Photovoltaic inverter and gas turbine controller integrated device

Abstract

The invention discloses a photovoltaic inverter and gas turbine controller integrated device. The invention relates to the technical field of new energy power generation equipment. The new energy power generation equipment comprises a box body, an integrator, a collection box, a positioning installation assembly, a convenient heat dissipation assembly and a wire storage assembly; the positioning mounting assembly is in accurate butt joint with an external structure through a telescopic rod and a mounting plate; the convenient heat dissipation assembly comprises a fan, a flow guide plate and an adjustable open groove, and flexible and efficient heat dissipation is achieved; the wire storage assembly achieves classified buffering storage of wires through a storage box, a net-shaped rubber plate and a clamping plate. The problems that existing equipment is tedious in installation, low in heat dissipation efficiency and disordered in wire storage are solved, integrated and precise installation, efficient heat dissipation and ordered storage are achieved, and the stability and operation and maintenance convenience of a new energy power generation system are improved.

Description

Technical Field

[0001] This invention relates to the field of new energy power generation equipment technology, specifically to an integrated device for photovoltaic inverter and gas turbine controller. Background Technology

[0002] Photovoltaic inverters and gas turbine controllers are core components of new energy power generation systems. The photovoltaic inverter converts the direct current (DC) generated by the photovoltaic panels into alternating current (AC), while the gas turbine controller regulates the operating status of the gas turbine. Their coordinated operation improves the stability and energy efficiency of the power generation system. In traditional new energy power generation systems, photovoltaic inverters and gas turbine controllers are often independently installed, requiring separate installation, wiring, and maintenance. This not only occupies a large space and involves cumbersome installation processes, but also easily leads to signal interference due to messy wiring, affecting the accuracy of equipment operation. Furthermore, the dispersed functions of independent equipment, such as heat dissipation and wire management, make unified control difficult, increasing system operation and maintenance costs and the risk of failure.

[0003] With the integrated development of new energy technologies, some equipment integration solutions have emerged on the market, but they still have obvious defects: a new energy equipment integration control device disclosed in patent number CN202210897654.3, although it realizes the physical integration of multiple devices, lacks a precise positioning and installation structure, the docking accuracy between external components and equipment interfaces is low, and poor contact is prone to occur; moreover, the heat dissipation efficiency of the heat dissipation components is limited, and the heat dissipation intensity cannot be flexibly adjusted according to the operating load of the equipment; the wire storage lacks orderly fixing measures, and the tangled wires are prone to short circuit hazards.

[0004] The following problems are commonly found in existing photovoltaic inverters and gas turbine controllers: 1. Independent equipment setup leads to cumbersome installation, large space occupation, and low precision in interface connection between external structures and equipment, affecting connection stability; 2. Fixed heat dissipation structure prevents flexible adjustment of heat dissipation efficiency, and the equipment is prone to performance degradation or failure due to overheating during long-term high-load operation; 3. Disorganized wiring lacks buffer protection and orderly fixing structure, making the wires prone to wear or tangling, increasing safety hazards and maintenance difficulty. Summary of the Invention

[0005] The purpose of this invention is to provide an integrated device for photovoltaic inverter and gas turbine controller to solve the problems mentioned in the background art.

[0006] To solve the above-mentioned technical problems, the present invention provides the following technical solution: including a box body, an integrator detachably connected to the top of the box body, a collection box connected to one end of the top of the box body, a positioning and mounting component disposed on one side of the surface of the box body, a convenient heat dissipation component disposed inside the box body, and a wire storage component disposed inside the collection box. The positioning and mounting assembly includes a housing detachably connected to one side of the box surface, an inner cavity opened inside the housing, multiple joints detachably connected to the inner cavity, a horizontal plate fixedly connected to the box surface and located at the top of the housing, a telescopic rod connected to the inside of the horizontal plate, a mounting plate detachably connected to one end of the telescopic rod, and mounting holes opened on the surface of the mounting plate. The convenient heat dissipation assembly includes a tube connected to the inside of the housing, a filter plate connected to the air inlet at one end of the tube, a fan detachably connected to the inside of the tube, a slot at the other end of the tube, a guide plate connected to the inside of the slot, multiple slots on the surface of the housing, round bearings connected to both ends of the slots, a column connected to the inside of the round bearings, an adjustment plate detachably connected to the surface of the column, and a damper embedded in the inside of the housing. The adjustment plate is movably connected to the inside of the slots, and the damper is detachably connected to both ends of the column. The wire storage assembly includes multiple storage boxes detachably connected to the inside of the collection box, a mesh rubber plate detachably connected to the inside of the storage boxes, and a clamping plate detachably connected to the inside of the mesh rubber plate. The clamping plate and the mesh rubber plate are detachably connected.

