 that can be embedded with the identification strip 250 on the end face away from the wiring frame 100.

[0081] like Figure 7 As shown, the trigger 230 includes a slide plate 231 slidably disposed in the slide groove 243. A groove 232 is provided through the slide plate 231. A micro switch 212 at the corresponding position on the antenna plate 211 is located in the groove 232 and its trigger end abuts against the inner wall of the corresponding side of the groove 232. A sensing protrusion 233 embedded in the positioning groove 133 at the corresponding position is also fixedly provided on the slide plate 231. When a jumper is inserted into the port of the mounting bracket 130, the jumper abuts against the sensing protrusion 233 at the corresponding port position. The slide plate 231 slides in the slide groove 243 under the action of the jumper. At the same time, the inner wall of the groove 232 abuts against the sensing end of the micro switch 212 at the corresponding position. The micro switch 212 is triggered to obtain the jumper connection status at the port position.

[0082] It is understandable that the sliding direction of the slide plate 231 in the slide 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 an elastic element, when the port jumper is released, the trigger 230 can automatically reset under the elastic force of the sensing end of the micro switch 212.

[0083] In a preferred embodiment, such as Figures 1 to 3 As shown, the patch panel 100 has 24 ports, and there are 24 microswitches 212 and triggers 230 corresponding to the 24 ports. There are four transition brackets 240, each corresponding to 6 ports, which reduces the processing difficulty and facilitates disassembly and maintenance of local faults.

[0084] In a preferred embodiment, the intelligent information unit further includes a component disposed on the electronic antenna 210:

[0085] DC socket, used for powering electronic patch panels, uses low-power chips and 5V1A power supply;

[0086] A voltage regulator chip is located at the corresponding position in the DC socket and is used to regulate the voltage of the power supply.

[0087] The main control chip is used to sense the jumper positions of the ports and to record and output the port jumper connection information.

[0088] Multiple sensing contacts 213 are provided and are located at corresponding positions on the port of the wiring frame 100. They are connected to the main control chip and used to couple the chip jumper to the main control chip.

[0089] The Type-C interface is coupled to the main control chip and is used for inputting or updating programs. It can also connect to mobile software to view and control the electronic patch panel port information.

[0090] The dual-port RJ45 socket is used for cascading multiple electronic patch panels and for PoE power supply. The RJ45 socket has 8 pins, of which 6 pins are used for data transmission and 2 pins are used for power supply.

[0091] Among them, any one electronic patch panel can be powered by a DC power supply after being plugged into a DC power supply through a DC socket, and up to 11 electronic patch panels can be powered by PoE through a dual-port RJ45 socket.

[0092] Jumpers are divided into ordinary jumpers and chip jumpers, such as... Figure 8 As shown, the chip jumper includes a jumper plug portion 510 and a sensing pin 520 disposed on the jumper plug portion 510. The jumper plug portion 510 contains an information chip, and the sensing pin 520 is connected to the information chip in the jumper plug portion 510. Ordinary jumpers do not have an information chip and a corresponding sensing pin 520.

[0093] like Figure 4 As shown, a detection hole 244 is provided on the bracket body 241 at the position corresponding to 213. The sensing pin 520 on the chip jumper can establish a connection with the sensing contact 213 by inserting into the detection hole 244, that is, the chip jumper can be connected to the main control chip. At this time, the main control chip can read the jumper connection information of the chip jumper, thereby realizing the monitoring of the port status.

[0094] It is understandable that both chip jumpers and ordinary jumpers can trigger micro switch 212 after being inserted into the port. However, the triggering result of micro switch 212 is only responsible for the jumper connection of the port and cannot determine the specific jumper type. The jumper type is directly read and determined by the main control chip through sensing contact 213.

[0095] In this embodiment, the above-mentioned electronic patch panel is used, and an independent main control chip is designed in each intelligent information unit. The main control chip scans the jumper connection status of each port of the electronic patch panel in real time. Since a single main control chip only needs to manage 24 ports, the scanning speed is greatly improved.

[0096] In a preferred embodiment, the intelligent information unit further includes a network port chip and / or a crystal oscillator and a communication chip disposed on the electronic antenna 210 and located at the corresponding position of the main control chip.

[0097] Understandably, the network port chip uses the TCP / IP protocol to connect to the management server 300, while the communication chip is mainly used for cascading between multiple electronic patch panels.

[0098] In a preferred embodiment, the intelligent information unit further includes a component disposed on the electronic antenna 210:

[0099] The logic chip has multiple components, and each logic chip is coupled to indicator lights at four port positions. It is used to control the corresponding indicator lights to light up based on the port jumper connection information output by the main control chip.

