Compressor refrigeration cooling clothes

Abstract

The invention relates to the technical field of cooling clothes, and discloses compressor refrigeration cooling clothes which comprise a clothes body, a deformation coupler, a temperature detection module, a compressor refrigeration system and a controller, and the clothes body comprises an inner layer, a middle layer and an outer layer; a first through hole is formed in the inner layer; the deformation coupler comprises a supporting piece and a first heat conduction piece, the supporting piece is connected with the inner layer, the first heat conduction piece is connected with the supporting piece, an airflow cavity is formed between the first heat conduction piece and the supporting piece, and a second through hole is formed in the supporting piece; when the deformation coupler is in a first state, the first heat conduction piece is close to the supporting piece and covers the first through hole; when the deformation coupler is in a second state, the first heat conduction piece protrudes and at least partially penetrates through the first through hole to extend out of the inner layer; the temperature detection module is arranged on the inner layer; the temperature detection module and the compressor refrigerating system are electrically connected with the controller. The heat exchange area of the deformation coupler on the inner layer and the outside can be actively adjusted, and efficient permeation cold transfer in the cold and heat exchange process is achieved.

Description

Technical Field

[0001] The present invention relates to the technical field of cooling clothing, in particular to a compressor refrigeration cooling clothing. Background Art

[0002] In hot environments, when users are outdoors or working, using traditional cooling methods such as fans and air conditioners is not convenient enough. Wearable cooling clothing can help users cool down when they are outdoors or working, and is easy to use. It has been widely used in special occupations such as petrochemicals, sports, metallurgical manufacturing, and firefighting.

[0003] Common cooling suits are categorized into three types based on their material: gas, liquid, and phase-change. Gas cooling suits incorporate miniature fans sewn into the garment's inner layer. The fans generate airflow, promoting sweat evaporation and removing heat from the body. Liquid cooling suits incorporate a water tank within the garment, utilizing the circulation of refrigerant to remove heat. Phase-change cooling suits incorporate phase-change materials into the garment, absorbing heat generated by the body through a phase-change process, thereby achieving a cooling effect. Each of these cooling suits utilizes different technologies to meet user comfort needs in high-temperature environments. With the development of miniaturized compressor refrigeration systems, compression refrigeration technology has provided technical support for the development of compressor-based cooling suits. Compared to the three common types of cooling suits mentioned above, compressor-based cooling suits offer higher cooling efficiency.

[0004] Currently, cooling garments based on compressors typically adjust their cooling effect by monitoring ambient temperature and automatically adjusting the compressor's operating status based on changes in ambient temperature. However, the contact area between the garment and the outside environment is generally fixed, limiting its heat exchange capacity. Simply increasing the overall size of the garment to increase its heat exchange area would compromise both user comfort and work convenience. Summary of the Invention

[0005] The purpose of the present invention is to provide a compressor refrigeration cooling garment to solve the problem that the contact area between the garment body and the external environment of the existing cooling garment is fixed, resulting in limited heat exchange capacity.

[0006] In order to achieve the above object, the present invention adopts the following technical solutions:

[0007] The present invention provides a compressor refrigeration and cooling clothing, comprising:

[0008] The garment body comprises an inner layer, an intermediate layer and an outer layer, wherein the intermediate layer and the outer layer are spaced apart to form a receiving cavity; a first through hole is provided on the inner layer;

[0009] The deformable coupler comprises a support member and a first heat-conducting member, wherein the support member is connected to the inner layer, the first heat-conducting member is connected to a side of the support member facing the inner layer, an airflow cavity is formed between the first heat-conducting member and the support member, the first heat-conducting member is arranged opposite to the first through hole, and a second through hole is provided on the support member for connecting the accommodating cavity and the airflow cavity; the deformable coupler has a first state and a second state, wherein in the first state, the first heat-conducting member is close to the support member and covers the first through hole; in the second state, the first heat-conducting member protrudes in a direction away from the support member and at least partially passes through the first through hole and protrudes out of the inner layer;

[0010] A temperature detection module is provided on the inner layer and is used to detect the ambient temperature;

[0011] A compressor refrigeration system includes a heat exchange tube disposed in the accommodating cavity; and

[0012] The controller is electrically connected to the temperature detection module and the compressor refrigeration system respectively; the controller adjusts the operation of the compressor refrigeration system according to the detection result of the temperature detection module, so that the support member can expand and contract under the set temperature threshold and switch the state of the deformation coupler.

[0013] In some embodiments, the support member is a shape memory film. When the temperature of the support member reaches a first set temperature threshold, the support member is in an extended state. When the temperature of the support member reaches a second set temperature threshold, the support member is in a contracted state. The first set temperature threshold is greater than the second set temperature threshold.

[0014] In some embodiments, the middle layer is provided with a plurality of third through holes, the compressor refrigeration and cooling clothing further comprises a heat conduction mechanism, the heat conduction mechanism comprises a plurality of second heat conduction members, the plurality of second heat conduction members are respectively embedded in each of the third through holes and connected to the middle layer, and the plurality of second heat conduction members are respectively arranged on the periphery of the heat exchange tube.

[0015] In some embodiments, the second heat conducting member is arranged to protrude toward the outer layer, and a gap is formed between the protruding portion of the second heat conducting member and the outer layer.

[0016] In some embodiments, the first through hole and the deformable coupler are both provided in plurality, and the plurality of first through holes are correspondingly arranged with the plurality of third through holes. The orthographic projection of the first through hole on the intermediate layer along the central axis direction of the first through hole falls into the third through hole, and the deformable coupler is located between the first through hole and the third through hole.

[0017] In some embodiments, the heat-conducting mechanism further includes a heat-conducting net, which is laid on a side of the middle layer facing the inner layer, and the plurality of second heat-conducting members are respectively connected to the heat-conducting net.

[0018] In some embodiments, the heat-conducting mechanism also includes a third heat-conducting member, which is laid on the side of the heat-conducting net away from the middle layer. The third heat-conducting member is provided with an air vent, which connects the accommodating cavity and the air flow cavity. The heat-conducting net and the second heat-conducting member are respectively connected to the third heat-conducting member.

[0019] In some embodiments, the compressor refrigeration and cooling clothing further includes an elastic member, which is arranged around the outer peripheral side of the deformation coupler, one end of the elastic member is connected to the support member, and the other end of the elastic member is connected to the inner layer.

[0020] In some embodiments, a heat-sensitive layer is provided between an edge of the first heat-conducting member and an edge of the supporting member, and the first heat-conducting member, the supporting member, and the heat-sensitive layer are fixed by welding.

