Mountain peak air suction and water increase device and method

Abstract

The invention discloses an air suction and water increase device and method for a mountain peak, solves the problem that in the prior art, the water shortage problem of some arid areas cannot be solved, and has the beneficial effects that water vapor under the mountain foot can be conveyed to a mountain, so that the drought condition of the side, away from a river at the mountain foot, of the mountain peak is changed. According to the specific scheme, the peak air suction and water adding device comprises a heating chamber and a cooling chamber, the heating chamber is built at the first height of a peak, the cooling chamber is built at the second height of the peak, the first height is larger than the second height, a heating assembly is arranged in the heating chamber, an air cooler is arranged in the cooling chamber, and the heating chamber communicates with the cooling chamber through a first pipeline; a second pipeline is arranged at the end, away from the cooling chamber, of the heating chamber, can be communicated with the first pipeline and is fixed along the mountain slope of the mountain peak, an air suction opening of the second pipeline is close to the river under the mountain foot, the cooling chamber is communicated with a third pipeline, and an exhaust opening of the third pipeline is formed in the side, away from the river under the mountain foot, of the mountain peak.

Description

Technical Field

[0001] This invention relates to the field of environmental engineering technology, and in particular to a mountain peak air intake and water enhancement device and method. Background Technology

[0002] The statements in this section are merely background information related to the present invention and do not necessarily constitute prior art.

[0003] The water supply for some rivers ultimately relies on snowmelt and rainwater formed by the condensation of water vapor in the air. This water is formed by the "Third Pole Effect" of the plateau. The so-called Third Pole Effect refers to the fact that, due to the high altitude and surrounding snow-capped mountains, water vapor entering the plateau cools and condenses quickly, turning into water or snow. Therefore, the snowmelt on the plateau originates from atmospheric transport.

[0004] In some regions, snow-capped mountains stretch along rivers. In these areas, water vapor in the air is partially absorbed by the surrounding mountains in the low-temperature environment, while some continues to diffuse and eventually settles on the plateau, effectively replenishing other rivers. In other regions, there is a severe shortage of water and drought. To date, there is no reasonable solution to the drought and water shortage problems in these areas. In some regions, solving the drought problem requires the construction of large-scale water diversion projects, which are very complex. So, is it possible to use the rivers at the foot of the mountains to transport water vapor to the plateau to alleviate the drought problem in some areas? There is no relevant exploration in the existing technology. Summary of the Invention

[0005] To address the shortcomings of existing technologies, the purpose of this invention is to provide a mountain peak air intake and water enhancement device. This device uses a heating chamber to drive airflow and a cooling chamber to lower the air temperature, thereby enabling the transport of water vapor from low to high altitudes.

[0006] To achieve the above objectives, the present invention is implemented through the following technical solution: A mountain peak air intake and water supply device includes a heating chamber and a cooling chamber. The heating chamber is built at a first height of the mountain peak, and the cooling chamber is built at a second height of the mountain peak. The first height is higher than the second height. A heating component is installed in the heating chamber, and an air cooler is installed in the cooling chamber. The heating chamber and the cooling chamber are connected by a first pipe. A second pipe is installed at the end of the heating chamber away from the cooling chamber. The second pipe can be connected to the first pipe. The second pipe is fixed along the slope of the mountain peak. The air intake of the second pipe is close to the river at the foot of the mountain. The cooling chamber is connected to a third pipe. The exhaust port of the third pipe is located on the side of the mountain peak away from the river at the foot of the mountain.

[0007] As described above, the air intake and water-increasing device has a heating chamber built at the highest point of the mountain peak and a cooling chamber built below the highest point. The heating chamber heats the air inside, which can drive the air flow in the entire device, thereby drawing the low-altitude, high-humidity air to the high-altitude location. However, considering that the air flowing out of the cooling chamber should be consistent with the external environment, it is discharged after passing through an air cooler. In this way, the water vapor in the air can be transported to the higher positions of the mountain peak, which is beneficial to changing the rain and snow conditions in the local area and solving the drought problem in some areas.

