Portable electric power communication multi-node data real-time monitoring device

Abstract

The utility model belongs to the electric power communication data monitoring technical field provides a portable electric power communication multi -node data real -time monitoring device, including the shell, through the hinge is hinged in the protective cover of shell rear side, the shell front side fixedly connected lock body, the protective cover top fixedly connected handle, the shell inner wall four weeks fixedly connected hexagonal hollow rod, hexagonal hollow rod connects inner shell, it is hollow regular hexagon structure. The seal cover and dust screen are arranged between the shell and the inner shell, the shell sides are provided with the heat dissipation fin, the inner shell is fixedly connected with the detector, the detector is integrated with the display screen, the data jack, the operation button and the knob. The utility model is high in portability, stable in structure, strong in environmental protection, can break through the traditional monitoring blind area, accurately locates the hidden danger, improves the monitoring efficiency and the trouble -shooting ability, and guarantees the electric power communication network availability.

Description

Technical Field

[0001] This utility model relates to the field of power communication data monitoring technology, and in particular to a portable power communication multi-node real-time data monitoring device. Background Technology

[0002] Power communication networks are a crucial support for the stable operation of modern power systems, and their real-time and accurate data monitoring is irreplaceable for ensuring grid security and improving operation and maintenance efficiency. With the deepening of the intelligent and digital transformation of power systems, traditional manual inspections and single-node data monitoring methods have revealed their limitations, failing to meet the needs for refined and real-time monitoring of the entire power communication network and the status of multiple nodes. The industry urgently needs new monitoring technologies that can overcome coverage blind spots, improve monitoring efficiency, and provide early warning of potential hazards.

[0003] To address this, various advanced power communication data monitoring technologies have been developed, such as multi-point synchronous monitoring using distributed optical fiber sensors. These technologies theoretically enable comprehensive perception of the operational status of power communication networks. However, applying these advanced technologies to actual field monitoring requires corresponding hardware equipment. While most existing power communication data monitoring equipment has made progress in functionality, it still has significant shortcomings in terms of physical form and adaptability to the field environment.

[0004] Specifically, in actual operation and maintenance scenarios of power communication networks, monitoring equipment often needs to be frequently moved and deployed between different locations. Currently available monitoring equipment is typically bulky and cumbersome, lacking specific portability optimizations. This makes equipment handling and relocation a physically demanding and inefficient task for maintenance personnel during field operations. Furthermore, the complex environment of power communication sites often involves dust, humidity, and the risk of accidental drops or collisions, placing extremely high demands on the protection level, structural strength, and durability of monitoring equipment. However, existing equipment generally lacks sufficient consideration for environmental adaptability, making it susceptible to damage to internal precision components due to external environmental influences, severely impacting its long-term reliability and stability.

[0005] Therefore, this utility model proposes a portable power communication multi-node data real-time monitoring device to address the shortcomings of existing technologies. Utility Model Content

[0006] In view of the shortcomings of existing portable power communication multi-node data real-time monitoring devices, such as insufficient portability, poor structural stability, and lack of good environmental protection capabilities, which make it difficult for the equipment to adapt to complex field operation environments, and the blind spots and low efficiency of traditional monitoring methods, this utility model aims to provide a portable power communication multi-node data real-time monitoring device with an improved structure that can effectively solve the above problems.

[0007] This utility model provides a portable power communication multi-node data real-time monitoring device, including: outer shell, hinge, protective cover, lock body, handle, hexagonal hollow rod, inner shell, sealing cover, dustproof net, heat dissipation fins, detector, display screen, data jack, operation buttons and knobs.

[0008] The outer shell serves as the main structure of the device, with a protective cover connected to its rear via hinges for opening and closing. A lock body is fixedly connected to the front of the outer shell, engaging with the protective cover to ensure secure locking when the device is closed. A handle is fixedly connected to the top of the protective cover's outer wall for easy carrying and movement. Hexagonal hollow rods are fixedly connected to the inner walls of the outer shell, with one side of each rod connected to the inner shell. These rods, with their hollow structure and regular hexagonal cross-section, provide stable support for the inner shell. A detector, the core functional module of the device, is fixedly connected to the inner walls of the inner shell. A sealing cover is fixedly connected between the top of the outer and inner shells, sealing the cavity formed between them. This cavity contains a dustproof mesh to prevent external dust from entering. Heat dissipation fins are located on both sides of the outer shell's outer wall to enhance heat dissipation. A display screen is integrated into the top of the detector's outer wall, displaying real-time monitoring data. A data jack is located on the top of the detector's outer wall, next to the display screen, for external data connection. Operation buttons are also integrated on the top of the detector for adjusting device parameters. A knob is integrated on the lower top of the detector's outer wall for operation control. Through the ingenious combination of these components, this device forms a compact and fully functional monitoring platform.