[0100] The patch panel 100 has 24 ports and 6 logic chips. The 6 logic chips are located at the indicator lights at positions 2, 6, 10, 14, 18 and 22 respectively.

[0101] This application provides a networking system, such as... Figure 9 As shown, it includes a main patch panel A1 and a management server 300 connected to the main patch panel A1, wherein the main patch panel A1 adopts the above-mentioned electronic patch panel structure.

[0102] The intelligent information unit of the main patch panel A1 includes a micro switch 212 for detecting the connection status of port jumpers and a sensing contact 213 for detecting and judging ordinary jumpers and chip jumpers. It also includes a network port chip and a communication chip.

[0103] The main patch panel A1 can be directly connected to the management server 300 for networking via a dual-port RJ45 socket. It is plug-and-play and offers flexible and convenient networking options.

[0104] In this embodiment, the above-mentioned networking system adopts a two-layer architecture of electronic patch panel and management server 300, eliminating the need for additional scanner 400. It can detect both ordinary jumpers and chip jumpers, reducing the system's operating costs and making the networking more flexible.

[0105] In a preferred embodiment, such as Figure 10 As shown, multiple main patch panels A1 are connected in series. One of the main patch panels A1 is directly connected to the management server 300 through a dual-port RJ45 socket, thus forming a network.

[0106] Understandably, one of the main patch panels A1 is connected to the power supply via a DC socket, while the other main patch panels A1 are connected in series via dual-port RJ45 sockets and powered via PoE.

[0107] In this embodiment of the application, the above-mentioned networking system is adopted, and the networking is achieved by connecting multiple main patch panels A1 in series. Each electronic patch panel is independent. When the equipment fails, only the current equipment is damaged, thereby reducing the number of fault nodes. Since the scanner 400 is not added, the problem of all electronic patch panels connected to it becoming unusable due to the failure of the scanner 400 is avoided.

[0108] In a preferred embodiment, such as Figure 11 As shown, the main patch panel A1 has multiple units, each connected to the scanner 400 via a dual-port RJ45 socket. The scanner 400 is directly connected to the management server 300, thus forming a network.

[0109] In this embodiment, the above-mentioned networking system is adopted, using a traditional three-layer architecture of electronic patch panel, management server 300, and scanner 400. Since the main control chip scans 24 ports on a single main patch panel A1, the scanner 400 can directly obtain port status information on each port through the main control chips on multiple main patch panels A1, which greatly reduces the scanning volume of the scanner 400 and thus improves the scanning speed.

[0110] The network system also includes radar sensors. The network system operates when someone is present, and enters standby mode when the radar sensors detect no one is operating it, thereby increasing the overall lifespan of the network system.

[0111] The network system also includes a visual sensing unit. When there is an unauthorized operation in the network system, the visual sensing unit will take a picture or record a video and send it to the management server 300, thereby realizing the monitoring and recording of illegal operations.

[0112] This application also provides a networking system, such as... Figure 12 As shown, it includes a main patch panel A1, a sub-patch panel A2, and a management server 300 connected to the main patch panel A1. The main patch panel A1 and the sub-patch panel A2 adopt the above-mentioned electronic patch panel structure.

[0113] The intelligent information units of the main patch panel A1 and the sub-patch panel A2 include a micro switch 212 for detecting the connection status of port jumpers and a sensing contact 213 for detecting and judging ordinary jumpers and chip jumpers.

[0114] The main distribution frame A1 includes a network port chip and a communication chip, while the sub-distribution frame A2 does not have a network port chip, but only a communication chip.

[0115] The main patch panel A1 and the sub-patch panel A2 are connected in series via a dual-port RJ45 socket. One of the main patch panels A1 is directly connected to the management server 300 via a dual-port RJ45 socket, thus forming a network.

[0116] Understandably, one of the main patch panels A1 or sub-patch panels A2 is connected to the power supply via a DC socket, while the other main patch panels A1 or sub-patch panels A2 are powered via PoE through a dual-port RJ45 socket.

[0117] It is understandable that, since the scanner 400 is not installed and the main patch panel A1 is equipped with a network port chip, the main patch panel A1 can connect to the management server 300. The main patch panel A1 and the sub-patch panel A2 communicate with each other through a communication chip. However, the sub-patch panel A2 does not contain a network port chip, so it cannot connect to the management server 300 independently.

