Temperature control storage device

Abstract

The utility model discloses a temperature control storage device, which relates to the technical field of outdoor food storage, and comprises at least one storage module, at least one temperature control module, at least one battery installation part and a soft outer package, the storage module comprises at least one storage main body and a storage cover body, the storage cover body covers the storage main body in an opening and closing manner, and the storage cover body covers the storage main body. The storage main body is covered with the soft outer cover, the temperature control module is arranged at the bottom of the storage main body, one side of the temperature control module is covered with the soft outer cover, the temperature control module is refrigerated after being supplied with power and used for adjusting the temperature in the storage main body, and the battery mounting part is arranged on the outer side of the storage module and is in circuit connection with the temperature control module. And a battery pack is detachably mounted in the battery mounting part and is used for supplying power to the temperature control module.

Description

Technical Field

[0001] This utility model relates to the field of outdoor food storage, and in particular to a temperature-controlled storage device. Background Technology

[0002] Refrigerators offer multiple functions such as refrigeration, food preservation, and cooling, but they typically occupy a lot of space, consume a lot of electricity, and are inconvenient for outdoor use. With the rise of various outdoor recreational activities such as walking and cycling, higher demands are being placed on the storage and refrigeration of food and beverages.

[0003] To meet the need for refrigerating food or beverages outdoors, a common practice is to carry a simple insulated box, such as an aluminum foil insulated box. However, such insulated boxes have limited performance, only supporting short-term insulation and cannot actively change the internal temperature, thus failing to meet the need for long-term refrigeration of food or beverages outdoors.

[0004] A novel temperature-controlled storage device is proposed, which allows users to refrigerate food or beverages outdoors for extended periods. Summary of the Invention

[0005] The problem this invention aims to solve is to provide a new type of temperature-controlled storage device with a high volume ratio and the ability to adjust the internal temperature according to actual needs.

[0006] To solve the above-mentioned technical problems, this utility model provides a temperature-controlled storage device, including at least one storage module, at least one temperature control module, at least one battery mounting part, and a soft outer casing. The storage module includes at least one storage body and a storage cover. The storage cover can be opened and closed to cover the storage body, and the soft outer casing covers the storage body.

[0007] The temperature control module is located at the bottom of the storage unit. One side of the temperature control module is covered by a soft outer casing. The temperature control module is cooled when powered on to regulate the temperature inside the storage unit.

[0008] The battery mounting section is located on the outside of the storage module. The battery mounting section is electrically connected to the temperature control module. A battery pack is detachably installed inside the battery mounting section to power the temperature control module.

[0009] Furthermore, the temperature control module includes at least one refrigeration component and a control circuit connected to the refrigeration component, and the battery mounting part is connected to the control circuit.

[0010] Furthermore, the refrigeration assembly includes a compressor, a condenser connected to the compressor, and an evaporator connected to the condenser, with a cooling fan installed on one side of the condenser.

[0011] Furthermore, a cooling base is installed at the bottom of the storage unit, and the cooling components and control circuit are installed inside the cooling base. Ventilation windows are provided on both sides of the cooling base. The condenser pipe and the cooling fan are close to one of the ventilation windows. The compressor, the condenser pipe and the cooling fan are arranged in sequence in the heat dissipation channel defined by the two ventilation windows.

[0012] Furthermore, the refrigeration base has a mounting surface, and ventilation windows are provided on both sides of the refrigeration base. The battery mounting part is mounted on the mounting surface, wherein;

[0013] The mounting surface of the refrigeration base is perpendicular to the plane defined by the two ventilation windows; or

[0014] The mounting surface of the refrigeration base is the plane that defines the ventilation window at the air inlet end; or

[0015] The mounting surface of the refrigeration base is the plane that defines the ventilation window at the air outlet.

[0016] Furthermore, the refrigeration base has a mounting surface, and ventilation windows are provided on both sides of the refrigeration base. The ventilation window defining the air inlet end is coplanar with a control panel. The control circuit is connected to the control panel. The mounting surface of the refrigeration base and the control panel are held at the corners of the refrigeration base on both sides; or

[0017] The battery mounting portion is installed on the outside of the storage module, and the battery mounting portion is kept perpendicular to the plane defined by the two ventilation windows; or

[0018] The battery mounting portion is installed on the outside of the storage module, and the battery mounting portion is installed on the plane defined by any two of the ventilation windows; or

[0019] The soft outer casing includes an openable storage body and a storage cover, the storage body covering the storage body, and the battery mounting part being mounted on top of the storage cover.

[0020] Furthermore, the cooling base has a mounting surface, and the battery mounting part is mounted on the outer surface of the storage module or the mounting surface of the cooling base. The mounting surface is also provided with an external power port and wiring holes. The external power port is used for connecting an external power source.

[0021] The external power port and the battery mounting portion are arranged coplanarly; or

[0022] The external power port and the battery mounting portion are positioned opposite each other on both sides of the soft outer casing.

[0023] Furthermore, the soft backpack has at least one battery pocket on its side for mounting the battery mounting part.

[0024] Furthermore, the temperature-controlled storage device further includes one or more battery packs, which are detachably plugged into the battery mounting portion for power supply.