[0009] Preferably, the hexagonal hollow rod has a hollow structure. This hollow design allows the hexagonal hollow rod to effectively reduce its own weight while ensuring structural strength, thereby significantly reducing the overall weight of the entire device and greatly improving the portability of the device, making it convenient for maintenance personnel to move and deploy it in different sites.

[0010] Preferably, the cross-section of the hexagonal hollow rod is a regular hexagon. This geometry gives the hexagonal hollow rod excellent resistance to torsion and bending, providing a more robust and stable connection support between the outer shell and the inner shell, and enhancing the overall structural strength and impact resistance of the device in complex and harsh environments.

[0011] Preferably, the sealing cover is located at the top of the cavity formed between the outer shell and the inner shell. By tightly fitting the outer shell and the inner shell, it effectively isolates external moisture, liquids and harmful gases from entering the device, creating a stable and dry operating environment for the internal precision electronic components and ensuring the reliability of the equipment.

[0012] Preferably, the dustproof net has a mesh structure and is set inside the cavity formed between the outer shell and the inner shell. Its fine mesh design can effectively filter fine particulate matter in the air and prevent dust and impurities from entering the core components such as the detector, thereby ensuring the long-term stable operation of the equipment, reducing maintenance needs and extending its service life.

[0013] Preferably, heat dissipation fins are disposed on both sides of the outer wall of the housing. These heat dissipation fins effectively conduct the heat generated by the detector and other heat-generating components during operation to the external environment by increasing the contact area between the housing and the surrounding air, thereby accurately controlling the internal operating temperature of the device and avoiding performance degradation or hardware damage caused by overheating.

[0014] Preferably, the detector is equipped with a module for realizing the synchronous monitoring function of multiple nodes of distributed optical cables. The module integrates dedicated hardware circuits and processing algorithms, which can synchronously collect and analyze data streams from multiple optical cable nodes in the power communication network, thereby realizing comprehensive and blind-spot-free monitoring of the entire optical cable link status.

[0015] Preferably, the detector is also equipped with a module for realizing intelligent operation and maintenance decision-making. The module has an advanced analysis engine and data model built in, which can perform high-speed comparison and in-depth analysis of real-time monitored power data with preset standard indicators, accurately identify abnormal patterns and potential hazards, and provide scientific decision support for operation and maintenance personnel.

[0016] Preferably, the detector is also equipped with a module for automated fiber optic cable jumper fault pre-processing. When the initial signs of fiber optic cable jumper faults are detected, the module can automatically trigger corresponding early warning or intervention measures based on preset logic or intelligent algorithms, effectively preventing the fault from escalating and improving the overall availability and resilience of the power communication network.

[0017] This utility model has the following beneficial effects:

[0018] 1. This utility model, by setting up an overall structure with a protective cover with a handle, a lock body, a hexagonal hollow rod, a sealing cover, and a dustproof net, solves the problems of insufficient portability, poor structural stability, and lack of good environmental protection capabilities of existing monitoring devices, and achieves the effect of improving device portability, ensuring structural strength, and providing comprehensive physical and environmental protection.

[0019] 2. This utility model solves the problems of large overall weight and insufficient structural stability of the device in the prior art by designing the hexagonal hollow rod as a hollow structure with a regular hexagonal cross-section, and achieves the effect of effectively reducing the overall weight of the device and significantly enhancing structural stability and impact resistance.

[0020] 3. This utility model solves the problem of heat generation from internal components not being effectively dissipated during long-term operation by opening heat dissipation fins on both sides of the outer shell, thus ensuring a suitable internal operating temperature, guaranteeing stable long-term operation of the equipment, and extending its service life. Attached Figure Description

[0021] Figure 1 This is a front perspective view of the portable power communication multi-node data real-time monitoring device proposed in this utility model;

[0022] Figure 2 This is a partial top view of the protective cover of the portable power communication multi-node data real-time monitoring device proposed in this utility model;

[0023] Figure 3 This is a partial structural cross-sectional view of the outer casing of the portable power communication multi-node data real-time monitoring device proposed in this utility model;

[0024] Figure 4 This is a partial structural cross-sectional view of the inner shell of the portable power communication multi-node data real-time monitoring device proposed in this utility model.