[0118] Understandably, the main patch panel A1 or the sub-patch panel A2 can also be configured to contain only the micro switch 212 and omit the sensing contact 213. In this case, the connection status of the port jumper can be obtained through the micro switch 212, but it cannot distinguish and judge ordinary jumpers or chip jumpers.

[0119] It is understandable that the main patch panel A1 or the sub-patch panel A2 can also be set to contain only the sensing contact 213 and omit the micro switch 212. In this case, the patch panel can only obtain the port connection information of the chip jumper, which is suitable for connection scenarios of a single chip jumper.

[0120] In this embodiment, the above-mentioned networking system is adopted, and the main patch panel A1 and the sub-patch panel A2 are selected to realize the detection of different types of patch cords, which increases the flexibility of networking while controlling costs.

[0121] In a preferred embodiment, such as Figure 13 As shown, the sub-distribution frame A2 has multiple sub-distribution frames, each connected to the scanner 400 via a dual-port RJ45 socket. The scanner 400 is directly connected to the management server 300, thus forming a network.

[0122] Understandably, although the sub-patch panel A2 does not contain a network port chip, it can connect to the management server 300 through the scanner 400. The scanner 400 can directly obtain the port status information of each port through the main control chip on multiple sub-patch panels A2, which greatly reduces the amount of data scanned by the scanner 400 and thus improves the scanning speed.

[0123] This application also provides an electronic networking control method, such as... Figure 14 As shown, it includes:

[0124] S1. When a jumper is inserted into the main patch panel, the corresponding port outputs the first port change information to the main patch panel control unit.

[0125] S2. After receiving the first port change information, the main 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 main distribution frame control unit.

[0126] S3. After receiving the port ID read / write result, the main distribution frame control unit outputs the second port change information to the management server.

[0127] S4. After receiving the second port change information, the management server outputs the first instruction information to the main patch panel control unit. Upon receiving the first instruction information, the main patch panel control unit outputs port information to the main patch panel control unit.

[0128] S5. 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.

[0129] In step S1, the first port change information is specifically the sensing information generated by the micro switch on the main distribution frame based on the jumper insertion trigger.

[0130] In step S2, after the main patch panel control unit receives the first port change information, it obtains the change status of the main patch panel port and outputs a port ID read / write command to the port whose jumper connection status has changed. This controls the corresponding port to perform a scan of the jumper type. The scan result can determine whether the jumper is a normal jumper or a chip jumper. Based on the scan result, the main patch panel control unit outputs the port ID read / write result. It can be understood that the port ID read / write result includes two cases: case one is that the jumper tag ID number is obtained, in which case the jumper type is determined to be a chip jumper; case two is that the jumper tag ID number is not obtained, in which case the jumper type is determined to be a normal jumper.

[0131] In step S3, after the main patch panel control system receives the port ID read / write result, it outputs the second port change information to the management server. The second port change information is used to inform the management server of the port jumper change, thereby triggering subsequent control commands from the management server.

[0132] In step S4, upon receiving the first instruction information, the main patch panel control unit outputs port information to the main patch panel control unit. The port information includes the change port number and jumper type. If the jumper type is a chip jumper, it also includes the corresponding jumper tag ID number.

[0133] In step S5, after receiving the port information, the management server compares it with the preset standard library. If there is a discrepancy in the jumper type or jumper label ID number, it outputs a warning command to the electronic networking system; otherwise, it outputs an approval command. The electronic networking system executes the corresponding instruction based on the instruction output by the management server.

[0134] In this embodiment, the aforementioned electronic networking control method directly scans and acquires the status information of port jumpers in the main patch panel control unit. After receiving instruction information from the management server, it sends the port information to the management server. No scanner is required. Upon acquiring the port information, the management server can directly determine the legality of the jumper connection and display this status through the electronic networking system. This method reduces communication between the port and the management server, improves the upload speed of port information, and enables the identification of ordinary jumpers and chip jumpers, as well as connection legality indication, thereby enhancing the visualization of electronic networking control.

[0135] In a preferred embodiment, a regular jumper is inserted into the main 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 main patch panel MCU. The main patch panel MCU recognizes that a jumper has been inserted, sends a port ID read / write command to the corresponding port, and after obtaining the port ID read / write result, finds that no jumper tag ID number is returned, thus recognizing it as a regular jumper insertion.

[0136] The main distribution frame MCU reports port change information to the management server via the network port. After receiving the port change information, the management server sends a command message to the main distribution frame MCU via the network port. The main distribution frame MCU receives the network port interrupt and reports the port information of the corresponding port.