[0025] Furthermore, there are two or more battery mounting sections to allow for the detachable insertion and removal of two or more battery packs.

[0026] Compared with the prior art, the beneficial effects of this utility model are as follows:

[0027] By optimizing the installation position of the temperature control module on the storage module, the volume ratio is improved. At the same time, the storage module is cleverly covered with a soft package, creating a lightweight feel for the user. The detachable carrying expansion component makes it easy to carry by hand. On the one hand, by attaching other expansion components, the functionality of the backpack can be greatly enriched. On the other hand, the carrying component can also install the portable temperature control storage device on other carriers such as outdoor vehicles and bicycles. Attached Figure Description

[0028] Figure 1 This is a schematic diagram of the principle of a temperature-controlled storage device.

[0029] Figure 2 This is a schematic diagram of another embodiment of a temperature-controlled storage device.

[0030] Figure 3 This is a schematic diagram of an explosion of a temperature-controlled storage device.

[0031] Figure 4 This is a three-dimensional schematic diagram of a temperature-controlled storage device.

[0032] Figure 5 A 3D schematic diagram of adding a power supply board to a temperature-controlled storage device.

[0033] Figure 6 This is a schematic diagram of an explosion of a temperature-controlled storage device.

[0034] Figure 7 This is a cross-sectional view of a temperature-controlled storage device.

[0035] Figure 8 This is a cross-sectional view of a temperature-controlled storage device.

[0036] Figure 9 This is a cross-sectional view of a temperature-controlled storage device.

[0037] Figure 10 A schematic diagram of adding an extension sleeve to a temperature-controlled storage device.

[0038] Figure 11 This is a three-dimensional schematic diagram of a temperature-controlled storage device.

[0039] Figure 12This is a top view of a temperature-controlled storage device.

[0040] Figure 13 This is a schematic diagram of a temperature-controlled storage device combined with an electric vehicle.

[0041] Figure 14 This is a three-dimensional schematic diagram of a temperature-controlled storage device.

[0042] Figure 15 This is a schematic diagram of the hot air circulation in a temperature-controlled storage device.

[0043] Figure 16 This is a schematic diagram of another embodiment of a temperature-controlled storage device.

[0044] Figure 17 for Figure 16 A diagram from another perspective.

[0045] Figure 18 for Figure 17 A diagram showing the effect after removing the soft backpack.

[0046] Figure 19 This is a schematic diagram of the internal structure of the temperature control module in a temperature-controlled storage device.

[0047] Figure 20 for Figure 18 Modified embodiments of the examples.

[0048] Figure 21 A side view of a temperature-controlled storage device equipped with a temperature control module.

[0049] Figure 22 This is a top sectional view of a temperature-controlled storage device. Detailed Implementation

[0050] like Figure 1 As shown, this utility model provides a temperature-controlled storage device, including a storage module 100, a temperature control module 250 detachably connected to the storage module 100, a battery mounting part 409, and a soft outer casing 200.

[0051] like Figure 1 and Figure 2 As shown, the storage module 100 includes a storage body 102 and a storage cover 104 that can be opened and closed while being sealed to cover the storage body 102 and the soft outer cover 200; the soft outer cover 200 covers the storage body 102.

[0052] The soft casing 200 has at least one soft casing 204 and a soft casing cover 202 for sealing and covering the soft casing 204. The soft casing 204 and the soft casing cover 202 are simultaneously sealed and wrapped around the outer periphery of the storage module 100. The soft casing 200 is sealed and wrapped around the outer periphery of the storage module 100.

[0053] likeFigure 3 As shown, an overflow prevention space 112 is provided between the storage body 102 and the soft outer casing 200, and the temperature control module 250 is set in the overflow prevention space 112;

[0054] like Figure 1 and Figure 2 As shown, the temperature control module 250 protrudes at least partially from the storage body 102. One side of the temperature control module 250 is covered by a soft outer casing 200. When powered, the temperature control module 250 cools down to regulate the temperature inside the storage body 102.

[0055] Furthermore, such as Figure 1 The temperature control module 250 protrudes at least partially from the radial circumferential surface of the storage module 100. Further, one side of the temperature control module 250 protrudes from the radial circumferential surface of the storage module 100.

[0056] Furthermore, such as Figure 2 The temperature control module 250 protrudes at least partially from the radial circumferential surface of the storage module 100. Furthermore, the temperature control module 250 and the opposite sides of the storage module 100 respectively protrude from the radial circumferential surface of the storage module 100.

[0057] Optionally, the temperature control module 250 protrudes at least partially from the radial circumferential surface of the storage module 100. Further, the temperature control module 250 protrudes from one corner of the radial circumferential surface of the storage module 100.

[0058] Optionally, the temperature control module 250 protrudes at least partially from the radial circumferential surface of the storage module 100. Further, the temperature control module 250 protrudes from the radial circumferential surface of the storage module 100 on adjacent sides.