[0008] As described above, in a mountain peak air intake and water enhancement device, the heating component and the air cooler are respectively connected to the controller; Temperature sensors are installed inside the heating component and the air cooler, respectively. The temperature sensors are connected to the controller. The installation of temperature sensors facilitates the detection of the temperature in the heating chamber and the cooling chamber, preventing the temperature in the heating chamber from becoming too high, and also facilitates the controller in adjusting the heating component and the air cooler.

[0009] As described above, in the mountain peak air intake and water supply device, considering that the mountain peak has a slope and that there is a height difference between the heating chamber and the cooling chamber, the second pipeline and the third pipeline are both bent. The third pipe is bent upwards at the end furthest from the cooling chamber, which facilitates the upward flow of the transported water vapor.

[0010] As described above, in order to fix the various pipelines, the first pipeline, the second pipeline and the third pipeline are all installed on the mountain peak by means of multiple brackets. The brackets are spaced apart from each other. The brackets include a fixing frame. The bottom and side of the fixing frame are anchored to the mountain body. The top of the fixing frame supports a detachable clamp. The clamp is placed around the first pipeline or the second pipeline or the third pipeline.

[0011] As described above, the mountain peak air intake and water supply device consists of a first pipe, a second pipe, and a third pipe, all formed by connecting multiple pipe sections. The pipes are made of light-transmitting material to avoid excessive impact on the vegetation on the mountain peak and to ensure the vegetation receives sunlight.

[0012] As described above, in a mountain peak air intake and water supply device, the heating components are installed on each side of the heating chamber, and each side heating component is individually connected to the controller. Thus, the number of heating components turned on in the heating chamber is adjusted according to the on or off status of the heating components on each side.

[0013] As described above, in a mountain peak air intake and water supply device, the bottom surface of the cooling chamber is inclined downwards, and a drain pipe is provided on the bottom surface of the cooling chamber to discharge the condensate on the surface of the air cooler; The heating chamber is equipped with an insulation layer to prevent the temperature inside the heating chamber from affecting the living needs of vegetation or animals on the mountain peak.

[0014] As described above, in a mountain peak air intake and water enhancement device, the diameter of the second pipeline gradually decreases from the foot of the mountain to the heating chamber. The gradually decreasing diameter of the pipeline facilitates the gradual increase of airflow velocity. From the heating chamber to the cooling chamber, the diameter of the third pipe gradually decreases, which is conducive to the gradual increase of airflow velocity.

[0015] As described above, in a mountain peak air intake and water supply device, the heating chamber is equipped with a switch valve at the connection point with the first pipeline and the second pipeline, and the cooling chamber is also equipped with a switch valve at the connection point with the first pipeline and the third pipeline. Each switch valve is connected to the controller. Protective nets are installed in the first pipeline and the third pipeline respectively to prevent animals from entering the first pipeline or the third pipeline.

[0016] Secondly, the present invention also provides a method for operating the mountain peak air suction and water enhancement device, including the following: A heating chamber is built at the highest point of the mountain, and a heating component is installed inside the heating chamber. A cooling chamber is built at the second highest point of the mountain, and an air cooler is installed inside the cooling chamber. The heating chamber and the cooling chamber are connected by a first pipeline. A second pipeline is installed at the end of the heating chamber away from the cooling chamber. The second pipeline is fixed along the slope of the mountain. The air intake of the second pipeline is close to the river at the foot of the mountain. The cooling chamber is connected to a third pipeline. The exhaust port of the third pipeline is located on the side of the mountain away from the river at the foot of the mountain. When the heating element is activated, the air inside the heating chamber is heated, causing the air at the foot of the mountain to quickly enter the heating chamber through the second pipe. The heated air flows through the first pipe to the cooling chamber, where it is cooled by the air cooler. After cooling, the air density increases rapidly, amplifying the pressure difference between the first and second altitudes. The cooling chamber exerts a push-pull effect on the air in the first pipe, creating a push-pull force that accelerates the airflow. The cold air inside the cooling chamber is quickly expelled, and the moisture in the air is transported to the set altitude on the mountain peak.

