Internal heat dissipation system of new energy wind and light power station and use method of internal heat dissipation system

Abstract

The invention belongs to the technical field of heat dissipation systems, and particularly relates to an internal heat dissipation system of a new energy wind-light power station, which comprises a wind-light power station main body, an air inlet pipe is fixed in the middle of one end of the upper surface of the wind-light power station main body, and an exhaust pipe is fixed in the middle of one end of the upper surface of the wind-light power station main body far away from the air inlet pipe; the wind and light power station has the beneficial effects that heat dissipation of the interior of the wind and light power station body is facilitated, heat dissipation of the interior of the wind and light power station body is facilitated in the operation process of the wind and light power station body, and heat dissipation of the wind and light power station body is facilitated. When the wind-light power station main body is in use, various devices in the wind-light power station main body can generate heat, and heat in the wind-light power station main body can be dissipated in time, so that the performance and the service life of the wind-light power station main body can be ensured, and the wind-light power station main body can be used favorably.

Description

Technical Field

[0001] The present invention relates to the technical field of heat dissipation systems, and in particular to an internal heat dissipation system of a new energy wind and solar power station and a method of using the same. Background Art

[0002] A power station is a facility that converts various natural energy sources (such as coal, oil, natural gas, hydropower, wind power, solar energy, nuclear energy, etc.) into electrical energy through specific equipment and technology. A power station usually uses a step-up transformer to increase the voltage of the generated electrical energy for long-distance transmission. High-voltage transmission can reduce the loss of electrical energy during transmission and improve energy utilization efficiency.

[0003] A new energy wind and solar power station is a facility that uses new energy such as wind energy and solar energy to generate electricity. Wind energy and solar energy are both renewable energy sources. They do not produce pollutants and greenhouse gases during the power generation process and are environmentally friendly. Wind and solar energy resources are abundant and inexhaustible, and can provide humans with a long-term and stable energy supply.

[0004] However, the existing wind and solar power stations are not conducive to the heat dissipation inside the wind and solar power stations. During the operation of the new energy wind and solar power stations, various equipment in the new energy wind and solar power stations will generate a lot of heat. If the heat is not dissipated in time, it will seriously affect the performance and service life of the equipment and affect the use of the wind and solar power stations.

[0005] To this end, we propose an internal heat dissipation system for a new energy wind and solar power station and a method for using the same. Summary of the invention

[0006] In view of the above-mentioned and / or existing problems in the internal heat dissipation system of an existing new energy wind and solar power station and the use method thereof, the present invention is proposed.

[0007] Therefore, the purpose of the present invention is to provide an internal heat dissipation system of a new energy wind and solar power station and a method of using the same. By improving the existing new energy wind and solar power station, it can solve the problem that the above-mentioned prior art is not conducive to the internal heat dissipation of the wind and solar power station. During the operation of the new energy wind and solar power station, various equipment in the new energy wind and solar power station will generate a large amount of heat. If the heat is not dissipated in time, it will seriously affect the performance and service life of the equipment and affect the use of the wind and solar power station.

[0008] To solve the above technical problems, according to one aspect of the present invention, the present invention provides the following technical solutions:

[0009] An internal heat dissipation system of a new energy wind and solar power station comprises a wind and solar power station body, an air inlet pipe is fixed in the middle of one end of the upper surface of the wind and solar power station body, a matching air inlet hole is opened on the inner ring surface of the wind and solar power station body corresponding to the air inlet pipe, an exhaust pipe is fixed in the middle of the upper surface of the wind and solar power station body away from one end of the air inlet pipe, a matching exhaust hole is opened on the inner ring surface of the wind and solar power station body corresponding to the exhaust pipe, a second speed regulating motor is installed at the bottom of the exhaust pipe, the output shaft of the second speed regulating motor faces upward, a second induced draft fan is installed at the upper end of the output shaft of the second speed regulating motor, a first speed regulating motor is installed at the bottom of the air inlet pipe, the output shaft of the first speed regulating motor faces downward, a first induced draft fan is installed at the lower end of the output shaft of the first speed regulating motor, a fixing frame is fixed at the top of the outer ring surface of the air inlet pipe close to the exhaust pipe, a cooler is installed in the fixing frame, a matching retention hole is opened on the inner side of the air inlet pipe corresponding to the fixing frame, and a temperature sensor is installed in the middle of the top of the wind and solar power station body.

