Land intelligent debugging platform for pcs system of multi-parameter real-time monitoring

Abstract

The utility model discloses a PCS system land intelligent debugging platform of many parameter real -time monitoring, including the box, the monitoring platform body of monitoring PCS system is installed in the box, the both ends of box are all through being equipped with the ventilation slot, the heat dissipation fan opposite with one ventilation slot is installed on the box, the air inlet frame opposite with another ventilation slot is installed on the box, install the frame in the air inlet frame, install the dust screen in the install frame. The utility model can gather the voltage, current, temperature and power etc. key operation data of PCS system in real time, accurately, solved the problem of single monitoring parameter in traditional monitoring method, comprehensively reflected the operation state of PCS system, and the heat dissipation fan can discharge hot air, reduce the temperature in the box, ensured the stable operation of monitoring platform body.

Description

Technical Field

[0001] This utility model relates to the field of energy monitoring technology, and in particular to a land-based intelligent commissioning platform for PCS system with real-time monitoring of multiple parameters. Background Technology

[0002] With the rapid development of renewable energy power generation technologies, power conversion systems (PCS) are playing an increasingly important role in power systems. PCS systems are responsible for converting direct current (DC) generated from renewable energy sources (such as solar and wind power) into alternating current (AC) and achieving interconnection with the power grid. During the operation of PCS systems, real-time monitoring of their operating status (such as voltage, current, temperature, and power) is crucial for ensuring the safe and stable operation of the system and improving energy conversion efficiency.

[0003] However, traditional PCS system monitoring methods often have the following shortcomings: Limited monitoring parameters: Traditional methods typically monitor only a few key parameters, making it difficult to comprehensively reflect the operating status of the PCS system. Natural heat dissipation through ventilation holes is insufficient, and in complex terrestrial environments, such as dusty environments, traditional monitoring equipment is easily affected by dust, leading to inaccurate monitoring data or equipment damage. Therefore, this application proposes a multi-parameter real-time monitoring intelligent terrestrial commissioning platform for PCS systems. Utility Model Content

[0004] The purpose of this utility model is to solve the above-mentioned technical problems by proposing a land-based intelligent debugging platform for PCS system with real-time monitoring of multiple parameters.

[0005] To achieve the above objectives, the present invention adopts the following technical solution:

[0006] A land-based intelligent commissioning platform for PCS system with real-time monitoring of multiple parameters includes a housing. The housing contains a monitoring platform body for monitoring the PCS system. Ventilation slots are provided at both ends of the housing. A cooling fan is installed on the housing opposite one of the ventilation slots. An air inlet frame is installed on the housing opposite the other ventilation slot. An installation frame is installed inside the air inlet frame, and a dust filter is installed inside the installation frame.

[0007] Preferably, the monitoring platform body includes a controller, a voltage sensor, a current sensor, a temperature sensor, and a power analyzer installed inside the enclosure. The voltage sensor, current sensor, temperature sensor, and power analyzer are connected to the controller, and the voltage sensor, current sensor, temperature sensor, and power analyzer collect the operating data of the PCS system in real time.

[0008] Preferably, the upper end of the box is provided with a cover plate, and a rectangular frame is fixed to the bottom of the cover plate, the rectangular frame being slidably connected to the inside of the box.

[0009] Preferably, the upper end of the air inlet frame is provided with a through groove, and the mounting frame passes through the through groove and is slidably connected to it.

[0010] Preferably, it further includes a limiting mechanism for limiting the mounting frame, the limiting mechanism including a magnetic plate fixed to the upper end of the mounting frame, and a magnetic strip fixed to the upper end of the air inlet frame, the magnetic strip abutting against the magnetic plate.

[0011] Preferably, the magnetic poles of the side of the magnetic strip opposite to the magnetic plate are reversed, and the magnetic strip is fixed to the upper end of the air inlet frame with glue.

[0012] Preferably, a rubber membrane is fixed to the outer wall of the mounting frame, and the rubber membrane slides against the inner wall of the air inlet frame and the inner wall of the through groove.

[0013] Preferably, the cover is fixed to the box body by four locking mechanisms.

[0014] Preferably, the locking mechanism includes a rotating block rotatably mounted on the housing, the rotating block being provided with a locking pin, and the outer wall of the housing and the outer wall of the cover being provided with arc-shaped grooves, the two arc-shaped grooves being located on the same circumference.

[0015] Preferably, a damping shaft is installed on the housing, the rotating block is fixed on the damping shaft, and the axis of the damping shaft coincides with the center of the circumference of the arc groove.

