Air conditioning vest with single-sided thermal insulation

Abstract

The present invention relates to the technical field of wearable air-conditioning clothing, and discloses an air-conditioning vest with single-sided thermal insulation, including a vest body, wherein a cooling pipe is arranged in the vest body, wherein the cooling pipe has an arc-shaped outer layer close to the outer layer of the vest and an arc-shaped inner layer close to the inner layer of the vest, wherein the arc-shaped outer layer and the arc-shaped inner layer are sealed to form a crescent-shaped sealed pipeline, and a condensation processing mechanism is installed in the vest body, wherein the condensation processing mechanism comprises a top winding unit, a sliding water-absorbing sponge and a water squeezing and traction unit; the arc-shaped outer layer and the arc-shaped inner layer form a crescent-shaped pipeline, and the arc-shaped outer layer is surrounded by the thermal insulation layer, and the arc-shaped inner layer is combined with the heat exchange of the internal part by the arc-shaped inner layer, and the embedded structure formed by the arc-shaped inner layer can avoid the situation in which condensation contacts with the underwear and causes moisture, and the sponge is dropped to the bottom through the coordinated cooperation of the top winding unit and the water squeezing and traction unit, and then squeezed and released, and continues to absorb water droplets to ensure a dry and comfortable environment.

Description

Technical Field

[0001] The invention relates to the technical field of wearable air-conditioning clothing, in particular to an air-conditioning vest with single-sided thermal insulation. Background Art

[0002] The cooling principle of the air-conditioning vest is to cool the liquid in the pipe through a micro air conditioner. The cooled coolant circulates along the cooling pipe and replaces the air temperature inside the suit, thereby achieving the cooling purpose. Since the air-conditioning vest is mainly used to cool the inside, and the outside of the pipe will replace the outside temperature, the cooling effect of the cooling pipe needs to be converted from a one-way inner surface to inner and outer surface cooling and heat dissipation. This method causes the temperature of the cooling pipe to change too quickly, and the subsequent liquid heat exchange efficiency is reduced, resulting in a reduction in the cooling effect. Summary of the invention

[0003] The object of the present invention is to provide an air-conditioning vest with single-sided thermal insulation to solve the problems raised in the above-mentioned background technology.

[0004] To achieve the above object, the present invention provides the following technical solutions:

[0005] An air-conditioning vest with single-sided heat preservation, comprising a vest body, a cooling pipe arranged in the vest body, the cooling pipe having an arc-shaped outer layer close to the outer layer of the vest and an arc-shaped inner layer close to the inner layer of the vest, the arc-shaped outer layer and the arc-shaped inner layer are sealed to form a crescent-shaped sealed pipeline, an insulation layer for heat preservation is attached to the outside of the arc-shaped outer layer, and both ends of the arc-shaped outer layer close to the arc-shaped inner layer are sealed by a sealing layer, so that a closed passage is formed between the arc-shaped inner layer and the sealing layer;

[0006] The cooling pipe is composed of a middle straight pipe, a top arc-shaped connecting pipe, and a bottom arc-shaped connecting pipe, which are continuously connected to form a circulation pipeline. The top arc-shaped connecting pipe and the bottom arc-shaped connecting pipe are located at the upper and lower ends of the middle straight pipe. The top arc-shaped connecting pipe is bent toward the outside of the middle straight pipe, and the bottom arc-shaped connecting pipe is distorted toward the inside of the middle straight pipe.

[0007] A condensation treatment mechanism is installed in the vest body, and the condensation treatment mechanism includes a top winding unit, a sliding absorbent sponge and a water squeezing traction unit. The top winding unit is located above the top arc-shaped connecting tube, and the water squeezing traction unit is located below the bottom arc-shaped connecting tube. The sliding absorbent sponge slides in a closed passage between the arc-shaped inner layer and the sealing layer. An extension tube is opened at the bottom of the bottom arc-shaped connecting tube, and a separating pressure plate is provided in the middle of the extension tube for causing the sliding absorbent sponge to be squeezed and deformed when passing through the extension tube and the separating pressure plate.

[0008] As a further solution of the present invention: the top arc-shaped connecting pipe has a plurality of heat transfer surfaces, each two of the heat transfer surfaces form a group, the ends of the two heat transfer surfaces are fixedly connected with a sealing plate, and the heat transfer surfaces of the plurality of groups form a plurality of flow channels on the arc-shaped inner layer, and the heat transfer surfaces have an angle with the horizontal direction.

