Cooling clothes with distributed semiconductor refrigeration equipment capable of identifying addresses

Abstract

The invention discloses a cooling garment with distributed semiconductor refrigeration equipment capable of identifying addresses, which comprises a garment body structure, a power supply assembly, a communication module, and at least one fan and at least two refrigeration assemblies mounted on the garment body structure, the fan and the refrigeration assemblies are electrically connected with the power supply assembly, the refrigeration assemblies are in communication connection with the communication module, and the communication module is electrically connected with the communication module. The refrigeration assemblies are arranged in the garment body structure and can be in wired or wireless communication connection with the outside through the communication module, the refrigeration assemblies are distributed and installed at different positions of the garment body structure, and position and posture determining modules are arranged in the refrigeration assemblies and can determine the current position and posture of the refrigeration assemblies when the refrigeration assemblies are installed on the garment body structure. The communication location of the refrigeration assembly is determined based on the current position attitude. According to the refrigerator, cooling can be faster, the temperature is more uniform, the cooling effect is good, a user can disassemble and assemble the refrigeration assemblies conveniently, when installation is not needed, the refrigeration assemblies need to be placed at the positions where the only corresponding storage spaces are located, and the user experience degree is high.

Description

Technical Field

[0001] The invention relates to the technical field of cooling clothing, in particular to a cooling clothing with a distributed and addressable semiconductor refrigeration device. Background Art

[0002] Conventional clothing often has a relatively general heat dissipation property. If consumers wear such clothing in a high temperature environment, they often feel a higher temperature. In order to enable the human body to feel a temperature lower than the ambient temperature when wearing clothing in a relatively high ambient temperature, and to still feel "cool" by maintaining a relatively low human body temperature, the existing technology generally has two technical paths: first, by improving clothing materials and clothing weaving processes, the clothing can ultimately achieve better air permeability, thereby better heat dissipation; second, compared with the first technical path, since the clothing itself cannot generate additional cold sources, its cooling effect is limited, so it can be assisted by installing refrigeration equipment on the clothing to generate cold as a cold source. The refrigeration equipment can include any of a fan, air-cooled refrigeration equipment, etc. The refrigeration equipment that can be installed on clothes is already very mature, and the corresponding refrigeration equipment can be selected according to actual needs.

[0003] For the second technical path, when a piece of clothing (usually a top) is equipped with multiple refrigeration devices, the refrigeration devices need to be controlled by a host computer based on user needs. For example, by connecting to a mobile terminal such as a mobile phone via Bluetooth, the working state of the target refrigeration device on the clothing can be controlled through the APP on the mobile phone. The working state includes start and stop, working power, etc. More specifically, the mobile phone can be used to control the opening and closing of the refrigeration device, as well as adjust the working power of the refrigeration device. For example, if the refrigeration device is a fan, different working powers can be achieved by adjusting the speed of the fan blades, thereby generating different air volumes and achieving different cooling amounts. The premise for achieving control of the target refrigeration device is to be able to identify the location of the target refrigeration device, and then control the refrigeration device at the required location. The location of the refrigeration device can be identified with the help of the communication address, so that the host computer can communicate with the target refrigeration device through the communication address, thereby achieving the control function.

[0004] As for cooling clothes, they need to be washed and cleaned, but because the refrigeration equipment has built-in electrical components such as circuit boards, these electrical components cannot come into contact with water. Therefore, the refrigeration equipment cannot be placed in water together with the cooling clothes. Instead, the refrigeration equipment needs to be disassembled before cleaning and then placed on the cooling clothes after cleaning is completed.

[0005] When the refrigeration equipment needs to be reinstalled on the cooling garment, the location of each refrigeration equipment may change from the location initially installed on the cooling garment, that is, the distribution of the refrigeration equipment changes. In this case, in order to avoid the trouble caused by the need to limit the user to install the specified refrigeration equipment at a specific preset position, it is necessary to allow the user to install any refrigeration equipment at any preset position of the cooling garment. To this end, it is necessary to reallocate and identify the communication address of each refrigeration equipment to ensure that the refrigeration equipment at the target position can be controlled based on the communication address. For example, assume that there are two refrigeration equipment on the cooling garment, namely the first refrigeration equipment and the second refrigeration equipment. When the first installation is performed, the first refrigeration equipment is located at the upper part of the cooling garment, and the second refrigeration equipment is located at the lower part of the cooling garment. When the two refrigeration equipment are removed from the cooling garment and reinstalled, the second refrigeration equipment is installed at the upper part of the cooling garment, and the first refrigeration equipment is installed at the lower part of the cooling garment. Therefore, it is necessary to reallocate or identify the communication address of the refrigeration equipment so that after the refrigeration equipment is reinstalled, regardless of whether the current distribution of the positions of each refrigeration equipment in the cooling garment is the same as the last distribution, the current position of the refrigeration equipment can be determined based on the communication address, and the refrigeration equipment at a specific preset position can be controlled. Summary of the invention

