Zero-carbon machine room photovoltaic green energy utilization device and method thereof

Abstract

The application relates to the technical field of photovoltaic devices, in particular to a zero-carbon machine room photovoltaic green energy utilization device and a method thereof, which is composed of a supporting mechanism, a storage mechanism and a photovoltaic mechanism. When a power distribution room is used, the storage mechanism is arranged in the power distribution room, and existing power equipment can be installed and arranged through the cabinet. At this time, under the action of the fan in the moving frame, the flowing air current generated by the fan can flow quickly along the outer surface of the cabinet. When the flowing air current passes through the heat-conducting sheet, the flowing air current can accelerate the heat dissipation in the cabinet under the transmission of the heat-conducting sheet, so that the normal operation environment of the power equipment is ensured. Meanwhile, the supporting frame is arranged in parallel along the roof direction of the power distribution room, and the supporting mechanism can be stably arranged on the roof of the power distribution room through the bottom block and the bottom plate. The photovoltaic panel can efficiently convert light energy into electric energy, so as to provide operation energy for the fan and the basic power equipment in the power distribution room.

Description

TECHNICAL FIELD

[0001] The application belongs to the technical field of photovoltaic devices, and particularly relates to a zero-carbon machine room photovoltaic green energy utilization device and method. BACKGROUND

[0002] The photovoltaic panel is a power generation device for converting light energy into direct current by using a semiconductor material, and the core principle is based on photovoltaic effect. Stable power generation is realized through a solid-state structure without moving parts, and the photovoltaic panel is suitable for small electronic device power supply, building surface integration and grid-connected power system.

[0003] However, in the prior art, due to the small actual size of the existing small power distribution room and the simple internal structure, the temperature generated by the operation of the internal power equipment cannot be dissipated in time, so that the operating environment temperature of the power equipment is high, thereby affecting the actual service life of the power equipment. At the same time, the additional configuration of the power distribution room increases the actual construction cost, resulting in poor actual use effect of the existing small power distribution room. SUMMARY

[0004] The purpose of the present application is to provide a zero-carbon machine room photovoltaic green energy utilization device and method which can conveniently adjust its structure according to the actual use condition and reduce the actual construction cost.

[0005] The technical solution adopted by the present application is as follows: a zero-carbon machine room photovoltaic green energy utilization device, comprising: a support mechanism for providing a stable installation foundation;

[0006] a storage mechanism for providing an installation foundation for existing power equipment; and

[0007] a photovoltaic mechanism for adjusting the use state of the storage mechanism, the photovoltaic mechanism being arranged on the support mechanism.

[0008] The support mechanism comprises a support frame, three connecting blocks and a support part, the three connecting blocks are fixedly connected to the outer surface of one side of the support frame, four extension rings are fixedly connected to the outer surface of one side of the support frame, a plurality of clamping grooves are equally arranged on the inner surface walls of both sides of the support frame, and the support part is arranged on the three connecting blocks.

[0009] Each connecting block is provided with a gasket which is slidably sleeved on the outer surface of the connecting block, and each connecting block is provided with a limiting nut which is threadedly connected to the outer surface of the connecting block.

[0010] The support component comprises a bottom block, a connecting ring, a first extension ring, a second extension ring, a first connecting rod, an extension rod and a second connecting rod, the bottom block is sleeved on the outer surface of the corresponding connecting block, the connecting ring is sleeved on the outer surface of the corresponding connecting block, the first extension ring and the second extension ring are both sleeved on the outer surface of the corresponding connecting block, the first connecting rod is slidably penetrated through the outer surface of the first extension ring, the extension rod is threadedly connected to one end of the first connecting rod, and the second connecting rod is threadedly connected to one end of the extension rod.

[0011] The bottom of the bottom block is fixedly connected with a bottom plate through bolts, and the outer surface of the first connecting rod is threadedly connected with two support nuts.

[0012] The storage mechanism comprises a cabinet body, four sliding frames and two moving frames, a plurality of heat-conducting fins are fixedly connected to the outer surfaces of the two sides of the cabinet body at equal intervals, the four sliding frames are fixedly connected to the outer surfaces of the two sides of the cabinet body respectively, the two moving frames are slidably inserted into the interiors of the corresponding sliding frames respectively, a plurality of fans are fixedly connected to the interior of each moving frame, and the top and bottom of each sliding frame are of an open structure.

[0013] The photovoltaic mechanism comprises two heat-conducting plates, a bottom frame, two photovoltaic plates and an adjusting component, the bottom frame is fixedly connected between the bottoms of the two heat-conducting plates, the two photovoltaic plates are arranged on the tops of the two heat-conducting plates respectively, and the adjusting component is arranged on the bottom frame.