[0017] The beneficial effects of the present invention are as follows: 1) The air suction and water-increasing device provided by this invention forms an air duct during operation. A heating chamber is built at the highest point of the mountain peak, and a cooling chamber is built below the highest point. The heating chamber heats the air inside the heating chamber, which promotes the air flow in the entire device, thereby drawing the low-altitude, high-humidity air to the high-altitude position. The air is then discharged through an air cooler. Under the action of the air cooler, the air is cooled, and the density of the air increases rapidly after cooling, which is conducive to the air flow. It also ensures that the air flowing out of the cooling chamber is consistent with the external environment. In this way, the water vapor in the air can be transported to the higher position of the mountain peak, which is beneficial to changing the rain and snow conditions in some areas and solving the drought problem in some areas. There is no need to build a large water conservancy project. The structure is simple and easy to build.

[0018] 2) In this invention, each pipeline is reasonably set up. The diameter of the first pipeline and the second pipeline changes gradually, which is conducive to increasing the air flow rate. Combined with the setting of the heating chamber, the air flows to the heating chamber at a faster speed, and after passing through the heating chamber, it is conducive to flowing to the cooling chamber at a faster speed. Each pipeline is installed using supports to ensure its stability on the mountainside. Each pipeline is formed by connecting multiple sections of pipe and is made of light-transmitting material to avoid excessive impact on the vegetation on the mountain peaks.

[0019] 3) In this invention, switch valves are respectively installed at the inlet and outlet of the heating chamber and the inlet and outlet of the cooling chamber. The opening of the switch valves is controlled by the controller. In this way, the entire device can be used during the dry season, which is more energy-efficient and also prevents people or animals from entering the heating chamber and cooling chamber and causing damage. During the operation of the heating chamber and cooling chamber, the setting of protective nets prevents animals or people from entering the first pipeline and the third pipeline, ensuring safety.

[0020] 4) The present invention provides a method for operating the device. The heating chamber is built at a first height, which is higher than the foot of the mountain. When the heating component in the heating chamber is working, it heats the air. The cold air will flow in the direction of the hot air. In this way, the air at the foot of the mountain flows to the heating chamber through the second pipe. After being heated in the heating chamber, it flows to the cooling chamber for cooling. After cooling, the density of the air increases rapidly, and the pressure difference between the first height and the second height is amplified. The cooling chamber forms a strong absorber, which creates a push-pull effect on the air in the first pipe. The air flow rate increases, the cold air is quickly discharged, and the moisture in the air is transported to the mountain peak with the air. Attached Figure Description

[0021] The accompanying drawings, which form part of this invention, are used to provide a further understanding of the invention. The illustrative embodiments of the invention and their descriptions are used to explain the invention and do not constitute an improper limitation of the invention.

[0022] Figure 1This is a front view of a mountain peak air intake and water enhancement device according to one or more embodiments of the present invention.

[0023] Figure 2 This is a schematic diagram of the support bracket in a mountain peak air suction and water enhancement device according to one or more embodiments of the present invention.

[0024] Figure 3 This is a schematic diagram of the pipe body in a mountain peak air suction and water enhancement device according to one or more embodiments of the present invention.

[0025] The diagram exaggerates the spacing or dimensions between parts to show their positions; the diagram is for illustrative purposes only.

[0026] The components are: 1. Air intake, 2. Second pipeline, 3. Heating chamber, 4. Heating component, 5. Cooling chamber, 6. Air cooler, 7. Exhaust port, 8. Drain pipe, 9. Support, 10. Clamp, 11. Pipe body, 12. First pipeline, 13. Third pipeline. Detailed Implementation

[0027] It should be noted that the following detailed description is illustrative and intended to provide further explanation of the invention. Unless otherwise specified, all technical and scientific terms used in this invention have the same meaning as commonly understood by one of ordinary skill in the art to which this invention pertains.

