A portable air water mechanism of turbocharging

Abstract

The application relates to the technical field of high-altitude cleaning water production equipment, in particular to a portable worm-gear pressurized air water taking mechanism, which comprises a shell, an air inlet module, a water-vapor separation module and a heat dissipation module, the shell is provided with a water-vapor separation cavity, a heat dissipation cavity and a water collecting cavity, the air inlet module is used for sending air into the water-vapor separation cavity and the heat dissipation cavity, the water-vapor separation module comprises a pre-cooling saturation structure, a condensation structure and a refrigerating unit, the pre-cooling saturation structure and the condensation structure are arranged in the water-vapor separation cavity, the water collecting cavity and the heat dissipation cavity are communicated with the water-vapor separation cavity, the refrigerating unit is arranged between the water-vapor separation cavity and the heat dissipation cavity, and the heat dissipation module is arranged in the heat dissipation cavity, low-pressure hot and humid air is sent into the water-vapor separation cavity through the air inlet module, the hot and humid air is cooled to a saturated state through the pre-cooling saturation structure, and after being contacted with the condensation structure, the hot and humid air is condensed into liquid water drops, and the remaining part of the air is sent into the heat dissipation module to cool the refrigerating unit, so that the portable worm-gear pressurized air water taking mechanism has the advantages of light weight and suitability for high-altitude cleaning.

Description

Technical Field

[0001] This application relates to the technical field of high-altitude cleaning water production equipment, and more specifically to a portable worm gear pressurized air water intake mechanism. Background Technology

[0002] High-altitude cleaning refers to the cleaning, maintenance, and upkeep of building facades (such as glass curtain walls, stone, aluminum panels, etc.), windows, exterior wall decorative components, billboards, bridges, elevated facilities, chimneys, cooling towers, photovoltaic panels, communication towers, etc., at a height of 2 meters or more above the reference plane for falling.

[0003] Patent document (CN224039090U) discloses a high-altitude intelligent glass cleaning robot, including a water spraying mechanism and a water tank. Before high-altitude cleaning, a certain amount of water is injected into the water tank, and the water spraying mechanism draws water into the tank to rinse the wall surface. It is clear that cleaning water is the core working medium in high-altitude cleaning operations. As the operating height increases, high-altitude water supply becomes a pressing problem: the higher the operating height, the greater the required water pressure, which can easily lead to pipe rupture; if explosion-proof pipes are used, the overall weight is too heavy to meet the needs of high-rise operations; if a self-contained water tank is used, the capacity is limited, making it difficult to support long-term continuous operation, and it also increases the weight of the product, causing inconvenience for subsequent use.

[0004] Therefore, there is a need for a lightweight, portable worm gear pressurized air-water intake mechanism suitable for high-altitude cleaning. Summary of the Invention

[0005] The main objective of this application is to provide a portable worm gear pressurized air-water collection mechanism, wherein the portable worm gear pressurized air-water collection mechanism includes a housing, an air inlet module, a water vapor separation module, and a heat dissipation module. The housing has a water vapor separation chamber, a heat dissipation chamber, and a water collection chamber. The air inlet module is used to supply air to the water vapor separation chamber and the heat dissipation chamber. The water vapor separation module includes a pre-cooling saturation structure, a condensation structure, and a cooler assembly. The pre-cooling saturation structure and the condensation structure are both disposed in the water vapor separation chamber. The water collection chamber and the heat dissipation chamber are both connected to the water vapor separation chamber. The cooler assembly is disposed between the water vapor separation chamber and the heat dissipation chamber. The heat dissipation module... Located within the heat dissipation cavity, the heat dissipation module is used to reduce the temperature of the cooler unit. Low-pressure, humid, and hot air is sent into the water vapor separation cavity through the air intake module. The humid and hot air is cooled to a saturated state through the pre-cooling saturation structure. When this saturated air comes into further contact with the condensation structure, the excess water vapor in the air undergoes a phase change and condenses into liquid water droplets. These condensed liquid water droplets fall into the water collection cavity and are sent to the water tank of the external wall-climbing cleaning robot. The remaining air, i.e., the unsaturated dry and cold air after cooling and dehumidification, is sent to the heat dissipation module to cool the cooler unit. Compared with the prior art, it has the advantages of being lightweight and suitable for high-altitude cleaning.

