Adjusting structure for photovoltaic energy storage power generation

Abstract

The utility model provides an adjusting structure for photovoltaic energy storage power generation, comprising a support assembly which is an axially through housing and is provided with an inlet end and an outlet end at two axial ends; the fan is arranged in the supporting assembly and used for causing directional gas flow from the inlet end to the outlet end; the moisture condensation assembly can extend into or out of the inlet end and is used for changing the gas inlet area of the inlet end and condensing gas entering from the inlet end; the drying assembly is arranged at the outlet end and used for drying gas; the driving assembly is used for adjusting the distance of the water condensation assembly relative to the inlet end; wherein the moisture condensation assembly comprises a condensation part and a plate-shaped structure, the condensation part is integrally a conical rotary body which is gradually thickened in the direction towards the shell and is in sliding connection with the supporting assembly, and the downward-extending plate-shaped structure is fixed to the downward side of the outer surface of the condensation part and used for converging water vapor condensed by the condensation part. The method is mainly used for regulating and controlling the temperature and humidity of photovoltaic energy storage power generation equipment.

Description

TECHNICAL FIELD

[0001] The utility model belongs to new energy field, especially a kind of photovoltaic energy storage power generation's adjusting structure. BACKGROUND

[0002] With the rapid development of photovoltaic energy storage technology, its application in the field of energy is more and more widely. However, in the actual operation process, photovoltaic energy storage power generation system still faces many challenges in temperature and humidity regulation. Especially in the condition that the environmental humidity is larger or the temperature difference changes significantly, condensate water is easily produced inside the system. These condensate water not only reduces the insulation performance of equipment, but also may cause short circuit and other safety hazards. In addition, the prior art is slow when drying condensate water, and it is difficult to quickly and effectively reduce humidity.

[0003] On the one hand, the humidity of the gas entering the power generation system is difficult to control, and on the other hand, the gas flow rate after being treated by traditional means is slow, which makes the air circulation efficiency not high, further affecting the discharge and drying effect of condensate water. These problems not only limit the operation efficiency of photovoltaic energy storage system, but also increase the maintenance cost of equipment. SUMMARY

[0004] Therefore, the utility model aims at providing a photovoltaic energy storage power generation adjusting structure to solve the problem of poor humidity control of entering gas and slow output flow rate of traditional adjusting means.

[0005] To achieve the above-mentioned purpose, the utility model adopts the following technical scheme: a photovoltaic energy storage power generation adjusting structure, comprising:

[0006] A support assembly comprising an outer shell through which the axis passes, and an inlet end and an outlet end are respectively arranged at the two axial ends;

[0007] A fan fixed in the support assembly for causing directional gas flow from the inlet end to the outlet end;

[0008] A moisture condensation assembly slidably connected with the support assembly and extendable into or out of the inlet end for changing the gas inlet area of the inlet end and condensing the gas entering the inlet end;

[0009] A drying assembly arranged at the outlet end for drying the gas;

[0010] A driving assembly for adjusting the position of the moisture condensation assembly extending into the inlet end;

[0011] The moisture condensation assembly comprises a condensing part and a plate-shaped structure, the condensing part is a conical solid of revolution gradually thickening towards the direction of the outer shell, and the outer surface of the condensing part is fixed with a plate-shaped structure extending downward and outward of the inlet end on the downward side, for converging the water vapor condensed by the condensing part.

[0012] Further, the outer surface of the plate-shaped structure is provided with a plurality of downwardly inclined flow guide grooves, which are used to guide the water flow on the condensing part away from the inlet end.

[0013] Further, the condensing part is a shell with an opening facing the shell.

[0014] Further, the drying assembly comprises a main body coaxial with the shell and sleeved inside the outlet end with a spacing, the main body is a conical revolute body gradually tapered in the direction close to the fan; the inside of the main body is provided with a plurality of heat sources to heat the main body.

[0015] Further, a first flow channel is provided at the axis of the main body.

[0016] Further, a plurality of heat exchange parts for increasing the contact area with the airflow are arranged on the side of the main body facing the fan, the heat exchange parts comprise a plurality of groove bodies uniformly arranged in the circumferential direction of the main body, in the direction from the inlet end to the outlet end, the plurality of groove bodies expand outward around the axis of the shell, and each heat source is arranged between two heat exchange parts.

[0017] Further, the outlet end of the first flow channel is connected with an ejector pipe.