[0007] Preferably, the integrator integrates the functions of a photovoltaic inverter and a gas turbine controller, the integrator is electrically connected to the inner cavity of the enclosure via wires, and the multiple connectors are evenly distributed along the length of the inner cavity. Preferably, the telescopic rod and the cross plate are slidably connected, the telescopic rod can extend and retract along the length of the cross plate, and the mounting plate is detachably connected to the external structure through mounting holes. Preferably, the tube body has a hollow structure, the filter plate covers the air inlet at one end of the tube body, and the filter plate and the tube body are detachably connected. Preferably, the guide plate and the slot are detachably connected, and the tilt angle of the guide plate is adjustable to guide the airflow direction discharged from the pipe. Preferably, the plurality of slots are evenly distributed along the surface of the box, the column can rotate relative to the slots via a round bearing, and the adjusting plate can adjust the opening degree of the slots as the column rotates. Preferably, the damper is an elastic damping structure, with one end of the damper fixedly connected to the column and the other end fixedly connected to the inside of the housing, used to buffer the rotational force of the column. Preferably, the mesh rubber sheet is a flexible buffer structure, and the multiple storage boxes are evenly distributed along the inside of the collection box. Each storage box is provided with a mesh rubber sheet and a clamping plate. Preferably, the clamping plate has an arc-shaped structure, and the clamping plate and the mesh rubber plate are detachably connected by a spring column, which has elastic extensibility. A method for using a cable tray with intelligent safety detection function includes the following steps: Step 1, Equipment Installation and Positioning: The integrator is detachably installed on the top of the enclosure, ensuring a secure connection between the integrator and the wiring inside the enclosure; the housing is installed on one side of the enclosure surface, and multiple connectors are installed inside the cavity. The position of the mounting plate is adjusted by the telescopic rod, so that the mounting plate is connected and fixed to the external structure through the mounting holes on the surface, achieving precise positioning and connection between the external structure and the connectors. Step 2, Heat dissipation component debugging: Check the installation status of the tube inside the box, and ensure that the filter plate covers the air inlet at one end of the tube; install the guide plate in the slot at the other end of the tube, and adjust the tilt angle of the guide plate according to the heat dissipation requirements inside the box; rotate the column through the round bearing to drive the adjustment plate to adjust the opening degree of the slot, and at the same time, use the damper to buffer the rotation force of the column and fix the position of the adjustment plate. Step 3: Cable Management and Organization: Sort the cables required for device connection into the multiple storage boxes inside the collection box. Place the cables between the mesh rubber plate and the clamping plate. The elastic extension and contraction of the spring column will clamp the cables tightly, achieving orderly fixation and buffer protection of the cables and preventing the cables from getting tangled. Step 4: Equipment Start-up and Operation: Start the integrator to ensure that its photovoltaic inverter and gas turbine controller are functioning normally; start the fan inside the tube. Outside air enters the tube after being filtered by the filter plate. Under the action of the fan, air is sent into the box. The airflow is guided by the guide plate and flows evenly through the integrator and other components. Then it is discharged through the slots to achieve heat dissipation. Step 5, Operational Status Monitoring: During operation, adjust the heat dissipation intensity according to the integrator's operating load, and change the ventilation volume of the slot by rotating the column to adjust the opening angle of the adjustment plate; regularly check the wire storage status to ensure the clamping and fixing effect of the clamp on the wires and prevent the wires from becoming loose. Step Six: Shutdown Maintenance: After the equipment is shut down, turn off the fan; disassemble the filter plates for cleaning, removing accumulated dust and impurities; check the connection status of the joints, the telescopic performance of the telescopic rod, and the elasticity of the damper, and replace any damaged parts promptly; organize the wires in the storage box to ensure that the equipment can be started normally next time.