[0025] Legend:

[0026] 1. Outer shell; 2. Protective cover; 3. Hinge; 4. Handle; 5. Lock body; 6. Heat dissipation fins; 7. Hexagonal hollow rod; 8. Inner shell; 9. Sealing cover; 10. Dustproof mesh; 11. Detector; 12. Display screen; 13. Data jack; 14. Knob; 15. Operation button. Detailed Implementation

[0027] To make the objectives, technical solutions, and advantages of this utility model clearer, the technical solutions in the embodiments of this utility model will be clearly and completely described below with reference to the accompanying drawings. Obviously, the described embodiments are only a part of the embodiments of this utility model, and not all of them. All other embodiments obtained by those skilled in the art based on the embodiments of this utility model without creative effort are within the scope of protection of this utility model.

[0028] Example:

[0029] Please refer to Figures 1 to 4This utility model provides a portable real-time monitoring device for multi-node data in power communication, which aims to solve the problems of insufficient portability, poor structural stability and weak environmental protection capabilities of existing power communication data monitoring devices, while improving monitoring efficiency and fault handling capabilities.

[0030] like Figure 1 and Figure 2 As shown, the portable power communication multi-node data real-time monitoring device includes a housing 1 and a protective cover 2 hinged to the rear side of the housing 1 by a hinge 3. The housing 1, as the outermost part of the entire device, is mainly used to protect the internal components and provide a mounting base for other components. The protective cover 2 is used to cover and protect the internal components of the housing 1.

[0031] A lock body 5 is fixedly connected to the front side of the outer shell 1. The lock body 5 engages with the protective cover 2 to close and lock the device. A handle 4 is fixedly connected to the top of the outer wall of the protective cover 2 for easy access and carrying of the device. A hexagonal hollow rod 7 is fixedly connected to the inner wall of the outer shell 1. An inner shell 8 is fixedly connected to one side of the outer wall of the hexagonal hollow rod 7. The middle part of the hexagonal hollow rod 7 has a hollow structure, which has lightweight characteristics. The cross-section is a regular hexagon, which has good structural stability. The inner shell 8 serves as the carrier of the detector 11. The detector 11 is fixedly connected to the inner wall of the inner shell 8. A sealing cover 9 is fixedly connected between the top of the outer walls of the outer shell 1 and the inner shell 8. The sealing cover 9 is sealed inside the cavity formed between the outer shell 1 and the inner shell 8 to prevent external environmental substances from entering. The device is equipped with a dustproof net 10, which is a mesh structure used to prevent dust from entering the device. Heat dissipation fins 6 are provided on both sides of the outer wall of the outer shell 1 to increase the heat dissipation area inside the device and thus achieve effective heat dissipation. A display screen 12 is integrated on the top of the outer wall of the detector 11. The display screen 12 is used to display real-time power data. A data jack 13 is provided on the top of the outer wall of the detector 11 and next to the display screen 12. The data jack 13 is used to connect an external data cable. An operation button 15 is also integrated on the top of the detector 11. The operation button 15 is used to adjust the device data. A knob 14 is also integrated on the lower side of the top of the outer wall of the detector 11. The knob 14 is used to operate and control the detector 11.

[0032] Please refer to Figure 1 , Figure 3 and Figure 4 The hexagonal hollow rod 7 has a hollow structure and a regular hexagonal cross-section. The hexagonal hollow rod 7 is fixedly connected to the inner wall of the outer shell 1 around its perimeter. At the same time, the outer wall of the hexagonal hollow rod 7 is fixedly connected to the inner shell 8 on one side. Its function is to serve as the main connecting and supporting component between the outer shell 1 and the inner shell 8, providing the overall frame structure of the device. Due to its hollow nature, it effectively reduces the overall weight of the device, while the regular hexagonal design greatly enhances the stability of the connection and the structural strength.

[0033] Meanwhile, the inner shell 8 serves as the carrier of the detector 11, with the detector 11 fixedly connected to its inner walls. This structure, which securely connects the outer shell 1 and the inner shell 8 via hexagonal hollow rods 7, ensures the stability and reliability of the inner shell 8 and the detector 11 during device operation and transport. This multi-point fixed connection frame structure allows the device to withstand external impacts and vibrations while maintaining a lightweight design, ensuring the normal operation of the internal precision components.