[0137] After receiving the port information, the management server identifies it as a normal patch cord insertion and generates an illegal insertion alarm, which is displayed on the main UI interface. At the same time, the alarm is sent to the main patch panel MCU via the network port. After receiving the alarm command, the main patch panel MCU parses the port number in the alarm and writes it to the display screen via the SPI bus. The alarm information is displayed on the screen, and the red LED indicator of the corresponding port is lit up.

[0138] In a preferred embodiment, a chip jumper is inserted into the main patch panel, thereby triggering a microswitch to change from high to low, which in turn triggers a falling edge external interrupt at the corresponding port of the main patch panel MCU. The main patch panel MCU recognizes that a jumper has been inserted, sends a port ID read / write command to the corresponding port, and obtains the jumper tag ID number of the corresponding port after obtaining the port ID read / write result, thus identifying it as a chip jumper.

[0139] The main distribution frame MCU reports port change information to the management server via the network port. After receiving the port change information, the management server sends a command message to the main distribution frame MCU via the network port. The main distribution frame MCU receives the network port interrupt and reports the port information of the corresponding port.

[0140] After receiving the port information, the management server identifies it as a chip jumper insertion, extracts the port number and the corresponding jumper tag ID number, and compares it with the jumper tag ID numbers in the standard library pre-stored on the management server. If a discrepancy is found, an illegal insertion alarm is generated and displayed on the main UI interface. At the same time, an alarm is sent to the main patch panel MCU via the network port. After receiving the alarm command, the main patch panel MCU parses the port number and writes it to the display screen via the SPI bus, displaying the alarm information on the screen. Simultaneously, the red LED indicator of the corresponding port lights up.

[0141] This application also provides an electronic networking control method, such as... Figure 15 As shown, it includes:

[0142] 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.

[0143] 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.

[0144] 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.

[0145] 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.

[0146] S5. After receiving the port information, the main distribution frame control unit outputs the third port change information to the management server.

[0147] 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.

[0148] 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.

[0149] 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.

[0150] 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.

[0151] 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.

[0152] The sub-distribution frame MCU sends port change information to the main distribution frame MCU. The main distribution frame MCU receives a serial port interrupt, extracts the information and identifies it as a port change. Then, it sends a command message through the serial port to the sub-distribution frame MCU to report the changed port number. The sub-distribution frame MCU receives a serial port interrupt and reports the port number of the ordinary jumper inserted through the serial port. The main distribution frame MCU receives a serial port interrupt, extracts the port information from the data, and reports the port change information to the management server through the network port. After receiving the port change information, the management server sends a command message to the main distribution frame MCU through the network port. The main distribution frame MCU receives a network port interrupt and reports the changed port information.

[0153] After receiving the port information, the management server identifies it as a normal patch cord insertion and generates an illegal insertion alarm, which is displayed on the main UI interface. At the same time, it sends the alarm to the main patch panel MCU via the network port. After receiving the alarm command, the main patch panel MCU writes it to the display screen via the SPI bus and displays the alarm information on the screen. Simultaneously, it sends the alarm to the corresponding sub-patch panel MCU via the serial port. After receiving the alarm information, the sub-patch panel MCU parses the port number in the alarm and lights up the red LED indicator of the corresponding port.

[0154] In a preferred embodiment, a chip jumper is inserted into the sub-patch panel, thereby triggering a microswitch to change from high to low, which in turn triggers a falling edge external interrupt at the corresponding port of the sub-patch panel MCU. The sub-patch panel MCU recognizes the jumper insertion, sends a port ID read / write command to the corresponding port, and obtains the jumper tag ID number of the corresponding port after obtaining the port ID read / write result, thus identifying it as a chip jumper.

[0155] The sub-distribution frame MCU sends port change information to the main distribution frame MCU. The main distribution frame MCU receives a serial port interrupt, extracts the information and identifies it as a port change. Then, it sends a command message via serial port to the sub-distribution frame MCU to report the changed port number and jumper tag ID. The sub-distribution frame MCU receives a serial port interrupt and reports the insertion port number and jumper tag ID of the chip jumper via serial port. The main distribution frame MCU receives a serial port interrupt, extracts the port information from the data, and reports the port change information to the management server via Ethernet. After receiving the port change information, the management server sends a command message to the main distribution frame MCU via Ethernet. The main distribution frame MCU receives an Ethernet port interrupt and reports the changed port information.