[0010] As a preferred solution of the internal heat dissipation system of a new energy wind-solar power station described in the present invention, wherein: the temperature sensor passes through the inner surface and the outer surface of the corresponding position on the top of the wind-solar power station body, a PLC controller is installed in the middle of one side of the upper surface of the wind-solar power station body, the wind-solar power station body can fix and limit the PLC controller, the temperature sensor and the PLC controller are electrically connected, the refrigerator and the PLC controller are electrically connected, the first speed regulating motor and the PLC controller are electrically connected, the second speed regulating motor and the PLC controller are electrically connected, the air inlet passes through the inner surface and the outer surface of the corresponding position on the top of the wind-solar power station body, and the exhaust hole passes through the inner surface and the outer surface of the corresponding position on the top of the wind-solar power station body.

[0011] As a preferred solution of the internal heat dissipation system of a new energy wind and solar power station described in the present invention, wherein: the retention hole penetrates the inner annular surface and the outer annular surface at the corresponding position on the air inlet pipe, a second baffle is fixed to the end of the fixed frame away from the air inlet pipe, the end surface of the refrigerator close to the second baffle is installed between the corresponding position on the opposite surface of the second baffle, the end of the refrigerator away from the second baffle is located in the retention hole on the air inlet pipe, and the second baffle and the fixed frame help to shield and protect the refrigerator.

[0012] As a preferred solution of the internal heat dissipation system of a new energy wind and solar power station described in the present invention, wherein: a first fixing rod is fixed to the middle of the surrounding surface of the first speed regulating motor, and the end of the first fixing rod away from the first speed regulating motor is fixedly connected to the corresponding position on the inner ring surface of the intake pipe; a second fixing rod is fixed to the middle of the surrounding surface of the second speed regulating motor, and the end of the second fixing rod away from the second speed regulating motor is fixedly connected to the corresponding position on the inner ring surface of the exhaust pipe, and the second fixing rod can fix and limit the second speed regulating motor.

[0013] As a preferred solution of the internal heat dissipation system of a new energy wind and solar power station described in the present invention, wherein: a first bent tube is fixed on the upper end surface of the air inlet pipe, a first mounting ring is fixed on the end surface of the first bent tube away from the air inlet pipe, a second mounting ring is provided on the side surface of the first mounting ring away from the first bent tube, bolts are commonly threadedly inserted in the horizontal direction between the middle parts of the first mounting ring and the second mounting ring, the bolts are all in a horizontal state and penetrate the two side surfaces of the corresponding positions on the first mounting ring and the second mounting ring, and the bolts can be used to install and limit the first mounting ring and the second mounting ring.

[0014] As a preferred solution of the internal heat dissipation system of a new energy wind and solar power station described in the present invention, wherein: a first connecting pipe is fixed to the surface of the side of the second mounting ring away from the first mounting ring, and a first porous mesh plate is fixed to the end of the inner ring surface of the first connecting pipe away from the second mounting ring, and the first porous mesh plate can shield and protect the inside of the first connecting pipe.

[0015] As a preferred solution of the internal heat dissipation system of a new energy wind and solar power station described in the present invention, wherein: a porous activated carbon block is slidably installed horizontally between one end of the inner side of the first connecting tube away from the first porous mesh plate and the inner side of the second mounting ring, and blocks are fixed around the outer ring surface of the porous activated carbon block, and matching grooves are provided on the inner ring surface of the first connecting tube away from the first porous mesh plate and the inner ring surface of the second mounting ring corresponding to the blocks, and the grooves and blocks are helpful to limit the second mounting ring and the first connecting tube and the porous activated carbon block.

[0016] As a preferred solution of the internal heat dissipation system of a new energy wind and solar power station described in the present invention, wherein: a second bent tube is fixed to the upper end surface of the exhaust pipe, a second connecting tube is fixed to the end surface of the second bent tube away from the exhaust pipe, and a second porous mesh plate is fixed to the end of the inner annular surface of the second connecting tube away from the second bent tube, and the second porous mesh plate can shield and protect the inside of the second connecting tube.

[0017] As a preferred solution for the internal heat dissipation system of a new energy wind and solar power station described in the present invention, connecting blocks are fixed at the four corners of the PLC controller in the middle of the upper surface of the main body of the wind and solar power station close to the PLC controller, and a first baffle is commonly fixed between the upper end surfaces of the connecting blocks, and the connecting blocks can fix and limit the first baffle.