[0034] The specific internal integrated circuits, sensor arrays, and signal processing units of the detector 11 used for power data monitoring within the device are well-known technologies in the field and will not be described in detail here.

[0035] As a preferred embodiment, the hexagonal hollow rod 7 has a hollow structure. This design allows the hexagonal hollow rod 7 to provide sufficient support strength while significantly reducing its own weight, thereby reducing the overall weight of the entire portable power communication multi-node data real-time monitoring device, making it easy to carry and deploy on site.

[0036] As a preferred embodiment, the cross-section of the hexagonal hollow rod 7 is a regular hexagon. This geometry has good torsional and bending resistance in engineering structures, providing additional stability and structural rigidity for the connection between the outer shell 1 and the inner shell 8, and enhancing the device's ability to resist external impacts in complex environments.

[0037] As a preferred embodiment, the sealing cover 9 is sealed at the top of the cavity formed between the outer shell 1 and the inner shell 8. Through its tight connection with the outer shell 1 and the inner shell 8, it effectively prevents external moisture, droplets and harmful gases from entering the device, ensuring a clean and stable operating environment for the internal precision electronic components.

[0038] As a preferred embodiment, the dustproof net 10 has a mesh structure and is fixedly connected to a suitable position inside the cavity formed between the outer shell 1 and the inner shell 8. The fine mesh can effectively filter dust and particles in the air, preventing them from entering the core components such as the detector 11, thereby extending the service life of the equipment and ensuring measurement accuracy.

[0039] In a preferred embodiment, heat dissipation fins 6 are disposed on both sides of the outer wall of the housing 1. These heat dissipation fins 6 effectively conduct the heat generated by the detector 11 and other heat-generating components inside the device to the external environment by increasing the contact area between the housing 1 and the surrounding air, thereby maintaining a suitable operating temperature inside the device and ensuring the stability and reliability of long-term operation.

[0040] As a preferred embodiment, the detector 11 is internally equipped with a module for realizing the synchronous monitoring function of multiple nodes of distributed optical cables. The module integrates the necessary hardware circuits and processing units, and can receive and process data streams from multiple optical cable nodes, perform synchronous analysis, realize comprehensive detection of power communication data, and break through the limitations of traditional single-point monitoring.

[0041] As a preferred implementation, the detector 11 is also equipped with a module for realizing intelligent operation and maintenance decision-making. The module includes a high-performance processor and memory, a preset or learnable standard index library, and is capable of high-speed analysis and comparison of real-time monitored power data. It can identify abnormal patterns through specific algorithms, thereby accurately locating potential hidden dangers and assisting in generating operation and maintenance decision-making suggestions.

[0042] As a preferred embodiment, the detector 11 is also equipped with a module for implementing automated fiber optic jumper fault pre-processing. The module can monitor the health status of the optical cable link in real time. When it detects the initial signs of a fiber optic jumper fault, it automatically triggers the corresponding pre-processing operation or alarm mechanism through a preset logic or machine learning model, effectively preventing the fault from escalating and improving the availability and reliability of the power communication network.

[0043] Working principle: When it is necessary to monitor power communication data in real time on site, the operator can easily pick up and carry the device to the work site through the handle 4. At this time, the protective cover 2 is closed to the outer shell 1 through the hinge 3, and is locked to the protective cover 2 through the lock body 5 to ensure the safety protection of the internal components of the device.

[0044] After the device is placed securely, the operator opens the protective cover 2. When the device starts working, the internal detector 11 and electronic components will generate heat. The heat dissipation fins 6 set on both sides of the outer wall of the outer shell 1 effectively dissipate the heat generated inside the device by increasing the contact area with the outside air, thus maintaining the stable operating temperature of the device. At the same time, in order to protect the internal precision components, a dustproof net 10 is set inside the cavity formed between the outer shell 1 and the inner shell 8. The mesh structure can effectively block the entry of external dust and ensure a clean internal environment. The sealing cover 9 fixedly connected between the top of the outer walls of the outer shell 1 and the inner shell 8 further seals the cavity between the two to prevent the intrusion of moisture or liquid.

[0045] The core of the device is the detector 11 fixedly connected in the inner shell 8. The inner wall of the outer shell 1 is stably connected to the inner shell 8 through hexagonal hollow rods 7. The hexagonal hollow rods 7 adopt a hollow structure, which significantly reduces the overall weight and facilitates the portability of the device. The regular hexagonal cross-section design gives the device extremely high structural stability and shock resistance, ensuring the safety and accuracy of the internal detector 11 during transportation and use.