[0006] In view of the deficiencies of the prior art, an object of the present invention is to provide a cooling garment with a distributed and addressable conductor refrigeration device, which can solve the problems described in the background technology.

[0007] The technical solution to achieve the purpose of the present invention is: a cooling garment with a distributed and addressable semiconductor refrigeration device, comprising a garment body structure, a power supply component, a communication module, and at least one fan and at least two refrigeration components installed on the garment body structure, wherein the fan and the refrigeration component are electrically connected to the power supply component, the refrigeration component is communicatively connected to the communication module, and can be connected to an external wired or wireless communication through the communication module.

[0008] The various refrigeration components are installed in different locations on the garment structure.

[0009] The refrigeration component has a built-in position and posture determination module, which can determine the current position and posture of the refrigeration component when it is installed in the clothing body structure. When installed in the clothing body structure, the position and posture of the refrigeration components at different positions are different.

[0010] The refrigeration component has a communication address, and the refrigeration component allocates a unique corresponding communication address to the refrigeration component at each position based on the current position posture.

[0011] Furthermore, the refrigeration component is fixedly or detachably mounted on the garment body structure through a storage space reserved on the garment body structure.

[0012] Furthermore, the storage space is fixed to the body structure and the refrigeration component is detachably installed in the storage space, or the storage space is detachably installed on the body structure and the refrigeration component is fixed in the storage space, or the storage space is detachably installed on the body structure and the refrigeration component is detachably installed in the storage space.

[0013] Furthermore, the storage space limits the position and posture of the refrigeration component in the storage space by size and orientation, and allows the refrigeration component in the same storage space to have one or more position and postures, all position and postures in the same storage space are different, and the position and postures of refrigeration components in different storage spaces are also different.

[0014] Furthermore, it also includes at least one fan, which is installed on the garment body structure.

[0015] Furthermore, the power supply assembly includes two independent power supplies, one power supply is built into the fan and is used to power the fan, and the other power supply is a separate component independent of the body structure and is recorded as a first power supply. The refrigeration assembly is electrically connected to the first power supply through a circuit, and the circuit is fixedly or detachably installed on the body structure.

[0016] Furthermore, the communication module is built into the first power supply, and the refrigeration component is communicatively connected with the communication module via the line.

[0017] Furthermore, the circuit includes a connecting circuit and a bus interface. A wiring head is provided at one end of the connecting circuit. The refrigeration device is provided with an interface adapted to the wiring head. The wiring head is pluggable and connected to the interface. The bus interface is used for external communication in a pluggable connection manner.

[0018] Furthermore, the communication module is built into the refrigeration assembly, and each refrigeration assembly is built into a communication module, and the refrigeration assembly can be connected to the outside through wired or wireless communication via the communication module.

[0019] Furthermore, it also includes a host computer, the refrigeration component is communicatively connected to the host computer, and the host computer is used to control the working state of the refrigeration component, and the working state includes starting and closing and / or working power.

[0020] Furthermore, the host computer is a mobile terminal having a built-in APP, the refrigeration component is communicatively connected with the APP, and the working state of the refrigeration component is controlled in a visual manner through the APP.

[0021] Further, when there is only one fan, the fan is located on the left side or right side of the lower part of the body structure, so that when the body structure is worn on a human body, the fan is exactly located on the left waist or right waist of the human body; when there are more than two fans, one of the fans is located on the left side of the lower part of the body structure, and the other fan is located on the right side of the lower part of the body structure, so that when the body structure is worn on a human body, the two fans are exactly located on the left waist and the right waist of the human body, respectively.

[0022] At least one cooling assembly is located at the middle position of the upper part of the garment body structure, so that when the garment body structure is worn on a person, the cooling assembly is just located at the back of the neck.

[0023] Furthermore, the refrigeration component is a semiconductor refrigeration device.

[0024] Furthermore, the position and attitude determination module is a gyroscope.