[0028] It should be noted that the terminology used herein is for the purpose of describing particular embodiments only and is not intended to limit the scope of exemplary embodiments according to the invention. As used herein, unless otherwise expressly indicated by the invention, the singular form is also intended to include the plural form. Furthermore, it should be understood that when the terms "comprising" and / or "including" are used in this specification, they indicate the presence of features, steps, operations, devices, components, and / or combinations thereof. As described in the background section, the water shortage problem in some arid areas cannot be solved in the existing technology, or it requires the construction of complex water conservancy projects to solve the problem. In order to solve the above-mentioned technical problems, the present invention proposes a mountain peak wind suction and water increase device.

[0029] Example 1 In a typical embodiment of the present invention, reference is made to Figure 1As shown, a mountain peak air intake and water supply device includes a heating chamber 3 and a cooling chamber 5. The heating chamber 3 is built at a first height of the mountain peak, and the cooling chamber 5 is built at a second height of the mountain peak. The first height is higher than the second height. A heating component 4 is installed in the heating chamber 3, and an air cooler 6 is installed in the cooling chamber 5. The heating chamber 3 and the cooling chamber 5 are connected by a first pipe 12. A second pipe 2 is installed at the end of the heating chamber 3 away from the cooling chamber 5. The second pipe 2 can be connected to the first pipe 12. The second pipe 2 is fixed along the slope of the mountain peak. The air intake 1 of the second pipe 2 is close to the river at the foot of the mountain. The cooling chamber 5 is connected to a third pipe 13. The exhaust port 7 of the third pipe 13 is located on the side of the mountain peak away from the river at the foot of the mountain.

[0030] It needs to be explained here that rivers are generally at the foot of mountains, while arid areas are on the side of the mountain away from the foot. To solve the water shortage problem in arid areas, the inlet end of the second pipeline forms an air intake 1, which faces the river at the foot of the mountain. Through the reasonable setting of the heating chamber 3 and cooling chamber 5, the outlet end of the third pipeline 13 forms an exhaust vent 7, which is located on the side of the mountain away from the foot, that is, the side closer to the arid area.

[0031] It should be noted that the first height is 1 / 2 to 3 / 4 of the mountain peak height, and the second height is 1 / 3 to 2 / 3 of the mountain peak height. The second height is less than the first height, and the cooling chamber can also be built in a mountain depression.

[0032] It is easy to understand that the heating component 4 and the air cooler 6 are respectively connected to the controller, which is a PLC controller or other type of controller; temperature sensors are respectively installed inside the heating component 4 and the air cooler 6, and the temperature sensors are connected to the controller. The setting of the temperature sensors is conducive to detecting the temperature in the heating chamber 3 and the cooling chamber 5, avoiding the temperature of the heating chamber 3 from being too high, and facilitating the controller to adjust the heating component 4 and the air cooler 6.

[0033] Considering that there is a certain distance between the heating chamber 3 and the cooling chamber 5, the heating component 4 is connected to the corresponding controller (installed in the heating chamber), the air cooler 6 is connected to the corresponding controller (installed in the cooling chamber), and the controller is connected to the remote terminal via wireless communication. In this way, the controller can be controlled by a remote terminal such as a mobile phone or computer.

[0034] The heating chamber 3 has a set volume, and a cavity is set in the middle of the heating chamber 3 to facilitate air flow. Heating components 4 are installed on each side of the heating chamber 3, and each heating component 4 on each side is individually connected to the controller. In this way, the number of heating components 4 in the heating chamber 3 is adjusted according to the opening or closing of the heating components 4 on each side, thereby controlling the temperature at the heating chamber 3. Under normal circumstances, the number of heating components 4 in operation is adjusted according to the drought conditions in arid areas. If the drought is severe, more heating components are turned on. When the heating components 4 are working, the temperature of the heating chamber is usually between 25-80℃.