[0156] After receiving the port information, the management server identifies it as a chip jumper insertion, extracts the port number and the corresponding jumper tag ID number, and compares it with the jumper tag ID numbers pre-stored in the standard library on the management server. If a discrepancy is found, an illegal insertion alarm is generated and displayed on the main UI interface. At the same time, an alarm is sent to the main patch panel MCU via the network port. After receiving the alarm command, the main patch panel MCU writes it to the display screen via the SPI bus and displays the alarm information on the screen. Simultaneously, it sends the alarm to the corresponding sub-patch panel MCU via the serial port. After receiving the alarm information, the sub-patch panel MCU parses the port number in the alarm and lights up the red LED indicator of the corresponding port.

[0157] This application also provides an electronic work order control method for a network system, such as... Figure 16 As shown, it includes:

[0158] S1. The management server sends electronic work order information to the main patch panel control unit. The main patch panel control unit extracts the changed port number and jumper tag ID number contained in the electronic work order information.

[0159] 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.

[0160] S3. When the first target port senses that the staff has unplugged the jumper cable of the first target port, it outputs the first feedback information to the main patch panel control unit.

[0161] S4. After receiving the first feedback information, the main patch panel control unit outputs the second indication information to the second target port on the main patch panel.

[0162] S5. When the second target port senses that the worker has inserted a jumper into the second target port, it outputs the second feedback information to the main patch panel control unit.

[0163] S6. After obtaining the second feedback information, the main patch panel control unit outputs a read / write command to the second target port on the main patch panel.

[0164] S7. After receiving the read / write command, the second target port scans the jumpers in the port and outputs the jumper scan results directly to the main patch panel control unit.

[0165] S8. The main patch panel control unit compares the acquired scanning results with the electronic work order information. If the comparison fails, it outputs an instruction to the second target port. The second target port issues an alarm after receiving the instruction. If the comparison results pass, it outputs a work order completion instruction to the management server.

[0166] It is understandable that the above steps are used for the repositioning of jumpers on the same main patch panel. The first and second indication information are specifically represented by the indicator lights on the corresponding ports, and their manifestation is not limited to changes in indicator light color or flashing pattern.

[0167] In a preferred embodiment, the user submits a work order through the software interface. The management server sends the corresponding electronic work order information to the main patch panel MCU via the network port. The main patch panel MCU parses the work order into a work order command and extracts the port number and jumper tag ID number contained in the work order. If both are changes to the main electronic patch panel port, the corresponding position before the port change is illuminated with a blue light. After the user unplugs the jumper at that port, the microswitch level changes from low to high, triggering a rising edge external interrupt on the corresponding port of the main patch panel MCU. The main patch panel MCU recognizes that the jumper has been unplugged and then illuminates the blue LED of the port to be inserted. When the user inserts a jumper into that port... After the line is inserted, the micro switch level changes from high to low, triggering a falling edge external interrupt on the corresponding port of the main patch panel MCU. The main patch panel MCU sends a jumper tag ID number reading command to that port to obtain the jumper tag ID number of that port. Then, it compares the jumper tag ID number with the jumper tag ID number contained in the work order. If they do not match, it means that the inserted jumper is not the one that was removed, thus triggering the alarm process of the corresponding port. If they match, it outputs a work order completion instruction to the management server. After receiving the work order completion instruction, the management server recognizes that the work order is completed. The position of the corresponding tag on the management server changes according to the work order, and the UI side displays the work order completion.

[0168] This application also provides an electronic work order control method for a network system, such as... Figure 17 As shown, it includes:

[0169] S1. The management server sends electronic work order information to the main patch panel control unit. The main patch panel control unit extracts the changed port number and jumper tag ID number contained in the electronic work order information.

[0170] 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.

[0171] S3. When the first target port senses that the staff has unplugged the jumper cable of the first target port, it outputs the first feedback information to the main patch panel control unit.

[0172] S4. After receiving the first feedback information, the main patch panel control unit outputs the second target information to the sub-patch panel control unit where the second target port is located.

[0173] S5. After receiving the second target information, the sub-distribution frame control unit outputs the second indication information to the second target port.

[0174] S6. When the second target port senses that the worker has inserted a jumper into the second target port, it outputs the second feedback information to the sub-patch panel control unit.

[0175] S7. After receiving the second feedback information, the sub-distribution frame control unit outputs a read / write command to the second target port.

[0176] S8. After receiving the read / write command, the second target port scans the jumpers in the port and outputs the jumper scan results directly to the sub-patch panel control unit.