[0025] Beneficial effects of the present invention: The present invention can achieve faster cooling and more uniform temperature cooling effect in a sealed space by distributing the refrigeration components, and the user experience is higher. In addition, by pre-setting the building space at a specific position, the refrigeration components can be placed at the position where the human body perspires faster, achieving a faster cooling effect and a better user experience.

[0026] In addition, the communication address of the refrigeration component at each position is determined by the position and posture. The communication address no longer needs to be bound to the refrigeration component in advance. The refrigeration component can be changed to any position at will, and the current position of the refrigeration component can be determined by identifying the communication address, so that the refrigeration component at a specific position can be controlled based on needs. For application scenarios such as the need to clean the clothing structure, it is convenient for users to disassemble and install the refrigeration component before and after cleaning the clothing structure. When reinstalling the refrigeration component, it is no longer necessary to place each refrigeration component in the position of the only corresponding storage space, making disassembly and installation more convenient. BRIEF DESCRIPTION OF THE DRAWINGS

[0027] Figure 1 This is a schematic structural diagram of a cooling garment exemplified in Example 1;

[0028] Figure 2 This is a schematic structural diagram of another cooling garment according to the first embodiment;

[0029] Figure 3 This is a schematic structural diagram of a cooling garment exemplified in Example 2;

[0030] Figure 4 This is a schematic diagram of the structure of a cooling garment exemplified in Example 3;

[0031] Figure 5This is a schematic structural diagram of a cooling garment exemplified in Example 4;

[0032] Figure 6 This is a schematic structural diagram of a cooling garment exemplified in Example 6;

[0033] Figure 7 This is a schematic structural diagram of a cooling garment exemplified in Example 7;

[0034] In the figure, 1 is the body structure, 2 is the storage space, 3 is the refrigeration component, 4 is the terminal, 5 is the connection line, 6 is the bus line, 7 is the mobile power supply, 8 is the host computer, 9 is the bus interface, and 10 is the fan. DETAILED DESCRIPTION

[0035] The present invention will be further described below in conjunction with the accompanying drawings and specific embodiments:

[0036] Embodiment 1

[0037] like Figure 1-Figure 2 As shown, a cooling garment with a distributed and addressable semiconductor refrigeration device includes a garment body structure 1, a mobile power source 7, and at least one fan 10 and at least two refrigeration components 3 installed on the garment body structure 1, wherein each refrigeration component 3 is installed on the garment body structure 1 in a distributed manner, and when each refrigeration component 3 is installed on the garment body structure 1, the position and posture of any two refrigeration components 3 are different, that is, the position and posture of each refrigeration component 3 are different.

[0038] The fan 10 and the cooling assembly 3 are electrically connected to the mobile power supply 7, and the mobile power supply 7 is used to supply power to the fan 10 and the cooling assembly 3. The fan 10 is used as an air intake assembly, and other devices having the function of taking in (i.e. driving) external air into the garment body structure 1 may also be used.

[0039] Of course, the fan 10 and the refrigeration assembly 3 may use different power sources, for example, the mobile power supply 7 only supplies power to the refrigeration assembly 3. The fan 10 is powered by its built-in battery or other power source.

[0040] It is understandable that the refrigeration component 3 can be a semiconductor refrigeration device, which is a prior art, so its refrigeration working principle and structure are not described in detail here. Of course, the refrigeration component 3 can also be other devices with refrigeration function. The refrigeration component 3 is installed on the body structure 1 through the storage space 2, and can be fixedly or detachably installed on the body structure 1. In order to realize the detachable installation of the refrigeration component 3 on the body structure 1, any of the following three solutions can be adopted:

[0041] The storage space 2 is fixed to the body structure 1 and the refrigeration component 3 is detachably installed in the storage space 2, or the storage space 2 is detachably installed on the body structure 1 and the refrigeration component 3 is fixed in the storage space 2, or the storage space 2 is detachably installed on the body structure 1 and the refrigeration component 3 is detachably installed in the storage space 2.

[0042] The refrigeration component 3 has a communication address, and the communication address is determined based on the position and posture, so that each refrigeration component 3 has a unique corresponding communication address, so that the refrigeration component 3 at each position can be determined by the communication address. The refrigeration component 3 is connected to the host computer 8 through the communication address, and the host computer 8 can communicate with any refrigeration component 3 based on the communication address, and can further control any target refrigeration component 3.