[0009] As a further solution of the present invention: the bottom arc-shaped connecting pipe has a blocking layer, the blocking layer is attached to the bottom of the isolation layer, and the blocking layer contacts the bottom of the arc-shaped inner layer to form a waterproof passage.

[0010] As a further solution of the present invention: a plurality of connection ports corresponding to the extension tubes are fixedly connected to the bottom of the vest body, the connection ports are located directly below the extension tubes, and the connection ports are made of soft silicone.

[0011] As a further solution of the present invention: a liquid collection bag is detachably connected to the lower part of the vest body, and the liquid collection bag is connected to the connecting port.

[0012] As a further solution of the present invention: the top reeling unit and the water squeezing traction unit reel up the upper and lower ends of the hydrophobic traction rope respectively, and the sliding water-absorbing sponge is fixedly connected to the hydrophobic traction rope.

[0013] As a further solution of the present invention: a method for heat preservation and condensation treatment

[0014] A crescent shape is formed by the arc-shaped outer layer and the arc-shaped inner layer. The arc-shaped outer layer is located on the side away from the body, while the arc-shaped inner layer is located on the side close to the human body. At this time, the arc-shaped inner layer is recessed toward the inner side of the arc-shaped outer layer, while the arc-shaped outer layer is located on the outside. The thermal insulation layer can effectively and comprehensively insulate the arc-shaped outer layer. Due to the setting of the sealing layer, a passage is formed between the sealing layer and the arc-shaped inner layer. Therefore, the condensation treatment mechanism is set up so that it can be applied to some high temperature environments and for people who sweat easily. Since sweating easily leads to increased moisture in the body space, condensation is more likely to occur. The top winding unit is an elastic roller, and the roller is reset by a torsion spring or any elastic member. The water squeezing traction unit uses a micro motor as a driving member to drive the winding roller. The water-squeezing traction unit drives the hydrophobic traction rope to be wound up, so that the sliding water-absorbing sponge located at the top arc-shaped connecting tube can be affected by the pulling force of the hydrophobic traction rope to slide downward, so that the sliding water-absorbing sponge is between the arc-shaped inner layer and the sealing layer. The sliding absorbent sponge slides in the space so that the side of the sliding absorbent sponge close to the arc-shaped inner layer can contact and slide with it, and after absorbing surface moisture, it moves to the bottom arc-shaped connecting tube. Since the bottom arc-shaped connecting tube is provided with an extension tube and a partition pressure plate, the sliding absorbent sponge located in the two middle straight tubes is separated by the partition pressure plate and enters the interior of the extension tube respectively. Since the extension tube is separated by the partition pressure plate to produce a smaller space, the sliding absorbent sponge will be squeezed after entering, thereby squeezing out the moisture. At this time, the hydrophobic traction rope is released by the water squeezing traction unit, and the elastic part driving roller inside the top winding unit rotates to drive the sliding absorbent sponge to reset, so that the sliding absorbent sponge passes and arrives again. The side of the sliding absorbent sponge close to the sealing layer can be attached with a Teflon film, which can avoid the internal moisture affecting the sealing layer and causing discomfort when the sliding absorbent sponge contacts the sealing layer, and the sliding friction between Teflon and the sealing layer is smaller, and the sliding is smoother.

[0015] Compared with the prior art, the present invention has the following beneficial effects:

[0016] The arc-shaped outer layer and the arc-shaped inner layer form a crescent-shaped pipeline. The heat preservation of the arc-shaped outer layer by the insulation layer and the heat exchange of the arc-shaped inner layer to the inside can make the one-way cooling effect better and improve the cooling efficiency. At the same time, due to the embedded structure formed by the arc-shaped inner layer, condensation and contact with underwear to cause moisture can be avoided. Due to the setting of the sealing layer 24, a passage is formed between the sealing layer 24 and the arc-shaped inner layer 23, which provides a sliding track for the sliding water-absorbing sponge. Through the coordinated cooperation of the top winding unit and the water squeezing traction unit, the sponge is dropped to the bottom. After absorbing water, it is squeezed to release the liquid, so that it can continue to absorb water droplets to ensure a dry and comfortable environment. BRIEF DESCRIPTION OF THE DRAWINGS

[0017] In order to more clearly illustrate the technical solutions in the embodiments of the present invention, the drawings required for use in the embodiments or the description of the prior art will be briefly introduced below. Obviously, the drawings described below are only some embodiments of the present invention. For ordinary technicians in this field, other drawings can be obtained based on these drawings without paying creative labor.