[0014] The adjusting component comprises four guide frames, four rotating frames, two abutting rods, four adjusting rods and four adjusting pipes, the four guide frames are fixedly connected to the bottom of the bottom frame, the four rotating frames are slidably embedded in the interiors of the corresponding guide frames respectively, a rotating shaft is slidably penetrated between the opposite inner walls of the two sides of each rotating frame, the four adjusting rods are slidably sleeved on the outer surfaces of the corresponding rotating shafts, an adjusting ring is threadedly connected to the outer surface of each adjusting rod, the four adjusting pipes are rotatably connected to the bottom ends of the corresponding adjusting rings respectively, a support block is fixedly connected to the bottom end of each adjusting pipe, the two abutting rods are slidably inserted between the tops of the corresponding two support blocks, and an abutting block is rotatably connected to the outer surface of one side of each support block.

[0015] The bottom of the bottom frame is also fixedly connected with two sliding frames, two positioning nuts are threadedly connected to the outer surface of each rotating shaft, a positioning bolt is rotatably connected to the outer surface of each abutting block, a positioning block is threadedly connected to the outer surface of each positioning bolt, two liquid storage frames are arranged in the interior of the bottom frame, a plurality of temperature guide frames are penetrated through the top of the bottom frame at equal intervals, the top of each temperature guide frame is attached to the bottom of the corresponding heat-conducting plate, a liquid guide pipe is penetrated between the interiors of the plurality of temperature guide frames, the two ends of the liquid guide pipe extend into the corresponding liquid storage frames respectively, a connecting pipe is communicatively arranged on the outer surface of one side of each liquid storage frame, and one end of each connecting pipe extends to the outside of the bottom frame.

[0016] A zero-carbon machine room photovoltaic green energy utilization method, comprising the following steps:

[0017] S1, structure adjustment: when using a power distribution room, the storage mechanism is arranged inside the power distribution room, and then the existing power equipment can be installed and arranged through the cabinet body. At this time, under the action of the fan in the moving frame, the flowing air current generated by the fan can flow quickly along the outer surface of the cabinet body. When the flowing air current passes through the heat conduction sheet, the flowing air current can accelerate the heat dissipation inside the cabinet body under the transmission of the heat conduction sheet, so as to ensure the normal operation environment of the power equipment. At the same time, the support frame is arranged in parallel along the roof direction of the power distribution room, and then the support mechanism can be stably arranged on the roof of the power distribution room through the bottom block and the bottom plate. At the same time, according to the size of the roof of the power distribution room, the number of the support frame, the connecting ring and the bottom block is increased or decreased, so that the adjacent support frames can be stably spliced through the connecting ring and the connecting block. At this time, the abutment block is rotated to the vertical state and then is slidably inserted into the support frame. Then, the rotating positioning bolt can extend to the inside of the clamping groove through the rotating positioning bolt, so that the abutment block can be stably clamped in the support frame. At this time, under the support of the abutment block, the support block can stably support the bottom frame on the roof of the power distribution room through the adjusting pipe, the adjusting rod, the rotating frame and the guide frame, so that the bottom frame can shield the roof of the power distribution room through the heat conduction plate and the photovoltaic panel, so that the sunlight cannot directly irradiate the roof of the power distribution room, thereby reducing the temperature inside the power distribution room and maintaining the normal power equipment operation environment temperature. When the power distribution room is not used, the cabinet body is arranged at the specified use position, and then the support frame is vertically arranged around the cabinet body through the bottom block. At this time, the first extension ring and the second extension ring can stably support the adjacent support frames through the first connecting rod, the extension rod and the second connecting rod, so that the spliced support mechanism can be stably arranged around the cabinet body. Then, the abutment block is rotated to the horizontal state, and then the photovoltaic mechanism can be stably arranged on the top of the cabinet body through the positioning block, so that the heat conduction plate and the photovoltaic panel can shield the top of the cabinet body, so that the sunlight cannot directly irradiate the cabinet body, thereby preventing the temperature of the internal operating environment of the cabinet body from being too high.

[0018] S2, function adjustment: through the photovoltaic panel can efficiently convert light energy into electrical energy, and then can provide operating energy for the fan and the internal basic power equipment of the power distribution room, in turn, can avoid using the power energy in the power supply system, so that the power distribution room can generate green energy by using the photovoltaic panel at this time, and then the power distribution room can be in a zero-carbon state, by rotating the adjusting ring, in turn, the height of the adjusting rod can be conveniently adjusted, and then under the support of the adjusting rod, the use angle of the chassis can be conveniently adjusted, and then the use angle of the photovoltaic panel can be conveniently adjusted, so that the photovoltaic panel can fully convert light energy, and the use of the fan can be increased by the sliding frame, and the connecting pipe can be connected with the existing water resource circulating conveying equipment, and then the excess heat of the photovoltaic panel can be transmitted to the flowing water resource through the heat conduction plate and the temperature guide frame by cooperating with the liquid storage frame and the liquid guide pipe, in turn, the operating temperature of the photovoltaic panel can be reduced, and the photovoltaic panel can be efficiently operated, and at the same time, by stopping the water resource conveying, the cabinet body two side moving frame is arranged in the low sliding frame, in turn, under the condition of not using the power distribution room, the excess heat generated by the power equipment in the cabinet body can be conveyed to the bottom of the photovoltaic panel under the guidance of the flowing air current generated by the fan, in turn, the freezing material at the top of the photovoltaic panel can be prevented.