[0006] To achieve at least one of the above-mentioned objectives, this application provides a portable worm gear pressurized air-water extraction mechanism, wherein the portable worm gear pressurized air-water extraction mechanism includes: The device comprises a housing, an air inlet module, a water vapor separation module, and a heat dissipation module. The housing has a water vapor separation chamber, a heat dissipation chamber, and a water collection chamber. The air inlet module is used to supply air to the water vapor separation chamber and the heat dissipation chamber. The water vapor separation module includes a pre-cooling saturation structure, a condensation structure, and a cooler assembly. The pre-cooling saturation structure and the condensation structure are both located in the water vapor separation chamber. The water collection chamber and the heat dissipation chamber are both connected to the water vapor separation chamber. The cooler assembly is located between the water vapor separation chamber and the heat dissipation chamber. The heat dissipation module is located inside the heat dissipation chamber and is used to reduce the temperature of the cooler assembly.

[0007] In one or more embodiments of this application, the air intake module includes a condensing turbine fan, a cooling turbine fan, a connecting shaft, and a power fan blade. The condensing turbine fan and the cooling turbine fan are arranged coaxially and are both fixedly mounted on the housing. The connecting shaft is rotatably mounted on the housing and is located between the condensing turbine fan and the cooling turbine fan. The central axis of both the condensing turbine fan and the cooling turbine fan is fixedly connected to the connecting shaft. The power fan blade is fixedly mounted on the connecting shaft.

[0008] In one or more embodiments of this application, the housing further comprises a first intermediate cavity and a second intermediate cavity, the two ends of the first intermediate cavity being connected to the condensing turbine fan and the water vapor separation cavity respectively, the two ends of the second intermediate cavity being connected to the heat dissipation turbine fan and the heat dissipation cavity respectively, and the housing further comprises a connecting pipe, the two ends of the connecting pipe being connected to the water vapor separation cavity and the second intermediate cavity respectively.

[0009] In one or more embodiments of this application, the precooling saturation structure includes a plurality of first condensing fin groups, and the water vapor separation chamber includes a plurality of first condensing chambers. Each first condensing chamber is provided with a first condensing fin group, and each first condensing fin group includes a plurality of first fins and second fins. In the length direction of the first condensing chamber, two second fins are provided between two adjacent first fins. The two second fins are coplanar, and the distance from the opposite end of the two second fins to the sidewall of the first condensing chamber is less than the distance from the first fin to the sidewall of the first condensing chamber. The first fins and second fins are arranged alternately. In the width direction of the first condensing chamber, there is a first flow channel between the two ends of the first fins and the sidewall of the first condensing chamber. The two second fins are spaced apart by a predetermined distance, and there is a second flow channel between the two second fins.

[0010] In one or more embodiments of this application, the water vapor separation chamber further includes a plurality of second condensing chambers. The second condensing chambers are located at the end of the first condensing chamber away from the first intermediate chamber. The first condensing chamber and the second condensing chambers are connected in series and arrayed multiple times before being connected to the series pipe. The condensation structure includes an inclined serpentine tube disposed in the second condensing chamber. The serpentine tube has multiple bends. One end of the serpentine tube is connected to the first condensing chamber. Each bend has a water leakage hole. The shell also has a water collection tank and a plurality of guide plates. Each second condensing chamber includes a partition plate. The partition plate has a guide groove. The guide groove corresponds one-to-one with the water leakage hole and the guide plate. One end of the guide groove is located below the water leakage hole. The other end of the guide groove is connected to the corresponding guide plate. The guide plate is vertically arranged, and the bottom of the guide plate is connected to the water collection tank. The water collection tank is connected to the water gathering chamber, which is located below the water collection tank.

[0011] In one or more embodiments of this application, the first intermediate cavity and the second intermediate cavity each have an expansion channel at the end opposite to the condensing turbine fan, and the housing further includes a flow-breaking column, which is located in the middle section of the expansion channel, and the flow-breaking column has a triangular face on the side near the condensing turbine fan.

[0012] In one or more embodiments of this application, the heat dissipation module includes heat dissipation fins, the end of the heat dissipation cavity opposite to the heat dissipation turbine fan is connected to the outside, and the heat dissipation cavity has the heat dissipation fins.