[0018] Figure 1 It is a schematic diagram of the front view of an air-conditioning vest with single-sided thermal insulation;

[0019] Figure 2 A schematic diagram of the use of a condensation treatment mechanism in an air-conditioning vest with single-sided thermal insulation;

[0020] Figure 3 It is a schematic cross-sectional view of a straight pipe in the middle of an air-conditioning vest with single-sided insulation;

[0021] Figure 4 It is a schematic cross-sectional view of the top arc-shaped connecting pipe in an air-conditioning vest with single-sided thermal insulation;

[0022] Figure 5 A schematic rear view of a top arc-shaped connecting pipe in an air-conditioning vest with single-sided thermal insulation;

[0023] Figure 6 A schematic side view of a cooling pipe in an air-conditioning vest with single-sided insulation;

[0024] Figure 7 It is a rear view schematic diagram of the bottom arc-shaped connecting pipe in an air-conditioning vest with single-sided thermal insulation;

[0025] Figure 8 It is a cross-sectional schematic diagram of the bottom arc-shaped connecting pipe in an air-conditioning vest with single-sided thermal insulation;

[0026] In the figure: 1. vest body; 11. connection port; 2. cooling pipe; 2a. middle straight pipe; 2b. top arc-shaped connecting pipe; 2c. bottom arc-shaped connecting pipe; 21. arc-shaped outer layer; 22. insulation layer; 23. arc-shaped inner layer; 24. sealing layer; 25. heat transfer surface; 251. sealing plate; 26. sealing layer; 27. extension tube; 28. partition pressure plate; 3. condensation treatment mechanism; 31. top winding unit; 32. sliding absorbent sponge; 321. hydrophobic traction rope; 33. water squeezing traction unit; 4. liquid collection bag. DETAILED DESCRIPTION

[0027] See also Figure 1-Figure 8 The composition of the present invention

[0028] The vest body 1 includes a cooling pipe 2 arranged inside the vest body 1. The cooling pipe 2 includes an arc-shaped outer layer 21 close to the outer layer of the vest and an arc-shaped inner layer 23 close to the inner layer of the vest. The arc-shaped outer layer 21 and the arc-shaped inner layer 23 are sealed to form a crescent-shaped sealed pipeline. An insulation layer 22 for heat preservation is attached to the outside of the arc-shaped outer layer 21. Both ends of the arc-shaped outer layer 21 close to the arc-shaped inner layer 23 are sealed by a sealing layer 24, so that a closed passage is formed between the arc-shaped inner layer 23 and the sealing layer 24.

[0029] The vest body 1 is worn on the user, and the cooling tube 2 is arranged on the surface of the human body. The cooling tube 2 has a special structure, and is composed of an arc-shaped outer layer 21 and an arc-shaped inner layer 23 as a whole. A crescent shape is formed by the arc-shaped outer layer 21 and the arc-shaped inner layer 23. The arc-shaped outer layer 21 is located on the side away from the body, and the arc-shaped inner layer 23 is located on the side close to the body. At this time, the arc-shaped inner layer 23 is recessed toward the inner side of the arc-shaped outer layer 21, and the arc-shaped outer layer 21 is located outside. The thermal insulation layer 22 can effectively insulate the arc-shaped outer layer 21 comprehensively. The setting of the arc-shaped outer layer 21 can increase the internal space of the arc-shaped outer layer 21 and the arc-shaped inner layer 23, thereby effectively increasing the flow rate and improving the heat exchange efficiency. At this time, the arc-shaped inner layer 23 faces the inner side of the body. The layer 23 has heat exchange capacity. At this time, the arc-shaped inner layer 23 can cool down the body in an all-round way, thereby effectively improving the cooling effect, and at the same time avoiding the influence of the external temperature on the cooling tube 2, so that the heat exchange surface is only located on the side close to the body, thereby effectively improving the heat exchange efficiency. At the same time, when the body sweats, condensation will occur on the surface of the arc-shaped inner layer 23. By embedding the arc-shaped inner layer 23 and sealing it with the sealing layer 24, it can be avoided that the vest body 1 is deformed, causing the arc-shaped inner layer 23 to fit the body and causing the inner underwear to be wet. The sealing layer 24 can use a mesh to allow the air on the surface of the arc-shaped inner layer 23 to exchange with the air between the vest body 1 and the body, thereby achieving the purpose of heat exchange and increasing the wearing comfort.