[0018] Further, a sliding slide rail is fixed on the outer surface of the shell to limit the sliding path of the water condensation assembly; the condensing part is fixed with a sliding block matched with the sliding slide rail, and the driving assembly is arranged on the shell and drives the sliding block to slide.

[0019] Further, the driving assembly is an electric push rod or a hydraulic cylinder.

[0020] Further, the outlet end of the support assembly is provided with a flange plate for connecting an external pipeline, and the support assembly is further provided with a sealing ring for sealing connection with the external pipeline.

[0021] Compared with the prior art, the beneficial effects of the utility model are:

[0022] 1、 the structure adjusts the water condensation assembly to insert into the inlet end of the support assembly when the air humidity is large, at this time, the air inlet area of the inlet end is reduced, and most of the gas flows through the water condensation assembly, and the condensed water flows along the plate-shaped structure, so that the humidity of the gas entering the device is controlled.

[0023] 2、The structure can dry the gas output by the supporting assembly through the drying assembly, the flow rate of the dried gas is strengthened, so that when the equipment is dried, sufficient gas flow rate is ensured to help heat dissipation and carry away moisture, control the humidity of the equipment, and prevent excessive moisture from affecting the equipment. BRIEF DESCRIPTION OF DRAWINGS

[0024] The accompanying drawings, which form a part of this description, are included to provide a further understanding of the present application, and are incorporated into and constitute a part of this application. The embodiments of the present application illustrated in the drawings are presented by way of example or for clarity and are not meant to limit the application to a specific form of implementation, which can be changed in form and detail without departing from the spirit of the application. In the drawings:

[0025] Figure 1 A first perspective view of the adjusting structure of the photovoltaic energy storage power generation according to the present application;

[0026] Figure 2 A second perspective view of the adjusting structure of the photovoltaic energy storage power generation according to the present application;

[0027] Figure 3 A first perspective view of the adjusting structure of the photovoltaic energy storage power generation according to the present application without the supporting assembly;

[0028] Figure 4 A second perspective view of the adjusting structure of the photovoltaic energy storage power generation according to the present application without the supporting assembly;

[0029] Figure 5 A right view of the adjusting structure of the photovoltaic energy storage power generation according to the present application;

[0030] Figure 6 A cross-sectional view of the adjusting structure of the photovoltaic energy storage power generation according to the present application along A-A direction; Figure 5

[0031] Figure 7 A structure view of the supporting assembly according to the present application.

[0032] In the drawings: supporting assembly 1; outer shell 1-1; supporting part 1-2; sliding slide rail 1-3; sealing ring 1-4; fan 2; moisture condensation assembly 3; condensing part 3-1; plate-shaped structure 3-2; flow guide groove 3-3; sliding block 3-4; drying assembly 4; main body 4-1; heat exchange part 4-2; first flow channel 4-3; eductor pipe 4-4; driving assembly 5. DETAILED DESCRIPTION

[0033] ​The technical solutions in the embodiments of the utility model will be clearly and completely described below with reference to the drawings in the embodiments of the utility model. It should be explained that the embodiments in the utility model and the features in the embodiments can be combined with each other without conflict, and the described embodiments are only part of the embodiments of the utility model, not all the embodiments.

[0034] It should be explained that the description of the utility model about 'left', 'right', 'left side', 'right side', 'upper part', 'lower part', 'top', 'bottom' and the like is defined based on the position or relationship of the drawings shown, and is only for the convenience of describing the utility model and simplifying the description, and is not indicative or suggestive of the structure being indicated or implied to be constructed and operated in a specific direction, therefore, it cannot be understood as a limitation on the utility model. In the description of the utility model, the meaning of 'a plurality of' is two or more, unless otherwise explicitly specified and limited.

[0035] In the description of the utility model, unless otherwise explicitly specified and limited, the terms'mounting', 'connection' and 'connection' should be understood broadly, for example, it can be fixed connection, or detachable connection, or integrally connected; it can be directly connected, or indirectly connected through an intermediate medium, or the communication inside two elements. For ordinary skilled persons in the art, the specific meaning of the above terms in the utility model can be understood according to the specific circumstances.

[0036] Referring to the drawings Figures 1-7 It is illustrated that the utility model provides a kind of photovoltaic energy storage power generation regulating structure, comprising:

[0037] Supporting assembly 1 is the shell 1-1 that is axially through, and the import end and the export end are respectively arranged at the two ends in the axial direction.