[0019] In summary, due to the adoption of the above technical scheme, the beneficial effects of the present application are:

[0020] (1) In the present application, when using, when using the power distribution room, the storage mechanism is arranged in the power distribution room, and the existing power equipment can be installed and arranged through the cabinet body. At this time, under the action of the fan in the moving frame, the flowing air current generated by the fan can flow quickly along the outer surface of the cabinet body. When the flowing air current passes through the heat conducting sheet, the flowing air current can accelerate the heat dissipation of the cabinet body under the transmission of the heat conducting sheet, ensuring the normal operation environment of the power equipment. At the same time, the support frame is arranged in parallel along the roof direction of the power distribution room, and then the support mechanism can be stably arranged on the roof of the power distribution room through the bottom block and the bottom plate. According to the size of the roof of the power distribution room, the number of support frames, connecting rings and bottom blocks is increased or decreased, so that the adjacent support frames can be stably spliced through the connecting rings and connecting blocks. At this time, the abutment block is rotated to the vertical state and then slidably inserted into the support frame. Then, the rotating positioning bolt can extend to the inside of the clamping groove through the rotating positioning bolt, so that the abutment block can be stably clamped in the support frame. At this time, under the support of the abutment block, the support block can stably support the bottom frame on the roof of the power distribution room through the adjusting pipe, the adjusting rod, the rotating frame and the guide frame, so that the bottom frame can shield the roof of the power distribution room through the heat conducting plate and the photovoltaic panel, so that sunlight cannot directly irradiate the roof of the power distribution room. Then, the temperature inside the power distribution room is reduced, and the normal power equipment operation environment temperature is maintained. When the power distribution room is not used, the cabinet body is arranged at the specified use position, and then the support frame is vertically arranged around the cabinet body through the bottom block. At this time, the first extension ring and the second extension ring can stably support the adjacent support frames through the first connecting rod, the extension rod and the second connecting rod. Then, the spliced support mechanism can be stably arranged around the cabinet body. Then, the abutment block is rotated to the horizontal state, and then the photovoltaic mechanism can be stably arranged on the top of the cabinet body through the positioning block. The heat conducting plate and the photovoltaic panel can shield the top of the cabinet body, so that sunlight cannot directly irradiate the cabinet body. Then, the temperature of the internal operating environment of the cabinet body can be prevented from being too high, the normal use environment of the power equipment is ensured, the equipment can be conveniently adjusted according to the actual use condition, and the equipment can efficiently realize the required function.

[0021] (2) In this invention, photovoltaic panels can efficiently convert light energy into electrical energy, thereby providing operating energy for the basic electrical equipment inside the wind turbine and power distribution room. This avoids the use of electrical energy from the power supply system, allowing the power distribution room to operate in a zero-carbon state by using green energy generated by photovoltaic panels. By rotating the adjustment ring, the height of the adjustment rod can be easily adjusted, and the angle of the base frame can be easily adjusted under the support of the adjustment rod, thus allowing the photovoltaic panel to fully convert light energy. At the same time, the use of the wind turbine can be increased through the sliding frame, and the connection can be made through the sliding frame. The connector can be connected to existing water resource circulation and transportation equipment. In conjunction with the liquid storage frame and liquid guide pipe, excess heat from the photovoltaic panel can be transferred to the flowing water through the heat conduction plate and temperature conduction frame. This reduces the operating temperature of the photovoltaic panel, ensuring its efficient operation. Simultaneously, by stopping the water supply, the movable frames on both sides of the cabinet are placed inside the lower sliding frame. Thus, without using a power distribution room, excess heat generated by the electrical equipment inside the cabinet can be guided to the bottom of the photovoltaic panel by the airflow generated by the fan. This prevents freezing on the top of the photovoltaic panel, ensuring that the photovoltaic panel can perform its intended functions normally and that the equipment can perform its intended functions efficiently. Attached Figure Description

[0022] Figure 1 This is a perspective view of the outdoor use state of the present invention;

[0023] Figure 2 This is a perspective view of the indoor usage state of the present invention;

[0024] Figure 3 This is a perspective view of the support mechanism portion of the present invention;

[0025] Figure 4 For the present invention Figure 3 Enlarged view of point A in the middle;

[0026] Figure 5 This is a perspective view of the storage mechanism portion of the present invention;

[0027] Figure 6 For the present invention Figure 5 Enlarged view at point B in the middle;

[0028] Figure 7 This is a first-view sectional perspective view of the photovoltaic mechanism of the present invention.