[0016] Compared with the prior art, the advantages of this utility model are as follows:

[0017] 1. The platform integrates multiple monitoring components such as voltage sensors, current sensors, temperature sensors, and power analyzers, enabling it to collect key operating data such as voltage, current, temperature, and power of the PCS system in real time and accurately. This solves the problem of single monitoring parameters in traditional monitoring methods and comprehensively reflects the operating status of the PCS system.

[0018] 2. Ventilation slots are provided at both ends of the enclosure, and a cooling fan is installed. When the temperature inside the enclosure is too high, the cooling fan can expel hot air, reducing the temperature inside the enclosure and ensuring the stable operation of the monitoring platform. A dust filter is installed inside the air inlet frame, which can effectively prevent dust, debris, etc. from entering the enclosure and protect the various components of the monitoring platform from contamination and damage.

[0019] 3. The magnetic adsorption limiting and rubber membrane sealing design ensure that the mounting frame and dust filter can remain stable and be easily pushed and pulled during the sliding process, which facilitates the cleaning and replacement of the dust filter and reduces the later maintenance costs.

[0020] 4. The design of the damping pivot, locking pin, and arc groove enables precise locking and unlocking between the cover and the cabinet, improving the stability and ease of operation of the locking mechanism. Users can easily lock or unlock the cover by simply turning the rotating block.

[0021] In summary, this invention can collect key operating data such as voltage, current, temperature, and power of the PCS system in real time and accurately, solving the problem of single monitoring parameters in traditional monitoring methods. It comprehensively reflects the operating status of the PCS system, and the cooling fan can exhaust hot air, reduce the temperature inside the enclosure, and ensure the stable operation of the monitoring platform itself. Attached Figure Description

[0022] Figure 1 This is a schematic diagram of the structure of the land-based intelligent debugging platform for the PCS system with real-time monitoring of multiple parameters proposed in Example 1;

[0023] Figure 2 This is a rear view of the land-based intelligent commissioning platform for the PCS system with multi-parameter real-time monitoring proposed in Example 1.

[0024] Figure 3 This is a split view of the cover plate in the land-based intelligent commissioning platform of the PCS system with multi-parameter real-time monitoring proposed in Example 1;

[0025] Figure 4 This is a schematic diagram of the structure of the mounting frame in the land-based intelligent debugging platform of the PCS system with multi-parameter real-time monitoring proposed in Example 1;

[0026] Figure 5 This is a schematic diagram of the structure of the land-based intelligent debugging platform for the PCS system with real-time monitoring of multiple parameters proposed in Example 2;

[0027] Figure 6 This is a schematic diagram of the structure of the land-based intelligent debugging platform for the PCS system with real-time monitoring of multiple parameters proposed in Example 3.

[0028] In the diagram: 1. Housing, 2. Cover plate, 3. Cooling fan, 4. Air inlet frame, 5. Dust filter, 6. Rectangular frame, 7. Controller, 8. Voltage sensor, 9. Current sensor, 10. Temperature sensor, 11. Power analyzer, 12. Ventilation slot, 13. Mounting frame, 14. Through slot, 15. Magnetic plate, 16. Magnetic strip, 17. Damping shaft, 18. Rotating block, 19. Arc groove, 20. Locking pin. Detailed Implementation

[0029] The technical solutions of the present utility model will be clearly and completely described below with reference to the accompanying drawings of the embodiments of the present utility model. Obviously, the described embodiments are only some embodiments of the present utility model, and not all embodiments.

[0030] Reference Figures 1-4 The PCS system land-based intelligent commissioning platform, which monitors multiple parameters in real time, includes a housing 1. Housing 1 is made of high-strength, corrosion-resistant metal to ensure stability and durability in various land environments. Inside housing 1 is the monitoring platform itself, the core component of the entire commissioning platform, used to collect and analyze the PCS system's operational data in real time and accurately.

[0031] The monitoring platform itself includes key components such as a controller 7, voltage sensor 8, current sensor 9, temperature sensor 10, and power analyzer 11, all installed within housing 1. These components are all connected to the controller 7 via high-precision interfaces, forming a complete monitoring system. Specifically, the voltage sensor 8, current sensor 9, temperature sensor 10, and power analyzer 11 collect key operating data of the PCS system in real time, including voltage, current, temperature, and power, and transmit this data to the controller 7 for processing and analysis.

[0032] The controller 7 employs a high-performance microprocessor or embedded system, possessing powerful data processing capabilities and real-time response capabilities. It can quickly and accurately analyze the collected data, determine whether the PCS system is operating normally, and promptly issue alarms or take corresponding control measures when anomalies are detected.

[0033] In addition, to further improve the practicality and feasibility of the debugging platform, auxiliary components such as a power supply module and a communication module can be installed inside enclosure 1. The power supply module provides a stable and reliable power supply for the entire debugging platform; the communication module is responsible for transmitting the data collected by the monitoring platform to the remote monitoring center or host computer software, enabling remote data sharing and analysis.