[0038] Fan 2 is fixed in supporting assembly 1, and is used to cause the directional gas flow from the import end to the export end.

[0039] Drying assembly 4 is arranged at the export end for drying gas.

[0040] Driving assembly 5 is used to adjust the distance of moisture condensation assembly 3 relative to the import end.

[0041] Moisture condensation assembly 3 is slidably connected with the shell 1-1 and can extend into or out of the import end, for changing the air inlet area of the import end and condensing the gas entering the import end. Moisture condensation assembly 3 includes condensing part 3-1 and plate structure 3-2, condensing part 3-1 is a conical body of revolution gradually thickening towards the shell 1-1 and is slidably connected with supporting assembly 1, and the outer surface of condensing part 3-1 is fixed with plate structure 3-2 extending downward and outward of the import end on the downward side, for converging the water vapor condensed by condensing part 3-1. The outer wall of condensing part 3-1 has a spacing with the import end.

[0042] Wherein, the condensing part 3-1 extends into the inlet end, suitable for the case when the gas humidity is small and the temperature is high, the moisture condensing assembly 3 does not extend into the shell 1-1, and the fan 2 is operated alone to generate wind, and the wind is output from the outlet end after passing through the drying assembly 4.

[0043] Wherein, the condensing part 3-1 is combined with the driving assembly 5 to adjust the condensing part 3-1 to extend partially into the inlet end, when the gas humidity is large and needs to be dehumidified, the sliding block 3-4 is driven by the driving assembly 5 to move, thereby driving the condensing part 3-1 to extend partially into the inlet end of the support assembly 1. When the gas enters this channel, most of the gas will flow along the condensing part 3-1 into the channel, and the condensed water will fall onto the plate structure 3-2, which will guide the water to the direction away from the inlet end. The plate structure 3-2 is arranged in a shrinking manner along the direction from the outlet end to the inlet end, which is beneficial to the water being concentrated and guided to the outside of the inlet end.

[0044] The drying assembly 4, the fan 2, the condensing part 3-1, and the plate structure 3-2 are arranged in sequence along the direction from the outlet end to the inlet end.

[0045] Preferably, the outer surface of the flow collecting part 3-2 is provided with a plurality of downwardly inclined flow guide grooves 3-3, which are used to guide the water at the bottom of the condensing part 3-1 to the direction away from the inlet end.

[0046] In order to reduce the weight and the load of the driving assembly 5, the condensing part 3-1 is a shell with an opening facing the shell 1-1.

[0047] Preferably, the drying assembly 4 includes a main body 4-1 coaxial with the shell 1-1 and sleeved in the outlet end with a gap, and the main body 4-1 is a conical body gradually tapered in the direction close to the fan 2. In this way, the heating area of the main body 4-1 can be increased, and the gas can be dried better. A plurality of heat sources are arranged in the main body 4-1 to heat the main body 4-1. The gas can be output from the gap between the outlet end and the main body 4-1.

[0048] More preferably, a first flow channel 4-3 is arranged at the axis of the main body 4-1. The main body 4-1 is a conical body gradually tapered in the direction close to the fan 2, which can cause the gas to collide, a part of the gas can be output from the gap between the outlet end and the main body 4-1, and another part can flow out from the first flow channel 4-3, thereby increasing the output efficiency.

[0049] More specifically, the first flow channel 4-3 is connected with an ejector pipe 4-4. The arrangement of the first flow channel 4-3 enables most of the gas to be ejected from the first flow channel 4-3, thereby forming an ejecting effect on the gas between the drying assembly 4 and the fan 2, so that the gas flowing along the tapered surface of the flow dividing and heating part is slowed down, thereby making up for and accelerating the overall gas flow, and speeding up the gas flow.

[0050] The body 4-1 is provided with several heat exchange parts 4-2 on the side facing the fan 2 for increasing the contact area with the airflow, the heat exchange parts 4-2 include a plurality of groove bodies evenly arranged in the circumferential direction of the body 4-1, and the plurality of groove bodies expand outward along the axis of the shell 1-1 from the inlet end to the outlet end, and each heat source is arranged between two heat exchange parts 4-2. The heat exchange parts 4-2 increase the heat exchange area, which is beneficial to better drying of the gas.