[0013] In one or more embodiments of this application, the cooler assembly includes a first semiconductor refrigeration chip and a second semiconductor refrigeration chip, and the portable worm gear pressurized air-water intake mechanism further includes an electronic de-icing device. The first semiconductor refrigeration chip, the second semiconductor refrigeration chip, and the electronic de-icing device are all disposed between the heat dissipation cavity and the water vapor separation module, and the heat absorption ends of the first semiconductor refrigeration chip and the second semiconductor refrigeration chip are close to the water vapor separation module, and the heat release ends of the first semiconductor refrigeration chip and the second semiconductor refrigeration chip are close to the heat dissipation cavity.

[0014] In this embodiment, the portable worm gear pressurized air-water intake mechanism includes a housing, an air intake module, a water vapor separation module, and a heat dissipation module. The housing has a water vapor separation chamber, a heat dissipation chamber, and a water collection chamber. The air intake module is used to supply air to the water vapor separation chamber and the heat dissipation chamber. The water vapor separation module includes a pre-cooling saturation structure, a condensation structure, and a cooler assembly. The pre-cooling saturation structure and the condensation structure are both located in the water vapor separation chamber. The water collection chamber and the heat dissipation chamber are both connected to the water vapor separation chamber. The cooler assembly is located between the water vapor separation chamber and the heat dissipation chamber. The heat dissipation module is located inside the heat dissipation chamber and is used to reduce the temperature of the cooler assembly. The system uses an air intake module to deliver low-pressure, humid, and hot air into a water vapor separation chamber. A pre-cooling saturation structure cools the humid and hot air to a saturated state. When this saturated air comes into further contact with a condensation structure, the excess water vapor in the air undergoes a phase change and condenses into liquid water droplets. These condensed liquid water droplets fall into a water collection chamber and are sent to the water tank of the external wall-climbing cleaning robot. The remaining air, i.e., the unsaturated dry and cold air after cooling and dehumidification, is sent to a heat dissipation module to cool the cooling unit. Compared with existing technologies, this system has the advantages of being lightweight and suitable for high-altitude cleaning. Attached Figure Description

[0015] These and / or other aspects and advantages of this application will become clearer and more readily understood from the following detailed description of embodiments of this application taken in conjunction with the accompanying drawings, wherein: Figure 1 The figure shows a structural schematic diagram of a portable worm gear pressurized air-water intake mechanism according to this application; Figure 2 The figure shows a schematic diagram of a portable worm gear pressurized air water intake mechanism at a certain angle; Figure 3 The figure shows a schematic diagram of a portable worm gear pressurized air water intake mechanism from another angle; Figure 4 The diagram shows Figure 2 A magnified view of a portion of point C. Detailed Implementation

[0016] The terms and words used in the following specification and claims are not limited to their literal meaning, but are used solely by the inventors to enable a clear and consistent understanding of this application. Therefore, it will be apparent to those skilled in the art that the following description of various embodiments of this application is provided for illustrative purposes only and not for the purpose of limiting the application as defined in the appended claims and their equivalents.

[0017] It is understood that the term "a" should be understood as "at least one" or "one or more", that is, in one embodiment, the number of an element can be one, while in another embodiment, the number of the element can be multiple, and the term "a" should not be understood as a limitation on the number.

[0018] While ordinal numbers such as "first," "second," etc., will be used to describe various components, this does not limit which components are used. The term is used only to distinguish one component from another. For example, a first component may be referred to as a second component, and similarly, a second component may be referred to as a first component, without departing from the teachings of the inventive concept. The term "and / or" as used herein includes any and all combinations of one or more of the associated listed items.

[0019] The terminology used herein is for the purpose of describing various embodiments only and is not intended to be limiting. As used herein, the singular form is intended to include the plural form as well, unless the context clearly indicates otherwise. It will also be understood that the terms “comprising” and / or “having” as used in this specification specify the presence of the described features, numbers, steps, operations, components, elements or combinations thereof, without excluding the presence or addition of one or more other features, numbers, steps, operations, components, elements or groups thereof.