[0043] Exemplarily, the refrigeration component 3 has a built-in gyroscope, which is used to detect the position and posture of the refrigeration component 3 at any time, and report the currently detected position and posture to the host computer 8 in real time. The host computer 8 assigns a unique communication address to each refrigeration component 3 according to the current position and posture.

[0044] It is understandable that the position and posture of the refrigeration component 3 at any time can also be determined by sensors such as direction sensors, and any sensor that can determine the position and posture of the refrigeration component 3 through a certain feature can be used. For example, a direction sensor can be used, and the direction sensor can measure its acceleration and gravity by sensing the magnitude of the inertial force in a certain direction, and then determine the position and posture of the refrigeration component 3 at any time.

[0045] by Figure 1For example, there are three storage spaces 2 on the garment body structure 1, each storage space 2 is equipped with a refrigeration assembly 3, and the three refrigeration assemblies 3 are all equipped with a gyroscope. The three refrigeration assemblies 3 are respectively recorded as the first refrigeration assembly 3, the second refrigeration assembly 3 and the third refrigeration assembly 3. The position of the first refrigeration assembly 3 when installed in the storage space 2 is recorded as the first position, the position of the second refrigeration assembly 3 when installed in the storage space 2 is recorded as the second position, and the position of the third refrigeration assembly 3 when installed in the storage space 2 is recorded as the third position. When the first refrigeration assembly 3 is placed in the first position and remains stable, the gyroscope detects the position and posture of the first refrigeration assembly 3 at the current moment. Similarly, the second refrigeration assembly 3 is placed in the second position and remains stable, and the third refrigeration assembly 3 is placed in the third position and remains stable. The position and posture of the second refrigeration assembly 3 and the third refrigeration assembly 3 at the current moment are detected by their respective gyroscopes. The three position and postures are different, and each position and posture uniquely corresponds to one position. After the three refrigeration components 3 report their respective positions and postures to the host computer 8, the host computer 8 allocates the corresponding refrigeration components 3 according to the communication addresses mapped in advance for the three positions, so that the host computer 8 can determine the corresponding refrigeration components 3 at each position. For example, the position posture of the first position is tilted to the upper right, the position posture of the second position is tilted to the upper left, and the position posture of the third position is to remain vertical. And in the host computer 8, a binding or mapping operation is pre-performed to determine the position posture tilted to the upper right as the first position, the second position posture tilted to the upper left as the second position, and the vertical position posture as the third position. When the host computer 8 obtains the position posture tilted to the upper right, the corresponding first position can be known. The same is true for the other two positions, so that after assigning communication addresses to each refrigeration component 3, the refrigeration component 3 at the required corresponding position can be controlled based on the communication address.

[0046] The communication address may be a number or a data structure with a certain format, and it only needs to be able to uniquely correspond to the refrigeration component 3 so as to be able to distinguish the refrigeration components 3 at various positions.

[0047] This embodiment of Figure 1 and Figure 2 Each exemplary embodiment includes two fans 10 and three cooling components 3, and Figure 1 The difference is, Figure 2 The position and posture at the third position in the image are kept horizontal, and the rest remain the same.

[0048] Exemplarily, the storage space 2 can be a storage bag, a strap, a storage net, or other structures that can be contained, bound, bonded, or other structures, so as to firmly install the refrigeration component 3 on the body structure 1. For example, a fabric with adhesive properties can be set at the corresponding position on the body structure 1 to bond the refrigeration component 3 to the body structure 1 by bonding. For another example, the storage bag can be detachably mounted on the body structure 1 by a zipper or other means. In this case, the refrigeration component 3 can be fixedly or detachably mounted in the storage bag. If the storage bag is provided with an opening, the refrigeration component 3 can be detachably mounted in the storage bag. If the storage bag is not provided with an opening but is a sealed bag formed by sewing, the refrigeration component 3 is fixedly mounted in the storage bag.

[0049] The storage space 2 only allows the refrigeration component 3 placed on the storage space 2 to have only one position and posture, so that the current position of the refrigeration component 3 can be determined through the only one position and posture.

[0050] The size and direction of the storage space 2 can be used to ensure that the refrigeration component 3 on the storage space 2 has only a unique position and posture. Figure 1 For example, the first fabric space is a storage pocket, which is sewn on the garment body structure 1. The size of the storage pocket is slightly larger than the size of the refrigeration component 3. The storage pocket is oriented to the upper right, so that the refrigeration component 3 can only be placed in the storage pocket along the upper right tilt direction, thereby ensuring that once the refrigeration component 3 is placed in the storage pocket, it only has one position. Due to the limitation of the storage pocket, the refrigeration component 3 cannot be placed horizontally or in other directions such as the lower right direction.