[0021] In some embodiments, the compressor refrigeration and cooling clothing further includes a radiation refrigeration film, and the radiation refrigeration film is arranged on a side of the outer layer away from the middle layer.

[0022] Compared with the prior art, the compressor refrigeration and cooling clothing of the embodiment of the present invention has the following advantages:

[0023] The compressor refrigeration cooling clothing of the embodiment of the present invention includes a clothing body, a deformation coupler, a temperature detection module, a compressor refrigeration system, and a controller. The deformation coupler is connected to the inner layer of the clothing body, the heat exchange tube of the compressor refrigeration system is arranged in the accommodating cavity between the middle layer and the outer layer, and the temperature detection module is arranged in the inner layer to detect the ambient temperature. When the cooling clothing is working, the heat exchange tube in the compressor refrigeration system transmits cold energy to the interior of the clothing body. The heat exchange tube transmits the cold energy to the accommodating cavity. The cold energy in the accommodating cavity is transmitted to the support member in the deformation coupler through heat conduction. The cold energy can enter the airflow cavity through the second through hole on the support member, and then the cold energy is transmitted to the first heat conductor. The first heat conductor exchanges heat with the hot air outside the inner layer, thereby reducing the ambient temperature of the gap between the clothing body and the user, thereby cooling the user of the cooling clothing.

[0024] The deformable coupler has a first state and a second state. When the deformable coupler is in the first state, the support member is in an extended state, the first heat conductive member is close to the support member, and the first heat conductive member covers the first through-hole. At this time, the entire deformable coupler is located between the inner layer and the middle layer, making the inner layer of the garment body flat, which facilitates the distribution of friction loads and avoids the presence of protruding parts in the inner layer during multiple donning and doffing or transportation. The protruding parts are subjected to repeated friction and local stress concentration, causing plastic fatigue or abrasion perforation of the protruding parts, thereby avoiding local excessive wear of the inner layer, effectively extending the service life of the cooling garment and improving wearing comfort. When the deformable coupler is in the second state, the support member is in a contracted state, the first heat conductive member protrudes away from the support member, and at least partially extends through the first through-hole and out of the inner layer. Compared with embedding the first heat-conducting member flatly between the inner layer and the middle layer, the first heat-conducting member partially protrudes from the inner layer. On the one hand, the volume of the airflow cavity is increased, and the cold air enters the airflow cavity through the second through hole; when the cold air flows through the airflow cavity, the protruding first heat-conducting member guides the flow of cold air and enhances the airflow disturbance. A micro-turbulence area is formed between the edge of the protruding first heat-conducting member and the airflow cavity, breaking the thermal boundary layer originally attached to the surface, optimizing the airflow channel, thereby effectively enhancing the local convection heat transfer capacity and making the cold amount efficiently transferred; on the other hand, the first heat-conducting member protrudes outward through the first through hole from a flat state, and the first heat-conducting member protrudes outward from the flat state. The heat element is expanded from a two-dimensional plane to a three-dimensional curved surface, and the surface of the first heat-conducting element originally located between the inner layer and the middle is gradually exposed to the outside air, which increases the contact area between the first heat-conducting element and the outside air, thereby increasing the heat exchange area between the first heat-conducting element and the outside world. Therefore, when the deformation coupler switches from the first state to the second state, the heat exchange rate between the deformation coupler and the outside air per unit time will be increased, and efficient penetration cooling transfer in the process of heat exchange will be achieved. Ultimately, when the cooling clothing is just started, the air temperature in the gap between the user and the clothing body can drop more quickly, thereby improving the cooling response speed and physical comfort.

[0025] In the present invention, the controller adjusts the operation of the compressor refrigeration system according to the detection results of the temperature detection module, and then adjusts the refrigeration effect of the compressor refrigeration system, adjusts the internal temperature of the clothing body, adjusts the temperature of the deformable coupler, and makes the support in the deformable coupler expand and contract under the set temperature threshold, switches the state of the deformable coupler, and changes the contact area between the deformable coupler and the outside air, thereby avoiding the heat exchange capacity of the cooling suit being limited due to the fixed heat exchange area between the clothing body and the outside world. When the cooling suit is in use, the contact area between the deformable coupler and the outside air increases, thereby improving the heat exchange capacity, and there is no need to expand the overall size of the suit, thereby avoiding adverse effects on the user's wearing comfort and work convenience; when the cooling suit is not in use, the deformable coupler is embedded in the clothing body, thereby avoiding excessive wear of the inner layer of the clothing body during wearing, taking off or transportation, thereby improving the service life. BRIEF DESCRIPTION OF THE DRAWINGS

[0026] Figure 1 This is a schematic diagram of the connection of the compressor refrigeration and cooling clothing according to an embodiment of the present invention;

[0027] Figure 2 2 is a front view of a garment body according to an embodiment of the present invention;

[0028] Figure 3 2 is a schematic diagram of the back side of a garment body according to an embodiment of the present invention;

[0029] Figure 4 is a schematic diagram of the middle layer of the garment body according to an embodiment of the present invention;

[0030] Figure 5 is a schematic diagram of the inner layer of a garment body according to an embodiment of the present invention;

[0031] Figure 6 1 is a schematic diagram of the connection of the deformable coupler in the first state within the garment body according to an embodiment of the present invention;

[0032] Figure 7 yes Figure 6 Side view of;

[0033] Figure 8 yes Figure 6 Front cross-sectional view of

[0034] Figure 9 is a schematic diagram of the connection of the deformation coupler in the garment body when it is in the second state according to an embodiment of the present invention;

[0035] Figure 10 yes Figure 9 Side view of;

[0036] Figure 11 yes Figure 9 Front cross-sectional view of

[0037] Figure 12 is a schematic diagram of a deformable coupler in a first state according to an embodiment of the present invention;

[0038] Figure 13 is a schematic diagram of a deformable coupler in a second state according to an embodiment of the present invention;

[0039] Figure 14 is a schematic diagram of the deformable coupler in another second state according to an embodiment of the present invention;

[0040] Figure 15 Schematic diagram of the connection of the heat conducting network in the middle layer in an embodiment of the present invention;

[0041] Figure 16 Schematic diagram of the arrangement of the refrigeration assembly in the installation box according to an embodiment of the present invention;

[0042] Figure 17 It is a schematic diagram of a convex hollow metal shell structure in the prior art;

[0043] Figure 18 It is a schematic diagram of a convex solid metal shell structure in the prior art.