[0020] Schematic illustration of a portable worm gear pressurized air-water intake mechanism, for reference. Figures 1 to 4 According to any preferred embodiment of the present invention, a portable worm gear pressurized air-water intake mechanism includes a housing 10, an air intake module 20, a water vapor separation module 30, and a heat dissipation module 40.

[0021] Specifically, the housing 10 has a water vapor separation chamber 101, a heat dissipation chamber 102, and a water collection chamber 103. The air inlet module 20 is used to supply air to the water vapor separation chamber 101 and the heat dissipation chamber 102. The water vapor separation module 30 includes a pre-cooling saturation structure 301, a condensation structure 302, and a cooler assembly 303. The pre-cooling saturation structure 301 and the condensation structure 302 are both located in the water vapor separation chamber 101. The water collection chamber 103 and the heat dissipation chamber 102 are both connected to the water vapor separation chamber 101. The cooler assembly 303 is located between the water vapor separation chamber 101 and the heat dissipation chamber 102. The heat dissipation module 40 is located inside the heat dissipation chamber 102 and is used to reduce the temperature of the cooler assembly 303.

[0022] It should be noted that the portable turbocharged air-water collection mechanism is installed on the external wall-climbing cleaning robot, and the water collection chamber 103 is connected to the water tank of the external wall-climbing cleaning robot. When the air intake module 20 is working, external air flows into the water vapor separation chamber 101 and the heat dissipation chamber 102. The air flowing into the water vapor separation chamber 101 is rapidly cooled after contacting the pre-cooling saturation structure 301, causing the saturated water vapor partial pressure of the air to decrease, resulting in an increase in relative humidity, rapidly approaching 100% relative humidity, i.e., saturation. This saturated air then flows... When passing through the condensation structure 302, a slight temperature drop, significantly below the dew point, causes excess water vapor in the air to undergo a phase change and condense into liquid water droplets. These condensed liquid water droplets fall into the water collection chamber 103 and are sent to the water tank of the external wall-climbing cleaning robot. The remaining air, i.e., the unsaturated dry and cold air after cooling and dehumidification, is sent to the heat dissipation module 40. This air merges with the external air flowing into the heat dissipation chamber 102, lowering the temperature of the external air. The cooled air is then sent into the heat dissipation chamber 102 to reduce the operating temperature of the cooler unit 303. It is evident that this application achieves pre-cooling and condensation of external air through a two-stage cooling structure, resulting in high water production efficiency for air-to-water conversion. Furthermore, this application fully utilizes the condensed dry and cold air to cool the cooler unit 303, further ensuring the temperature operation of the cooler unit 303. The overall structure is compact, smaller in size, and lighter in weight, making it suitable for high-altitude cleaning applications.

[0023] Furthermore, such as Figure 2 and Figure 3As shown, the air intake module 20 includes a condensing turbine fan 201, a cooling turbine fan 202, a connecting shaft, and a power fan blade 203. The condensing turbine fan 201 and the cooling turbine fan 202 are arranged coaxially and are both fixedly mounted on the housing 10. The connecting shaft is rotatably mounted on the housing 10 and is located between the condensing turbine fan 201 and the cooling turbine fan 202. The central axis of the condensing turbine fan 201 and the central axis of the cooling turbine fan 202 are both fixedly connected to the connecting shaft. The power fan blade 203 is fixedly mounted on the connecting shaft.

[0024] It should be noted that the condensing turbine fan 201, the cooling turbine fan 202, and the refrigerator assembly 303 are all electrically connected to the external wall-climbing cleaning robot. When the external wind is strong, the external wind acts on the power fan blade 203, causing the connecting shaft to rotate circumferentially, which in turn causes the fan blades of the condensing turbine fan 201 and the cooling turbine fan 202 to rotate circumferentially, thereby sending external air into the water vapor separation chamber 101 and the cooling chamber 102. In addition, when there is no wind or a light breeze in the external environment, the condensing turbine fan 201 and the cooling turbine fan 202 are actively driven by electricity. It should be pointed out that when the condensing turbine fan 201 is working, it converts the external air into low-pressure, humid, and hot air and continuously and evenly sends it into the water vapor separation chamber 101. When the cooling turbine fan 202 is working, it converts the external air into high-pressure airflow and sends it into the cooling chamber 102.