[0018] The present invention provides a method for using an internal heat dissipation system of a new energy wind and solar power station, the method comprising the following steps:

[0019] Step 1: The first induced draft fan is driven to rotate by the first speed regulating motor. When the first induced draft fan rotates, it can extract the outside air through the air inlet pipe, the first bending pipe and the first connecting pipe. The first induced draft fan can form the extracted air into an airflow and blow it into the main body of the wind-solar power station through the air inlet hole on the main body of the wind-solar power station;

[0020] Step 2: The second induced draft fan is driven to rotate by the second speed regulating motor. When the second induced draft fan rotates, the air in the main body of the wind-solar power station can be extracted through the exhaust holes on the main body of the wind-solar power station. The second induced draft fan can form the extracted air into an airflow and discharge it through the exhaust pipe, the second bent pipe, the second connecting pipe and the second porous mesh plate;

[0021] Step 3: intake air through the air inlet holes on the main body of the wind-solar power station and exhaust air through the exhaust holes on the main body of the wind-solar power station, so as to promote the flow of air in the main body of the wind-solar power station and help to dissipate heat in the main body of the wind-solar power station;

[0022] Step 4: When the efficiency of heat dissipation in the main body of the wind and solar power station is poor, turn on the refrigerator. The refrigerator can cool the air in the air inlet pipe through the retention hole, so that the air entering the main body of the wind and solar power station through the air inlet hole on the main body of the wind and solar power station is in a low temperature state, so as to ensure the effect and efficiency of heat dissipation in the main body of the wind and solar power station.

[0023] Compared with the prior art, the beneficial effects achieved by the present invention are:

[0024] 1. In the present invention, the first induced draft fan and the second induced draft fan can promote the flow of air in the main body of the wind-solar power station when rotating, which is helpful to dissipate the heat inside the main body of the wind-solar power station when in use. During the operation of the main body of the wind-solar power station, various equipment in the main body of the wind-solar power station will generate heat, which can dissipate the heat inside the main body of the wind-solar power station in time, so as to ensure the performance and service life of the main body of the wind-solar power station, and help to use the main body of the wind-solar power station.

[0025] 2. In the present invention, the rotation speeds of the first induced ventilator and the second induced ventilator can be adjusted by the first speed regulating motor and the second speed regulating motor, the fixed frame and the second baffle can shield and protect the refrigerator, and the refrigerator can cool and cool the air passing through the air intake pipe through the retention holes, so that the airflow entering the main body of the wind and solar power station is in a low-temperature state, which helps to improve the efficiency of heat dissipation in the main body of the wind and solar power station.

[0026] 3. In the present invention, the air in the main body of the wind and solar power station can be detected by a temperature sensor. When the air entering the first connecting pipe passes through the porous activated carbon block, the porous activated carbon block can filter the dust in the air, which is convenient for the use of the main body of the wind and solar power station. The porous activated carbon block can adsorb the moisture in the passing air, which can prevent the air entering the main body of the wind and solar power station from carrying moisture and affecting its use. BRIEF DESCRIPTION OF THE DRAWINGS

[0027] Figure 1 It is a structural schematic diagram of the present invention;

[0028] Figure 2 is a schematic diagram of the second baffle structure of the present invention;

[0029] Figure 3 is a schematic diagram of the first baffle structure of the present invention;

[0030] Figure 4 It is a schematic diagram of the fixing frame structure of the present invention;

[0031] Figure 5 It is a schematic diagram of the connection block structure of the present invention;

[0032] Figure 6 It is a schematic diagram of the structure of the second mounting ring of the present invention;

[0033] Figure 7 It is a schematic diagram of the card slot structure of the present invention;

[0034] Figure 8 It is a schematic diagram of the card block structure of the present invention.

[0035] In the figure: 1. Wind-solar power station body; 2. Air inlet; 3. Exhaust hole; 4. Air inlet pipe; 5. Exhaust pipe; 6. First bent pipe; 7. Second bent pipe; 8. First mounting ring; 9. Second mounting ring; 10. Bolt; 11. First connecting pipe; 12. Second connecting pipe; 13. First porous mesh plate; 14. Second porous mesh plate; 15. First fixing rod; 16. Second fixing rod; 17. First speed regulating motor; 18. Second speed regulating motor; 19. Block; 20. Slot; 21. Porous activated carbon block; 22. Temperature sensor; 23. PLC controller; 24. First baffle; 25. Second baffle; 26. First induced draft fan; 27. Second induced draft fan; 28. Retention hole; 29. ​​Fixing frame; 30. Refrigerator; 31. Connecting block. DETAILED DESCRIPTION

[0036] To make the objectives, technical solutions and advantages of the present invention more clear, the embodiments of the present invention will be further described in detail below with reference to the accompanying drawings.