[0029] Figure 8 For the present invention Figure 7 Enlarged view at point C;

[0030] Figure 9 This is a second-view perspective perspective view of the photovoltaic mechanism of the present invention.

[0031] Marked in the figure: 1, support mechanism; 101, support frame; 102, connecting block; 103, gasket; 104, bottom plate; 105, bottom block; 106, connecting ring; 107, first extension ring; 108, second extension ring; 109, first connecting rod; 110, extension rod; 111, second connecting rod; 2, storage mechanism; 201, cabinet body; 202, sliding frame; 203, moving frame; 204, fan; 205, heat conduction sheet; 3, photovoltaic mechanism; 301, heat conduction plate; 302, temperature guide frame; 303, liquid guide pipe; 304, bottom bracket; 305, connecting pipe; 306, guide frame; 307, adjusting rod; 308, adjusting ring; 309, adjusting pipe; 310, support block; 311, block; 312, positioning block; 313, resistance rod; 314, rotating frame; 315, photovoltaic panel. DETAILED DESCRIPTION

[0032] In order to make the purpose, technical scheme and advantages of the present application clearer, the present application is further described in detail below in combination with the drawings and examples. It should be understood that the specific examples described herein are only used to explain the present application and do not limit the present application.

[0033] Examples, please refer to Figure 1 and Figure 2 A zero-carbon machine room photovoltaic green energy utilization device is composed of a support mechanism 1, a storage mechanism 2 and a photovoltaic mechanism 3.

[0034] Specifically described as follows:

[0035] Please refer to Figure 3 and Figure 4The support mechanism 1 is used for providing a stable installation foundation, and the support mechanism 1 comprises a support frame 101, three connecting blocks 102 and a support component. The three connecting blocks 102 are fixedly connected to one side of the outer surface of the support frame 101. Four extension rings are fixedly connected to one side of the outer surface of the support frame 101. A plurality of clamping grooves are equidistantly arranged on the inner surface walls of the two sides of the support frame 101. The support component is arranged on the three connecting blocks 102. A gasket 103 is slidingly sleeved on the outer surface of each connecting block 102. A limiting nut is threadedly connected to the outer surface of each connecting block 102. The support component comprises a bottom block 105, a connecting ring 106, a first extension ring 107, a second extension ring 108, a first connecting rod 109, an extension rod 110 and a second connecting rod 111. The bottom block 105 is slidingly sleeved on the outer surface of the corresponding connecting block 102. The connecting ring 106 is slidingly sleeved on the outer surface of the corresponding connecting block 102. The first extension ring 107 and the second extension ring 108 are slidingly sleeved on the outer surface of the corresponding connecting block 102. The first connecting rod 109 is slidingly penetrated through one side of the outer surface of the first extension ring 107. The extension rod 110 is threadedly connected to one end of the first connecting rod 109. The second connecting rod 111 is threadedly connected to one end of the extension rod 110. The bottom block 105 is fixedly connected with a bottom plate 104 through bolts. Two support nuts are threadedly connected to the outer surface of the first connecting rod 109. The support frame 101 is arranged in parallel along the roof direction of the power distribution room. Then, the support mechanism 1 can be stably arranged on the roof of the power distribution room through the bottom block 105 and the bottom plate 104. According to the size of the roof of the power distribution room, the number of the support frame 101, the connecting ring 106 and the bottom block 105 can be increased or decreased, so that the adjacent support frames 101 can be stably spliced through the connecting ring 106 and the connecting block 102. At this time, the abutting block 311 is rotated to the vertical state and is slidingly inserted into the support frame 101. Then, the rotating positioning bolt can extend to the inside of the clamping groove through the rotating positioning bolt, so that the abutting block 311 can be stably clamped in the support frame 101. When the power distribution room is not used, the cabinet body 201 is arranged at the designated use position. Then, the support frame 101 is vertically arranged around the cabinet body 201 through the bottom block 105. At this time, the first extension ring 107 and the second extension ring 108 can stably support the adjacent support frames 101 through the first connecting rod 109, the extension rod 110 and the second connecting rod 111. Then, the spliced support mechanism 1 can be stably arranged around the cabinet body 201.