[0051] Compared with the non-containment method, in which the refrigeration component 3 is directly exposed to the body structure 1, the structure of the containment space can better circulate the cool air generated by the refrigeration component 3 in the space at a local position, so that the generated cold energy can cool the human body with the shortest transmission path, so as to reduce the loss of cold energy caused during the transmission process, and increase the cold energy (i.e., cold air) that is finally delivered to and acts on the human body. The human body cold energy is also the effective cold energy. Increasing the effective cold energy is particularly important for power supply methods that are not powered by mains electricity (such as batteries). The improvement in refrigeration efficiency means that with the same (battery) power consumption, more cold energy or longer refrigeration life can be obtained, achieving a better cooling effect.

[0052] In addition, by using each refrigeration component 3 to form a distributed structure, a relatively closed low-temperature refrigeration space and a refrigeration belt can be formed inside, and the low-temperature air in the space exchanges heat with the surface of the human skin, thereby achieving a better human body cooling effect. This distributed structure can shorten the cold transmission distance of the refrigeration body, reduce the cold transmission loss, and improve the effective refrigeration efficiency. The general principle of improving refrigeration efficiency is as follows:

[0053] Assume that a high-power refrigeration system for cooling human body or other target load is split into N small-power subsystems, and the electrical input power of the large system is P i , the cooling capacity is Q i , the electrical input power and cooling power of the kth subsystem are P ik and Q ik ,but The cooling capacity produced by each refrigeration system is divided into two parts: the effective cooling capacity reaching the terminal (such as the body or the cooled load) and the loss cooling capacity lost during the cold air transmission process. Assume that the effective cooling capacity and the loss cooling capacity are recorded as Q ie and Q il , then Q i =Q ie +Q il , so the effective cooling capacity Q ie =Q i -Q il Similarly, for the subsystem, the effective cooling capacity Q of the kth subsystem is ie,k , Damage cooling capacity Q il,k Has the following relationship: Q ie,k =Q ik -Q il,k .

[0054] Since the transmission path from the subsystem's cold outlet to the human body (cooled load) is shorter than the total transmission path from the single system outlet to the entire load, the cold transmission loss of the subsystem is less than the cold transmission loss of the single system, that is, Therefore, the total effective cooling capacity Q generated by the subsystem ieT >Q ie (Q ie is the effective cooling capacity generated by a single system). Therefore, the effective cooling efficiency of the entire system is Q ieT / P i >Effective cooling efficiency of subsystem Q ie / P i , where Q ie / P i It is the effective cooling efficiency of a single sub-cooling system.

[0055] Exemplarily, the refrigeration component 3 is electrically connected to the mobile power supply 7 via a connecting line 5, one end of the connecting line 5 is provided with a wiring head 4, the wiring head 4 is adapted to the interface reserved on the refrigeration component 3, and the wiring head 4 can be plugged and connected to the interface on the refrigeration component 3. The other end of the connecting line 5 is connected to the mobile power supply 7.

[0056] It is understandable that the other end of the connection line 5 can be directly connected to the mobile power supply 7 or indirectly connected to the mobile power supply 7. For example, the other end of the connection line 5 is electrically connected to the mobile power supply 7 through the bus interface 9, and the connection line 5 and the bus interface 9 can be fixedly or detachably installed on the body structure 1, and the bus interface 9 can be a hub. Each refrigeration component 3 is connected to the mobile power supply 7 through an independent corresponding connection line 5. When the indirect electrical connection with the mobile power supply 7 is achieved through the bus interface 9, all the connection lines 5 are connected to the bus interface 9. The mobile power supply 7 is electrically connected to the bus interface 9 through the bus line 6, and the mobile power supply 7 and the bus line 6 can be independent components separated from the body structure 1 in physical space.

[0057] When the garment body structure 1 needs to be cleaned, the bus line 6 only needs to be unplugged from the bus interface 9. When it needs to be connected again, the bus line 6 only needs to be plugged into the bus interface 9, thereby achieving a quick electrical connection.