[0046] The detector 11 has a built-in module for distributed optical cable multi-node synchronous monitoring. The module can simultaneously receive and process data from multiple optical cable nodes in the power communication network, breaking through the limitations of traditional single-point monitoring and realizing comprehensive perception of the entire optical cable link operation status. Through the intelligent operation and maintenance decision-making module, the power data acquired by the detector 11 in real time is analyzed and compared with preset standard indicators at high speed, accurately locating potential hidden dangers and assisting operation and maintenance personnel in making decisions. In addition, the automated fiber jumper fault pre-processing module can trigger early warning or perform pre-processing operations in a timely manner when a fault is detected, effectively preventing the accident from escalating and ensuring the availability of the power communication network.

[0047] During the monitoring process, the real-time power data acquired by the detector 11 will be displayed on the screen 12 in real time, so that the operator can intuitively understand the current network status. If it is necessary to connect to external devices or export data, it can be connected through the data jack 13. The operator can also set the parameters or select functions of the detector 11 through the operation button 15 and the knob 14 to achieve fine control of the monitoring process.

[0048] Through the synergistic effect of the above structure and functions, this portable power communication multi-node real-time data monitoring device solves the problems of insufficient portability, monitoring blind spots, and slow response speed in the existing technology, and realizes real-time, comprehensive, and intelligent monitoring of power communication data.

Claims

1. A portable real-time monitoring device for multi-node data in power communication, comprising: The outer casing (1) and the protective cover (2) hinged to the rear side of the outer casing (1) by a hinge (3); Its features are: A lock body (5) is fixedly connected to the front side of the outer shell (1), and the lock body (5) engages with the protective cover (2); A handle (4) is fixedly connected to the top of the outer wall of the protective cover (2); A hexagonal hollow rod (7) is fixedly connected to the inner wall of the outer shell (1) around the perimeter, and an inner shell (8) is fixedly connected to one side of the outer wall of the hexagonal hollow rod (7); A sealing cap (9) is fixedly connected between the top of the outer wall of the outer shell (1) and the outer wall of the inner shell (8); A dustproof net (10) is provided inside the cavity formed between the outer shell (1) and the inner shell (8); Heat dissipation fins (6) are provided on both sides of the outer wall of the outer shell (1); A detector (11) is fixedly connected around the inner wall of the inner shell (8); The top of the outer wall of the detector (11) is integrated with a display screen (12); A data jack (13) is provided on the top of the outer wall of the detector (11) and next to the display screen (12); The top of the detector (11) also integrates operation buttons (15); A knob (14) is also integrated on the lower side of the top of the outer wall of the detector (11).

2. The portable power communication multi-node real-time data monitoring device according to claim 1, characterized in that, The hexagonal hollow rod (7) has a hollow structure.

3. The portable power communication multi-node real-time data monitoring device according to claim 1, characterized in that, The cross-section of the hexagonal hollow rod (7) is a regular hexagon.

4. The portable power communication multi-node real-time data monitoring device according to claim 1, characterized in that, The sealing cap (9) is disposed in a cavity formed between the outer shell (1) and the inner shell (8).

5. A portable power communication multi-node real-time data monitoring device according to claim 1, characterized in that, The dustproof net (10) is a mesh structure and is located inside the cavity formed between the outer shell (1) and the inner shell (8).

6. The portable power communication multi-node real-time data monitoring device according to claim 1, characterized in that, The heat dissipation fins (6) are disposed on both sides of the outer wall of the outer shell (1) to increase the heat dissipation area inside the device.

7. A portable power communication multi-node real-time data monitoring device according to claim 1, characterized in that, The detector (11) is equipped with a module for realizing the function of synchronous monitoring of multiple nodes of distributed optical cable, and the module is used to detect power communication data.

8. A portable power communication multi-node real-time data monitoring device according to claim 7, characterized in that, The detector (11) is also equipped with a module for realizing intelligent operation and maintenance decision-making. The module can quickly analyze real-time data and standard indicators to locate potential hazards.

9. A portable power communication multi-node real-time data monitoring device according to claim 7, characterized in that, The detector (11) is also equipped with a module for implementing automated fiber optic jumper fault pre-processing, which can prevent the accident from escalating and improve the availability of the power communication network.

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