[0044] Numbers in the figure:

[0045] 1. Garment body; 101. Front; 102. Back; 11. Inner layer; 111. First through hole; 12. Middle layer; 13. Outer layer; 14. Accommodation cavity; 15. Power supply; 16. Storage bag;

[0046] 2. Deformable coupler; 21. Support member; 22. First heat conducting member; 23. Airflow cavity;

[0047] 3. Temperature detection module;

[0048] 4. Compressor refrigeration system; 41. Heat exchange tube; 411. First joint; 412. Second joint; 42. Refrigeration assembly; 421. Compressor; 422. Condenser; 423. Drying tube; 424. Throttling capillary tube; 425. High-pressure side valve; 426. Maintenance valve; 427. Low-pressure side valve; 428. Fan;

[0049] 5. Controller; 51. Control circuit;

[0050] 6. Heat conducting mechanism; 61. Second heat conducting member; 62. Heat conducting net; 63. Third heat conducting member; 7. Elastic member; 8. Radiant cooling film; 9. Installation box;

[0051] 100. Convex hollow metal shell structure; 200. Convex solid metal shell structure. DETAILED DESCRIPTION

[0052] In the description of the present invention, it should be noted that the terms "center," "upper," "lower," "vertical," "horizontal," "top," "bottom," "inner," and "outer," etc., indicating orientations or positional relationships, are based on the orientations or positional relationships shown in the accompanying drawings and are intended solely to facilitate and simplify the description of the present invention. They are not intended to indicate or imply that the devices or components referred to must have, be constructed, or operate in a specific orientation, and therefore should not be construed as limitations on the present invention. Furthermore, the terms "first," "second," and "third" are used for descriptive purposes only and should not be construed as indicating or implying relative importance.

[0053] In the description of the present invention, it should be noted that, unless otherwise expressly specified or limited, the terms "mounted," "connected," and "connected" should be understood in a broad sense. For example, they may refer to fixed, detachable, or integral connections; mechanical or electrical connections; direct or indirect connections through an intermediate medium; and internal communication between two components. Those skilled in the art will understand the specific meanings of the above terms in the present invention based on the specific circumstances.

[0054] The following embodiments of the present invention are described in further detail with reference to the accompanying drawings and examples. The following examples are used to illustrate the present invention but are not intended to limit the scope of the present invention.

[0055] See Figures 1-14 As shown, an embodiment of the present invention provides a compressor refrigeration and cooling clothing, including a clothing body 1, a deformation coupler 2, a temperature detection module 3, a compressor refrigeration system 4 and a controller 5. The clothing body 1 includes an inner layer 11, an intermediate layer 12 and an outer layer 13, and the inner layer 11, the intermediate layer 12 and the outer layer 13 are arranged in sequence, and the intermediate layer 12 and the outer layer 13 are arranged at intervals to form a accommodating cavity 14; a first through hole 111 is provided on the inner layer 11; the deformation coupler 2 includes a support member 21 and a first heat-conducting member 22, the support member 21 is connected to the inner layer 11, the first heat-conducting member 22 is connected to the side of the support member 21 facing the inner layer 11 and an airflow cavity 23 is formed between the first heat-conducting member 22 and the support member 21, the first heat-conducting member 22 is arranged opposite to the first through hole 111, and a connecting accommodating cavity 14 is provided on the support member 21. cavity 14 and the second through hole of the air flow cavity 23; the deformable coupler 2 has a first state and a second state, in the first state, the first heat conductor 22 is close to the support member 21, and the first heat conductor 22 covers the first through hole 111; in the second state, the first heat conductor 22 protrudes in the direction away from the support member 21, and at least partially extends out of the inner layer 11 through the first through hole 111; the temperature detection module 3 is arranged on the inner layer 11 to detect the ambient temperature; the compressor refrigeration system 4 includes a heat exchange tube 41 arranged in the accommodating cavity 14; the temperature detection module 3 and the compressor refrigeration system 4 are electrically connected to the controller 5 respectively; the controller 5 adjusts the operation of the compressor refrigeration system 4 according to the detection result of the temperature detection module 3, so that the support member 21 can expand and contract under the set temperature threshold to switch the state of the deformable coupler 2.

[0056] When the cooling suit is working, the cold energy is transmitted to the interior of the clothing body 1 through the heat exchange tube 41 in the compressor refrigeration system 4, and the heat exchange tube 41 transmits the cold energy to the accommodating cavity 14. The cold energy in the accommodating cavity 14 is transmitted to the support member 21 in the deformation coupler 2 through heat conduction, and enters the air flow cavity 23 through the second through hole on the support member 21, and then transmits the cold energy to the first heat conducting member 22. Heat exchange is carried out with the hot air outside the inner layer 11 through the first heat conducting member 22, thereby reducing the ambient temperature of the gap between the clothing body 1 and the user, thereby cooling the user of the cooling suit.

[0057] The deformable coupler 2 has a first state and a second state, see Figure 6-Figure 8 As shown, when the deformable coupler 2 is in the first state, the support member 21 is in an extended state, the first heat-conducting member 22 is close to the support member 21, and the first heat-conducting member 22 covers the first through hole 111. At this time, the entire deformable coupler 2 is located between the inner layer 11 and the middle layer 12, making the inner layer 11 of the clothing body 1 flat, which facilitates the dispersion of friction loads and avoids the presence of protruding parts in the inner layer 11 during multiple donning and doffing or transportation. The protruding parts are subjected to repeated friction and local stress concentration, causing plastic fatigue or abrasion perforation of the protruding parts, thereby avoiding local excessive wear of the inner layer 11, effectively extending the service life of the cooling clothing and improving wearing comfort. Figures 9-11 As shown, when the deformation coupler 2 is in the second state, corresponding to the working state of the cooling suit, the support member 21 is in a contracted state, and the first heat-conducting member 22 does not significantly contract, causing the first heat-conducting member 22 to bulge away from the support member 21 and at least partially extend out of the inner layer 11 through the first through-hole 111. Compared to flatly embedding the first heat-conducting member 22 between the inner layer 11 and the middle layer 12, the first heat-conducting member 22 partially protrudes from the inner layer 11. On the one hand, during the process of the first heat-conducting member 22 bulging and deforming, the volume of the airflow cavity 23 begins to increase, and cold air enters the airflow cavity 23 through the second through-hole. According to Newton's law of cooling in heat transfer:

[0058] Q=h·A·ΔT

[0059] Among them, Q is the heat exchange per unit time, h is the convective heat transfer coefficient (affected by air flow velocity, disturbance, etc.), A is the effective heat exchange surface area (such as the unobstructed area), and ΔT is the temperature difference. When the cold air flows through the air flow cavity 23, the protruding first heat conductor 22 guides the flow of cold air and enhances the air flow disturbance, which significantly improves the local h value, and forms a micro-turbulence area between the edge of the protruding first heat conductor 22 and the air flow cavity 23, breaking the thermal boundary layer originally attached to the surface, optimizing the air flow channel, thereby effectively enhancing the local convective heat transfer capacity and enabling efficient transfer of cold; on the other hand, the first heat conductor 22 protrudes outward from a flat state through the first through hole 111, and the first heat conductor 22 expands from a two-dimensional plane to a three-dimensional curved surface, which was originally in the inner layer 11 and The surface of the first heat-conducting member 22 in the middle is gradually exposed to the outside air, which increases the contact area between the first heat-conducting member 22 and the outside air, thereby increasing the heat exchange area between the first heat-conducting member 22 and the outside world. Therefore, when the deformation coupler 2 switches from the first state to the second state, the heat exchange rate between the deformation coupler 2 and the outside air per unit time will be increased, thereby realizing efficient infiltration cold transfer during the heat exchange process. Ultimately, when the cooling clothing is just started, the air temperature in the gap between the user and the clothing body 1 can drop more quickly, thereby improving the cooling response speed and physical comfort.

[0060] The deformation coupler 2 is not directly arranged on the inner layer 11, but is arranged with the inner layer 11 through a structural decoupling method, which facilitates the switching of the state of the deformation coupler 2. When the cooling suit is not working, the deformation coupler 2 is in the first state, which is different from the traditional convex hollow metal shell structure 100 (see Figure 17 ) or a convex solid metal shell structure 200 (see Figure 18Compared with the deformable coupler 2, the deformable coupler 2 has obvious advantages in mechanical reliability and wearing comfort: under the action of gravity or external pressure, the convex hollow metal shell structure 100, due to its geometric shape and structural mechanical characteristics, will cause the external force to concentrate on its top area, resulting in a friction concentration effect between this area and the external object. During multiple wearing and taking off, transportation or use, the top part is repeatedly subjected to friction and is prone to local stress concentration, which eventually causes plastic fatigue or abrasion perforation at the top part of the convex hollow metal shell structure 100, thereby affecting the functional integrity of the overall heat exchange structure and the life of the clothing. The deformable coupler 2 maintains a flat and fitting state in the static non-working state, and its overall structure can disperse the friction load, avoid local excessive wear, effectively extend the service life of the structure and improve wearing comfort. Although the convex solid metal shell structure 200 has improved mechanical strength compared to the hollow structure and can avoid the problem of wear and perforation to a certain extent, the mass burden brought by its thickness and material density is significantly increased. If dozens or even hundreds of convex solid metal shell structures 200 were evenly distributed across the surface of the cooling garment, the weight of the entire wearable device would increase significantly, directly reducing wearing comfort and user acceptance. However, the deformation coupler 2, utilizing a composite structure formed by the first heat conductor 22 and the support member 21, achieves deformation response while significantly reducing unit structural mass, balancing functionality with lightweight requirements.

[0061] In the present invention, the controller 5 adjusts the operation of the compressor refrigeration system 4 according to the detection results of the temperature detection module 3, and then adjusts the refrigeration effect of the compressor refrigeration system 4, adjusts the internal temperature of the clothing body 1, adjusts the temperature of the deformable coupler 2, and makes the support member 21 in the deformable coupler 2 expand and contract under the set temperature threshold, switches the state of the deformable coupler 2, and changes the contact area between the deformable coupler 2 and the outside air, thereby avoiding the cooling clothing from having a limited heat exchange capacity due to the fixed heat exchange area between the clothing body 1 and the outside world. When the cooling clothing is in use, the contact area between the deformable coupler 2 and the outside air increases, thereby improving the heat exchange capacity, and there is no need to expand the overall size of the clothing, thereby avoiding adverse effects on the user's wearing comfort and work convenience; when the cooling clothing is not in use, the deformable coupler 2 is embedded in the clothing body 1, thereby avoiding local excessive wear of the inner layer 11 of the clothing body 1 during wearing, taking off or transportation, thereby improving the service life.

[0062] It should be noted that in the present invention, the inner layer 11 is the side of the garment body 1 that is closer to the body when the user wears the cooling garment, and the outer layer 13 is the side of the garment body 1 that is farther from the body when the user wears the cooling garment. To facilitate wearing, the garment body 1 is in the form of a vest and has a front face 101 and a back face 102.

[0063] In some embodiments, the support member 21 is a shape memory film. When the temperature of the support member 21 is different, the expansion and contraction state of the support member 21 is different, so that the degree of protrusion of the first heat conductor 22 is different, thereby realizing dynamic adjustment of the heat exchange area between the first heat conductor 22 and the outside world, and enhancing the cold and heat exchange penetration efficiency. When the temperature of the support member 21 reaches the first set temperature threshold, the support member 21 is in an extended state, corresponding to the first state of the deformable coupler 2. When the temperature of the support member 21 reaches the second set temperature threshold, the support member 21 is in a contracted state, corresponding to the second state of the deformable coupler 2, wherein the first set temperature threshold is greater than the second set temperature threshold, so that when the internal temperature of the clothing body 1 is low, the support member 21 contracts and the first heat conductor 22 protrudes, thereby increasing the heat exchange area between the first heat conductor 22 and the outside, quickly transferring cold to the outside, and reducing the gap air temperature between the clothing body 1 and the human body. See Figure 12-14 As shown, in some embodiments, the first set temperature threshold is 25°C, and the second set temperature threshold is 20°C or 15°C. When the temperature of the support member 21 is different, the degree of contraction of the support member 21 is different, and accordingly, the degree of protrusion of the first heat conductor 22 is different, so that the heat exchange area between the first heat conductor 22 and the external air changes according to the cooling demand. The deformation coupler 2 can have multiple second states. In different second states, the support member 21 is in a contracted state, but the degree of contraction of the support member 21 is different, and the degree of protrusion of the first heat conductor 22 is different.

[0064] It should be noted that in the first state of the deformable coupler 2, the support member 21 and the first heat-conducting member 22 have the same area, and the cross-sectional area of ​​the first heat-conducting member 22 is larger than the radial cross-sectional area of ​​the corresponding first through hole 111. Therefore, in the second state, the first heat-conducting member 22 can naturally bulge after being driven by the contraction of the support member 21. This bulge not only breaks the original flat structure and expands the surface contour of the clothing body 1 in three-dimensional space, but also significantly increases the local air contact area at the structural unit scale. In this way, the macroscopic size of the clothing body 1 is not changed, and the heat exchange efficiency per unit area is effectively improved.