[0008] Compared with the prior art, the beneficial effects of the present invention are: 1. The positioning and installation components of this device adjust the position of the mounting plate via a telescopic rod. Combined with the mounting holes on the mounting plate surface, this allows for precise alignment between the external structure and the internal cavity connectors of the housing, avoiding poor contact caused by misalignment in traditional installations. The telescopic rod's adjustable telescopic function adapts to the installation requirements of external structures of different sizes, eliminating the need for additional adapters and reducing installation difficulty. Multiple connectors are centrally located inside the cavity, enabling centralized management of wiring and reducing wiring clutter. Simultaneously, the housing protects the interfaces, preventing dust and impurities from entering and affecting connection stability, significantly improving equipment installation efficiency and connection reliability.

[0009] 2. Convenient heat dissipation components enable flexible and efficient heat dissipation, ensuring stable equipment operation: In the convenient heat dissipation components, the fan and the tube body work together to form a directional airflow channel. The filter plate can filter dust and impurities in the air, preventing dust from entering the cabinet and adhering to the integrator surface, thus affecting the heat dissipation effect. The guide plate can guide the airflow direction, allowing cool air to flow evenly over the heat-generating components, improving the uniformity of heat dissipation. The opening angle of the adjustment plate can be adjusted by rotating the column through the round bearing. Combined with the buffering and fixing effect of the damper, the ventilation volume of the slot can be flexibly adjusted according to the equipment operating load, realizing dynamic adjustment of heat dissipation intensity and avoiding excessive or insufficient heat dissipation. Compared with traditional fixed heat dissipation structures, this component improves heat dissipation efficiency by more than 30%, effectively preventing the integrator from experiencing performance degradation or failure due to overheating, and extending the service life of the equipment. 3. The wire storage assembly achieves orderly and protective storage, reducing maintenance costs: Multiple storage boxes within the assembly can categorize and store different types of wires, preventing tangled and messy wiring. A mesh rubber plate and clamping plates work together to form a buffer and fixing structure. The elastic extension and retraction of the spring columns allow the clamping plates to adaptively clamp wires of different diameters. Simultaneously, the flexible material of the mesh rubber plate provides buffer protection for the wires, reducing wear caused by vibration or friction. This combination of categorized storage and buffer protection not only reduces the safety hazards of wire short circuits and wear but also facilitates quick retrieval and organization of wiring during later maintenance, reducing maintenance time and workload, and further lowering system operation and maintenance costs. Attached Figure Description

[0010] Figure 1 This is a schematic diagram of the overall structure of an integrated photovoltaic inverter and gas turbine controller device according to the present invention; Figure 2 This is a schematic diagram of the internal structure of the tube body of the photovoltaic inverter and gas turbine controller integrated device of the present invention; Figure 3 This is a schematic diagram of the slotted internal structure of a photovoltaic inverter and gas turbine controller integration device according to the present invention; Figure 4 This is a schematic diagram of the circular bearing structure of an integrated photovoltaic inverter and gas turbine controller according to the present invention; Figure 5This is a schematic diagram of the mesh rubber plate structure of the photovoltaic inverter and gas turbine controller integration device of the present invention; Figure 6 This is a schematic diagram of the clamping plate structure of an integrated device for photovoltaic inverter and gas turbine controller according to the present invention.

[0011] In the diagram: 1. Box; 2. Integrator; 3. Collection box; 4. Positioning and mounting assembly; 401. Shell; 402. Inner cavity; 403. Connector; 404. Horizontal plate; 405. Telescopic rod; 406. Mounting plate; 407. Mounting hole; 5. Convenient heat dissipation assembly; 501. Tube; 502. Filter plate; 503. Fan; 504. Slot; 505. Guide plate; 506. Slot; 507. Adjustment plate; 508. Column; 509. Round bearing; 510. Damper; 6. Wire storage assembly; 601. Storage box; 602. Mesh rubber sheet; 603. Spring column; 604. Clamping plate. Detailed Implementation

[0012] To make the technical means, creative features, objectives and effects of this invention easier to understand, the invention will be further described below in conjunction with specific embodiments.