[0025] Furthermore, such as Figure 2 As shown, the housing 10 also has a first intermediate cavity 104 and a second intermediate cavity 105. The two ends of the first intermediate cavity 104 are respectively connected to the condensing turbine fan 201 and the water vapor separation cavity 101. The two ends of the second intermediate cavity 105 are respectively connected to the heat dissipation turbine fan 202 and the heat dissipation cavity 102. The housing 10 also has a connecting pipe 106. The two ends of the connecting pipe 106 are respectively connected to the water vapor separation cavity 101 and the second intermediate cavity 105.

[0026] It should be noted that the low-pressure, humid, and hot air generated by the condensing turbine fan 201 flows into the water vapor separation chamber 101 along the first intermediate chamber 104; the high-pressure airflow generated by the cooling turbine fan 202 is sent into the heat dissipation chamber 102 along the second intermediate chamber 105; in addition, the dry and cold air after being cooled and dehumidified by the water vapor separation chamber 101 flows into the second intermediate chamber 105 along the connecting pipe 106, and is sent into the heat dissipation chamber 102 together with the high-pressure airflow sent in by the cooling turbine fan 202.

[0027] Furthermore, such as Figure 4 As shown, the precooling saturation structure 301 includes a plurality of first condensing fin groups 3011, and the water vapor separation chamber 101 includes a plurality of first condensing chambers 1011. Each first condensing chamber 1011 is provided with a first condensing fin group 3011, and each first condensing fin group 3011 includes a plurality of first fins 30111 and second fins 30112. In the length direction of the first condensing chamber 1011, two second fins 30112 are provided between two adjacent first fins 30111. The two second fins 30112 are coplanar, and the two second fins 30112 are... The distance between the opposite end of the fin 30112 and the sidewall of the first condensing cavity 1011 is less than the distance between the first fin 30111 and the sidewall of the first condensing cavity 1011. The first fin 30111 and the second fin 30112 are arranged alternately. In the width direction of the first condensing cavity 1011, there is a first flow channel 3012 between the two ends of the first fin 30111 and the sidewall of the first condensing cavity 1011. The two second fins 30112 are spaced apart by a predetermined distance, and there is a second flow channel 3013 between the two second fins 30112.

[0028] It should be noted that after the low-pressure humid and hot air flows into the first condenser chamber 1011, it first contacts the first fin 30111, and then flows along the first fin 30111 to both ends. After passing through the first flow channel 3012, it flows along the second fin 30112 to the second flow channel 3013 between the two second fins 30112. After passing through the second flow channel 3013, it contacts the next first fin 30111 and repeats the above process. That is, the low-pressure humid and hot air flows along an approximately serpentine trajectory and fully contacts the first condenser fin group 3011 so that the low-pressure humid and hot air reaches a saturated state.

[0029] Furthermore, such as Figure 2 and Figure 4As shown, the water vapor separation chamber 101 further includes several second condensing chambers 1012. The second condensing chambers 1012 are located at the end of the first condensing chamber 1011 opposite to the first intermediate chamber 104. The first condensing chamber 1011 and the second condensing chambers 1012 are connected in series and arrayed multiple times before connecting to the connecting pipe 106. The condensation structure 302 includes an inclined serpentine tube 3021, which is disposed within the second condensing chamber 1012. The serpentine tube 3021 has multiple bent sections 3022, one end of which connects to the first condensing chamber 1011. Each bent section 3022 has a drainage hole 3023. The shell 10 also... The device includes a water collection tank 107 and several guide plates 1071. Each second condensation chamber 1012 includes a partition 10121 with a guide groove 10122. The guide groove 10122 corresponds one-to-one with the drain hole 3023 and the guide plate 1071. One end of the guide groove 10122 is located below the drain hole 3023, and the other end of the guide groove 10122 is connected to the corresponding guide plate 1071. The guide plate 1071 is arranged vertically, and the bottom of the guide plate 1071 is connected to the water collection tank 107. The water collection tank 107 is connected to the water gathering chamber 103, which is located below the water collection tank 107.