[0037] The present invention provides an internal heat dissipation system of a new energy wind-solar power station and a method for using the same, which is helpful for dissipating heat inside the main body of the wind-solar power station. During the operation of the main body of the wind-solar power station, various devices in the main body of the wind-solar power station will generate heat, and the heat inside the main body of the wind-solar power station can be dissipated in time, so as to ensure the performance and service life of the main body of the wind-solar power station, and is helpful for using the main body of the wind-solar power station.

[0038] See also Figure 1-8 , an internal heat dissipation system of a new energy wind and solar power station, comprising a wind and solar power station body 1, an air intake pipe 4 is fixed in the middle of one end of the upper surface of the wind and solar power station body 1, and a matching air intake hole 2 is opened on the inner ring surface of the wind and solar power station body 1 corresponding to the air intake pipe 4, an exhaust pipe 5 is fixed in the middle of one end of the upper surface of the wind and solar power station body 1 away from the air intake pipe 4, and a matching exhaust hole 3 is opened on the inner ring surface of the wind and solar power station body 1 corresponding to the exhaust pipe 5, a second speed regulating motor 18 is installed at the bottom of the exhaust pipe 5, the output shaft of the second speed regulating motor 18 faces upward, and a second induced fan 27 is installed at the upper end of the output shaft of the second speed regulating motor 18, a first speed regulating motor 17 is installed at the bottom of the air intake pipe 4, the output shaft of the first speed regulating motor 17 faces downward, and a first speed regulating motor 17 is installed at the lower end of the output shaft An induced-current fan 26 is provided, and a fixing frame 29 is fixed on the top of the outer ring surface of the air inlet pipe 4 close to the exhaust pipe 5. A refrigerator 30 is installed in the fixing frame 29. A matching retaining hole 28 is opened on the inner side of the corresponding fixing frame 29 on the air inlet pipe 4. A temperature sensor 22 is installed in the middle of the top of the main body 1 of the wind-solar power station. The first induced-current fan 26 and the second induced-current fan 27 can promote the flow of air in the main body 1 of the wind-solar power station when they rotate, which helps to dissipate the heat inside the main body 1 of the wind-solar power station when in use. During the operation of the main body 1 of the wind-solar power station, various equipment in the main body 1 of the wind-solar power station will generate heat, which can dissipate the heat in the main body 1 of the wind-solar power station in time, so as to ensure the performance and service life of the main body 1 of the wind-solar power station, and help to use the main body 1 of the wind-solar power station.

[0039] Among them, the temperature sensor 22 penetrates the inner surface and the outer surface of the corresponding position on the top of the main body 1 of the wind-solar power station, and a PLC controller 23 is installed in the middle of one side of the upper surface of the main body 1 of the wind-solar power station. The main body 1 of the wind-solar power station can fix and limit the PLC controller 23. The temperature sensor 22 is electrically connected to the PLC controller 23, the refrigerator 30 is electrically connected to the PLC controller 23, the first speed regulating motor 17 is electrically connected to the PLC controller 23, and the second speed regulating motor 18 is electrically connected to the PLC controller 23. The air inlet 2 penetrates the main body of the wind-solar power station. The inner surface and the outer surface of the corresponding position of the top of the body 1, the exhaust hole 3 passes through the inner surface and the outer surface of the corresponding position of the top of the main body 1 of the wind-solar power station; the retention hole 28 passes through the inner annular surface and the outer annular surface of the corresponding position on the intake pipe 4, and the second baffle 25 is fixed on the end of the fixed frame 29 away from the intake pipe 4. The refrigerator 30 is installed between the end surface close to the second baffle 25 and the corresponding position on the opposite surface of the second baffle 25. The end of the refrigerator 30 away from the second baffle 25 is located in the retention hole 28 on the intake pipe 4. The second baffle 25 and the fixed frame 29 help to shield and protect the refrigerator 30.