[0034] The upper part of the housing 1 is provided with a cover plate 2, which is made of lightweight, high-strength materials, such as aluminum alloy or composite materials, to reduce the overall weight and improve durability. The bottom of the cover plate 2 is fixed with a rectangular frame 6 by welding or bolting. The size of the rectangular frame 6 matches the inner cavity of the housing 1, so that it can slide smoothly and tightly inside the housing 1.

[0035] Ventilation slots 12 are provided at both ends of the enclosure 1. The size and number of ventilation slots 12 are designed according to actual heat dissipation requirements to ensure smooth airflow within the enclosure. A cooling fan 3 is installed on the enclosure 1, opposite one of the ventilation slots 12. The cooling fan 3 is a low-noise, high-efficiency model to reduce energy consumption and noise pollution. When the cooling fan 3 is activated, it expels hot air from the enclosure 1, lowering the internal temperature. Compared to existing technologies, the heat dissipation effect is significantly better.

[0036] The housing 1 is also equipped with an air inlet frame 4 opposite to another ventilation slot 12. An installation frame 13 is installed inside the air inlet frame 4, and a dust filter 5 is installed inside the installation frame 13. The dust filter 5 is made of high-efficiency filter material, which can effectively block dust, debris, etc., from entering the housing, protecting the various components of the monitoring platform from contamination and damage. At the same time, the dust filter 5 is also removable, allowing users to clean and replace it regularly to maintain its good filtration effect.

[0037] Example 2

[0038] Reference Figure 5 The shortcoming of this embodiment compared to Embodiment 1 is that, in this embodiment, the upper end of the air inlet frame 4 is provided with a through groove 14, and the mounting frame 13 passes through the through groove 14 and forms a tight and smooth sliding connection with it. In order to ensure the stability of the mounting frame 13 during the sliding process and to prevent it from accidentally falling out, a set of efficient and practical limiting mechanisms is designed.

[0039] Limiting Mechanism Design: Magnetic Adsorption Limiting: The core components of the limiting mechanism include a magnetic plate 15 fixed to the upper end of the mounting frame 13 and a magnetic strip 16 fixed to the upper end of the air inlet frame 4. The magnetic poles of the magnetic strip 16 and the magnetic plate 15 are reversed, so that when the mounting frame 13 is inserted into the through slot 14 and slides to the predetermined position, a strong magnetic attraction force is generated between the magnetic plate 15 and the magnetic strip 16, thereby effectively preventing the mounting frame 13 from accidentally falling out due to vibration or external force.

[0040] The magnetic strip 16 is firmly fixed to the upper end of the air inlet frame 4 with high-strength, aging-resistant adhesive, ensuring that it will not fall off or shift during long-term use. At the same time, the adhesive fixing method also facilitates the replacement and maintenance of the magnetic strip 16, reducing the later maintenance costs.

[0041] To further enhance dustproof performance and prevent dust and debris from the outside air from entering the housing 1 through the gap between the mounting frame 13 and the air inlet frame 4, a layer of rubber membrane is specially fixed to the outer wall of the mounting frame 13. This rubber membrane has good elasticity and sealing properties, and can slide tightly against the inner wall of the air inlet frame 4 and the inner wall of the through groove 14, forming an effective dustproof barrier.

[0042] Although the rubber diaphragm provides a good seal, its design does not affect the smooth sliding of the mounting frame 13. By optimizing the material and thickness of the rubber diaphragm and ensuring the fitting precision between the mounting frame 13 and the through groove 14, the mounting frame 13 can remain stable and be easily pushed and pulled during sliding, facilitating the user's cleaning and replacement of the dust filter 5. Pulling up the magnetic plate 15 to separate it from the magnetic strip 16 allows the mounting frame 13 and the dust filter 5 to be removed, facilitating the user's cleaning and replacement of the dust filter 5.

[0043] Example 3

[0044] Reference Figure 6 The difference between this embodiment and embodiments 1 and 2 is that in this embodiment, the cover plate 2 is securely fixed to the box 1 by four locking mechanisms, which ensures the sealing, stability and ease of operation of the entire debugging platform.

[0045] The following are detailed additions and optimizations to the locking mechanism design, aimed at further enhancing its practicality and feasibility:

[0046] Each locking mechanism includes a rotating block 18 rotatably mounted on the housing 1, and the rotating block 18 is connected to the housing 1 via a damping shaft 17. The design of the damping shaft 17 provides a certain resistance to the rotating block 18 during rotation, thereby preventing accidental rotation due to slight contact and improving the stability of the locking mechanism.