[0058] Exemplarily, the mobile power supply 7 is built with a communication module, and the communication module can be a Bluetooth module or other wired or wireless communication module, for example, it is a WIFI communication module. The mobile power supply 7 is connected to the host computer 8 through the built-in communication module so as to upload the communication address of each refrigeration component 3 to the host computer 8. The host computer 8 can be a mobile terminal such as a mobile phone. Taking a mobile phone as an example, the refrigeration component 3 at each specific position can be controlled or set on the APP on the mobile phone. For example, if the user wants to turn on the first refrigeration component 3 and turn off the second refrigeration component 3, the user only needs to operate on the indicator button control position representing the first refrigeration component 3 and the second refrigeration component 3 on the APP to operate the refrigeration component 3 at the corresponding position, thereby visually controlling the working state of the refrigeration component 3 through the APP.

[0059] Exemplarily, at least one refrigeration component 3 among all refrigeration components 3 is located at the middle position of the upper part of the body structure 1, so that when the body structure 1 is worn on a person, the refrigeration component 3 is just located at the back of the neck.

[0060] The fans 10 are arranged at intervals and are used to draw external air into one side of the body structure 1, that is, the air inlet of the fan 10 is arranged on the outside of the body structure 1, and the air outlet of the fan 10 is arranged on the inside of the body structure 1, so that when the body structure 1 is worn on a person, the air outlet of the fan 10 is located at the proximal end away from the human body, and the air inlet is located at the distal end close to the human body.

[0061] Exemplarily, a fan 10 is provided at each of the left and right ends of the lower part of the body structure 1, so that when the body structure 1 is worn on a human body, the two fans 10 are located exactly at the belt meridian acupoints of the human body, that is, at the left and right waist positions of the human body, and the fan 10 is difficult to be observed from the front or back to improve the visual experience.

[0062] When the consumer wears the cooling garment, the garment body structure 1 is worn on the human body. Although the garment body structure 1 is not completely sealed with the neck, shoulders and other parts of the human body, it can still form a relatively sealed space with the human body. When structures such as binding belts are provided at the neck and shoulders and other parts, the garment body structure 1 can fit the human body well, thereby forming a completely or nearly enclosed space. The air sucked in by the fan will flow in the sealed space to produce a cooling effect.

[0063] Synchronously, part of the air sucked in by the fan 10 will enter the refrigeration component 3. The air entering the refrigeration component 3 will be cooled by the refrigeration component 3 to generate cool air with a lower temperature and be sent out. Most of the sent cool air will circulate in the storage space 2 and lower the temperature in the storage space 2 until the temperature inside and outside the storage space 2 is balanced. A small part of the air will flow out of the storage space 2 and enter the sealed space.

[0064] By distributing the refrigeration components 3, the temperature can be lowered faster and more evenly in the sealed space to achieve a cooling effect, which provides a better user experience. In addition, by pre-setting the object space 2 at a specific location, the refrigeration components 3 can be placed at the location where the human body perspires faster, achieving a faster cooling effect and providing a better user experience.

[0065] In addition, the communication address of the refrigeration component 3 at each position is determined by the position and posture, and the communication address does not need to be bound to the refrigeration component 3 in advance. The refrigeration component 3 can be changed to any position at will, and the current position of the refrigeration component 3 can be determined by identifying the communication address, so that the refrigeration component 3 at a specific position can be controlled based on needs. For application scenarios such as the need to clean the clothing body structure 1, it is convenient for users to disassemble and install the refrigeration component 3 before and after cleaning the clothing body structure 1. When reinstalling the refrigeration component 3, it is not necessary to place each refrigeration component 3 at the location of the unique corresponding storage space 2, which makes disassembly and installation more convenient.

[0066] Embodiment 2

[0067] refer to Figure 3 In this embodiment, only two refrigeration components 3 are provided, and the rest are the same as those in the first embodiment. The rest are the same as those in the first embodiment, so they are not described here. The two refrigeration components 3 are respectively the first refrigeration component 3 and the second refrigeration component 3. The first refrigeration component 3 and the second refrigeration component 3 are respectively located on the left and right ends of the upper part of the garment body structure 1, and are both inclined.

[0068] Embodiment 3

[0069] refer to Figure 4 In this embodiment, only one fan 10 is provided, and the rest of the parts are the same as those in the second embodiment. The rest of the parts are the same as those in the first embodiment, so they are not described here in detail.