[0040] A first fixing rod 15 is fixed to the middle of the surface of the first speed regulating motor 17, and one end of the first fixing rod 15 away from the first speed regulating motor 17 is fixedly connected to the corresponding position on the inner ring surface of the intake pipe 4. A second fixing rod 16 is fixed to the middle of the surface of the second speed regulating motor 18, and one end of the second fixing rod 16 away from the second speed regulating motor 18 is fixedly connected to the corresponding position on the inner ring surface of the exhaust pipe 5. The second fixing rod 16 can fix and limit the second speed regulating motor 18; the upper part of the intake pipe 4 A first bent tube 6 is fixed to the end surface, a first mounting ring 8 is fixed to the end surface of the first bent tube 6 away from the intake pipe 4, a second mounting ring 9 is provided on the side surface of the first mounting ring 8 away from the first bent tube 6, bolts 10 are threadedly inserted in the horizontal direction between the middle parts of the first mounting ring 8 and the second mounting ring 9, the bolts 10 are in a horizontal state and penetrate the two side surfaces of the corresponding positions on the first mounting ring 8 and the second mounting ring 9, and the bolts 10 can be used to install and limit the first mounting ring 8 and the second mounting ring 9.

[0041] A first connecting tube 11 is fixed to a surface of a side of the second mounting ring 9 away from the first mounting ring 8, and a first porous mesh plate 13 is fixed to an end of the inner ring surface of the first connecting tube 11 away from the second mounting ring 9, and the first porous mesh plate 13 can shield and protect the inside of the first connecting tube 11; a porous activated carbon block 21 is slidably installed horizontally between an end of the inner side of the first connecting tube 11 away from the first porous mesh plate 13 and the inner side of the second mounting ring 9, and blocks 19 are fixed around the outer ring surface of the porous activated carbon block 21, and matching grooves 20 are provided on the end of the inner ring surface of the first connecting tube 11 away from the first porous mesh plate 13 and the inner ring surface of the second mounting ring 9 corresponding to the blocks 19, and the grooves 20 and the blocks 19 are helpful to limit the second mounting ring 9 and the first connecting tube 11 and the porous activated carbon block 21.

[0042] A second bent tube 7 is fixed to the upper end surface of the exhaust pipe 5, a second connecting tube 12 is fixed to the end surface of the second bent tube 7 away from the exhaust pipe 5, a second porous mesh plate 14 is fixed to the end of the inner annular surface of the second connecting tube 12 away from the second bent tube 7, and the second porous mesh plate 14 can shield and protect the inside of the second connecting tube 12; connecting blocks 31 are fixed to the four corners of the PLC controller 23 in the middle of the upper surface of the wind-solar power station body 1 close to the PLC controller 23, and a first baffle 24 is fixed between the upper end surfaces of the connecting blocks 31, and the connecting blocks 31 can fix and limit the first baffle 24.

[0043] The present invention provides a method for using an internal heat dissipation system of a new energy wind and solar power station, the method comprising the following steps:

[0044] Step 1: The first induced draft fan 26 is driven to rotate by the first speed regulating motor 17. When the first induced draft fan 26 rotates, it can extract the outside air through the air inlet pipe 4, the first bent pipe 6 and the first connecting pipe 11. The first induced draft fan 26 can form the extracted air into an airflow and blow it into the main body 1 of the wind-solar power station through the air inlet hole 2 on the main body 1 of the wind-solar power station;

[0045] Step 2: The second induced draft fan 27 is driven to rotate by the second speed regulating motor 18. When the second induced draft fan 27 rotates, the air in the wind-solar power station body 1 can be extracted through the exhaust hole 3 on the wind-solar power station body 1. The second induced draft fan 27 can form the extracted air into an airflow and discharge it through the exhaust pipe 5, the second bent pipe 7, the second connecting pipe 12 and the second porous mesh plate 14;

[0046] Step 3: intake air through the air inlet 2 on the main body 1 of the wind-solar power station and exhaust air through the exhaust hole 3 on the main body 1 of the wind-solar power station, so as to promote the flow of air in the main body 1 of the wind-solar power station and help to dissipate heat in the main body 1 of the wind-solar power station;

[0047] Step 4: When the efficiency of heat dissipation in the main body 1 of the wind-solar power station is poor, turn on the refrigerator 30. The refrigerator 30 can cool and cool the air in the air inlet pipe 4 through the retention hole 28, so that the air entering the main body 1 of the wind-solar power station through the air inlet hole 2 on the main body 1 of the wind-solar power station is in a low-temperature state, so as to ensure the effect and efficiency of heat dissipation in the main body 1 of the wind-solar power station.

[0048] The working principle of the present invention: During use, the wind-solar power station body 1 is installed at the position where it needs to be used, and the power generation equipment to be used is installed in the wind-solar power station body 1. The wind-solar power station body 1 can fix and limit the power generation equipment installed in the wind-solar power station body 1, which is helpful for stable use of the wind-solar power station body 1 and the power generation equipment installed in the wind-solar power station body 1. The wind-solar power station body 1 can support and limit the various components assembled on the wind-solar power station body 1, which is convenient for stable use of the various components assembled on the wind-solar power station body 1.