[0177] S9. The sub-distribution frame control unit compares the acquired scanning results with the second target information. If the comparison fails, it outputs an instruction to the second target port. After receiving the instruction, the second target port issues an alarm. If the comparison results pass, it outputs completion information to the main distribution frame control unit. After receiving the completion information, the main distribution frame control unit outputs a work order completion instruction to the management server.

[0178] Understandably, the above steps are used to reposition patch cords on the main patch panel to the connected sub-patch panel. A main patch panel can connect to at least one sub-patch panel. Through the above steps, it is possible to indicate, detect, and monitor the process of patch cords being transferred from the main patch panel to the sub-patch panel.

[0179] In a preferred embodiment, the work order involves switching a jumper from a main patch panel port to a sub-patch panel port. First, the corresponding position on the main patch panel before the port change is illuminated with a blue light. After the worker removes the jumper, the microswitch level changes from low to high, triggering a rising edge external interrupt on the corresponding port of the main patch panel MCU. The main patch panel MCU recognizes that the jumper has been removed and then sends the work order command, the port number to be inserted, and the jumper tag ID to the corresponding sub-patch panel MCU via serial port. The corresponding sub-patch panel MCU receives the serial port interrupt, extracts the serial port information, identifies it as a work order, and simultaneously extracts the port number and jumper tag ID, illuminating the blue LED of the corresponding port. When the worker inserts the jumper into that port... When the microswitch level changes from high to low, it triggers a falling edge external interrupt on the corresponding port of the sub-distribution frame MCU. The sub-distribution frame sends a jumper tag ID number read command to obtain the jumper tag ID number of the port and compares it with the jumper tag ID number contained in the work order. If they do not match, it means that the inserted jumper is not the one that was removed, and the alarm process of the second target port is triggered. If they match, the completion information is returned to the main distribution frame MCU via the serial port. After receiving the completion information, the main distribution frame MCU uploads the work order completion instruction to the management server via the network port. After receiving the instruction, the management server recognizes the work order as completed, and the corresponding tag position on the management server changes according to the work order. At the same time, the UI side displays the work order completion.

[0180] This application also provides an electronic work order control method for a network system, such as... Figure 18 As shown, it includes:

[0181] S1. The management server sends electronic work order information to the main patch panel control unit. The main patch panel control unit extracts the changed port number and jumper tag ID number contained in the electronic work order information.

[0182] S2. The main distribution frame control unit outputs the first target information to the sub-distribution frame control unit corresponding to the first target port based on the electronic work order information.

[0183] S3. The sub-distribution frame control unit outputs first indication information to the first target port based on the first target information;

[0184] S4. When the first target port senses that the staff has unplugged the jumper of the first target port, it outputs the first feedback information to the sub-patch panel control unit.

[0185] S5. After receiving the first feedback information, the sub-distribution frame control unit outputs the first feedback information to the main distribution frame control unit.

[0186] S6. After receiving the first feedback information, the main patch panel control unit outputs the second indication information to the second target port on the main patch panel.

[0187] S7. When the second target port senses that the worker has inserted a jumper into the second target port, it outputs the second feedback information to the main patch panel control unit.

[0188] S8. After receiving the second feedback information, the main patch panel control unit outputs a read / write command to the second target port on the main patch panel.

[0189] S9. After receiving the read / write command, the second target port scans the jumpers in the port and outputs the jumper scan results directly to the main patch panel control unit.

[0190] S10. The main patch panel control unit compares the acquired scanning results with the electronic work order information. If the comparison fails, it outputs an instruction to the second target port. After receiving the instruction, the second target port issues an alarm. If the comparison results pass, it outputs a work order completion instruction to the management server.

[0191] It is understandable that the above steps are used to reposition the patch cords on the sub-distribution frame to the main distribution frame connected to it. A main distribution frame can connect to at least one sub-distribution frame. Through the above steps, it is possible to indicate, detect, and monitor the process of patch cords being transferred from the sub-distribution frame to the main distribution frame.

[0192] This application also provides an electronic work order control method for a network system, such as... Figure 19 As shown, it includes:

[0193] S1. The management server sends electronic work order information to the main patch panel control unit. The main patch panel control unit extracts the changed port number and jumper tag ID number contained in the electronic work order information.

[0194] S2. The main distribution frame control unit outputs the first target information to the first sub-distribution frame control unit corresponding to the first target port based on the electronic work order information.

[0195] S3. The first sub-distribution frame control unit outputs first indication information to the first target port based on the first target information;

[0196] S4. When the first target port senses that the staff has unplugged the jumper cable of the first target port, it outputs the first feedback information to the first sub-patch panel control unit.