[0035] Specifically, heating component 4 is an existing electric heater. The controller can adjust the power of the electric heater. When the power is increased, the air temperature rises and the indoor airflow speed increases. When heating stops, the airflow speed slows down or stops.

[0036] It is easy to understand that an insulation layer is set on the outside of the heating chamber 3. The insulation layer is specifically selected as a vacuum insulation board or a sun-proof and heat-insulating coating layer. The insulation layer is set to prevent the temperature at the heating chamber from affecting the living needs of vegetation or animals on the mountain peak.

[0037] In this embodiment, the air cooler 6 is a heat exchanger that uses air to cool the hot fluid. The cooling capacity of the air cooler can be controlled by a controller. Both the air cooler 6 and the heating component 4 are powered by photovoltaic components located in the municipal area and / or on the hillside. The bottom of the cooling chamber 5 is inclined downwards. A drain pipe 8 is installed on the bottom of the cooling chamber to drain the condensate on the surface of the air cooler. The condensate on the surface of the air cooler 6 flows out from the drain pipe 8 as drainage to replenish the local water source. The cold air discharged from the third pipeline diffuses to the surrounding area, and the moisture in it forms a high-humidity cloud to replenish the moisture of the plateau and eventually flows to the arid area. It is easy to understand that the heating chamber 3 is equipped with switch valves at the connection points with the first pipe 12 and the second pipe 2, and the cooling chamber 5 is also equipped with switch valves at the connection points with the first pipe 12 and the third pipe 13. The switch valves can be existing gate valves. Each switch valve is connected to the controller. The entire device can be used during the dry season, which is more energy-efficient and also prevents people or animals from entering the heating chamber and cooling chamber and causing damage during the non-dry season. Considering the height difference between the heating chamber 3 and the cooling chamber 5, the second pipe 2 is bent. Considering the slope of the mountain, the third pipe 13 is bent. The end of the third pipe 13 away from the cooling chamber 5 is bent upwards, and the end of the third pipe 0 is set close to the top of the mountain. The upward bend of the third pipe facilitates the upward flow of the transported water vapor.

[0038] In this embodiment, the first pipe 12, the second pipe 5, and the third pipe 13 are all formed by connecting multiple pipe sections 11. The ends of the pipe sections 11 are bent outward to form flanges. The flanges of two adjacent pipe sections 11 are connected by bolts and nuts. The pipe sections 11 are made of lightweight, light-transmitting materials. The pipe sections 11 can be made of transparent plastic parts, which are lightweight, easy to install, and avoid causing too much impact on the vegetation on the mountain peak, thus ensuring the vegetation receives sunlight.

[0039] To ensure the stability of the pipelines, the first pipeline 12, the second pipeline 2, and the third pipeline 13 are all installed on the mountain peak using multi-segment supports. The distance between adjacent supports 9 is set as follows: (reference) Figure 2 As shown, the bracket 9 includes a fixed frame, which is one or two support rods or an H-shaped frame. The bottom and sides of the fixed frame are anchored to the mountain body of the mountain peak. It can be anchored by anchor rods or connected to the mountain body by other means. The top of the fixed frame supports a detachable clamp 10. Half of the clamp is fixed to the fixed frame, and the other half of the clamp is detachable. The two halves of the clamp 10 can be connected by bolts and nuts. The clamp 10 is placed on the end side of the pipe body in the first pipe 12, the second pipe 2, or the third pipe 13.

[0040] From the foot of the mountain to the heating chamber 3, the diameter of the second pipe 2 gradually decreases. The gradually decreasing pipe diameter facilitates the gradual increase of air velocity. In conjunction with the heating component 4, it facilitates the rapid upward flow of air. From the heating chamber to the cooling chamber, the diameter of the third pipe 13 gradually decreases, which is conducive to the gradual increase of air velocity.