[0030] The cooling pipe 2 is composed of a middle straight pipe 2a, a top arc-shaped connecting pipe 2b, and a bottom arc-shaped connecting pipe 2c, which are continuously connected to form a circulation pipeline. The top arc-shaped connecting pipe 2b and the bottom arc-shaped connecting pipe 2c are located at the upper and lower ends of the middle straight pipe 2a. The top arc-shaped connecting pipe 2b is bent toward the outside of the middle straight pipe 2a, and the bottom arc-shaped connecting pipe 2c is distorted toward the inside of the middle straight pipe 2a.

[0031] First, the circulation pipeline has only an injection end and a discharge end for circulation, and an S-shaped disc is often used on the surface of the vest body 1, so the pipeline is divided into a middle straight pipe 2a, a top arc-shaped connecting pipe 2b and a bottom arc-shaped connecting pipe 2c. First, the middle straight pipe 2a is a straight pipe, and the top arc-shaped connecting pipe 2b and the bottom arc-shaped connecting pipe 2c are arc-shaped, mainly for connecting multiple middle straight pipes 2a. For the top arc-shaped connecting pipe 2b, since the top arc-shaped connecting pipe 2b is located at the top, and the cooling pipe 2 is crescent-shaped, refer to Figure 4 If the top arc-shaped connecting tube 2b is vertical, the liquid is easily affected by the arc surface of the arc-shaped inner layer 23, causing the liquid to accumulate below, causing the liquid to approach the isolation layer 24 and affect the skin feeling through the isolation layer 24. Please refer to Figure 6 The left side of the middle straight tube 2a is the side away from the body and is called the outer side, and the right side of the middle straight tube 2a is the side close to the body and is called the inner side. At this time, the top arc-shaped connecting tube 2b is inclined to the outside, which can reduce the accumulation of condensation below, and the bottom arc-shaped connecting tube 2c is inclined to the inside of the body. At this time, the top arc-shaped connecting tube 2b and the bottom arc-shaped connecting tube 2c are parallel, thereby effectively avoiding the problem of liquid accumulation at the isolation layer 24 caused by excessive condensation.

[0032] A condensation treatment mechanism 3 is installed in the vest body 1, and the condensation treatment mechanism 3 includes a top winding unit 31, a sliding water-absorbing sponge 32 and a water-squeezing traction unit 33. The top winding unit 31 is located above the top arc-shaped connecting tube 2b, and the water-squeezing traction unit 33 is located below the bottom arc-shaped connecting tube 2c. The sliding water-absorbing sponge 32 slides in a closed passage between the arc-shaped inner layer 23 and the isolation layer 24. An extension tube 27 is provided at the bottom of the bottom arc-shaped connecting tube 2c, and a separated separation pressure plate 28 is provided in the middle of the extension tube 27, which is used for the sliding water-absorbing sponge 32 to be squeezed and deformed when passing through the extension tube 27 and the separation pressure plate 28;