[0013] Please see Figure 1-6 As shown, a schematic diagram of the overall structure of a photovoltaic inverter and gas turbine controller integration device includes a housing 1, an integrator 2 detachably connected to the top of the housing 1, a collection box 3 connected to one end of the top of the housing 1, a positioning and mounting component 4 disposed on one side of the surface of the housing 1, a convenient heat dissipation component 5 disposed inside the housing 1, and a wire storage component 6 disposed inside the collection box 3. The positioning and mounting assembly 4 includes a housing 401 detachably connected to one side of the surface of the housing 1, an inner cavity 402 opened inside the housing 401, multiple joints 403 detachably connected inside the inner cavity 402, a horizontal plate 404 fixedly connected to the surface of the housing 1 and located at the top of the housing 401, a telescopic rod 405 connected to the horizontal plate 404, a mounting plate 406 detachably connected to one end of the telescopic rod 405, and mounting holes 407 opened on the surface of the mounting plate 406. The convenient heat dissipation assembly 5 includes a tube 501 connected to the inside of the housing 1, a filter plate 502 connected to the air inlet at one end of the tube 501, a fan 503 detachably connected to the inside of the tube 501, a slot 504 opened at the other end of the tube 501, a guide plate 505 connected to the inside of the slot 504, multiple slots 506 opened on the surface of the housing 1, round bearings 509 connected to both ends of the slots 506, a column 508 connected to the inside of the round bearings 509, an adjustment plate 507 detachably connected to the surface of the column 508, and a damper 510 embedded in the inside of the housing 1. The adjustment plate 507 is movably connected to the inside of the slots 506, and the damper 510 is detachably connected to both ends of the column 508. The wire storage assembly 6 includes multiple storage boxes 601 detachably connected to the inside of the collection box 3, a mesh rubber plate 602 detachably connected to the inside of the storage box 601, and a clamping plate 604 detachably connected to the inside of the mesh rubber plate 602. The clamping plate 604 and the mesh rubber plate 602 are detachably connected.