[0041] In some examples, protective nets are installed in the first pipe 12 and the third pipe 13 respectively, and hooks are installed on the pipe walls of the first pipe 12 and the third pipe 13 respectively. The protective nets are hung on the hooks. The protective nets can be filters. During the operation of the heating chamber 3 and the cooling chamber 5, the protective nets prevent animals or people from entering the first pipes and the third pipes, thus ensuring safety.

[0042] The air-suction and water-increasing device provided in this embodiment has a heating chamber built at the highest point of the mountain peak and a cooling chamber built below the highest point. The heating chamber heats the air inside, which can drive the air flow in the entire device, thereby drawing low-altitude, high-humidity air to the heating chamber. After being heated in the heating chamber, the air flows to the cooling chamber for cooling. After cooling, the air density increases rapidly, and the pressure difference between the first and second altitudes is amplified. The cooling chamber forms a powerful absorber, creating a push-pull effect on the air in the first pipeline, increasing the air flow rate, and the cold air is quickly discharged. In this way, water vapor in the air can be transported to higher positions on the mountain peak. Under the effect of the Earth's Third Pole, this is beneficial to change the rain and snow conditions in local areas and solve the drought problem in some areas.

[0043] Example 2 This embodiment provides a method for operating a mountain peak air intake and water enhancement device, including the following: A heating chamber is built at the highest point of the mountain, and a heating component is installed inside the heating chamber. A cooling chamber is built at the second highest point of the mountain, and an air cooler is installed inside the cooling chamber. The heating chamber and the cooling chamber are connected by a first pipeline. A second pipeline is installed at the end of the heating chamber away from the cooling chamber. The second pipeline is fixed along the slope of the mountain. The air intake of the second pipeline is close to the river at the foot of the mountain. The cooling chamber is connected to a third pipeline. The exhaust port of the third pipeline is located on the side of the mountain away from the river at the foot of the mountain. When the heating element is activated, the air inside the heating chamber is heated, causing the air at the foot of the mountain to quickly enter the heating chamber through the second pipe. The air heated by the heating element flows through the first pipe to the cooling chamber, where it is cooled by the air cooler. After cooling, the air density increases rapidly, amplifying the pressure difference between the first and second altitudes. The cooling chamber exerts a push-pull effect on the air in the first pipe, creating a push-pull force that increases the airflow speed. The cold air inside the cooling chamber is quickly expelled, and the moisture in the air is transported with the air to the set altitude on the mountain peak. The condensate in the cooling chamber 5 is discharged from the drain pipe 8.

[0044] It needs to be explained that, according to the changing law of atmospheric pressure difference between high and low altitudes, the atmospheric pressure decreases by 133 Pa for every 12 meters increase in altitude. The entire device forms a straight and sealed air duct between the foot of the mountain and the peak. When the air in the heating chamber is heated, the gas inside the pipe expands, and the air will flow out from the exhaust port on the peak. The moisture in the air is also transported to the peak with the air. If the exhaust temperature is controlled, even if there is snow on the mountain, it will not melt.

[0045] The device provided in this embodiment can guide low-altitude, high-humidity air to high-altitude snow-capped mountains, turning the water vapor in the air into snow water and changing the local climate. In application, for example, it can guide the moisture from rivers to the Taklamakan Desert on the southern slope of the Tianshan Mountains, transport water vapor to the Taklamakan Desert, increase desert cloud cover, and reduce surface evaporation.

[0046] The above description is merely a preferred embodiment of the present invention and is not intended to limit the invention. Various modifications and variations can be made to the present invention by those skilled in the art. Any modifications, equivalent substitutions, improvements, etc., made within the spirit and principles of the present invention should be included within the scope of protection of the present invention.