[0033] Due to the setting of the sealing layer 24, a passage is formed between the sealing layer 24 and the arc-shaped inner layer 23. Therefore, the condensation treatment mechanism 3 can be used in some high-temperature environments and for people who are prone to sweating. Since sweating leads to increased moisture in the body space, condensation is more likely to occur. Therefore, the condensation treatment mechanism 3 is set. The power parts of the condensation treatment mechanism 3 adopt a top winding unit 31 and a water squeezing traction unit 33. The top winding unit 31 is an elastic roller, and the roller is reset by a torsion spring or any elastic member. The water squeezing traction unit 33 uses a micro motor as a driving member to drive the winding roller. The water-squeezing traction unit 33 drives the hydrophobic traction rope 321 to be wound, so that the sliding water-absorbing sponge 32 located at the top arc-shaped connecting tube 2b can slide downward under the pulling force of the hydrophobic traction rope 321, so that the sliding water-absorbing sponge 32 slides in the space between the arc-shaped inner layer 23 and the sealing layer 24, so that the side of the sliding water-absorbing sponge 32 close to the arc-shaped inner layer 23 can contact and slide with it, and the water-absorbing sponge 32 can slide in the space between the arc-shaped inner layer 23 and the sealing layer 24. After attaching surface moisture, it moves to the bottom arc-shaped connecting tube 2c. Since the bottom arc-shaped connecting tube 2c is provided with an extension tube 27 and a partitioning plate 28, the sliding water-absorbing sponge 32 located in the two middle straight tubes 2a is separated by the partitioning plate 28 and enters the interior of the extension tube 27 respectively. Since the extension tube 27 is separated by the partitioning plate 28 to produce a smaller space, the sliding water-absorbing sponge 32 will be squeezed after entering, thereby squeezing out the moisture. At this time, the hydrophobic traction rope 321 is released by the water squeezing traction unit 33, and the elastic member driving roller inside the top winding unit 31 rotates to drive the sliding water-absorbing sponge 32 to reset, so that the sliding water-absorbing sponge 32 passes through 2c and 2a again to reach 2b. The side of the sliding water-absorbing sponge 32 close to the isolation layer 24 can be attached with a Teflon film, which can avoid the internal moisture affecting the isolation layer 24 and causing discomfort when the sliding water-absorbing sponge 32 contacts the isolation layer 24, and the sliding friction between Teflon and the isolation layer 24 is smaller, and the sliding is smoother.

[0034] The top arc-shaped connecting pipe 2b has a plurality of heat transfer surfaces 25, each two heat transfer surfaces 25 form a group, the ends of the two heat transfer surfaces 25 are fixedly connected with a blocking plate 251, and a plurality of groups of heat transfer surfaces 25 form a plurality of flow channels on the arc-shaped inner layer 23, and the heat transfer surfaces 25 have an angle with the horizontal direction;

[0035] First, since the top arc-shaped connecting pipe 2b is located at the top, please refer to Figure 4, at this time, due to the bottom of the arc surface of the arc-shaped inner layer 23, even if the arc-shaped inner layer 23 is tilted, the liquid will still accumulate at the bottom at this time. Therefore, it is necessary to set the heat transfer surface 25. The heat transfer surface 25 and the plugging plate 251 cooperate to form a U-shape. The coolant can flow through the inside of the U-shape. The plugging plate 251 is made of heat-insulating material. Therefore, condensation will not occur on the surface of the plugging plate 251. The heat transfer surface 25 on the side will not affect the area of the cooling surface and ensure the cooling effect. At this time, due to the included angle between the heat transfer surface 25 and the arc-shaped inner layer 23, a flow channel is formed. After the arc-shaped inner layer 23 is tilted at this time, the edge of the flow channel formed between the heat transfer surface 25 and the arc-shaped inner layer 23 rises, so as to guide the water droplets to the middle straight pipe 2a. The arc-shaped inner layer 23 that fits the middle straight pipe 2a moves downward, avoiding the influence caused by the liquid moving toward the isolation layer 24. At the same time, since the sliding water-absorbing sponge 32 has elasticity, the sliding water-absorbing sponge 32 can be made of sponge. At this time, the sliding water-absorbing sponge 32 can deform itself and then fit the heat transfer surface 25, so as to achieve the adsorption effect;

[0036] The bottom arc connecting pipe 2c has a plugging layer 26. The plugging layer 26 is attached to the bottom of the isolation layer 24. The plugging layer 26 contacts the bottom of the arc-shaped inner layer 23 to form a waterproof path;

[0037] Since the bottom arc connecting pipe 2c is located at the bottommost, and at the same time, when the sliding water-absorbing sponge 32 moves downward from above, it carries more water droplets. At this time, the plugging layer 26 seals the contact angle between the bottom of the isolation layer 24 and the arc-shaped inner layer 23, so as to prevent the liquid from penetrating to the outside through the isolation layer 24.

[0038] A plurality of connection ports 11 corresponding to the extension pipe 27 are fixedly connected to the bottom of the vest body 1. The connection ports 11 are located directly below the extension pipe 27. The connection ports 11 are made of soft silicone material. A liquid collection bag 4 is detachably connected below the vest body 1. The liquid collection bag 4 is communicated with the connection ports 11; First, the liquid collection bag 4 can collect the liquid;

[0039] First, when the sliding water-absorbing sponge 32 moves to the extension pipe 27, extrusion will occur. At this time, the water droplets inside the sliding water-absorbing sponge 32 will be extruded after extrusion. The extruded liquid then flows downward. After being guided by the connection ports 11, it enters the inside of the liquid collection bag 4 and is uniformly collected by the liquid collection bag 4. The collected liquid is then processed separately.