[0070] Embodiment 4

[0071] refer to Figure 5 In the first embodiment, the refrigeration assembly 3 in the storage space 2 is only allowed to be in one position. Figure 1 , the first refrigeration assembly 3 in the first storage space 2 is tilted to the upper right, the first refrigeration assembly 3 in the second storage space 2 is tilted to the upper left, and the third refrigeration assembly 3 in the third storage space 2 is kept vertical. Figure 2 As shown, the position and posture of the first refrigeration component 3 in the first storage space 2 is tilted to the upper right, the position and posture of the first refrigeration component 3 in the second storage space 2 is tilted to the upper left, and the position and posture of the third refrigeration component 3 in the third storage space 2 is maintained horizontally.

[0072] Different from the first embodiment, in this embodiment, one or more storage spaces 2 allow the refrigeration component 3 in the storage space 2 to be positioned in N positions, N>1, but the positions and postures of each storage space 2 are still different, and the positions and postures in the same storage space 2 are also different. For example, the second storage space 2 and the third storage space 2 still allow the refrigeration component 3 in the storage space 2 to be in only one position and posture, but the first storage space 2 allows the refrigeration component 3 in the storage space 2 to have at least two positions and postures. For example, the position and posture of the first refrigeration device in the first storage space 2 can be the first position and posture or the second position and posture, the first position and posture: the angle between the axis and the vertical direction is 30 degrees, the second position and posture: the angle between the axis and the vertical direction is 60 degrees, and the axis refers to the axial axis of the refrigeration device. Both of these positions and postures remain tilted to the upper right, and are different from the positions and postures allowed by the second storage space 2 and the third storage space 2, and the positions and postures in the first storage space 2 are also different.

[0073] Compared with the first embodiment, since one or more storage spaces 2 are allowed to form a variety of positions and postures, the size and orientation of the storage space 2 are less restricted, and it is more convenient for consumers to place and remove the refrigeration assembly 3. For example, it is not necessary to strictly place the refrigeration assembly 3 in the direction of the storage space 2 as in the first embodiment, otherwise the refrigeration assembly 3 cannot be completely placed in the storage space 2.

[0074] Embodiment 5

[0075] refer to Figure 6 In the first embodiment, each refrigeration component 3 communicates with the host computer 8 or other devices through the communication module on the mobile power supply 7. In this embodiment, a communication module can also be set on the bus interface 9 or the bus line 6, and the communication module is connected to the outside by wire or wireless. For example, a Bluetooth module is built into the bus interface 9, and the Bluetooth module communicates wirelessly with the host computer 8. In this case, the bus line 6 is not required. Alternatively, a communication module is set on the bus line 6, and the communication module of the bus interface 9 communicates with the host computer 8 by wire through the bus line 6. Alternatively, a wireless communication module can be built into each refrigeration device, and each wireless communication module is directly connected to the external wired communication.

[0076] The mobile power source 7 still supplies power to all the refrigeration components 3 , and the refrigeration components 3 are electrically connected to the mobile power source 7 via the connection line 5 , the bus interface 9 , and the bus line 6 , thereby realizing power supply.

[0077] Embodiment 6

[0078] refer to Figure 7 In the first embodiment, each refrigeration component 3 communicates with the host computer 8 or other devices through the communication module on the mobile power supply 7, and the mobile power supply 7 is used for centralized power supply, that is, all refrigeration components 3 are powered by the same mobile power supply 7. In this embodiment, a wireless communication module and a power supply module are built in each refrigeration component 3, and each wireless communication module is connected to the external wireless communication, for example, Bluetooth or other wireless communication is performed with the mobile terminal as the host computer 8. Each refrigeration component 3 is powered by its own built-in power supply module, which saves the trouble of wiring the power supply line and the communication line. The built-in power supply module can be a battery.

[0079] The embodiment disclosed in this specification is only an example of a unilateral feature of the present invention, and the protection scope of the present invention is not limited to this embodiment, and any other functionally equivalent embodiments fall within the protection scope of the present invention. For those skilled in the art, various other corresponding changes and deformations can be made according to the technical solutions and concepts described above, and all of these changes and deformations should fall within the protection scope of the claims of the present invention.

Claims

1. A cooling garment with a distributed and addressable semiconductor refrigeration device, characterized in that: The garment comprises a garment body structure, a power supply assembly, a communication module, and at least two refrigeration assemblies installed on the garment body structure. The refrigeration assemblies are electrically connected to the power supply assembly, the refrigeration assemblies are communicatively connected to the communication module, and can be connected to an external wired or wireless communication through the communication module. The various refrigeration components are installed in different locations on the garment structure. The refrigeration component has a built-in position and posture determination module, which can determine the current position and posture of the refrigeration component when it is installed in the clothing body structure. When installed in the clothing body structure, the position and posture of the refrigeration components at different positions are different. The refrigeration component has a communication address, and the refrigeration component allocates a unique corresponding communication address to the refrigeration component at each position based on the current position posture.