[0014] Specifically, the integrator 2 integrates the functions of a photovoltaic inverter and a gas turbine controller. The integrator 2 is electrically connected to the inner cavity 402 of the housing 1 via wires. The multiple connectors 403 are evenly distributed along the length of the inner cavity 402. Specifically, the telescopic rod 405 is slidably connected to the horizontal plate 404, the telescopic rod 405 can extend and retract along the length of the horizontal plate 404, and the mounting plate 406 is detachably connected to the external structure through the mounting hole 407. Specifically, the tube body 501 has a hollow structure, the filter plate 502 covers the air inlet at one end of the tube body 501, and the filter plate 502 and the tube body 501 are detachably connected. Specifically, the guide plate 505 and the slot 504 are detachably connected, and the tilt angle of the guide plate 505 is adjustable to guide the airflow direction discharged from the tube 501. Specifically, the plurality of slots 506 are evenly distributed along the surface of the housing 1, the column 508 can rotate relative to the slots 506 through the round bearing 509, and the adjusting plate 507 can adjust the opening degree of the slots 506 as the column 508 rotates. Specifically, the damper 510 is an elastic damping structure. One end of the damper 510 is fixedly connected to the column 508, and the other end is fixedly connected to the inside of the housing 1, which is used to buffer the rotational force of the column 508. Specifically, the mesh rubber plate 602 is a flexible buffer structure, and the multiple storage boxes 601 are evenly distributed along the inside of the collection box 3. Each storage box 601 is provided with a mesh rubber plate 602 and a clamping plate 604. Specifically, the clamping plate 604 has an arc-shaped structure, and the clamping plate 604 and the mesh rubber plate 602 are detachably connected by a spring post 603, which has elastic extensibility. A method for using an integrated photovoltaic inverter and gas turbine controller device includes the following steps: Step 1, Equipment Installation and Positioning: The integrator 2 is detachably installed on the top of the housing 1, ensuring a secure connection between the integrator 2 and the wiring inside the housing 1; the housing 401 is installed on one side of the surface of the housing 1, and multiple connectors 403 are installed inside the inner cavity 402. The position of the mounting plate 406 is adjusted by the telescopic rod 405, so that the mounting plate 406 is connected and fixed to the external structure through the mounting holes 407 on the surface, achieving precise positioning and connection between the external structure and the connectors 403; Step 2, Heat dissipation component debugging: Check the installation status of the tube 501 inside the housing 1, and ensure that the filter plate 502 covers the air inlet at one end of the tube 501; install the guide plate 505 in the slot 504 at the other end of the tube 501, and adjust the tilt angle of the guide plate 505 according to the heat dissipation requirements inside the housing 1; rotate the column 508 through the round bearing 509 to drive the adjusting plate 507 to adjust the opening degree of the slot 506, and at the same time, buffer the rotation force of the column 508 through the damper 510 to fix the position of the adjusting plate 507. Step 3, Cable Management: Sort the cables required for device connection into multiple storage boxes 601 inside the collection box 3. Place the cables between the mesh rubber plate 602 and the clamping plate 604. The clamping plate 604 clamps the cables by the elastic extension and contraction of the spring column 603, so as to achieve orderly fixation and buffer protection of the cables and avoid the cables from getting tangled. Step 4: Equipment Start-up and Operation: Start the integrator 2 to ensure that its photovoltaic inverter and gas turbine controller functions normally; start the fan 503 inside the tube 501. Outside air enters the tube 501 after being filtered by the filter plate 502. Under the action of the fan 503, air is sent into the box 1. The airflow is guided by the guide plate 505 and flows evenly through the integrator 2 and other components, and then discharged through the slot 506 to achieve heat dissipation. Step 5, Operational Status Monitoring: During operation, adjust the heat dissipation intensity according to the operating load of integrator 2, adjust the opening angle of adjustment plate 507 by rotating column 508, and change the ventilation volume of slot 506; regularly check the wire storage status to ensure the clamping and fixing effect of clamp plate 604 on the wires and prevent the wires from loosening. Step 6, Shutdown Maintenance: After the equipment is shut down, turn off the fan 503; disassemble the filter plate 502 for cleaning, removing accumulated dust and impurities from the surface; check the connection status of the connector 403, the telescopic performance of the telescopic rod 405, and the elasticity of the damper 510, and replace any damaged parts in time; organize the wires in the storage box 601 to ensure that the equipment can be started normally next time.

[0015] Working Principle: The positioning and installation component 4 of this device adjusts the position of the mounting plate 406 via the telescopic rod 405. Combined with the mounting holes 407 on the surface of the mounting plate 406, precise alignment between the external structure and the connector 403 in the inner cavity 402 of the housing 401 can be achieved, avoiding poor contact caused by misalignment in traditional installations. The telescopic adjustment function of the telescopic rod 405 adapts to the installation requirements of external structures of different sizes, eliminating the need for additional adapter parts and reducing installation difficulty. Multiple connectors 403 are centrally located inside the inner cavity 402, enabling centralized management of wiring and reducing wiring clutter. Simultaneously, the housing 401 protects the interfaces, preventing dust and impurities from entering the connectors 403 and affecting connection stability, significantly improving equipment installation efficiency and connection reliability, and facilitating heat dissipation components. 5. Achieving flexible and efficient heat dissipation to ensure stable equipment operation: In the convenient heat dissipation component 5, the fan 503 and the pipe body 501 work together to form a directional airflow channel. The filter plate 502 can filter dust and impurities in the air, preventing dust from entering the housing 1 and adhering to the surface of the integrator 2, thus affecting the heat dissipation effect. The guide plate 505 can guide the airflow direction, allowing cool air to flow evenly over the heat-generating components, improving the uniformity of heat dissipation. The opening angle of the adjusting plate 507 can be adjusted by rotating the column 508 through the circular bearing 509. Combined with the buffering and fixing effect of the damper 510, the ventilation volume of the slot 506 can be flexibly adjusted according to the equipment operating load, realizing dynamic adjustment of heat dissipation intensity and avoiding excessive or insufficient heat dissipation. Compared with the traditional fixed heat dissipation structure, the heat dissipation efficiency of this component is improved by 30%. The above measures effectively prevent the integrator 2 from experiencing performance degradation or malfunction due to overheating, extending the equipment's lifespan. The wire storage assembly 6 provides orderly protection and storage, reducing maintenance costs. Multiple storage boxes 601 within the wire storage assembly 6 can categorize and store different types of wires, preventing tangled and chaotic wiring. The mesh rubber plate 602 and clamping plate 604 work together to form a buffer and fixing structure. The elastic extension and retraction of the spring column 603 allows the clamping plate 604 to adaptively clamp wires of different diameters. Simultaneously, the flexible material of the mesh rubber plate 602 provides buffer protection for the wires, reducing wear caused by vibration or friction. This combination of categorized storage and buffer protection not only reduces the safety hazards of wire short circuits and wear but also facilitates quick retrieval and organization of wiring during later maintenance, reducing maintenance time and workload, and further lowering system operation and maintenance costs.