[0040] The above is only the preferred specific implementation manner of the present invention, but the protection scope of the present invention is not limited thereto. Any person skilled in the art within the technical scope disclosed by the present invention, according to the technical solution of the present invention and its inventive concept, makes equivalent substitutions or changes, and should be covered by the protection scope of the present invention.

Claims

1. An air-conditioning vest with single-sided thermal insulation, comprising a vest body (1), characterized in that: A cooling pipe (2) is arranged inside the vest body (1), and the cooling pipe (2) comprises an arc-shaped outer layer (21) close to the outer layer of the vest and an arc-shaped inner layer (23) close to the inner layer of the vest, the arc-shaped outer layer (21) and the arc-shaped inner layer (23) are sealed to form a crescent-shaped sealed pipeline, an insulation layer (22) for heat preservation is attached to the outside of the arc-shaped outer layer (21), and both ends of the arc-shaped outer layer (21) close to the arc-shaped inner layer (23) are sealed by an isolation layer (24), so that a closed passage is formed between the arc-shaped inner layer (23) and the isolation layer (24); The cooling pipe (2) is composed of three parts, namely, a middle straight pipe (2a), a top arc-shaped connecting pipe (2b), and a bottom arc-shaped connecting pipe (2c), which are continuously connected to form a circulation pipeline. The top arc-shaped connecting pipe (2b) and the bottom arc-shaped connecting pipe (2c) are located at the upper and lower ends of the middle straight pipe (2a). The top arc-shaped connecting pipe (2b) is bent toward the outside of the middle straight pipe (2a), and the bottom arc-shaped connecting pipe (2c) is distorted toward the inside of the middle straight pipe (2a). A condensation treatment mechanism (3) is installed in the vest body (1), and the condensation treatment mechanism (3) includes a top winding unit (31), a sliding water-absorbing sponge (32) and a water-squeezing traction unit (33). The top winding unit (31) is located above the top arc-shaped connecting tube (2b), and the water-squeezing traction unit (33) is located below the bottom arc-shaped connecting tube (2c). The sliding water-absorbing sponge (32) slides in a closed passage between the arc-shaped inner layer (23) and the isolation layer (24). An extension tube (27) is provided at the bottom of the bottom arc-shaped connecting tube (2c), and a separating pressure plate (28) is provided in the middle of the extension tube (27) for causing the sliding water-absorbing sponge (32) to be squeezed and deformed when passing through the extension tube (27) and the separating pressure plate (28).

2. The air-conditioning vest with single-sided thermal insulation according to claim 1, characterized in that: The top arc-shaped connecting pipe (2b) has a plurality of heat transfer surfaces (25), each two of the heat transfer surfaces (25) form a group, the ends of the two heat transfer surfaces (25) are fixedly connected with a sealing plate (251), and the plurality of groups of heat transfer surfaces (25) form a plurality of flow channels on the arc-shaped inner layer (23), and the heat transfer surfaces (25) have an angle with the horizontal direction.

3. The air-conditioning vest with single-sided thermal insulation according to claim 1, characterized in that: The bottom arc-shaped connecting pipe (2c) has a blocking layer (26), the blocking layer (26) is attached to the bottom of the isolation layer (24), and the blocking layer (26) contacts the bottom of the arc-shaped inner layer (23) to form a waterproof passage.

4. The air-conditioning vest with single-sided thermal insulation according to claim 1, characterized in that: The bottom of the vest body (1) is fixedly connected with a plurality of connection ports (11) corresponding to the extension tube (27); the connection ports (11) are located directly below the extension tube (27); and the connection ports (11) are made of soft silicone.

5. The air-conditioning vest with single-sided thermal insulation according to claim 4, characterized in that: A liquid collection bag (4) is detachably connected to the lower portion of the vest body (1), and the liquid collection bag (4) is in communication with the connection port (11).

6. The air-conditioning vest with single-sided thermal insulation according to claim 1, characterized in that: The top reeling unit (31) and the water squeezing traction unit (33) respectively reel in the upper and lower ends of the hydrophobic traction rope (321), and the sliding water-absorbing sponge (32) is fixedly connected to the hydrophobic traction rope (321).

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