Claims

1. A mountain peak air intake and water supply device, characterized in that, It includes a heating chamber and a cooling chamber. The heating chamber is built at the first height of the mountain peak, and the cooling chamber is built at the second height of the mountain peak. The first height is higher than the second height. The heating chamber is equipped with heating components, and the cooling chamber is equipped with an air cooler. The heating chamber and the cooling chamber are connected by a first pipeline. A second pipeline is set at the end of the heating chamber away from the cooling chamber. The second pipeline can be connected to the first pipeline. The second pipeline is fixed along the slope of the mountain peak. The air intake of the second pipeline is close to the river at the foot of the mountain. The cooling chamber is connected to a third pipeline. The exhaust port of the third pipeline is located on the side of the mountain peak away from the river at the foot of the mountain.

2. The mountain peak air suction and water increase device according to claim 1, characterized in that, The heating component and the air cooler are respectively connected to the controller; Temperature sensors are installed inside the heating component and the air cooler, and the temperature sensors are connected to the controller.

3. The mountain peak air suction and water increase device according to claim 1, characterized in that, Both the second and third pipelines are configured with bends; The third pipe is bent upwards at the end furthest from the cooling chamber.

4. The mountain peak air suction and water increase device according to claim 1, characterized in that, The first pipeline, the second pipeline, and the third pipeline are all installed on the mountain peak by multiple brackets. The brackets are spaced apart from each other. Each bracket includes a fixed frame. The bottom and sides of the fixed frame are anchored to the mountain body. The top of the fixed frame supports a detachable clamp. The clamp is placed around the first pipeline, the second pipeline, or the third pipeline.

5. The mountain peak air suction and water increaser according to claim 1, characterized in that, The first pipeline, the second pipeline and the third pipeline are all formed by connecting multiple pipe sections, and the pipe sections are made of light-transmitting material.

6. The mountain peak air suction and water increase device according to claim 2, characterized in that, The heating components are installed on each side of the heating chamber, and each side heating component is individually connected to the controller.

7. The mountain peak air suction and water increaser according to claim 1, characterized in that, The bottom surface of the cooling chamber is inclined downwards, and a drain pipe is provided on the bottom surface of the cooling chamber to drain the condensate on the surface of the air cooler; The heating chamber is equipped with an insulation layer on the outside.

8. A mountain peak air suction and water increaser according to claim 1, characterized in that, From the foot of the mountain to the heating chamber, the diameter of the second pipeline gradually decreases; From the heating chamber to the cooling chamber, the diameter of the third pipe gradually decreases.

9. A mountain peak air suction and water increaser according to claim 2, characterized in that, The heating chamber is equipped with a switch valve at the connection point with the first pipeline and the second pipeline, and the cooling chamber is also equipped with a switch valve at the connection point with the first pipeline and the third pipeline. Each switch valve is connected to the controller. Protective nets are installed in the first pipeline and the third pipeline respectively.

10. The working method of the mountain peak air suction and water increase device according to any one of claims 1-9, characterized in that, Includes the following: A heating chamber is built at the highest point of the mountain, and a heating component is installed inside the heating chamber. A cooling chamber is built at the second highest point of the mountain, and an air cooler is installed inside the cooling chamber. The heating chamber and the cooling chamber are connected by a first pipeline. A second pipeline is installed at the end of the heating chamber away from the cooling chamber. The second pipeline is fixed along the slope of the mountain. The air intake of the second pipeline is close to the river at the foot of the mountain. The cooling chamber is connected to a third pipeline. The exhaust port of the third pipeline is located on the side of the mountain away from the river at the foot of the mountain. When the heating element is activated, the air inside the heating chamber is heated, causing the air at the foot of the mountain to quickly enter the heating chamber through the second pipe. The heated air flows through the first pipe to the cooling chamber, where it is cooled by the air cooler. After cooling, the air density increases rapidly, amplifying the pressure difference between the first and second altitudes. The cooling chamber exerts a push-pull effect on the air in the first pipe, creating a push-pull force that accelerates the airflow. The cold air inside the cooling chamber is quickly expelled, and the moisture in the air is transported to the set altitude on the mountain peak.

Images