[0065] In some embodiments, the support member 21 is a shape memory film made of liquid crystal elastomers (LCEs) through a mercapto-Michael / mercapto-ene reaction. LCEs are a type of programmable deformable material that can be programmed to change state at different temperatures, so that the support member 21 has different degrees of contraction at different temperatures. Figure 12As shown, when the temperature of the support member 21 is 25°C, the support member 21 is in an extended state. When the temperature of the support member 21 is 20°C and 15°C, the support member 21 is in a contracted state. The contraction degree of the support member 21 at 20°C (see Figure 13 ) is less than the shrinkage of the support member 21 at 15°C (see Figure 14 ), accordingly, when the support member 21 is at 20°C, the protrusion of the first heat-conducting member 22 is smaller than the protrusion of the first heat-conducting member 22 corresponding to when the support member 21 is at 15°C.

[0066] In some embodiments, the first heat conducting member 22 is a metal member in the form of a sheet. Preferably, the first heat conducting member 22 is a copper sheet.

[0067] The first heat-conducting member 22, the support member 21, and the first through hole 111 are all circular. The edge of the first heat-conducting member 22 is fixedly connected to the edge of the support member 21. In some embodiments, a thermosensitive layer is provided between the edge of the first heat-conducting member 22 and the edge of the support member 21, and the first heat-conducting member 22, the support member 21, and the thermosensitive layer are welded and fixed. The first heat-conducting member 22, the support member 21, and the thermosensitive layer can be fixed by laser welding. By irradiating the first heat-conducting member 22 with a laser, it absorbs energy and transfers heat to the thermosensitive layer in the middle, causing the thermosensitive layer to melt and thus achieve a high-strength bond between the first heat-conducting member 22 and the support member 21. A hollow area is retained in the center to form an annular double-layer structure. When the first heat-conducting member 22 is welded to the support member 21, the hollow area in the center forms an airflow cavity 23. The difference in thermal deformation between the first heat-conducting member 22 and the support member 21 reserves a dynamic response space, providing a structural basis for adaptive deformation driven by subsequent changes in ambient temperature. At the same time, the hollow area can optimize the airflow channel and enhance the penetration efficiency of heat exchange.

[0068] In some embodiments, see Figure 8 and Figure 11 As shown, the compressor cooling suit also includes an elastic member 7, which is disposed around the outer periphery of the deformable coupler 2. One end of the elastic member 7 is connected to the support member 21, and the other end is connected to the inner layer 11. The elastic member 7 not only establishes a connection between the support member 21 and the inner layer 11, but also assists in the extension and resetting of the support member 21. The elastic member 7 is annular and is made of elastic fabric.

[0069] See Figure 1As shown, the heat exchange tubes 41 are arranged in an S-shape within the accommodating cavity 14 of the garment body 1, interspersed between the front 101 and back 102 of the garment body 1. The coolant in the heat exchange tubes 41 flows along the heat exchange tubes 41, cooling only the local area around the heat exchange tubes 41. This creates distinct local high and low temperature areas within the garment body 1, resulting in uneven cooling and significant local temperature differences. This will cause the body surface temperature to drop more slowly at locations away from the heat exchange tubes 41, seriously affecting the user experience and comfort of the cooling garment. Figures 6-11 As shown, in some embodiments, the middle layer 12 is provided with a plurality of third through holes, and the compressor cooling garment further includes a heat conducting mechanism 6, which includes a plurality of second heat conducting members 61. The plurality of second heat conducting members 61 are respectively embedded in each of the third through holes and connected to the middle layer 12, and the plurality of second heat conducting members 61 are respectively arranged around the periphery of the heat exchange tube 41. The cold air surrounding the heat exchange tube 41 can exchange heat with the second heat conducting members 61, and the cold air is transferred through the second heat conducting members 61, dispersing the cold air to a position away from the heat exchange tube 41. This allows the cold released by the heat exchange tube 41 to be evenly distributed within the accommodating cavity 14, thereby preventing excessive local temperature differences within the garment body 1. Moreover, by conducting the cold through the arrangement of multiple second heat-conducting members 61, the cold is evenly diffused, which can avoid increasing the length of the heat exchange tube 41. Although increasing the length of the heat exchange tube 41 can increase the coverage of the heat exchange tube 41 in the clothing body 1, thereby making the cold evenly diffused in the clothing body 1, increasing the length of the heat exchange tube 41 will cause the structure of the clothing body 1 to become rigid, reducing wearing comfort, and will increase the risk of leakage and breakage of the heat exchange tube 41 inside the clothing body 1, thereby reducing the airtightness of the compressor refrigeration system 4. The second heat-conducting member 61 is a metal member in the form of a sheet. Preferably, the second heat-conducting member 61 is a copper sheet. Multiple second heat-conducting members 61 are evenly arranged on the outside of the heat exchange tube 41, so that the cold released by the compressor refrigeration system 4 can be quickly conducted to the surface of the second heat-conducting member 61.

[0070] See Figures 6-11 As shown, in some embodiments, the second heat-conducting member 61 is arranged to protrude toward the outer layer 13, with a gap between the protruding portion of the second heat-conducting member 61 and the outer layer 13. The protruding shape of the second heat-conducting member 61 increases the contact area between the second heat-conducting member 61 and the cold air, thereby improving heat exchange efficiency, compared to a flat surface lying flat within the third through-hole. Furthermore, the gap between the second heat-conducting member 61 and the outer layer 13 prevents the second heat-conducting member 61 from interfering with airflow.

[0071] See Figures 6-11As shown, in some embodiments, there are multiple first through holes 111 and multiple deformable couplers 2, and the multiple first through holes 111 are evenly arranged on the inner layer 11. The multiple first through holes 111 are arranged corresponding to the multiple third through holes. The orthographic projection of the first through hole 111 on the middle layer 12 along the central axis of the first through hole 111 falls into the third through hole. The deformable coupler 2 is located between the first through hole 111 and the third through hole. A deformable coupler 2 is provided between each first through hole 111 and the third through hole, so that the cold energy conducted by the second heat conductor 61 quickly enters the airflow cavity 23 through the second through hole of the deformable coupler 2 and exchanges heat with the outside world through the first heat conductor 22. The aperture of the first through hole 111 is smaller than or equal to that of the third through hole, and the central axis of the first through hole 111 is arranged collinearly with the central axis of the third through hole. The first through hole 111 and the third through hole are both circular.