[0036] Please refer to Figure 5 and Figure 6, the storage mechanism 2 is used for providing installation basis for existing power equipment, the storage mechanism 2 includes cabinet body 201, four slide frames 202 and two movable frames 203, a plurality of heat dissipation fins 205 are fixedly connected on the outer surfaces of the two sides of the cabinet body 201 at equal intervals, the four slide frames 202 are fixedly connected to the outer surfaces of the two sides of the cabinet body 201 respectively, the two movable frames 203 are slidingly inserted into the corresponding slide frames 202 respectively, a plurality of fans 204 are fixedly connected in each movable frame 203, and the top and bottom of each slide frame 202 are of open structure; when a power distribution room is used, the storage mechanism 2 is arranged in the power distribution room, and then the existing power equipment can be installed and arranged through the cabinet body 201; at this time, under the action of the fans 204 in the movable frames 203, the flowing air current generated by the fans 204 can flow quickly along the outer surface of the cabinet body 201; when the flowing air current passes through the heat dissipation fins 205, the flowing air current can accelerate the heat dissipation of the cabinet body 201 under the transmission of the heat dissipation fins 205, so that the normal operation environment of the power equipment is ensured; the use of the fans 204 can be increased through the slide frames 202, and the existing water resource circulating conveying equipment can be connected through the connecting pipe 305, so that the excess heat of the photovoltaic panel 315 can be transmitted to the flowing water resource through the heat dissipation plate 301 and the temperature guide frame 302 in cooperation with the liquid storage frame and the liquid guide pipe 303, thereby the operation temperature of the photovoltaic panel 315 can be reduced, and the photovoltaic panel 315 can be efficiently operated; at the same time, by stopping the conveying of the water resource, the movable frames 203 on the two sides of the cabinet body 201 are arranged in the slide frames 202 at low positions, so that under the condition that the power distribution room is not used, the excess heat generated by the power equipment in the cabinet body 201 can be conveyed to the bottom of the photovoltaic panel 315 under the guidance of the flowing air current generated by the fans 204, thereby preventing freezing matter from appearing on the top of the photovoltaic panel 315, and ensuring that the photovoltaic panel 315 can normally realize the required functions;

[0037] Please refer to Figures 7-9The photovoltaic mechanism 3 is used for adjusting the use state of the storage mechanism 2, the photovoltaic mechanism 3 is arranged on the support mechanism 1, the photovoltaic mechanism 3 comprises two heat-conducting plates 301, a chassis 304, two photovoltaic plates 315 and an adjusting part, the chassis 304 is fixedly connected between the bottoms of the two heat-conducting plates 301, the two photovoltaic plates 315 are arranged on the tops of the two heat-conducting plates 301 respectively, the adjusting part is arranged on the chassis 304, the adjusting part comprises four guide frames 306, four rotating frames 314, two abutting rods 313, four adjusting rods 307 and four adjusting pipes 309, the four guide frames 306 are all fixedly connected to the bottom of the chassis 304, the four rotating frames 314 are slidably embedded in the corresponding guide frames 306 respectively, a rotating shaft is slidably penetrated between the opposite inner walls on the two sides of each rotating frame 314, the four adjusting rods 307 are slidably sleeved on the outer surfaces of the corresponding rotating shafts, an adjusting ring 308 is threadedly connected to the outer surface of each adjusting rod 307, the four adjusting pipes 309 are rotationally connected to the bottom ends of the corresponding adjusting rings 308 respectively, a support block 310 is fixedly connected to the bottom end of each adjusting pipe 309, the two abutting rods 313 are slidably inserted between the tops of the corresponding two support blocks 310, an abutting block 311 is rotationally connected to the outer surface of one side of each support block 310, the bottom of the chassis 304 is also fixedly connected with two sliding frames 202, two positioning nuts are threadedly connected to the outer surface of each rotating shaft, a positioning bolt is rotationally connected to the outer surface of each abutting block 311 on the two sides, a positioning block 312 is threadedly connected to the outer surface of each positioning bolt, two liquid storage frames are arranged in the chassis 304, a plurality of temperature guide frames 302 are equally penetrated through the top of the chassis 304, the top of each temperature guide frame 302 is attached to the bottom of the corresponding heat-conducting plate 301, a liquid guide pipe 303 is penetrated between the interiors of the plurality of temperature guide frames 302, the two ends of the liquid guide pipe 303 extend into the corresponding liquid storage frames respectively, a connecting pipe 305 is communicatively arranged on the outer surface of one side of each liquid storage frame, one end of each connecting pipe 305 extends to the outside of the chassis 304, under the support of the abutting block 311, the support block 310 cooperates with the adjusting pipe 309, the adjusting rod 307, the rotating frame 314 and the guide frame 306 to stably support the chassis 304 on the roof of the power distribution room, the bottom frame can shield the roof of the power distribution room through the heat-conducting plate 301 and the photovoltaic plate 315, so that sunlight cannot directly irradiate the roof of the power distribution room, thereby reducing the internal temperature of the power distribution room and maintaining the normal operating environment temperature of the power equipment, the abutting block 311 is rotated to the horizontal state, and then the photovoltaic mechanism 3 can be stably arranged on the top of the cabinet 201 through the positioning block 312, so that the heat-conducting plate 301 and the photovoltaic plate 315 can shield the top of the cabinet 201, sunlight cannot directly irradiate the cabinet 201, thereby preventing the internal operating environment temperature of the cabinet 201 from being too high and ensuring the normal use environment of the power equipment, the equipment can conveniently adjust its structure according to the actual use condition, the equipment can efficiently realize the required function, the photovoltaic plate 315 can efficiently convert light energy into electrical energy, thereby providing operating energy for the fan 204 and the basic power equipment in the power distribution room,Then the power energy in the power supply system can be avoided, so that the power distribution machine room can generate green energy by using the photovoltaic panel 315, and then the power distribution machine room can be in a zero-carbon state, and the use height of the adjusting rod 307 can be conveniently adjusted by rotating the adjusting ring 308, and then the use angle of the bottom frame 304 can be conveniently adjusted under the support of the adjusting rod 307, and then the use angle of the photovoltaic panel 315 can be conveniently adjusted, so that the photovoltaic panel 315 can fully convert light energy.