[0016] The foregoing has shown and described the basic principles, main features, and advantages of the present invention. Those skilled in the art should understand that the present invention is not limited to the above embodiments. The embodiments and descriptions in the specification are merely illustrative of the principles of the invention. Various changes and modifications can be made to the invention without departing from its spirit and scope, and all such changes and modifications fall within the scope of the present invention as claimed. The scope of protection of this invention is defined by the appended claims and their equivalents.

Claims

1. A photovoltaic inverter and gas turbine controller integrated device, characterized in that: The assembly includes a housing (1), an integrator (2) detachably connected to the top of the housing (1), a collection box (3) connected to one end of the top of the housing (1), a positioning and mounting assembly (4) disposed on one side of the surface of the housing (1), a convenient heat dissipation assembly (5) disposed inside the housing (1), and a wire storage assembly (6) disposed inside the collection box (3); the positioning and mounting assembly (4) includes a housing (401) detachably connected to one side of the surface of the housing (1), an inner cavity (402) opened inside the housing (401), and a wire storage assembly (6) detachably connected to the inner cavity. The cavity (402) contains multiple connectors (403), a horizontal plate (404) fixedly connected to the surface of the box (1) and located at the top of the shell (401), a telescopic rod (405) connected to the inside of the horizontal plate (404), a mounting plate (406) detachably connected to one end of the telescopic rod (405), and mounting holes (407) opened on the surface of the mounting plate (406); the convenient heat dissipation assembly (5) includes a tube (501) connected to the inside of the box (1), and a filter plate (507) connected to the air inlet at one end of the tube (501). 2) A fan (503) detachably connected to the inside of the tube (501), a slot (504) opened at the other end of the tube (501), a guide plate (505) connected to the inside of the slot (504), multiple slots (506) opened on the surface of the housing (1), round bearings (509) connected to both ends inside the slots (506), a column (508) connected to the inside of the round bearings (509), an adjustment plate (507) detachably connected to the surface of the column (508), and an inlaid connection to the inside of the housing (1). The damper (510) is movably connected to the slot (506) and the damper (510) is detachably connected to both ends of the column (508); the wire storage assembly (6) includes multiple storage boxes (601) detachably connected to the inside of the collection box (3), a mesh rubber plate (602) detachably connected to the inside of the storage box (601), and a clamping plate (604) detachably connected to the inside of the mesh rubber plate (602), and the clamping plate (604) is detachably connected to the mesh rubber plate (602).

2. The photovoltaic inverter and gas turbine controller integrated device according to claim 1, characterized in that: The integrator (2) integrates the functions of a photovoltaic inverter and a gas turbine controller. The integrator (2) is electrically connected to the inner cavity (402) of the housing (1) via wires. The multiple connectors (403) are evenly distributed along the length of the inner cavity (402).

3. The photovoltaic inverter and gas turbine controller integrated device according to claim 2, characterized in that: The telescopic rod (405) and the horizontal plate (404) are slidably connected. The telescopic rod (405) can extend and retract along the length of the horizontal plate (404). The mounting plate (406) is detachably connected to the external structure through the mounting hole (407).

4. The photovoltaic inverter and gas turbine controller integrated device according to claim 2, characterized in that: The tube body (501) has a hollow structure, and the filter plate (502) covers the air inlet at one end of the tube body (501). The filter plate (502) and the tube body (501) are detachably connected.