[0030] It should be noted that after excess water vapor in the air undergoes a phase change and condenses into liquid water droplets, these condensed liquid water droplets flow along the inclined serpentine tube 3021 to the bend section 3022, and fall from the drain hole 3023 into the corresponding guide channel 10122. They then flow along the guide channel 10122 into the corresponding guide plate 1071, and finally converge in the water collection tank 107. Finally, they flow along the water collection tank 107 into the water collection cavity 103 to be sent to the external water tank.

[0031] Furthermore, both the first intermediate cavity 104 and the second intermediate cavity 105 have an expansion channel 1041 at the end opposite to the condensing turbine fan 201. The housing 10 also includes a flow-breaking column 1042, which is located in the middle section of the expansion channel 1041. The flow-breaking column 1042 has a triangular face on the side near the condensing turbine fan 201.

[0032] It should be noted that during the process of air being sent into the first condensing chamber 1011 along the expansion channel 1041, it comes into contact with the triangular surface, so that the air flows more evenly to each of the first condensing chambers 1011.

[0033] Furthermore, such as Figure 3As shown, the heat dissipation module 40 includes heat dissipation fins 401, and the end of the heat dissipation cavity 102 opposite to the heat dissipation turbine fan 202 is connected to the outside. The heat dissipation cavity 102 contains the heat dissipation fins 401.

[0034] Furthermore, such as Figure 1 As shown, the cooler assembly 303 includes a first semiconductor refrigeration chip 3031 and a second semiconductor refrigeration chip 3032. The portable worm gear pressurized air-water intake mechanism also includes an electronic de-icing device 50. The first semiconductor refrigeration chip 3031, the second semiconductor refrigeration chip 3032, and the electronic de-icing device 50 are all disposed between the heat dissipation cavity 102 and the water vapor separation module 30. The heat absorption ends of the first semiconductor refrigeration chip 3031 and the second semiconductor refrigeration chip 3032 are close to the water vapor separation module 30, and the heat release ends of the first semiconductor refrigeration chip 3031 and the second semiconductor refrigeration chip 3032 are close to the heat dissipation cavity 102.

[0035] It should be noted that the first condenser fin group 3011 and the serpentine tube 3021 are cooled by the heat-absorbing ends of the first condenser fin group 3031 and the second condenser fin group 3032. The heat dissipation cavity 102 further removes heat from the heat-dissipating ends of the first condenser fin group 3031 and the second condenser fin group 3032. When the temperature of the first condenser fin group 3011 and the serpentine tube 3021 is too low and affects water vapor separation, the temperature can be adjusted by the electronic de-icing device 50. The first condenser fin group 3031 is a high-cooling condenser fin group, and the second condenser fin group 3032 is a medium-cooling condenser fin group. It should be added that when current flows through the semiconductor junction, heat is absorbed by the heat-absorbing ends of the first condenser fin group 3031 or the second condenser fin group 3032 and transferred to the heat-dissipating ends, causing the temperature of the first condenser fin group 3011 and the serpentine tube 3021 to drop rapidly, while the temperature of the heat dissipation cavity 102 rises.

[0036] In summary, the portable worm gear pressurized air water collection mechanism described in the embodiments of this application is explained, which provides advantages such as light weight and suitability for high-altitude cleaning.

[0037] Those skilled in the art should understand that the embodiments of the present invention described above and shown in the accompanying drawings are merely examples and do not limit the present invention. The objectives of the present invention have been fully and effectively achieved. The functional and structural principles of the present invention have been demonstrated and explained in the embodiments, and any modifications or variations of the embodiments of the present invention may be made without departing from these principles.

Claims

1. A portable worm gear pressurized air-water extraction mechanism, characterized in that: The portable worm gear pressurized air-water collection mechanism includes The device comprises a housing, an air inlet module, a water vapor separation module, and a heat dissipation module. The housing has a water vapor separation chamber, a heat dissipation chamber, and a water collection chamber. The air inlet module is used to supply air to the water vapor separation chamber and the heat dissipation chamber. The water vapor separation module includes a pre-cooling saturation structure, a condensation structure, and a cooler assembly. The pre-cooling saturation structure and the condensation structure are both located in the water vapor separation chamber. The water collection chamber and the heat dissipation chamber are both connected to the water vapor separation chamber. The cooler assembly is located between the water vapor separation chamber and the heat dissipation chamber. The heat dissipation module is located inside the heat dissipation chamber and is used to reduce the temperature of the cooler assembly.