[0051] Preferably, the outer surface of the shell 1-1 is fixed with a sliding slide rail 1-3 for limiting the sliding path of the moisture condensation assembly 3, and the condensation part 3-1 is fixed with a sliding block 3-4 matched with the sliding slide rail 1-3, and the driving assembly 5 is arranged on the shell 1-1 and drives the sliding block 3-4 to slide.

[0052] The driving assembly 5 is an electric push rod or a hydraulic cylinder.

[0053] Preferably, the outlet end of the support assembly 1 is provided with a flange plate for connecting an external pipeline, and the support assembly 1 is further provided with a sealing ring 1-4 for sealing connection with the external pipeline.

[0054] Support component 1 is an axially through-hole hollow shell with an inlet and an outlet. Support component 1 includes a shell 1-1, a support part 1-2 mounted on the inner wall of shell 1-1 for connecting the fan 2 and the drying component 4, and a sliding rail 1-3 for restricting the sliding path of the moisture condensation component 3. The fixed end of the drive component 5 is connected to shell 1-1. A sealing ring 1-4 is provided on the end face of shell 1-1 near the outlet end. Specifically, shell 1-1 is an axially hollow cylindrical structure, acting as an air duct. A flange is provided at the outlet end for connecting to external pipelines. Cooled or dried airflow is output to the photovoltaic energy storage power generation equipment through these external pipelines. The external pipelines can be reasonably configured according to the required connection method; the configuration can be a single pipe or multiple pipes connected in parallel, depending on the actual situation. The support part 1-2 is specifically designed as a protruding structure with threaded holes. It can be connected to the corresponding position on the inner wall of the outer shell 1-1 by welding or integral molding. The position and number of the support parts should meet the specific support strength for the fan 2 and the drying component 4, and should also facilitate the entry and exit of components during installation. The fan 2 and the drying component 4 are connected to the support part 1-2 at the corresponding position by bolts. The sliding rail 1-3 is specifically designed as a sliding rail. To ensure balanced force distribution, the sliding rail is designed as two light-proof symmetrically distributed on both sides of the outer shell 1-1. Depending on the actual needs, the sliding rail can be a single rail, fixed to the outer shell 1-1 by bolts or other connecting components, or a groove can be opened in the outer shell 1-1 to be used as a sliding rail. The choice can be made according to the actual needs. Sliding blocks 3-4 are correspondingly provided on both sides of the condenser part 3-1. The sliding blocks 3-4 are slidably connected to the corresponding sliding rails. Depending on the type of sliding rail, the sliding blocks 3-4 can be either sliders or sliding structures with pulleys. The appropriate choice can be made according to the actual needs, as long as it can slide smoothly to adjust the position of the condenser part 3-1. The drive assembly 5 can be a ball screw drive structure, an electric actuator, or a hydraulic cylinder. Taking a hydraulic cylinder as an example, the cylinder body is fixed at the corresponding position on the outer casing 1-1, and the free end of the hydraulic rod is connected to the sliding block 3-4. The extension and retraction of the hydraulic rod drives the condenser 3-1 to perform corresponding actions, extending or retracting from the inlet end of the outer casing 1-1. This changes the actual air inlet area of ​​the outer casing 1-1 and the contact area between the airflow and the condenser 3-1, allowing for adjustments based on whether humidity reduction is required.

[0055] Fan 2 is installed inside support assembly 1 and is used to cause directional gas flow from the inlet end to the outlet end; the fan 2 can be reasonably selected according to the actual needs of adjusting the number of equipment and the size of the air volume.

[0056] Moisture condensation component 3 is installed at the inlet end to change the inlet area and condense the gas entering at the inlet end.

[0057] The drying assembly 4 is arranged at the outlet end for drying the gas and preferably accelerating the gas.

[0058] The driving assembly 5 is arranged for driving the water condensing assembly 3 to move relative to the inlet end.

[0059] The water condensing assembly 3 comprises a condensing part 3-1 and a plate structure 3-2. The condensing part 3-1 is arranged at the inlet end and slides away from the lower part of the side end face of the fan 2. The plate structure 3-2 is arranged for collecting the condensed water vapor of the condensing part 3-1. The two ends of the plate structure 3-2 are arranged to be inclined along the axial direction of the housing 2.