[0059] In Example 1, as Figure 3 As shown, the temperature-controlled storage device has at least one power supply component. In this embodiment, the power supply component includes at least one mobile power source 405 and a battery mounting portion 409 matched with the mobile power source 405. The mobile power source 405 is detachably connected to the battery mounting portion 409, which is disposed on the outer surface of the storage module 100. The battery mounting portion 409 has an opening. When the mobile power source 405 is connected to the battery mounting portion 409, the mobile power source 405 is electrically connected to the battery mounting portion 409 to power the temperature-controlled module 250.

[0060] Specifically, the power bank 405 can be inserted into the battery mounting portion 409 in a direction close to the storage module 100; the opening of the battery mounting portion 409 can also face any other direction that allows the power bank 405 to be inserted; the power bank 405 and the battery mounting portion 409 can also be located on the front of the storage module 100, with the power bank 405 inserted into the battery mounting portion 409 in a vertically downward or horizontal direction; the power bank 405 and the battery mounting portion 409 can also be located on the top surface of the storage module 100, with the power bank 405 inserted into the battery mounting portion 409 in a direction parallel to the top surface.

[0061] In this embodiment, the mobile power supply 405 is a lithium-ion battery pack, but it is not limited to this. The mobile power supply 405 can also be a polymer lithium-ion battery, an alkaline battery, a fuel cell, a hand-cranked generator, or other power supply that meets the power needs.

[0062] In this embodiment, the power bank 405 can be repeatedly charged and discharged, but it is not limited to this. In other embodiments, the power bank 405 can be configured to support only single use.

[0063] Specifically, the soft outer casing 200 has one or more radial circumferential surfaces, a top surface, and a bottom surface. The battery mounting portion 409 can be disposed on at least one radial circumferential surface of the soft outer casing 200, on the bottom surface of the soft outer casing 200, in the spill-proof space 112 defined by the soft outer casing 200 and the storage body 102 and near the opening between the storage cover 104 and the storage body 102, or on the top surface of the soft casing cover 202; or the battery mounting portion 409 is disposed inside the soft casing cover 202, and the battery mounting portion 409 has a battery compartment and a plug-in opening, the plug-in opening connecting the battery compartment and the external space for accommodating the battery pack.

[0064] like Figure 4 As shown, in this embodiment, there is only one power bank 405 and one battery mounting part 409, which are located on one side of the storage module 100. The advantage of this arrangement is that it is convenient to connect the power bank 405 to the battery mounting part 409. The power bank 405 is vertically inserted into the battery mounting part 409, and it is located on the side, so that the overall appearance is similar to the side pocket of a backpack.

[0065] In a preferred embodiment, the storage cover 104 and the soft cover 202 are assembled as a single unit. In other variations, the storage cover 104 and the soft cover 202 are detachably disposed.

[0066] like Figure 5As shown, specifically, another implementation of the power supply component in this embodiment is as follows: it includes a power supply bracket 213 and a power supply board 210 mounted on the power supply bracket 213. The power supply board 210 can be a photovoltaic power generation board. The power supply board 210 provides power to the temperature-controlled storage device by absorbing solar energy, and at the same time, the power supply board 210 can provide sunlight shading for the user.

[0067] like Figure 6 As shown, in this embodiment, the power bank 405 can be fixed to the battery mounting part 409 by assembly and gravity. A fastener 411 is provided on the battery mounting part 409. The fastener 411 can strengthen the connection between the power bank 405 and the battery mounting part 409 and prevent the power bank 405 from accidentally coming out of the battery mounting part 409.

[0068] In other embodiments, the fastener 411 may also be a strap, Velcro, etc., and the fastener 411 may also be configured as two parts that match each other on the power bank 405 and the battery mounting part 409.

[0069] like Figure 6 As shown, the temperature-controlled storage device is equipped with an electrical control unit 404. The electrical control unit 404 includes at least one power supply interface 407. The power supply interface 407 is electrically connected to the temperature control module 250. The power supply interface 407 can be used to directly supply power to the temperature-controlled storage device from other power sources.

[0070] Unlike traditional refrigerator bags where the temperature control module and power supply module are both located inside the storage module 100, resulting in a reduction in the actual usable space, the temperature-controlled storage device of this application exposes both the temperature control module 250 and the battery mounting part 409, either simultaneously or separately, at least partially, to the external environment of the storage module 100, greatly increasing the volume of the storage module 100. Furthermore, to conceal the protruding parts of the storage module 100, this application adds a soft outer casing 200 to conceal these protruding parts, not only improving the appearance but also further enhancing the insulation effect.

[0071] In other embodiments, the battery mounting section 409 is connected to the temperature control module 250, such that the wires on the temperature control module 250 are connected to the mobile power supply 405 inside the battery mounting section 409. In this way, the battery pack placed in the battery mounting section 409 is less affected by the heat from the temperature control module 250. Due to the modification of the soft outer casing 200, the wiring of the battery mounting section 409 can be exposed to the outside of the storage body 102 and will not be exposed to the user.

[0072] The battery compartment is disposed within the battery pouch 502, and the wires can be held between the storage module 100, the cooling base 402, and the storage body 102. The wires can be concealed by a flexible outer sheath 200. The battery pouch 502 is formed within the flexible outer sheath 200.