[0049] The power generation equipment in the main body 1 of the wind-solar power station is opened to use the main body 1 of the wind-solar power station. When the main body 1 of the wind-solar power station is used, the power generation equipment in the main body 1 of the wind-solar power station will generate heat. The temperature sensor 22 is further opened. When the temperature sensor 22 is opened, the temperature sensor 22 can detect the temperature in the main body 1 of the wind-solar power station. The temperature sensor 22 can transmit the detected temperature data to the PLC controller 23. The main body 1 of the wind-solar power station can fix and limit the PLC controller 23, which is conducive to the stable use of the PLC controller 23. When the temperature sensor 22 detects that the temperature in the main body 1 of the wind-solar power station is higher than 40°C, the PLC controller 23 will open the first speed regulating motor 17 and the second speed regulating motor 18. The air intake pipe 4 can fix and limit the first speed regulating motor 17 through the first fixing rod 15, which is convenient for the stable use of the first speed regulating motor 17. The exhaust pipe 5 can fix and limit the second speed regulating motor 18 through the second fixing rod 16, which is conducive to the stable use of the second speed regulating motor 18.

[0050] When the first speed regulating motor 17 is turned on, the output shaft of the first speed regulating motor 17 can drive the first induced draft fan 26 to rotate. When the first induced draft fan 26 rotates, it can draw air from the outside through the air intake pipe 4, the first bent pipe 6, the porous activated carbon block 21, the first connecting pipe 11 and the first porous mesh plate 13. The first induced draft fan 26 can form an airflow with the drawn air and blow it into the main body 1 of the wind-solar power station through the air intake hole 2 on the main body 1 of the wind-solar power station. When the second speed regulating motor 18 is turned on, the output shaft of the second speed regulating motor 18 can drive the second induced draft fan 27 to rotate. When the second induced draft fan 27 rotates, it can draw air from the main body 1 of the wind-solar power station through the exhaust pipe 5 and the exhaust hole 3 on the main body 1 of the wind-solar power station. The second induced draft fan 27 can form an airflow with the drawn air and discharge it through the second bent pipe 7, the second connecting pipe 12 and the second porous mesh plate 14 to promote the flow of air in the main body 1 of the wind-solar power station, which is helpful for heat dissipation in the main body 1 of the wind-solar power station.

[0051] When the temperature sensor 22 detects that the temperature inside the main body 1 of the wind and solar power station is higher than 50°C, the PLC controller 23 will increase the speed of the first speed regulating motor 17 and the second speed regulating motor 18, so that the first speed regulating motor 17 drives the first induced draft fan 26 to rotate at a higher speed, and the second speed regulating motor 18 drives the second induced draft fan 27 to rotate at a higher speed, so as to improve the efficiency of heat dissipation in the main body 1 of the wind and solar power station. When the temperature sensor 22 detects that the temperature inside the main body 1 of the wind and solar power station is higher than 60°C, the PLC controller 23 will open the refrigerator 30 in the fixed frame 29, and the fixed frame 29 and the second baffle 25 can shield and protect the refrigerator 30. The refrigerator 30 can cool and cool the air passing through the air intake pipe 4 through the retention hole 28, so that the airflow entering the main body 1 of the wind and solar power station is in a low temperature state, which helps to improve the efficiency of heat dissipation in the main body 1 of the wind and solar power station.

[0052] When the air entering the first connecting pipe 11 passes through the porous activated carbon block 21, the porous activated carbon block 21 can filter the dust in the air, which is convenient for the use of the wind-solar power station body 1. The porous activated carbon block 21 can adsorb the moisture in the passing air, which can prevent the air entering the wind-solar power station body 1 from carrying moisture and affecting the use. The first porous mesh plate 13 can shield and protect the first connecting pipe 11, which is convenient for preventing dirt or foreign matter from entering the first connecting pipe 11 and affecting the use. The second porous mesh plate 14 can shield and protect the second connecting pipe 12, which helps to prevent dirt or foreign matter from entering the second connecting pipe 12 and affecting the use. The connecting block 31 can fix and limit the first baffle 24, which is convenient for the stable use of the first baffle 24. The first baffle 24 can shield and protect the upper side of the PLC controller 23, which helps to use the PLC controller 23.