2. The cooling clothing with distributed and addressable semiconductor refrigeration equipment according to claim 1, characterized in that: The refrigeration component is fixedly or detachably installed on the garment body structure through the storage space reserved on the garment body structure.

3. The cooling clothing with distributed and addressable semiconductor refrigeration equipment according to claim 2, characterized in that: The storage space is fixed to the garment body structure and the refrigeration component is detachably installed in the storage space, or the storage space is detachably installed on the garment body structure and the refrigeration component is fixed in the storage space, or the storage space is detachably installed on the garment body structure and the refrigeration component is detachably installed in the storage space.

4. The cooling clothing with distributed and addressable semiconductor refrigeration equipment according to claim 2 or 3, characterized in that: The storage space limits the position and posture of the refrigeration component in the storage space by size and orientation, and allows the refrigeration component in the same storage space to have one or more position and postures. All position and postures in the same storage space are different, and the position and postures of refrigeration components in different storage spaces are also different.

5. The cooling clothing with distributed and addressable semiconductor refrigeration equipment according to claim 1, characterized in that: The garment further comprises at least one fan, wherein the fan is mounted on the garment body structure.

6. The cooling clothing with distributed and addressable semiconductor refrigeration equipment according to claim 5, characterized in that: The power supply assembly includes two independent power supplies, one power supply is built into the fan and is used to power the fan, and the other power supply is a separate component independent of the body structure and is recorded as a first power supply. The refrigeration assembly is electrically connected to the first power supply through a circuit, and the circuit is fixedly or detachably installed on the body structure.

7. The cooling clothing with distributed and addressable semiconductor refrigeration equipment according to claim 6, characterized in that: The communication module is built into the first power supply, and the refrigeration component is communicatively connected with the communication module via the line.

8. The cooling clothing with a distributed and addressable semiconductor refrigeration device according to any one of claims 5 to 7, characterized in that: The line includes a connecting line and a bus interface. A wiring head is provided at one end of the connecting line. The refrigeration device is provided with an interface adapted to the wiring head. The wiring head can be plugged in and connected to the interface. The bus interface is used for external communication in a plug-in connection manner.

9. The cooling clothing with distributed and addressable semiconductor refrigeration equipment according to claim 1, characterized in that: The communication module is built in the refrigeration assembly, and each refrigeration assembly is built in with a communication module. The refrigeration assembly can be connected to the outside via wired or wireless communication via the communication module.

10. A cooling garment with a distributed and addressable semiconductor refrigeration device according to any one of claims 1, 2, 3, 5, 6, 7, and 9, characterized in that: It also includes a host computer, the refrigeration component is communicatively connected to the host computer, and the host computer is used to control the working state of the refrigeration component, and the working state includes starting and closing and / or working power.

11. The cooling clothing with distributed and addressable semiconductor refrigeration equipment according to claim 10, characterized in that: The host computer is a mobile terminal with a built-in APP. The refrigeration component is connected to the APP for communication, and the working state of the refrigeration component is controlled in a visual manner through the APP.

12. A cooling garment with a distributed and addressable semiconductor refrigeration device according to any one of claims 5, 6 and 7, characterized in that: When there is only one fan, the fan is located on the left side or right side of the lower part of the body structure, so that when the body structure is worn on the human body, the fan is exactly located on the left waist or right waist of the human body; when there are more than two fans, one of the fans is located on the left side of the lower part of the body structure, and the other fan is located on the right side of the lower part of the body structure, so that when the body structure is worn on the human body, the two fans are exactly located on the left waist and the right waist of the human body respectively. At least one cooling assembly is located at the middle position of the upper part of the garment body structure, so that when the garment body structure is worn on a person, the cooling assembly is just located at the back of the neck.

13. A cooling garment with a distributed and addressable semiconductor refrigeration device according to any one of claims 1, 2, 3, 5, 6, 7, and 9, characterized in that: The refrigeration component is a semiconductor refrigeration device.

14. A cooling garment with a distributed and addressable semiconductor refrigeration device according to any one of claims 1, 2, 3, 5, 6, 7, and 9, characterized in that: The position and attitude determination module is a gyroscope.

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