[0197] S5. After receiving the first feedback information, the first sub-distribution frame control unit outputs the first feedback information to the main distribution frame control unit.

[0198] S6. After obtaining the first feedback information, the main patch panel control unit outputs the second target information to the second sub-patch panel control unit where the second target port is located.

[0199] S7. After receiving the second target information, the second sub-distribution frame control unit outputs the second indication information to the second target port.

[0200] S8. When the second target port senses that the worker has inserted a jumper into the second target port, it outputs the second feedback information to the second sub-patch panel control unit.

[0201] S9. After obtaining the second feedback information, the second sub-distribution frame control unit outputs a read / write command to the second target port.

[0202] S10. After receiving the read / write command, the second target port scans the jumpers in the port and outputs the jumper scan results directly to the second sub-patch panel control unit.

[0203] S11. The second sub-distribution frame control unit compares the acquired scanning results with the second target information. If the comparison fails, it outputs an instruction to the second target port. After receiving the instruction, the second target port issues an alarm. If the comparison results pass, it outputs completion information to the main distribution frame control unit. After receiving the completion information, the main distribution frame control unit outputs a work order completion instruction to the management server.

[0204] Understandably, the above steps are used for patch cord repositioning on two sub-distribution frames. The two sub-distribution frames are connected to the same main distribution frame. Through the above steps, it is possible to indicate, detect, and monitor the process of patch cord transfer between the two sub-distribution frames.

[0205] In this embodiment, the above-mentioned electronic work order control method for network systems is adopted. Control units are set in the main patch panel and the sub-patch panel. When the jumper connection status on the patch panel changes, the jumper status indication and detection verification are directly executed in the control unit. This eliminates the need for the scanner to scan and identify multiple ports in the traditional electronic work order process, reduces the communication complexity during the jumper switching process between multiple patch panels, and thus greatly improves control efficiency while ensuring the accuracy of the electronic work order.

[0206] It should be noted that, in this document, the terms "comprising," "including," or any other variations thereof are intended to cover non-exclusive inclusion, such that a process, method, article, or apparatus that comprises a list of elements includes not only those elements but also other elements not expressly listed, or elements inherent to such a process, method, article, or apparatus. Without further limitations, an element defined by the phrase "comprising one..." does not exclude the presence of other identical elements in the process, method, article, or apparatus that includes that element. Furthermore, it should be noted that the scope of the methods and apparatuses in the embodiments of this application is not limited to performing functions in the order shown or discussed, but may also include performing functions substantially simultaneously or in the reverse order, depending on the functions involved. For example, the described methods may be performed in a different order than described, and various steps may be added, omitted, or combined. Additionally, features described with reference to certain examples may be combined in other examples.

[0207] The embodiments of this application have been described above with reference to the accompanying drawings. However, this application is not limited to the specific embodiments described above. The specific embodiments described above are merely illustrative and not restrictive. Those skilled in the art can make many other forms under the guidance of this application without departing from the spirit and scope of the claims, and all of these forms are within the protection scope of this application.

Claims

1. A network system electronic work order control method, characterized by, Used for main patch panel, which is an electronic patch panel. The electronic patch panel includes an antenna system and a patch panel body for installing the antenna system. The antenna system is equipped with an intelligent information unit coupled to the port on the patch panel body. The intelligent information unit is used to scan the port on the patch panel body to obtain the jumper connection information of the port on the patch panel body. The intelligent information unit includes: an electronic antenna; a trigger element located at the corresponding position of the port on the patch panel and capable of triggering a micro switch at the corresponding position under the action of the port connection jumper; an indicator light; a DC socket; a voltage regulator chip; a main control chip used to sense the jumper position of the port and record and output the port jumper connection information; a sensing contact located at the corresponding position of the port on the patch panel, connected to the main control chip, used to couple the chip jumper to the main control chip; a Type-C interface and a dual-port RJ45 socket; The micro switch in the electronic patch panel is used to determine the jumper connection status. Jumpers are divided into ordinary jumpers and chip jumpers. Chip jumpers include an information chip, while ordinary jumpers do not have an information chip or a corresponding sensing pin. The method includes; Obtain electronic work order information, and output first indication information to the first target port based on the electronic work order information; Upon receiving the first feedback information from the first target port, the system outputs second indication information to the second target port, or outputs second target information to the sub-patch panel control unit. The electronic work order information includes the change port number and jumper tag ID number; After outputting the second indication information to the second target port, the method further includes: outputting a read / write command to the second target port upon receiving the second feedback information from the second target port; A judgment result is formed based on the reading result of the second target port and the electronic work order information; Based on the judgment result, an instruction is output to the second target port or a work order completion instruction is output to the management server; The reading result of the second target port includes the jumper tag ID number of the jumper corresponding to the second target port. The main patch panel includes a network port chip and a communication chip, while the sub-patch panel does not have a network port chip, but only a communication chip.