[0072] See Figure 4 、 Figures 6-11 、 Figure 15 As shown, in some embodiments, the heat-conducting mechanism 6 also includes a heat-conducting mesh 62, which is laid on the side of the middle layer 12 facing the inner layer 11, and multiple second heat-conducting members 61 are respectively connected to the heat-conducting mesh 62. The multiple second heat-conducting members 61 are tightly connected together through the heat-conducting mesh 62. The heat-conducting mesh 62 and the second heat-conducting members 61 form a heat-conducting mesh 62 grid covering the middle layer 12, constructing a multi-directional continuous cold conduction path, so that the cold released by the compressor refrigeration system 4 can be quickly diffused to the entire clothing body 1, effectively solving the problem of excessive local temperature difference caused by the sparse layout of the refrigerant pipeline, and improving physical comfort. In some embodiments, the heat-conducting mesh 62 has a grid structure. The heat-conducting mesh 62 may include multiple heat-conducting strips, which connect adjacent second heat-conducting members 61. The multiple heat-conducting strips are cross-connected to form a grid structure, constructing a multi-directional continuous cold conduction path on the middle layer 12. In some embodiments, the heat-conducting strips are copper wires to reduce the weight of the cooling clothing. The heat-conducting network 62 is formed by cross-connecting a plurality of copper wires, and the second heat-conducting member 61 can be connected to the intersections of the plurality of copper wires.

[0073] See Figures 6-11As shown, in some embodiments, the heat-conducting mechanism 6 further includes a third heat-conducting member 63, which is laid on the side of the heat-conducting mesh 62 facing away from the intermediate layer 12. The third heat-conducting member 63 is provided with a vent hole, which connects the accommodating cavity 14 and the airflow cavity 23. The heat-conducting mesh 62 and the second heat-conducting member 61 are respectively connected to the third heat-conducting member 63. The third heat-conducting member 63 connects the heat-conducting mesh 62 and the second heat-conducting member 61 into a whole, playing a protective role, preventing the heat-conducting mesh 62 and the second heat-conducting member 61 from being damaged by friction. In addition, the third heat-conducting member 63 can protect the support member 21 and prevent it from being damaged when the support member 21 shrinks. The vent hole on the third heat-conducting member 63 provides a channel for the circulation of cold air. The third heat-conducting member 63 is a thin film with good thermal conductivity, which can be bonded and fixed to the heat-conducting mesh 62 and the second heat-conducting member 61.

[0074] See Figures 6-11 As shown, in some embodiments, the compressor refrigeration and cooling suit further includes a radiant cooling film 8, which is disposed on the side of the outer layer 13 facing away from the middle layer 12. The radiant cooling film 8 covers the outer layer 13. By covering the cooling suit surface with the radiant cooling film 8, the radiant cooling film 8 reflects solar radiation and radiates heat to outer space through the atmospheric window (8-13 micron wavelength), thereby reducing heat absorption by the cooling suit surface and achieving energy-free passive cooling. This further reduces the burden on the compressor refrigeration system 4 and improves overall energy efficiency and battery life.

[0075] The surface of the radiative cooling film 8 has a high reflectivity (especially in the visible to near-infrared band, 0.3-2.5σm), which reduces solar absorption and reflects most of the incident solar energy back into the atmosphere, significantly reducing heat absorption on the surface of the cooling suit. Because the Earth's atmosphere has a "transparent window" in the wavelength range of 8-13μm, mid-infrared radiation is allowed to directly penetrate the atmosphere and dissipate into the low-temperature outer space (about 3K). With the effect of infrared phonon polarized materials (such as hexagonal boron nitride) that can enhance the efficiency of mid-infrared radiation, the radiative cooling film 8 selectively emits mid-infrared radiation, efficiently dissipating the heat accumulated on the surface or inside the cooling suit in the form of radiation, thereby achieving passive cooling. The heat dissipation power is quantified by the Stefan-Boltzmann law:

[0076]

[0077] Where, ∈ is the emissivity of the film in the mid-infrared band, σ=5.67×10 -8 W / m 2 K 4 is the Stefan-Boltzmann constant, T S is the surface temperature of the radiation cooling film 8, T ∞ is the ambient temperature. When , the film achieves net heat dissipation.

[0078] A multi-directional continuous cold conduction path is constructed in the middle layer 12 through the heat-conducting network 62 and the second heat-conducting member 61, which conducts cold quickly and evenly. By switching the state of the deformation coupler 2, the heat exchange area between the inner layer 11 and the outside world is increased, and the air flow penetration is optimized in combination with the air flow cavity 23. The radiation cooling film 8 highly reflects sunlight and radiates heat to outer space through the atmospheric window to achieve passive cooling, thus forming a "conduction-convection-radiation" multi-mechanism synergy, taking into account active cooling, environmental adaptation and zero-energy heat dissipation, suitable for high-temperature outdoor operations, and has the advantages of lightweight, high weather resistance and energy saving.

[0079] See Figure 1 、 Figure 3 and Figure 16 As shown, in some embodiments, the compressor refrigeration system 4 also includes a refrigeration component 42, which is connected to the heat exchange tube 41; the compressor refrigeration and cooling clothing also includes an installation box 9, which is detachably connected to the outer layer 13, and the refrigeration component 42 is arranged in the installation box 9. The installation box 9 is made of acrylic material. The installation box 9 can be specifically arranged on the back side 102 of the clothing body 1, and the refrigeration component 42 is integrated in the installation box 9 to realize a miniaturized and high-efficiency refrigeration system, which is convenient for users to wear cooling clothing and does not affect the user's outdoor work. The installation box 9 is detachably connected to the outer layer 13, which facilitates the installation and disassembly of the installation box 9, thereby facilitating the maintenance of the compressor refrigeration system 4. The heat exchange tube 41 is an evaporator pipe.

[0080] See Figure 1 and Figure 16 As shown, the refrigeration assembly 42 includes a compressor 421, a condenser 422, a drying tube 423, and a throttling capillary tube 424. The compressor 421 and the throttling capillary tube 424 are respectively connected to the two ends of the heat exchange tube 41. The air outlet of the compressor 421 is located at the high-pressure end of the compressor 421. The air outlet of the compressor 421 is connected to the condenser 422 through the high-pressure side valve 425. The condenser 422 is connected to the drying tube 423. The drying tube 423 is used to absorb water vapor that may be present in the refrigerant to prevent the water vapor from liquefying and solidifying at low temperatures and causing pipeline blockage, thereby ensuring smooth operation of the system. The drying tube 423 is connected to the heat exchange tube 41 through the throttling capillary tube 424. The heat exchange tube 41 is connected to the air inlet located at the low-pressure end of the compressor 421 through the maintenance valve 426 and the low-pressure side valve 427. Among them, the compressor 421, the high-pressure side valve 425, the condenser 422, the drying tube 423, the throttling capillary 424, the maintenance valve 426 and the low-pressure side valve 427 are all integrated into the installation box 9, and the user can carry it on his back to reduce the burden.