[0047] The axis of the damping shaft 17 is completely coincident with the center of the circumference of the arc groove 19 on the outer wall of the housing 1 and the outer wall of the cover plate 2, which ensures that the rotating block 18 can move precisely along the trajectory of the arc groove 19 when rotating, thus realizing precise locking and unlocking operations.

[0048] Locking pin and arc groove: The rotating block 18 is equipped with a locking pin 20, the size and shape of which match the arc groove 19, ensuring that the locking pin 20 can smoothly slide into and out of the arc groove 19. Both the outer wall of the housing 1 and the outer wall of the cover plate 2 are provided with arc grooves 19, and the two arc grooves 19 are located on the same circumference. When the cover plate 2 is correctly placed on the housing 1, rotating the rotating block 18 causes the locking pin 20 to slide into one end of the arc groove 19 on the outer wall of the housing 1, and continue rotating into the arc groove 19 on the outer wall of the cover plate 2, thus achieving a secure lock between the cover plate 2 and the housing 1.

[0049] The user simply needs to gently rotate the rotating block 18 to allow the locking pin 20 to slide along the trajectory of the arc-shaped groove 19 until the locking pin 20 is completely inserted into the arc-shaped groove 19 on the outer wall of the cover plate 2. At this time, the resistance of the damping shaft 17 and the tight fit between the locking pin 20 and the arc-shaped groove 19 ensure a secure lock between the cover plate 2 and the housing 1.

[0050] By rotating the rotating block 18 in the opposite direction, the locking pin 20 slides out of the arc groove 19 on the outer wall of the cover plate 2, and continues to rotate to the other end of the arc groove 19 on the outer wall of the box body 1, the cover plate 2 and the box body 1 can be easily unlocked.

[0051] The above description is only a preferred embodiment of the present utility model, but the protection scope of the present utility model is not limited thereto. Any equivalent substitutions or changes made by those skilled in the art within the technical scope disclosed in the present utility model, based on the technical solution and the inventive concept of the present utility model, should be included within the protection scope of the present utility model.

Claims

1. A land-based intelligent commissioning platform for PCS system with real-time monitoring of multiple parameters, comprising a housing (1), characterized in that, The monitoring platform body of the monitoring PCS system is installed inside the box (1). Ventilation slots (12) are provided through both ends of the box (1). A cooling fan (3) is installed on the box (1) opposite to one of the ventilation slots (12). An air inlet frame (4) is installed on the box (1) opposite to the other ventilation slot (12). An installation frame (13) is installed inside the air inlet frame (4). A dust filter (5) is installed inside the installation frame (13). The upper end of the air inlet frame (4) is provided with a through groove (14), and the mounting frame (13) passes through the through groove (14) and is slidably connected to it; it also includes a limiting mechanism for limiting the mounting frame (13), the limiting mechanism includes a magnetic plate (15) fixed to the upper end of the mounting frame (13), a magnetic strip (16) is fixed to the upper end of the air inlet frame (4), the magnetic strip (16) abuts against the magnetic plate (15); the magnetic poles of the side of the magnetic strip (16) opposite to the magnetic plate (15) are opposite, and the magnetic strip (16) is fixed to the upper end of the air inlet frame (4) with glue; The upper end of the box (1) is provided with a cover plate (2), and a rectangular frame (6) is fixed at the bottom of the cover plate (2). The rectangular frame (6) is slidably connected to the inside of the box (1). The cover plate (2) is fixed to the box body (1) by four locking mechanisms. The locking mechanism includes a rotating block (18) rotatably mounted on the box body (1). The rotating block (18) is provided with a locking pin (20). The outer wall of the box body (1) and the outer wall of the cover plate (2) are both provided with arc grooves (19). The two arc grooves (19) are located on the same circumference. A damping shaft (17) is installed on the box body (1). The rotating block (18) is fixed on the damping shaft (17). The axis of the damping shaft (17) coincides with the center of the circumference where the arc groove (19) is locked.

2. The PCS system land-based intelligent debugging platform for real-time monitoring of multiple parameters according to claim 1, characterized in that, The monitoring platform body includes a controller (7), a voltage sensor (8), a current sensor (9), a temperature sensor (10), and a power analyzer (11) installed in the housing (1). The voltage sensor (8), current sensor (9), temperature sensor (10), and power analyzer (11) are connected to the controller (7), and the voltage sensor (8), current sensor (9), temperature sensor (10), and power analyzer (11) collect the operating data of the PCS system in real time.

3. The PCS system land-based intelligent debugging platform for real-time monitoring of multiple parameters according to claim 1, characterized in that, A rubber membrane is fixed to the outer wall of the mounting frame (13), and the rubber membrane slides against the inner wall of the air inlet frame (4) and the inner wall of the through groove (14).

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