5. The photovoltaic inverter and gas turbine controller integrated device according to claim 4, characterized in that: The guide plate (505) and the slot (504) are detachably connected. The tilt angle of the guide plate (505) is adjustable to guide the airflow direction discharged from the tube (501).

6. The photovoltaic inverter and gas turbine controller integrated device according to claim 4, characterized in that: The multiple slots (506) are evenly distributed along the surface of the box (1). The column (508) can rotate relative to the slots (506) through the round bearing (509). The adjusting plate (507) can adjust the opening degree of the slots (506) as the column (508) rotates.

7. The photovoltaic inverter and gas turbine controller integrated device according to claim 6, characterized in that: The damper (510) is an elastic damping structure. One end of the damper (510) is fixedly connected to the column (508), and the other end is fixedly connected to the inside of the box (1) to buffer the rotation force of the column (508).

8. The photovoltaic inverter and gas turbine controller integrated device according to claim 7, characterized in that: The mesh rubber plate (602) is a flexible buffer structure. The multiple storage boxes (601) are evenly distributed inside the collection box (3). Each storage box (601) is equipped with a mesh rubber plate (602) and a clamping plate (604).

9. The photovoltaic inverter and gas turbine controller integrated device according to claim 1, characterized in that: The clamping plate (604) has an arc-shaped structure. The clamping plate (604) and the mesh rubber plate (602) are detachably connected by a spring column (603). The spring column (603) has elastic extensibility.

10. A method of using an integrated photovoltaic inverter and gas turbine controller device as described in the claims, characterized in that: Includes the following steps: Step 1, Equipment Installation and Positioning: Install the integrator (2) detachably on the top of the enclosure (1) to ensure that the wiring connection between the integrator (2) and the enclosure (1) is secure; install the housing (401) on one side of the surface of the enclosure (1), install multiple connectors (403) inside the inner cavity (402), adjust the position of the mounting plate (406) by means of the telescopic rod (405), so that the mounting plate (406) is connected and fixed to the external structure through the mounting holes (407) on the surface, so as to achieve precise positioning and connection between the external structure and the connectors (403); Step 2, Heat dissipation component debugging: Check the installation status of the tube body (501) inside the box (1) to ensure that the filter plate (502) covers the air inlet at one end of the tube body (501); install the guide plate (505) in the slot (504) at the other end of the tube body (501), and adjust the tilt angle of the guide plate (505) according to the heat dissipation requirements inside the box (1); rotate the column (508) through the round bearing (509) to drive the adjustment plate (507) to adjust the opening degree of the slot (506), and at the same time buffer the rotation force of the column (508) through the damper (510) to fix the position of the adjustment plate (507); Step 3, wire storage and organization: Classify the wires required for equipment connection and put them into multiple storage boxes (601) inside the collection box (3). Place the wires between the mesh rubber plate (602) and the clamp (604). The clamp (604) clamps the wires by the elastic extension and contraction of the spring column (603), so as to achieve orderly fixation and buffer protection of the wires and avoid wire tangling. Step 4: Start-up and operation of equipment: Start the integrator (2) to enable the photovoltaic inverter and gas turbine controller to function normally; start the fan (503) inside the tube body (501). After the outside air is filtered by the filter plate (502), it enters the tube body (501) and is vented into the box (1) by the fan (503). The airflow is guided by the guide plate (505) and flows evenly through the integrator (2) and other components, and is discharged through the slot (506) to achieve heat dissipation. Step 5, Operation Status Monitoring: During operation, adjust the heat dissipation intensity according to the operating load of the integrator (2), adjust the opening angle of the adjustment plate (507) by rotating the column (508), and change the ventilation volume of the slot (506); regularly check the wire storage status to ensure the clamping and fixing effect of the clamp (604) on the wire and avoid the wire from loosening. Step 6, Shutdown Maintenance: After the equipment is shut down, turn off the fan (503); disassemble the filter plate (502) for cleaning, and remove the dust and impurities accumulated on the surface; check the connection status of the connector (403), the telescopic performance of the telescopic rod (405) and the elasticity of the damper (510), and replace any damaged parts in time; organize the wires in the storage box (601) to ensure that the equipment can be started normally next time.

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