[0081] The working principle of the compressor refrigeration system 4 is as follows: the refrigerant enters the compressor 421 from the air inlet at the low-pressure end of the compressor 421, is compressed by the compressor 421 to form high-pressure gas, and leaves the compressor 421 from the air outlet at the high-pressure end. According to the ideal gas equation:

[0082] PV=NRT

[0083] Where P is the gas pressure; V is the gas volume; N is the amount of gas; R is the universal gas constant, which is usually 8.314 J / (mol·K); and T is the gas temperature.

[0084] For a given mass of gas, the factors that can affect the gas temperature T are the gas volume V and the gas pressure P. As long as the gas volume V remains unchanged or the rate of change is lower than the rate of change of the gas pressure P, the gas temperature T can be changed by changing the gas pressure P. Therefore, the low-pressure refrigerant is converted into high-temperature and high-pressure gas by the action of the compressor 421.

[0085] The high-temperature, high-pressure refrigerant leaves compressor 421 from the outlet located at the high-pressure end of compressor 421, passes through high-pressure side valve 425, and enters condenser 422. Under the action of condenser 422 and fan 428, the high-temperature, high-pressure refrigerant exchanges heat with the outside air, completing the heat exchange between the inside and outside of garment body 1. The refrigerant then passes through drying tube 423 for drying and filtration before entering throttling capillary tube 424. According to Bernoulli's principle, as the flow rate of an ideal fluid increases, the pressure of the fluid decreases. Bernoulli's equation can be expressed as:

[0086]

[0087] Where P is the fluid pressure, ρ is the fluid density, v is the fluid velocity, g is the acceleration due to gravity, and h is the height of the fluid relative to a reference point. This equation shows that for a flowing fluid, the sum of its pressure energy, kinetic energy, and potential energy is a constant. If the fluid velocity increases, its pressure necessarily decreases; if the fluid velocity decreases, its pressure increases. Therefore, when designing gas pipelines, the principle of throttling expansion in gas flow can be utilized to reduce the gas temperature. When gas passes through a narrow channel, the flow velocity increases, causing the gas pressure to decrease. At the same time, according to the principle of conservation of energy, the gas's internal energy is converted into kinetic energy. From the perspective of energy conservation, when gas passes through a narrow section, its kinetic energy increases due to the increased flow velocity, while its internal energy decreases, causing the gas temperature to drop. According to the ideal gas equation, the gas pressure also decreases as the gas temperature drops. Therefore, by providing a throttling capillary 424, the gas state changes can be effectively controlled to achieve the desired temperature and pressure conditions.

[0088] After cooling and reducing pressure in throttling capillary tube 424, the refrigerant enters heat exchange tube 41. Through heat exchange tube 41, the refrigerant exchanges heat within garment body 1, thereby lowering the user's body temperature and achieving a cooling effect. Finally, the refrigerant passes through maintenance valve 426 and low-pressure valve 427, entering the compressor 421 from the air inlet, completing a complete refrigeration cycle.

[0089] In some embodiments, the heat exchange tubes 41 are flexible tubes, inserted in an S-shaped pattern within the cavities 14 on the front and back surfaces 101 and 102 of the garment body 1. This configuration facilitates their placement and enhances the comfort of the cooling garment. To improve the airtightness of the compressor refrigeration system 4 and extend the lifespan of the compressor refrigeration garment, in some embodiments, the heat exchange tubes 41 are made of a dynamic covalently bonded silicone material, allowing them to autonomously repair minor cracks at room temperature.

[0090] In order to facilitate the maintenance of the cooling clothing, the heat exchange tube 41 in the clothing body 1 is disassembled and installed. The two ends of the heat exchange tube 41 are detachably connected to the throttling capillary 424 and the maintenance valve 426 respectively. Figure 1 、 Figure 3 and Figure 16 As shown, in some embodiments, a first joint 411 is connected between the heat exchange tube 41 and the throttling capillary tube 424, and a second joint 412 is connected between the heat exchange tube 41 and the maintenance valve 426. The first joint 411 and the second joint 412 have the same structure, and the arrangement of the first joint 411 and the second joint 412 does not affect the transmission of the refrigerant. The first joint 411 and the second joint 412 each include a nut and a screw. The nut is respectively connected to the ends of the heat exchange tube 41, and the screw is connected to the throttling capillary tube 424 or the maintenance valve 426.

[0091] In some embodiments, the functions of the controller 5 are implemented by a control chip. The control chip is an MCU (Microcontroller Unit) chip, which is embedded in the front face 101 of the garment body 1. The control chip is used to receive and process signals and data transmitted by each component and send corresponding control signals to each component based on these signals and data. The control chip is connected to the compressor refrigeration system 4 via the control circuit 51. The control circuit 51 mainly drives the compressor 421 with a buck chopper circuit as its core.

[0092] In some embodiments, the controller 5 is also connected to the temperature detection module 3, which detects the air temperature in the gap between the clothing body 1 and the user's body, and transmits the temperature detection result back to the controller 5. The controller 5 receives the detection data from the temperature detection module 3 to provide data support for controlling the operation of the compressor refrigeration system 4.

[0093] The controller 5 compares the real-time temperature value transmitted back by the temperature detection module 3 with the preset temperature value and uses the PID (Proportion Integration Differentiation) control algorithm to output PWM (Pulse-Width Modulation). The PID control algorithm can use the incremental PID, and its formula is as follows:

[0094] Δu(k)=u(k)-u(k-1)=K p [e(k)-e(k-1)]+K i e(k)+K d [e(k)-2e(k-1)+e(k-2)]

[0095] Among them, Δu(k) is the change of the output of the kth control cycle, u(k) is the output of the kth control cycle, u(k-1) is the output of the k-1th control cycle, K p , K i , K d are the proportional, integral and differential coefficients respectively, and e(k), e(k-1) and e(k-2) are the differences between the preset temperature value and the actual temperature value at the kth, k-1th and k-2th sampling times respectively.