[0073] In other embodiments, heat dissipation holes may be provided on the outer wall of the battery mounting part 409 to facilitate the dissipation of heat from the power bank 405. At the same time, a cooling fan may be added at the location where the heat dissipation holes are provided to further improve the heat dissipation effect of the power bank 405.

[0074] The outer surface of the soft housing 204 is provided with ear flaps 220. Specifically, there can be one or more ear flaps 220, and the battery mounting portion 409 is covered and opened and closed by the ear flaps 220. In this application, there are two ear flaps 220, which are respectively located on both sides of the storage module 100. This significantly changes the appearance of the temperature-controlled storage device, creating a lighter feel visually, unlike the metallic appearance of previous temperature-controlled devices, while actually providing a higher volume ratio.

[0075] like Figure 7 As shown, to enable the temperature-controlled storage device of this application to heat food, the overflow prevention space also includes at least one heating element 116, which is electrically connected to the electronic control unit 404. This arrangement allows for heating of the food in the storage module 100 in cold weather, adapting to different outdoor conditions. Specifically, the heating element 116 can be a heating wire.

[0076] like Figure 7 As shown, to achieve the purpose of food preservation, refrigeration, and freezing in the temperature-controlled storage device of this application, the temperature control module 250 includes a refrigeration component 450 and a cooling element 118. The storage module 100 is provided with heat dissipation holes corresponding to the position of the refrigeration component 450. The refrigeration component 450 is connected to the cooling element 118, which lowers the internal temperature of the storage module 100.

[0077] The storage unit 102 is connected to the refrigeration base 402. The temperature control module 250 is disposed in the refrigeration base 402. The compressor, condenser tube, and electronic control unit 404 are disposed in the refrigeration base 402. The condenser tube of the temperature control module 250 is wound around the module 100.

[0078] In other embodiments, optionally, the temperature-controlled storage device further includes a cooling base 402, with an electronic control unit 404 disposed within the cooling base 402. The cooling base 402 is detachably connected to the storage module 100, thereby significantly reducing the weight of the temperature-controlled storage device, retaining only the basic heat preservation function, while the rest can be charged and is not portable. Simultaneously, a cooling component 450 is disposed within the cooling base 402.

[0079] The cooling component 450 circuit is connected to the control circuit, and the battery mounting part 409 circuit is connected to the control circuit. The control circuit is located on the outside of the cooling component 450.

[0080] The control circuit includes at least two modes, namely a first cooling mode and a second cooling mode. The first cooling mode and the second cooling mode can be switched and selected by a button trigger.

[0081] Specifically, the cooling component 450 is close to the radial surface of the storage body 102; or the cooling component 450 is close to the bottom surface of the storage body 102; or the cooling component 450 is close to at least two adjacent surfaces of the storage body 102; or the cooling component 450 is fitted into a corner of the storage body 102 and is close to at least two adjacent surfaces of the storage body 102.

[0082] like Figure 8 and Figure 9 As shown, the storage unit 102 is also divided into zones with different temperatures. The storage unit 102 includes a first zone and at least a second zone, which are at least partially separated to manage the temperature of the first and second zones in a zoned manner.

[0083] The storage unit 102 has an air outlet 135. A partition 127 is fixedly connected inside the storage unit 102. The partition 127 divides the storage space into a first zone and a second zone. The air outlet 135 can output cold air, which makes the temperature of the left storage space drop faster and controls the temperature of the left storage space to be lower than that of the right storage space. At the same time, since the partition 127 divides the storage space into different heights, different items can be placed in the left and right storage spaces to meet different actual needs of users.

[0084] Specifically, in this embodiment, the storage body 102 and the partition plate 127 can also rotate relative to each other. The partition plate 127 is rotatably mounted on the partition plate shifting member 129. A partition plate conversion positioning member 131 is provided in the storage body 102. The partition plate conversion positioning member 131 can make the partition plate 127 stay in different positions. When the partition plate 127 stays in different positions, the storage space can be selectively divided vertically or horizontally. When the partition plate 127 stays horizontally, the storage space is divided into upper and lower parts. At the same time, the space of the lower storage space is relatively small. With the help of the air outlet 135, the temperature here can drop quickly and have a lower temperature.

[0085] In order to enable the temperature-controlled storage device of this application to have a heat preservation effect, the storage cover 104 can have different height dimensions, so that by replacing different storage covers 104, the temperature-controlled storage device can have different storage space sizes.

[0086] like Figure 10As shown, an extension sleeve 216 is provided between the storage body 102 and the storage cover 104. The extension sleeve 216 has two through openings, which connect the storage body 102 and the storage cover 104 respectively. By adding the extension sleeve 216, the temperature-controlled storage device can have different storage space sizes. At this time, at least two sealing limit members 108 are provided. One sealing limit member 108 connects the enclosure structure and the storage body 102, and the other sealing limit member 108 connects the enclosure structure and the storage cover 104.