[0060] In this embodiment, the condensing part 3-1 is a conical rotary body away from the fan 2. When the condensing part 3-1 extends into the inlet end, a certain distance is formed between the outer wall of the condensing part 3-1 and the inner wall of the supporting assembly 1. The condensing part 3-1 is arranged as a conical rotary body for reducing the flow resistance when the gas flows through the condensing part 3-1. When the humidity is large, the gas flowing through the condensing part 3-1 will be condensed on the condensing part 3-1. The material of the condensing part 3-1 should be selected to facilitate condensation, and the selection should be based on the actual cost and other factors. In order to reduce the load of the sliding block 3-4, the condensing part 3-1 is arranged to be hollow inside, which is beneficial to reduce the weight and thus reduce the load of the sliding block 3-4.

[0061] In this embodiment, the plate structure 3-2 is provided with a plurality of guide grooves 3-3 arranged on the end face for guiding the water flow away from the inlet end. The plate structure 3-2 is arranged as an inclined downward plate structure, and a plurality of guide grooves 3-3 are symmetrically arranged on both sides. The guide grooves 3-3 are arranged as inclined grooves. When the condensed water droplets flow down along the conical surface of the condensing part 3-1, they will finally flow into the guide grooves 3-3 on both sides. By arranging the guide grooves 3-3 as inclined grooves, the fluid can be guided, so that when the condensing part 3-1 extends into the inlet end of the supporting assembly 1, the condensed water can be drained away and downward.

[0062] In the embodiment, the drying assembly 4 comprises a shunt heating part and a heat exchange part 4-2, the shunt heating part is a heat source, and the shunt heating part is provided with a plurality of heat exchange parts 4-2 for increasing the contact area with the airflow near the fan 2. The shunt heating part near the fan 2 is a conical surface, and the end is rounded. The shunt heating part is provided with resistance wires, which are powered through cables. When drying is needed, the shunt heating part is heated as a whole, so that the gas generated by the fan 2 is heated when drying is needed or the equipment needs to be heated in winter. The arrangement of the resistance wires can be reasonably arranged according to the needs. The shunt heating part is fixed on the corresponding support part 1-2 by bolts. The purpose of setting the shunt heating part as a conical surface is to guide the gas with low resistance, and the heating efficiency is improved through the action of the heat exchange part 4-2, so as to ensure that the gas can be fully heated or the corresponding moisture is consumed in the dehumidification stage. The heat exchange part 4-2 can be provided as a fin along the direction of the gas flow, but this way will increase the fluid resistance and also form a larger noise. Because the slot is selected to be suitable for the conical surface of the shunt heating part, the edge of the slot is rounded, the fluid resistance is reduced under the premise of trying to increase the heat exchange area, and the heat exchange part 4-2 can also be removed according to the actual needs.

[0063] In the embodiment, the shunt heating part is provided with a first flow channel 4-3 penetrating from the end face near the fan 2 to the end face away from the fan 2, and the flow channel is coaxially arranged with the central axis of the conical surface. An eductor pipe 4-4 is arranged at the outlet end of the first flow channel 4-3. The arrangement of the first flow channel 4-3 enables most of the gas to be ejected from the first flow channel 4-3, so as to form an eduction effect on the gas between the drying assembly 4 and the fan 2, so that the gas flows along the conical surface of the shunt heating part at a low speed, thereby making up and accelerating the overall gas flow. The purpose of the eductor pipe 4-4 is to adjust the eduction angle, so as to reasonably set the length of the eductor pipe 4-4 according to the actual working condition, and adjust the eduction effect.

[0064] When the gas humidity is small and the temperature is high, the moisture condensation assembly 3 does not extend into the shell 1-1, and the fan 2 alone generates wind power. When the wind passes through the drying assembly 4, part of the gas is ejected from the first flow channel 4-3 and the eductor pipe 4-4, which can educe the gas flowing between the shunt heating part and the inner wall of the shell 1-1 along the shunt heating part, so that the mixed airflow after eduction can quickly mix and act on the corresponding equipment along the outer pipeline.

[0065] When the equipment needs to be insulated, the shunt heating part is powered and heated, so as to heat the gas and insulate the equipment.

[0066] When the gas humidity is large and dehumidification is needed, the sliding block 3-4 is driven by the driving assembly 5 to move, so that the condensing part 3-1 is partially inserted into the inlet end of the supporting assembly 1, so that the gas entering the supporting assembly 1 changes from the original open mode to the channel formed by the condensing part 3-1 and the shell 1-1. At this time, when the gas enters the channel, most of the gas will flow along the condensing part 3-1 into the channel, so that the moisture in the gas is condensed by the condensing part 3-1 and flows away along the flow guide groove 3-3. The gas is heated and dried after entering, so that the dried gas finally reaches the equipment, preventing the equipment from being in a too humid environment.