[0038] The zero-carbon machine room photovoltaic green energy utilization method provided by the embodiment of the application is described in detail below, and the use method comprises the following steps:

[0039] Step 1, Structural Adjustment: When using a power distribution room, the storage mechanism 2 is installed inside the power distribution room. Existing electrical equipment can then be installed through the cabinet 201. At this time, under the action of the fan 204 inside the movable frame 203, the airflow generated by the fan 204 can flow rapidly along the outer surface of the cabinet 201. When the airflow passes through the heat-conducting plate 205, the heat dissipation inside the cabinet 201 is accelerated by the heat-conducting plate 205, ensuring the normal operating environment of the electrical equipment. Simultaneously, the support frame 101 is set parallel to the roof direction of the power distribution room, and the base block 105 and base plate 104 can stably support the power distribution room. The support mechanism 1 is installed on the roof of the power distribution room. Depending on the size of the roof, the number of support frames 101, connecting rings 106, and base blocks 105 can be adjusted to ensure that adjacent support frames 101 are securely connected via connecting rings 106 and connecting blocks 102. The abutment block 311 is rotated to a vertical position and then slidably inserted into the support frame 101. A rotating positioning bolt extends one end of the positioning block 312 into the slot, securing the abutment block 311 firmly inside the support frame 101. Supported by the abutment block 311, the support block 310, in conjunction with the adjusting pipe 309, adjusts... The link 307, rotating frame 314, and guide frame 306 can support the base frame 304 to be stably installed on the roof of the power distribution room. The base frame, through the heat-conducting plate 301 and photovoltaic panel 315, can shield the roof of the power distribution room, preventing direct sunlight from hitting the roof and thus reducing the internal temperature of the power distribution room, maintaining the normal operating temperature of the electrical equipment. When the power distribution room is not in use, the cabinet 201 is placed in the designated location, and the support frame 101 is vertically installed around the cabinet 201 via the base block 105. At this time, the first extension ring 107 and the second extension ring 108, in conjunction with the first connecting rod 109, the extension rod 110, and the second connecting rod... The rod 111 can provide stable support for the adjacent support frame 101, thereby enabling the spliced ​​support mechanism 1 to be stably set around the cabinet 201. Then, the rotating block 311 is rotated to a horizontal state, and the positioning block 312 enables the photovoltaic mechanism 3 to be stably set on the top of the cabinet 201. The heat conduction plate 301 and the photovoltaic panel 315 can block the top of the cabinet 201, preventing sunlight from directly shining on the cabinet 201. This can prevent the internal operating environment temperature of the cabinet 201 from being too high, ensuring the normal operating environment of the power equipment. It also allows the equipment to be easily adjusted according to the actual use, enabling the equipment to efficiently realize its intended functions.

[0040] Step two, function adjustment: the photovoltaic panel 315 can efficiently convert light energy into electrical energy, and then can provide operating energy for the fan 204 and the basic power equipment inside the power distribution room, thereby avoiding the use of electrical energy in the power supply system, so that the power distribution room can use green energy generated by the photovoltaic panel 315, and then the power distribution room can be in a zero-carbon state. By rotating the adjusting ring 308, the height of the adjusting rod 307 can be conveniently adjusted, and then the angle of the chassis 304 can be conveniently adjusted under the support of the adjusting rod 307, and then the angle of the photovoltaic panel 315 can be conveniently adjusted, so that the photovoltaic panel 315 can fully convert light energy. At the same time, the use of the fan 204 can be increased by the sliding frame 202, and the existing water resource circulating conveying equipment can be connected through the connecting pipe 305, and then the excess heat of the photovoltaic panel 315 can be transmitted to the flowing water resource through the heat-conducting plate 301 and the temperature-conducting frame 302, thereby reducing the operating temperature of the photovoltaic panel 315, ensuring that the photovoltaic panel 315 can operate efficiently. At the same time, by stopping the delivery of water resources, the moving frame 203 on both sides of the cabinet 201 is arranged in the low sliding frame 202, and then in the state of not using the power distribution room, the excess heat generated by the electrical equipment in the cabinet 201 can be conveyed to the bottom of the photovoltaic panel 315 under the guidance of the flowing air generated by the fan 204, thereby preventing freezing on the top of the photovoltaic panel 315, ensuring that the photovoltaic panel 315 can normally realize the required functions, and making the equipment can efficiently realize the required functions.