[0087] The storage body 102 and the storage cover 104 define a sealed connection position, and the soft package 204 and the storage cover 104 define a receiving connection position 201. The sealed connection position and the receiving connection position 201 are staggered in the height direction. The connection method of the sealed connection position can be one of the following: zipper connection, snap connection, magnetic connection, or a rotary connection sealed with a sealing strip, or a snap-fit ​​connection sealed with a sealing strip.

[0088] In one embodiment, the storage cover 104, the storage body 102, and the extension sleeve 216 are all covered with fabric outer panels. Multiple fabric outer panels are connected by zippers to form a soft backpack 500.

[0089] One end of the extension sleeve 216 can be sealed to the storage cover 104, and the other end of the extension sleeve 216 is sealed to the storage body 102. The connection methods include: rotational connection and pressing with a sealing strip; concave and convex limiting and sealing with a sealing strip.

[0090] like Figure 3 As shown, to further enhance the insulation effect of the storage module, the storage body 102 includes a first storage body 110 and a second storage body 120 stacked on top of the first storage body. The first storage body 110 and the second storage body 120 are spaced apart, and insulation material can be placed between them. The insulation material is a foam material, but it is not limited to this. In other embodiments, the insulation material can be a polyurethane foam, polystyrene board, phenolic foam, glass wool, rock wool, or other materials with insulation properties; or a vacuum can be maintained between them.

[0091] like Figure 11 and Figure 12 As shown, the soft outer casing 200 is equipped with a detachable carrying component 300, which includes a human body carrying member 310. The human body carrying member 310 includes a main body 312 and a shock-absorbing member 314. The main body 312 has an outer surface and an inner surface. The storage module 100 is connected to the outer surface of the main body 312, and the shock-absorbing member 314 is disposed on the inner surface of the main body 312. The human body carrying member 310 is equipped with a portable expansion component 316.

[0092] like Figure 3As shown, in this embodiment, the accompanying expansion component 316 is disposed on the main body 312. By adding hooks, it can be expanded to assemble outdoor supplies such as blankets, tents, and walking sticks, greatly expanding the functionality of the temperature-controlled storage device.

[0093] like Figure 13 As shown, the carrying component 300 includes at least one carrying extension component 318, which is disposed on the outer surface of the soft outer cover 200 for snapping, hooking or binding.

[0094] like Figure 14 As shown, to improve the airtightness of the storage module 100, a sealing limiting member 108 can be provided. The sealing limiting member 108 connects the soft outer casing 200 and the storage cover 104. In this embodiment, there are two sealing limiting members 108, which can be metal buckles. The sealing limiting members 108 can enable the storage module 100 to achieve better sealing performance. At the same time, this sealing method allows for easy opening of the temperature-controlled storage device, facilitating the retrieval of food.

[0095] Meanwhile, the sealing and limiting component 108 can also be a layer of edging, and the storage module 100 can be opened and closed by setting a zipper on the edging.

[0096] Additionally, a sealing effect can be achieved by setting protrusions and recesses on the soft outer casing 200 and the storage cover 104.

[0097] In this embodiment, the temperature-controlled storage device of this application has multiple functions, including but not limited to cooling, heating, heat preservation, and air cooling. The temperature-controlled storage device of this application primarily utilizes energy storage technology for power supply. Energy storage-powered temperature-controlled storage devices offer many advantages, including but not limited to the ability to operate in locations without power, such as outdoor activities, picnics, and camping. In the event of a power outage or other emergency, the energy storage-powered temperature-controlled storage device can continue operating, ensuring the freshness of food and beverages. Furthermore, the energy storage-powered temperature-controlled storage device can store electrical energy when power demand is low and release it when power demand is high, thereby achieving efficient energy utilization and other advantages.

[0098] In Example 2, this utility model provides a temperature-controlled storage device with a battery pack, such as... Figure 6 As shown, unlike Embodiment 1, the battery pack is detachably placed in the battery mounting section 409 of the temperature-controlled storage device, and the battery pack is a mobile power supply 405. The battery pack can be at least partially exposed to the external environment of the soft outer casing 200, and the battery pack is placed in the battery mounting section 409 and supplies power to the temperature control module 250.

[0099] The battery mounting portion 409 is held in place by the soft outer casing 200, which covers it. The soft outer casing 200 can be opened and closed to accommodate the battery mounting portion 409. In other words, the soft outer casing 200 can be opened and closed to accommodate the power bank 405. In a first state, the power bank 405 is covered by the soft outer casing 200. In a second state, the soft outer casing 200 can be opened, and the power bank 405 can be displayed.

[0100] Optionally, the battery pack is detachably placed in the battery mounting section 409 of the temperature-controlled storage device, and the battery pack is a power bank 405.

[0101] In Embodiment 3, this utility model provides a portable temperature-controlled storage device. Unlike Embodiment 1, it also includes a carrying component, which can be a rope. The carrying component is detachably attached to the temperature-controlled storage device, allowing the device to be kept off the ground.

[0102] The soft outer casing 200 is equipped with a carrying connector, which is connected to the carrying component. Wherein:

[0103] The carrying connection has at least two through-holes through which the carrying element can pass to form one or more closed loops, for supporting the temperature-controlled storage device, which is located away from the ground, through which the supported object can pass.