2. The portable worm gear pressurized air-water intake mechanism according to claim 1, characterized in that: The air intake module includes a condensing turbine fan, a cooling turbine fan, a connecting shaft, and a power fan blade. The condensing turbine fan and the cooling turbine fan are arranged coaxially and are both fixedly mounted on the housing. The connecting shaft is rotatably mounted on the housing and is located between the condensing turbine fan and the cooling turbine fan. The central axes of the condensing turbine fan and the cooling turbine fan are both fixedly connected to the connecting shaft. The power fan blade is fixedly mounted on the connecting shaft.

3. The portable worm gear pressurized air-water intake mechanism according to claim 2, characterized in that: The housing also has a first intermediate cavity and a second intermediate cavity. The two ends of the first intermediate cavity are respectively connected to the condensing turbine fan and the water vapor separation cavity, and the two ends of the second intermediate cavity are respectively connected to the cooling turbine fan and the cooling cavity. The housing also has a connecting pipe, the two ends of which are respectively connected to the water vapor separation cavity and the second intermediate cavity.

4. The portable worm gear pressurized air-water intake mechanism according to claim 3, characterized in that: The precooling saturation structure includes multiple first condensing fin groups, and the water vapor separation chamber includes several first condensing chambers. Each first condensing chamber is provided with a first condensing fin group, and each first condensing fin group includes multiple first fins and second fins. In the length direction of the first condensing chamber, two second fins are provided between two adjacent first fins. The two second fins are coplanar, and the distance from the opposite end of the two second fins to the sidewall of the first condensing chamber is less than the distance from the first fin to the sidewall of the first condensing chamber. The first fins and second fins are arranged alternately. In the width direction of the first condensing chamber, there is a first flow channel between the two ends of the first fins and the sidewall of the first condensing chamber. The two second fins are spaced apart by a predetermined distance, and there is a second flow channel between the two second fins.

5. The portable worm gear pressurized air-water intake mechanism according to claim 4, characterized in that: The water vapor separation chamber further includes several second condensing chambers, each located at the end of the first condensing chamber away from the first intermediate chamber. The first and second condensing chambers are connected in series and arrayed multiple times before connecting to the series pipe. The condensation structure includes an inclined serpentine tube disposed within the second condensing chamber. The serpentine tube has multiple bends, one end of which is connected to the first condensing chamber. Each bend has a water leakage hole. The shell also includes a water collection tank and several guide plates. Each second condensing chamber includes a partition plate with a guide groove. The guide groove corresponds one-to-one with the water leakage hole and the guide plate. One end of the guide groove is located below the water leakage hole, and the other end is connected to the corresponding guide plate. The guide plate is vertically arranged, and its bottom is connected to the water collection tank. The water collection tank is connected to the water gathering chamber, which is located below the water collection tank.

6. The portable worm gear pressurized air-water extraction mechanism according to claim 5, characterized in that: Both the first intermediate cavity and the second intermediate cavity have expansion channels at the ends opposite to the condenser turbine fan. The housing also includes a flow-breaking column, which is located in the middle section of the expansion channel. The flow-breaking column has a triangular face on the side near the condenser turbine fan.

7. The portable worm gear pressurized air-water intake mechanism according to claim 6, characterized in that: The heat dissipation module includes heat dissipation fins, and the end of the heat dissipation cavity opposite to the heat dissipation turbine fan is connected to the outside. The heat dissipation cavity contains the heat dissipation fins.

8. The portable worm gear pressurized air-water intake mechanism according to claim 7, characterized in that: The cooler assembly includes a first semiconductor refrigeration chip and a second semiconductor refrigeration chip. The portable worm gear pressurized air-water intake mechanism also includes an electronic de-icing device. The first semiconductor refrigeration chip, the second semiconductor refrigeration chip, and the electronic de-icing device are all disposed between the heat dissipation cavity and the water vapor separation module. The heat absorption ends of the first semiconductor refrigeration chip and the second semiconductor refrigeration chip are close to the water vapor separation module, and the heat release ends of the first semiconductor refrigeration chip and the second semiconductor refrigeration chip are close to the heat dissipation cavity.

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