[0041] The above only describes the preferred embodiments of the present application and is not intended to limit the present application. Any modifications, equivalent replacements and improvements made within the spirit and principle of the present application shall be included in the protection scope of the present application.

Claims

1. A zero-carbon computer room photovoltaic green energy utilization device, characterized in that, include: A support mechanism (1) is used to provide a stable installation foundation. The support mechanism (1) includes a support frame (101), three connecting blocks (102), and a support component. The three connecting blocks (102) are all fixedly connected to the outer surface of one side of the support frame (101). Four extension rings are fixedly connected to the outer surface of one side of the support frame (101). Multiple slots are equidistantly opened on the inner surface of both sides of the support frame (101). The support component is set on the three connecting blocks (102). The support component includes a bottom block (105) and a connecting ring (106). The bottom block (105) is slidably sleeved on the outer surface of the corresponding connecting block (102). The connecting ring (106) is slidably sleeved on the outer surface of the corresponding connecting block (102). It is used to stably splice the components according to the size of the roof of the power distribution room and in conjunction with the support frame (101) and the bottom block (105). Storage facility (2) is used to provide an installation foundation for existing power equipment; as well as A photovoltaic mechanism (3) is used to adjust the usage state of the storage mechanism (2). The photovoltaic mechanism (3) is mounted on the support mechanism (1). The photovoltaic mechanism (3) includes two heat-conducting plates (301), a base frame (304), two photovoltaic panels (315), and an adjustment component. The base frame (304) is fixedly connected between the bottoms of the two heat-conducting plates (301). The two photovoltaic panels (315) are respectively mounted on the tops of the two heat-conducting plates (301). The adjustment component is mounted on the base frame (304). The adjustment component includes four guide frames (306), four adjustment rods (307), four rotating frames (314), and four adjustment tubes (309). The four guide frames (306) are all fixedly connected to the bottom of the base frame (304). The rotating frames (314) are slidably embedded inside the corresponding guide frames (306). A rotating shaft is slidably passed between the inner walls on both sides of each rotating frame (314). The four adjusting rods (307) are slidably sleeved on the outer surface of the corresponding rotating shaft. An adjusting ring (308) is threadedly connected to the outer surface of each adjusting rod (307). The four adjusting tubes (309) are rotatably connected to the bottom end of the corresponding adjusting ring (308). A support block (310) is fixedly connected to the bottom end of each adjusting tube (309). A stop block (311) is rotatably connected to one side of the outer surface of each support block (310). A positioning bolt is rotatably connected to both sides of the outer surface of each stop block (311). A positioning block (312) is threadedly connected to the outer surface of each positioning bolt.

2. The zero-carbon computer room photovoltaic green energy utilization device as described in claim 1, characterized in that: Each of the connecting blocks (102) has a washer (103) slidably fitted on its outer surface, and each of the connecting blocks (102) has a limit nut threadedly connected to its outer surface.

3. The zero-carbon computer room photovoltaic green energy utilization device as described in claim 2, characterized in that: The supporting component also includes a first extension ring (107), a second extension ring (108), a first connecting rod (109), an extension rod (110), and a second connecting rod (111). The first extension ring (107) and the second extension ring (108) are slidably sleeved on the outer surface of the corresponding connecting block (102). The first connecting rod (109) slides through the outer surface of one side of the first extension ring (107). The extension rod (110) is threaded to one end of the first connecting rod (109), and the second connecting rod (111) is threaded to one end of the extension rod (110).

4. The zero-carbon computer room photovoltaic green energy utilization device as described in claim 3, characterized in that: The bottom of the base block (105) is fixedly connected to the base plate (104) by bolts, and the outer surface of the first connecting rod (109) is threaded with two support nuts.

5. A zero-carbon computer room photovoltaic green energy utilization device as described in claim 4, characterized in that: The storage mechanism (2) includes a cabinet (201), four sliding frames (202) and two movable frames (203). Multiple heat-conducting plates (205) are fixedly connected at equal intervals on both outer surfaces of the cabinet (201). The four sliding frames (202) are fixedly connected to the outer surfaces of both sides of the cabinet (201). The two movable frames (203) are slidably inserted into the corresponding sliding frames (202). Multiple fans (204) are fixedly connected inside each movable frame (203). The top and bottom of each sliding frame (202) are open structures.

6. The zero-carbon computer room photovoltaic green energy utilization device as described in claim 5, characterized in that: The adjusting component also includes two abutments (313), which are slidably inserted between the tops of the corresponding two support blocks (310).