[0104] The carrying connection is one or more locking members, and at least one carrying member that can form one or more closed loops is locked in the locking members to support the temperature-controlled storage device through one or more closed loops, away from the ground;

[0105] Alternatively, the carrying connection has at least one through-hole through which the carrying element can pass to form a hook for supporting the temperature-controlled storage device so as to be supported by the carrying element, away from the ground.

[0106] Alternatively, the carrying connector may have a hook for supporting the temperature-controlled storage device so that the supported object can pass through the carrying connector to support it away from the ground;

[0107] Alternatively, the carrying connector may have a latch for securing the supported object to the carrying connector to support the temperature-controlled storage device, thus keeping it away from the ground.

[0108] In Example 4, this utility model provides an assemblable temperature-controlled storage device, such as... Figure 13 As shown, the difference from Embodiment 1 is that it also includes an electric vehicle. The temperature-controlled storage device of this application is pre-installed in the electric vehicle. The electric vehicle includes a detachable external power supply, which can supply power to both the electric vehicle and the temperature-controlled storage device of this application.

[0109] The electric vehicle and the temperature-controlled storage device of this application are both powered by an external power source, wherein:

[0110] At least one of the electric vehicle and the temperature-controlled storage device of this application is powered by a power cord connection; or the electric vehicle and at least one of the temperature-controlled storage devices of this application are directly powered by electrical connectors; or the electric vehicle and at least one of the temperature-controlled storage devices of this application are directly powered by wireless charging.

[0111] External power supplies can be battery packs with multiple batteries, battery pack groups with multiple battery packs, or energy storage power supplies with inverter circuits.

[0112] Hooks and clips for matching the temperature-controlled storage device of this application can be reserved on the electric vehicle, so that the temperature-controlled storage device of this application can be detachably fixed on the electric vehicle by carrying the expansion component 318.

[0113] In Example 5, this utility model provides a method for heat energy recovery in a temperature-controlled storage device, comprising:

[0114] S001 A storage unit 102 and a temperature control module 250 that can be used for cooling to regulate the temperature inside the storage unit 102;

[0115] S002 - A soft outer casing 200 - A recovery chamber, which retains the heat output from the temperature control module in the recovery chamber for heating the placed object.

[0116] The step S001 further includes:

[0117] S003 provides power to the temperature control module 250 via an external power supply connected to a battery mounting section 409 of the temperature control storage device; or

[0118] S004 An external power supply supplies power to the temperature control module 250 by means of a power connection connected to a power connector of the temperature control storage device via a power cord.

[0119] like Figure 15 As shown, the soft outer casing 200 is equipped with a hot air circulation port 137 for discharging hot air, and the hot air circulation port 137 is located inside the ear bag 220, which can hold items. When the temperature-controlled storage device is activated, hot air is output to the ear bag 220 to heat the items inside. Utilizing hot air recovery for insulation or fan-based hot air insulation can reduce the energy consumption of the temperature-controlled storage device, save energy in the refrigerator, and reduce the load, thus having environmental benefits.

[0120] In Embodiment 6, this embodiment provides a temperature-controlled storage device. The difference from Embodiment 1 is that the temperature control module 250 is held in close contact with the bottom of the storage body 102 and at least partially protrudes from the storage body 102. The temperature control module 250 is at least partially covered by the soft outer casing 200.

[0121] Meanwhile, the battery mounting portion 409 can be at least partially exposed to the external environment of the soft outer casing 200. The battery mounting portion 409 can be configured to protrude from the radially extending wall of the soft outer casing 200, or it can be configured to protrude from the storage cover 104.

[0122] The temperature control module 250 is powered, and one or more battery mounting portions 409 are at least partially exposed to the external environment of the flexible casing 200. The battery mounting portions 409 and the temperature control module 250 are electrically connected, and a battery pack is placed on the battery mounting portions 409 and electrically connected to the temperature control module 250 to power the temperature control module 250; alternatively, a power connection portion can be used instead of the battery mounting portion 409. The power connection portion is electrically connected to the temperature control module 250, and the power connection portion can be connected to a power source by wiring.

[0123] The power connection section can also be one or more electrical connection interfaces, which can be connected to an external power source by a circuit. The types of electrical connection interfaces include TYPEC, AC female plug, triangular interface, and USB interface.

[0124] In Embodiment 7, this embodiment provides a temperature-controlled storage device. The difference from Embodiment 1 is that the battery mounting portion 409 at least partially protrudes from the side wall of the storage body 102, and the temperature control module 250 is at least partially covered by the soft outer casing 200. The battery mounting portion 409 and the temperature control module 250 are electrically connected so that the battery pack is electrically connected to the temperature control module 250 in the battery mounting portion 409 to supply power to the temperature control module 250.

[0125] The battery mounting portion 409 can be at least partially exposed to the external environment of the soft casing 200, and the battery mounting portion 409 protrudes from the main extension wall of the soft casing 200.

[0126] In Example 8, the temperature-controlled storage device provided in this example can also be powered by the vehicle's power supply, allowing car owners to enjoy refreshing cold drinks and warm food anytime and anywhere, greatly improving the quality of car life.