[0096] The BUCK step-down chopper circuit is a step-down circuit with IGBT (Insulated-Gate Bipolar Transistor) as its core. The formula for calculating the average output current is as follows:

[0097]

[0098] Among them, V o is the average output voltage, R is the total resistance of the load (compressor 421 is part of the load), t on is the turn-on time of IGBT, t off is the IGBT turn-off time, V s is the voltage value of the power supply 15. The controller 5 controls the output PWM through the calculation result Δu(k) of the incremental PID. The output PWM acts on the IGBT and changes the duty cycle of the output PWM (i.e., t on / (t on +t off)) can control the opening and closing of the IGBT, thereby changing the size of the output current I, and then changing the compression rate of the compressor 421, controlling the cooling effect of the cooling clothing, and then switching the state of the deformation coupler 2, adjusting the temperature of the internal support 21 of the clothing body 1, adjusting the degree of contraction of the support 21, and realizing active regulation of the heat exchange area between the first heat conductor 22 and the outside world.

[0099] In some embodiments, the controller 5 further includes a display screen and buttons. The display screen is used to display the air pressure value within the compressor refrigeration system 4, the temperature detected by the temperature detection module 3, and the user-set target temperature value. The buttons are used by the user to control the on / off of the compressor 421, set the target temperature value, and open / close various valves in the compressor refrigeration system 4. The display screen is embedded in the front face 101 of the garment body 1.

[0100] See Figure 2 As shown, in some embodiments, the compressor cooling clothing further includes a power supply 15 and a backup power supply. A storage bag 16 is provided on the front 101 of the clothing body 1, and the power supply 15 and the backup power supply are placed in the storage bag 16 respectively.

[0101] The above is only a preferred embodiment of the present invention. It should be pointed out that for ordinary technicians in this technical field, several improvements and substitutions can be made without departing from the technical principles of the present invention. These improvements and substitutions should also be regarded as the scope of protection of the present invention.

Claims

1. A compressor refrigeration and cooling clothing, characterized in that: include: A garment body (1) comprises an inner layer (11), an intermediate layer (12) and an outer layer (13), wherein the intermediate layer (12) and the outer layer (13) are spaced apart to form a receiving cavity (14); a first through hole (111) is provided on the inner layer (11); A deformable coupler (2) comprises a support member (21) and a first heat-conducting member (22), wherein the support member (21) is connected to the inner layer (11), the first heat-conducting member (22) is connected to a side of the support member (21) facing the inner layer (11), an airflow cavity (23) is formed between the first heat-conducting member (22) and the support member (21), the first heat-conducting member (22) and the first through hole (111) are arranged opposite to each other, and a second through hole connecting the accommodating cavity (14) and the airflow cavity (23) is provided on the support member (21); the deformable coupler (2) has a first state and a second state, wherein in the first state, the first heat-conducting member (22) is close to the support member (21) and covers the first through hole (111); in the second state, the first heat-conducting member (22) protrudes in a direction away from the support member (21) and at least partially passes through the first through hole (111) and protrudes out of the inner layer (11); A temperature detection module (3) is provided on the inner layer (11) and is used to detect the ambient temperature; A compressor refrigeration system (4) includes a heat exchange tube (41) disposed in the accommodating cavity (14); and A controller (5), the temperature detection module (3), and the compressor refrigeration system (4) are electrically connected to the controller (5), respectively; the controller (5) adjusts the operation of the compressor refrigeration system (4) according to the detection result of the temperature detection module (3), so that the support member (21) expands and contracts under a set temperature threshold, thereby switching the state of the deformation coupler (2).

2. The compressor refrigeration and cooling clothing according to claim 1, characterized in that: The support member (21) is a shape memory film. When the temperature of the support member (21) reaches a first set temperature threshold, the support member (21) is in an extended state. When the temperature of the support member (21) reaches a second set temperature threshold, the support member (21) is in a contracted state. The first set temperature threshold is greater than the second set temperature threshold.

3. The compressor refrigeration and cooling clothing according to claim 1, characterized in that: The intermediate layer (12) is provided with a plurality of third through holes. The compressor refrigeration and cooling clothing further comprises a heat conduction mechanism (6). The heat conduction mechanism (6) comprises a plurality of second heat conduction members (61). The plurality of second heat conduction members (61) are respectively embedded in each of the third through holes and connected to the intermediate layer (12). The plurality of second heat conduction members (61) are respectively arranged on the outer periphery of the heat exchange tube (41).

4. The compressor refrigeration and cooling clothing according to claim 3, characterized in that: The second heat-conducting member (61) is arranged to protrude toward the outer layer (13), and a gap is provided between the protruding portion of the second heat-conducting member (61) and the outer layer (13).

5. The compressor refrigeration and cooling clothing according to claim 3, characterized in that: The first through hole (111) and the deformable coupler (2) are both provided in plurality, and the plurality of first through holes (111) are correspondingly arranged with the plurality of third through holes. The orthographic projection of the first through hole (111) on the intermediate layer (12) along the central axis direction of the first through hole (111) falls into the third through hole, and the deformable coupler (2) is located between the first through hole (111) and the third through hole.

6. The compressor refrigeration and cooling clothing according to claim 3, characterized in that: The heat-conducting mechanism (6) further comprises a heat-conducting net (62), the heat-conducting net (62) being laid on a side of the middle layer (12) facing the inner layer (11), and a plurality of the second heat-conducting members (61) being respectively connected to the heat-conducting net (62).

7. The compressor refrigeration and cooling clothing according to claim 6, characterized in that: The heat-conducting mechanism (6) further comprises a third heat-conducting member (63), which is laid on a side of the heat-conducting net (62) facing away from the intermediate layer (12), and is provided with an air vent, which connects the accommodating cavity (14) and the air flow cavity (23), and the heat-conducting net (62) and the second heat-conducting member (61) are respectively connected to the third heat-conducting member (63).

8. The compressor refrigeration and cooling clothing according to claim 1, characterized in that: The compressor refrigeration and cooling clothing further comprises an elastic member (7), wherein the elastic member (7) is arranged around the outer peripheral side of the deformation coupler (2), one end of the elastic member (7) is connected to the support member (21), and the other end of the elastic member (7) is connected to the inner layer (11).

9. The compressor refrigeration and cooling clothing according to claim 1, characterized in that: A heat-sensitive layer is provided between the edge of the first heat-conducting member (22) and the edge of the supporting member (21); the first heat-conducting member (22), the supporting member (21), and the heat-sensitive layer are fixed by welding.

10. The compressor refrigeration and cooling clothing according to claim 1, characterized in that: The compressor refrigeration and cooling clothing further comprises a radiation refrigeration film (8), wherein the radiation refrigeration film (8) is arranged on a side of the outer layer (13) facing away from the middle layer (12).

Images