7. A zero-carbon computer room photovoltaic green energy utilization device as described in claim 6, characterized in that: Two sliding frames (202) are also fixedly connected to the bottom of the base frame (304). Two positioning nuts are threadedly connected to the outer surface of each rotating shaft. Two liquid storage frames are provided inside the base frame (304). Multiple temperature-conducting frames (302) are equidistantly penetrating the top of the base frame (304). The top of each temperature-conducting frame (302) is attached to the bottom of the corresponding heat-conducting plate (301). A liquid-conducting tube (303) is penetrating between the multiple temperature-conducting frames (302). Both ends of the liquid-conducting tube (303) extend to the corresponding liquid storage frame. A connecting tube (305) is connected to one side of the outer surface of each liquid storage frame. One end of each connecting tube (305) extends to the outside of the base frame (304).

8. A method for utilizing photovoltaic green energy in a zero-carbon computer room, characterized in that, The device, applied to a zero-carbon computer room photovoltaic green energy utilization device as described in claim 7, includes the following steps: S1. Structural Adjustment: When a power distribution room is used, the storage mechanism (2) is set inside the power distribution room, and the existing power equipment can be installed through the cabinet (201). At this time, under the action of the fan (204) inside the moving frame (203), the airflow generated by the fan (204) can flow quickly along the outer surface of the cabinet (201). When the airflow passes through the heat-conducting plate (205), the airflow can accelerate the dissipation of heat inside the cabinet (201) under the transmission of the heat-conducting plate (205), ensuring the normal operating environment of the power equipment. At the same time, the support frame (101) is set parallel to the roof direction of the power distribution room, and the bottom block (105) and the bottom plate are connected. (104) The support mechanism (1) can be stably installed on the roof of the power distribution room. At the same time, depending on the size of the roof of the power distribution room, the number of support frames (101), connecting rings (106) and bottom blocks (105) can be increased or decreased so that adjacent support frames (101) can be stably spliced ​​together by connecting rings (106) and connecting blocks (102). At this time, the abutment block (311) is rotated to a vertical position and then slid into the support frame (101). Then, by rotating the positioning bolt, the rotating positioning bolt can extend one end of the positioning block (312) into the slot, so that the abutment block (311) can be stably locked in the support frame (101). At this time, the abutment block (312) is in a vertical position. 1) With the support of the support block (310), the adjustment pipe (309), adjustment rod (307), rotating frame (314) and guide frame (306) can support the base frame (304) to be stably set on the roof of the power distribution room. The base frame can block the roof of the power distribution room through the heat conduction plate (301) and photovoltaic panel (315), so that the sunlight cannot directly shine on the roof of the power distribution room, thereby reducing the internal temperature of the power distribution room and maintaining the normal operating temperature of the power equipment. When the power distribution room is not used, the cabinet (201) is set in the designated use position, and then the support frame (101) is vertically set around the cabinet (201) through the base block (105). At this time, through the first extension The ring (107) and the second extension ring (108) work together with the first connecting rod (109), the extension rod (110) and the second connecting rod (111) to provide stable support for the adjacent support frame (101), thereby enabling the spliced ​​support mechanism (1) to be stably set around the cabinet (201), and then rotate the abutment block (311) to a horizontal state, and then through the positioning block (312) enable the photovoltaic mechanism (3) to be stably set on the top of the cabinet (201), so that the heat conduction plate (301) and the photovoltaic plate (315) can block the top of the cabinet (201), so that sunlight cannot directly shine on the cabinet (201), thereby preventing the internal operating environment temperature of the cabinet (201) from being too high; S2, Functional Adjustment: The photovoltaic panel (315) can efficiently convert light energy into electrical energy, thereby providing operating energy for the wind turbine (204) and the basic electrical equipment inside the power distribution room. This avoids the use of electrical energy from the power supply system, allowing the power distribution room to operate in a zero-carbon state by using the green energy generated by the photovoltaic panel (315). By rotating the adjustment ring (308), the height of the adjustment rod (307) can be easily adjusted. With the support of the adjustment rod (307), the angle of the base frame (304) can be easily adjusted, thereby allowing the angle of the photovoltaic panel (315) to be easily adjusted, so that the photovoltaic panel (315) can fully convert light energy. At the same time, the sliding frame (202) can be used to increase the height of the wind turbine (204). 4) can be used and connected to the existing water resource circulation and transportation equipment through the connecting pipe (305). In conjunction with the liquid storage frame and the liquid guide pipe (303), the excess heat of the photovoltaic panel (315) can be transferred to the flowing water through the heat conduction plate (301) and the temperature conduction frame (302), thereby reducing the operating temperature of the photovoltaic panel (315) and ensuring that the photovoltaic panel (315) can operate efficiently. At the same time, by stopping the transportation of water resources, the movable frames (203) on both sides of the cabinet (201) are set inside the low sliding frame (202). Thus, without the use of a power distribution room, the excess heat generated by the electrical equipment inside the cabinet (201) can be transported to the bottom of the photovoltaic panel (315) under the guidance of the airflow generated by the fan (204), thereby preventing the top of the photovoltaic panel (315) from freezing.

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