[0067] The specific connection form of the pipe connected to the supporting assembly 1, the connection form and arrangement mode of the pipe and the corresponding photovoltaic energy storage power generation equipment are reasonably arranged according to actual conditions, and are not within the spirit of the present application. The sensors, controllers and control programs that may be involved are all selected from the prior art.

[0068] The above disclosed embodiments of the present application are only used to help explain the present application. The embodiments do not describe all the details, nor limit the present application to the specific implementation. According to the content of the present application, many modifications and changes can be made. The present application selects and specifically describes these embodiments in order to better explain the principles and practical applications of the present application, so that those skilled in the art can well understand and utilize the present application.

Claims

1. A regulating structure for photovoltaic energy storage power generation, characterized in that, include: The support assembly (1) includes an axially penetrating outer shell (1-1), with an inlet end and an outlet end respectively provided at both ends of the axial direction; The fan (2) is fixed inside the support assembly (1) and is used to cause directional gas flow from the inlet end to the outlet end; A moisture condensation component (3) is slidably connected to the support component (1) and can extend into or out of the inlet end, used to change the air intake area of ​​the inlet end and condense the gas entering from the inlet end; Drying component (4) is installed at the outlet end for drying gas; Drive component (5) is used to adjust the position of the moisture condensation component (3) extending into the inlet end; The moisture condensation component (3) includes a condenser (3-1) and a plate structure (3-2). The condenser (3-1) is a cone-shaped rotating body that gradually thickens towards the outer shell (1-1). The outer surface of the condenser (3-1) is fixed with a plate structure (3-2) that extends downward and outward towards the inlet end. The plate structure (3-2) is used to collect the water vapor condensed by the condenser (3-1).

2. The regulating structure for photovoltaic energy storage power generation according to claim 1, characterized in that: The outer surface of the plate-shaped structure (3-2) is provided with a plurality of downward inclined guide grooves (3-3), which are used to guide the water flow on the condenser (3-1) away from the inlet end.

3. The regulating structure for photovoltaic energy storage power generation according to claim 1, characterized in that: The condenser section (3-1) is a shell with an opening facing the outer shell (1-1).

4. The regulating structure for photovoltaic energy storage power generation according to claim 1, characterized in that: The drying assembly (4) includes a main body (4-1) that is coaxial with and spaced from the outer shell (1-1) and fitted inside the outlet end. The main body (4-1) is a cone-shaped rotating body that gradually tapers in the direction close to the fan (2). Multiple heat sources are provided inside the main body (4-1) to heat up the main body (4-1).

5. The photovoltaic energy storage power generation regulation structure according to claim 4, characterized in that: The main body (4-1) has a through first flow channel (4-3) at its axis.

6. The regulating structure for photovoltaic energy storage power generation according to claim 4, characterized in that: The main body (4-1) is provided with a number of heat exchange sections (4-2) on the side facing the fan (2) to increase the contact area with the airflow. The heat exchange section (4-2) includes a number of grooves evenly opened in the circumference of the main body (4-1). Along the direction from the inlet end to the outlet end, the multiple grooves extend outward around the axis of the outer shell (1-1), and each heat source is arranged between two heat exchange sections (4-2).

7. The regulating structure for photovoltaic energy storage power generation according to claim 5, characterized in that: The first flow channel (4-3) is connected to the ejector tube (4-4).

8. The regulating structure for photovoltaic energy storage power generation according to claim 1, characterized in that: A sliding rail (1-3) is fixed on the outer surface of the outer shell (1-1). The sliding rail (1-3) is used to limit the sliding path of the moisture condensation component (3). The condensation part (3-1) is fixed with a sliding block (3-4) that slides with the sliding rail (1-3). The driving component (5) is disposed on the outer shell (1-1) and drives the sliding block (3-4) to slide.

9. The regulating structure for photovoltaic energy storage power generation according to claim 8, characterized in that: The drive component (5) is an electric push rod or a hydraulic cylinder.

10. The regulating structure for photovoltaic energy storage power generation according to claim 1, characterized in that: The outlet end of the support assembly (1) is provided with a flange for connecting to an external pipeline, and the support assembly (1) is also provided with a sealing ring (1-4) for sealing connection with the external pipeline.

Images