[0127] In Example 9, the temperature-controlled storage device provided in this example can meet the requirement of "uninterrupted power supply when away from the vehicle" through vehicle power supply technology. It will stop operating after reaching the set temperature, so the power consumption for continuous operation for 24 hours is often less than one kilowatt-hour.

[0128] In Example 10, the temperature-controlled storage device can also be integrated with the front or rear of the E-BIKE in some innovative ways.

[0129] When the temperature-controlled storage device is integrated with the front of the E-BIKE, it can be designed as a special front basket mounted on the front of the bike. This allows the storage device to be powered by the E-BIKE's battery in certain situations. Furthermore, the refrigerator's location makes it convenient for riders to easily access cold drinks or food.

[0130] When integrated with the rear of the E-BIKE, the temperature-controlled storage device can be designed as a rear-seat storage compartment. This design provides greater storage space, suitable for long trips or picnics. Similarly, the temperature-controlled storage device can be powered by the E-BIKE's battery.

[0131] Furthermore, both the front and rear of the vehicle can be connected to the E-BIKE's power system via cables, enabling energy exchange. For example, when the E-BIKE's battery is fully charged, excess energy can be used to charge the temperature-controlled storage device. Conversely, when the E-BIKE's battery is low, the temperature-controlled storage device's battery can provide additional power to the E-BIKE.

[0132] In Example 11, the temperature-controlled storage device provided in this example can also be combined with a conventional bicycle and installed on the bicycle body, such as the front or rear of the bicycle.

[0133] In Example 12, a temperature-controlled storage device includes:

[0134] At least one storage mechanism includes at least one storage module 100, at least one soft shell 200 covering the storage module 100, and an openable storage cover 104. An overflow space 112 is defined between the storage module 100 and the soft shell 200. The storage cover 104 is openably sealed to the storage shell and defines a storage opening. The storage opening connects the overflow space 112 and the storage space. A temperature control module 250 is disposed in the overflow space 112.

[0135] At least one temperature control module 250 is attached to the bottom of the storage module 100. The temperature control module 250 cools when powered to regulate the temperature of the storage space within the storage module 100.

[0136] One or more battery mounting portions 409 are provided, which may be at least partially exposed to the external environment of the storage facility, and the battery mounting portions 409 are electrically connected to the temperature control module 250 so that the battery pack 405 is electrically connected to the temperature control module 250 at the location of the battery mounting portions 409 to supply power to the temperature control module 250.

[0137] It is worth mentioning that in embodiments 1 to 12, the soft shell 200 and the soft outer casing 200 refer to the same element, namely, a soft material capable of shielding and accommodating the storage module 100. Due to its malleable shape, it can modify the appearance of the temperature-controlled storage device, meaning the temperature-controlled storage device does not necessarily have to be a square shell. The soft outer casing simultaneously seals and wraps both the storage module 100 and the temperature-controlled module 250, modifying the protruding parts of the storage module 100, thus not only improving its appearance but also further enhancing its heat insulation function.

[0138] In one embodiment, the soft shell 200 has one or more radial circumferential surfaces, a top surface, and a bottom surface, and the battery mounting portion 409 is disposed on at least one radial circumferential surface of the soft shell 200.

[0139] In one embodiment, the soft shell 200 has one or more radial circumferential surfaces, a top surface, and a bottom surface, and the battery mounting portion 409 is disposed on the bottom surface of the soft shell 200.

[0140] In one embodiment, the soft shell 200 has one or more radial circumferential surfaces, a top surface, and a bottom surface, and the battery mounting portion 409 is disposed on the top surface of the soft shell 200.

[0141] In one embodiment, the battery mounting portion 409 is disposed in the spill-proof space 112 defined by the soft housing 200 and the storage module 100, and the battery mounting portion 409 is close to the storage opening. In another embodiment, the battery mounting portion 409 is disposed on the top surface of the soft cover 202.

[0142] In one embodiment, the storage cover 104 and the soft cover 202 are integrally formed, and the battery mounting part 409 is disposed between the storage cover 104 and the soft cover 202. The battery mounting part 409 has a battery compartment and a plug-in opening, which connects the battery compartment and the external space to accommodate the battery pack 405.

[0143] In one embodiment, the soft shell 200 includes one or more earpieces 220, and each battery mounting portion 409 is opened and closed covered by at least one earpiece 220.

[0144] In one embodiment, the temperature control module 250 includes a cooling component 450 and a control circuit 404 electrically connected to the cooling component 450. The battery mounting portion 409 is electrically connected to the control circuit 404. The control circuit 404 is electrically connected to the cooling component 450 and the battery mounting portion 409. The control circuit 404 is disposed on the outside of the cooling component 450, wherein the cooling component 450 is close to the radial surface of the storage module 100.

[0145] It is worth mentioning that the control circuit 404 is the electronic control unit 404, which is the same component in different embodiments.

[0146] In one embodiment, the temperature control module 250 includes a cooling component 450 and a control circuit 404 electrically connected to the cooling component 450. The battery mounting portion 409 is electrically connected to the control circuit 404. The control circuit 404 is electrically connected to the cooling component 450 and the battery mounting portion 409. The control circuit 404 is disposed on the outside of the cooling component 450, wherein the cooling component 450 is close to the bottom surface of the storage module 100.