[0053] When the porous activated carbon block 21 needs to be disassembled and replaced, the bolt 10 is rotated and removed, so that the bolt 10 cancels the limit between the first mounting ring 8 and the second mounting ring 9, and the second mounting ring 9 is further removed. After the second mounting ring 9 is removed, the porous activated carbon block 21 is further moved and removed along the first connecting tube 11 in the direction away from the first porous mesh plate 13, so that the porous activated carbon block 21 drives the block 19 to move along the first connecting tube 11 and the second mounting ring 9. The card groove 20 is used to facilitate the removal of the porous activated carbon block 21, which helps to replace the porous activated carbon block 21.

[0054] During use, it helps to dissipate heat inside the main body 1 of the wind and solar power station. During the operation of the main body 1 of the wind and solar power station, various equipment in the main body 1 of the wind and solar power station will generate heat. The heat inside the main body 1 of the wind and solar power station can be dissipated in time to ensure the performance and service life of the main body 1 of the wind and solar power station, which is helpful for the use of the main body 1 of the wind and solar power station.

[0055] Although the present invention has been described above with reference to the embodiments, various modifications may be made thereto and parts thereof may be replaced by equivalents without departing from the scope of the present invention. In particular, as long as there is no structural conflict, the various features in the embodiments disclosed in the present invention may be used in combination with each other in any manner, and the fact that these combinations are not exhaustively described in this specification is only for the sake of omitting space and saving resources. Therefore, the present invention is not limited to the specific embodiments disclosed herein, but includes all technical solutions falling within the scope of the claims.

Claims

1. An internal heat dissipation system of a new energy wind and solar power station, comprising a wind and solar power station body (1), characterized in that: An air intake pipe (4) is fixed in the middle of one end of the upper surface of the wind-solar power station body (1), and a matching air intake hole (2) is provided on the inner ring surface of the wind-solar power station body (1) corresponding to the air intake pipe (4). An exhaust pipe (5) is fixed in the middle of one end of the upper surface of the wind-solar power station body (1) away from the air intake pipe (4), and a matching exhaust hole (3) is provided on the inner ring surface of the wind-solar power station body (1) corresponding to the exhaust pipe (5). A second speed regulating motor (18) is installed at the bottom of the exhaust pipe (5), and the output shaft of the second speed regulating motor (18) faces upward, and the upper end of the output shaft of the second speed regulating motor (18) is provided. A second induced-current fan (27) is installed, a first speed regulating motor (17) is installed at the bottom of the air intake pipe (4), the output shaft of the first speed regulating motor (17) faces downward, a first induced-current fan (26) is installed at the lower end of the output shaft of the first speed regulating motor (17), a fixing frame (29) is fixed at the top of the outer ring surface of the air intake pipe (4) close to the exhaust pipe (5), a cooler (30) is installed in the fixing frame (29), a matching retention hole (28) is opened on the inner side of the air intake pipe (4) corresponding to the fixing frame (29), and a temperature sensor (22) is installed in the middle of the top of the main body (1) of the wind-solar power station.

2. The internal heat dissipation system of a new energy wind and solar power station according to claim 1 is characterized in that: The temperature sensor (22) penetrates the inner surface and the outer surface of the corresponding position on the top of the main body (1) of the wind-solar power station; a PLC controller (23) is installed in the middle of one side of the upper surface of the main body (1) of the wind-solar power station; the temperature sensor (22) and the PLC controller (23) are electrically connected; the refrigerator (30) and the PLC controller (23) are electrically connected; the first speed regulating motor (17) and the PLC controller (23) are electrically connected; the second speed regulating motor (18) and the PLC controller (23) are electrically connected; the air inlet (2) penetrates the inner surface and the outer surface of the corresponding position on the top of the main body (1) of the wind-solar power station; and the air outlet (3) penetrates the inner surface and the outer surface of the corresponding position on the top of the main body (1) of the wind-solar power station.

3. The internal heat dissipation system of a new energy wind and solar power station according to claim 2 is characterized in that: The retention hole (28) penetrates the inner annular surface and the outer annular surface at the corresponding position on the air inlet pipe (4); a second baffle (25) is fixed to the end of the fixing frame (29) away from the air inlet pipe (4); an end surface of the refrigerator (30) close to the second baffle (25) is installed between a corresponding position on the opposite surface of the second baffle (25); and an end of the refrigerator (30) away from the second baffle (25) is located in the retention hole (28) on the air inlet pipe (4).