2. The network system electronic work order control method of claim 1, wherein, After outputting the second target information to the sub-distribution frame control unit, the process also includes: upon obtaining the completion information from the sub-distribution frame control unit, outputting a work order completion instruction to the management server.

3. A method for controlling electronic work orders in a networked system, characterized in that, Used for main patch panel, which is an electronic patch panel. The electronic patch panel includes an antenna system and a patch panel body for installing the antenna system. The antenna system is equipped with an intelligent information unit coupled to the port on the patch panel body. The intelligent information unit is used to scan the port on the patch panel body to obtain the jumper connection information of the port on the patch panel body. The intelligent information unit includes: an electronic antenna; a trigger element located at the corresponding position of the port on the patch panel and capable of triggering a micro switch at the corresponding position under the action of the port connection jumper; an indicator light; a DC socket; a voltage regulator chip; a main control chip used to sense the jumper position of the port and record and output the port jumper connection information; a sensing contact located at the corresponding position of the port on the patch panel, connected to the main control chip, used to couple the chip jumper to the main control chip; a Type-C interface and a dual-port RJ45 socket; The micro switch in the electronic patch panel is used to determine the jumper connection status. Jumpers are divided into ordinary jumpers and chip jumpers. Chip jumpers include an information chip, while ordinary jumpers do not have an information chip or a corresponding sensing pin. The method includes: acquiring electronic work order information, and outputting first target information to the first sub-distribution frame control unit based on the electronic work order information; Upon receiving the first feedback information from the first sub-patch panel control unit, the system outputs second indication information to the second target port or outputs second target information to the second sub-patch panel control unit. The electronic work order information includes the change port number and jumper tag ID number; After outputting the second indication information to the second target port, the method further includes: outputting a read / write command to the second target port upon receiving the second feedback information from the second target port; A judgment result is formed based on the reading result of the second target port and the electronic work order information; Based on the judgment result, an instruction is output to the second target port or a work order completion instruction is output to the management server; The reading result of the second target port includes the jumper tag ID number of the jumper corresponding to the second target port.

4. The electronic work order control method for a network system according to claim 3, characterized in that, After outputting the second target information to the second sub-distribution frame control unit, the process also includes: outputting a work order completion instruction to the management server upon obtaining the completion information from the second sub-distribution frame control unit.

5. A method for controlling electronic work orders in a networked system, characterized in that, Used for sub-distribution frames, which are electronic distribution frames. The electronic distribution frame includes an antenna system and a distribution frame body for installing the antenna system. The antenna system is equipped with an intelligent information unit coupled to the port on the distribution frame body. The intelligent information unit is used to scan the port on the distribution frame body to obtain the jumper connection information of the port on the distribution frame body. The intelligent information unit includes: an electronic antenna; a trigger element located at the corresponding position of the port on the patch panel and capable of triggering a micro switch at the corresponding position under the action of the port connection jumper; an indicator light; a DC socket; a voltage regulator chip; a main control chip used to sense the jumper position of the port and record and output the port jumper connection information; a sensing contact located at the corresponding position of the port on the patch panel, connected to the main control chip, used to couple the chip jumper to the main control chip; a Type-C interface and a dual-port RJ45 socket; The micro switch in the electronic patch panel is used to determine the jumper connection status. Jumpers are divided into ordinary jumpers and chip jumpers. Chip jumpers include an information chip, while ordinary jumpers do not have an information chip or a corresponding sensing pin. The method includes; The system outputs a first indication message to the first target port based on the first target information output by the main patch panel control unit, or outputs a second indication message to the second target port based on the second target information output by the main patch panel control unit. After outputting the first indication information to the first target port, the method further includes: upon receiving the first feedback information output by the first target port, outputting the first feedback information to the main patch panel control unit.

6. The electronic work order control method for a network system according to claim 5, characterized in that, After outputting the second indication information to the second target port, the method further includes: outputting a read / write command to the second target port upon receiving the second feedback information output by the second target port; A judgment result is formed based on the reading result of the second target port and the second target information; Based on the judgment result, an instruction is output to the second target port or a completion information is output to the main distribution frame control unit; The reading result of the second target port includes the jumper tag ID number of the jumper corresponding to the second target port.

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