4. The internal heat dissipation system of a new energy wind and solar power station according to claim 3 is characterized in that: A first fixing rod (15) is fixed to the middle of the surrounding surface of the first speed regulating motor (17), and one end of the first fixing rod (15) away from the first speed regulating motor (17) is fixedly connected to a corresponding position on the inner annular surface of the intake pipe (4). A second fixing rod (16) is fixed to the middle of the surrounding surface of the second speed regulating motor (18), and one end of the second fixing rod (16) away from the second speed regulating motor (18) is fixedly connected to a corresponding position on the inner annular surface of the exhaust pipe (5).

5. The internal heat dissipation system of a new energy wind and solar power station according to claim 4 is characterized in that: A first bent tube (6) is fixed to the upper end surface of the air intake pipe (4); a first mounting ring (8) is fixed to the end surface of the first bent tube (6) away from the air intake pipe (4); a second mounting ring (9) is provided on the side surface of the first mounting ring (8) away from the first bent tube (6); bolts (10) are threadedly inserted in a horizontal direction between the middle parts of the first mounting ring (8) and the second mounting ring (9); the bolts (10) are in a horizontal state and penetrate the two side surfaces of the first mounting ring (8) and the second mounting ring (9) at corresponding positions.

6. The internal heat dissipation system of a new energy wind and solar power station according to claim 5 is characterized in that: A first connecting tube (11) is fixed to a surface of the second mounting ring (9) at a side away from the first mounting ring (8), and a first porous mesh plate (13) is fixed to an end of the inner ring surface of the first connecting tube (11) away from the second mounting ring (9).

7. The internal heat dissipation system of a new energy wind and solar power station according to claim 6 is characterized in that: A porous activated carbon block (21) is slidably mounted in a horizontal direction between an end of the inner side of the first connecting tube (11) away from the first porous mesh plate (13) and an inner side of the second mounting ring (9), and clamping blocks (19) are fixed around the outer ring surface of the porous activated carbon block (21). A matching clamping groove (20) is provided on the inner ring surface of the first connecting tube (11) away from the first porous mesh plate (13) and an inner ring surface of the second mounting ring (9) corresponding to the clamping block (19).

8. The internal heat dissipation system of a new energy wind and solar power station according to claim 7 is characterized in that: A second bent tube (7) is fixed to the upper end surface of the exhaust pipe (5), a second connecting tube (12) is fixed to the end surface of the second bent tube (7) away from the exhaust pipe (5), and a second porous mesh plate (14) is fixed to the end of the inner annular surface of the second connecting tube (12) away from the second bent tube (7).

9. The internal heat dissipation system of a new energy wind and solar power station according to claim 8, characterized in that: A connection block (31) is fixed to each of the four corners of the PLC controller (23) in the middle of the upper surface of the wind-solar power station body (1) close to the PLC controller (23), and a first baffle (24) is fixed between the upper end surfaces of the connection blocks (31).

10. A method for using an internal heat dissipation system of a new energy wind and solar power station as described in any one of claims 1 to 9, characterized in that: The method of use includes the following steps: Step 1: The first induced draft fan (26) is driven to rotate by the first speed regulating motor (17); when the first induced draft fan (26) rotates, it can extract external air through the air inlet pipe (4), the first bent pipe (6) and the first connecting pipe (11); the first induced draft fan (26) can form an airflow with the extracted air and blow it into the main body (1) of the wind-solar power station through the air inlet hole (2) on the main body (1) of the wind-solar power station; Step 2: The second induced draft fan (27) is driven to rotate by the second speed regulating motor (18); when the second induced draft fan (27) rotates, air in the wind-solar power station body (1) can be extracted through the exhaust hole (3) on the wind-solar power station body (1); the second induced draft fan (27) can form the extracted air into an airflow and discharge it through the exhaust pipe (5), the second bent pipe (7), the second connecting pipe (12) and the second porous mesh plate (14); Step 3: intake air through the air inlet (2) on the main body (1) of the wind-solar power station and exhaust air through the air outlet (3) on the main body (1) of the wind-solar power station, so as to promote the flow of air in the main body (1) of the wind-solar power station and help to dissipate heat in the main body (1) of the wind-solar power station; Step 4: When the efficiency of heat dissipation in the main body (1) of the wind-solar power station is poor, the refrigerator (30) is turned on. The refrigerator (30) can cool and lower the temperature of the air in the air inlet pipe (4) through the retention hole (28), so that the air entering the main body (1) of the wind-solar power station through the air inlet hole (2) on the main body (1) of the wind-solar power station is in a low-temperature state, so as to ensure the effect and efficiency of heat dissipation in the main body (1) of the wind-solar power station.

Images