[0147] In one embodiment, the temperature control module 250 includes a cooling component 450 and a control circuit 404 electrically connected to the cooling component 450. The battery mounting portion 409 is electrically connected to the control circuit 404, which is also electrically connected to the cooling component 450 and the battery mounting portion 409. The control circuit 404 is disposed on the outside of the cooling component 450, wherein the cooling component 450 is close to at least two adjacent surfaces of the storage module 100.

[0148] In one embodiment, the temperature control module 250 includes a cooling component 450 and a control circuit 404 electrically connected to the cooling component 450. The battery mounting portion 409 is electrically connected to the control circuit 404, which is also electrically connected to the cooling component 450 and the battery mounting portion 409. The control circuit 404 is located on the outside of the cooling component 450, wherein the cooling component 450 is fitted into a corner of the storage module 100 and is close to at least two adjacent surfaces of the storage module 100.

[0149] Refer to the attached diagram in the instruction manual. Figures 16 to 22 :

[0150] This utility model provides a temperature-controlled storage device, including a storage module 100, a temperature control module 250 connected to the storage module 100, a battery mounting part 409, and a soft outer casing 200. The storage module 100 and the temperature control module 250 connected to the storage module 100 are assembled into one unit and covered by the soft outer casing 200. The storage module 100 includes a storage body 102 and a storage cover 104 that can be opened and closed while simultaneously sealing and covering the storage body 102.

[0151] In this embodiment, the temperature control module 250 is fixedly connected to the storage module 100. The center of gravity of the temperature control module 250 is far from the storage body 102, wherein the center of gravity G1 of the temperature control module 250 is located at twice the radius R of the central axis of the storage module 100 and protrudes beyond 1.5 times the radius R of the storage body 102. The cooling base 402 is configured to protrude from the radial side of the storage module 100. That is, the temperature control module 250 is configured to protrude from the radial side of the storage body 102 to promote heat dissipation. More notably, the temperature control module 250 is covered by a soft outer casing 200 to modify the shape of the temperature control module 250 and the storage body 102.

[0152] By protruding the temperature control module 250 onto the storage body 102, the internal space of the storage body 102 can be increased, the space occupied can be reduced, and more items, food, etc. can be filled inside the storage body 102.

[0153] In this embodiment, the soft outer casing 200 covers the storage body 102 and the storage cover 104. The soft outer casing 200 has at least one soft casing 204 and a soft cover 202 for covering the soft casing 204, and the soft casing 204 is sealed and wrapped around the outer periphery of the storage module 100.

[0154] More preferably, the soft outer casing 200 has at least one soft casing 204 and a soft casing cover 202 for opening and closing to seal over the soft casing 204. The soft casing 204 seals over the storage body 102, and the soft casing cover 202 seals around the outer periphery of the storage cover 104. The soft casing 202 and the storage cover 104 are integrally formed.

[0155] It is worth mentioning that the soft outer bag 200 also has a clamping cover, which is detachably connected to the soft bag body 204 for clamping other additional bags and / or some clampable items, increasing storage space. For example, blankets, rollable tabletops, clothing, etc. can be clamped by the clamping cover and the soft bag body 204.

[0156] The soft cover 202 and the storage cover 104 are assembled as one unit. The soft cover 204 and the storage body 102 are assembled as one unit.

[0157] In a modified embodiment, optionally, the soft outer casing 200 has at least one soft casing 204 that seals over the storage body 102. The soft casing 202 and the storage cover 104 are integrally formed. The storage cover 104 is detachably mounted on the storage body 102.

[0158] In a modified embodiment, the soft outer casing 200 has at least one soft casing 204 and a soft casing cover 202 for closingly connecting to the soft casing 204, the soft casing 204 sealingly covering the storage body 102. The soft casing 202 and the storage cover 104 are separately disposed. The storage cover 104 is closable over the storage body 102.

[0159] Furthermore, the battery mounting portion 250 at least partially protrudes from the radial circumferential surface of the storage module 100. Furthermore, one side of the temperature control module 250 protrudes from the radial circumferential surface of the storage module 100.

[0160] Furthermore, the temperature control module 250 does not protrude from the radial circumferential surface of the storage module 100.

[0161] In this embodiment, the refrigeration assembly 450 includes a compressor 451, a condenser pipe 452 connected to the compressor 451, and an evaporator pipe 454 connected to the condenser pipe 452. A cooling fan 453 is installed on one side of the condenser pipe 452. A refrigeration base 402 is installed on one side of the bottom of the storage body 102. The refrigeration assembly 450 and the control circuit 404 are both installed in the refrigeration base 402. Ventilation windows 4021 are provided on both sides of the refrigeration base 402. The condenser pipe 452 and the cooling fan 450 are close to one of the ventilation windows 4021. The side of the refrigeration base 402 that is perpendicular to the ventilation window 4021 is set as the mounting surface 4025. A control panel 4022 is also installed on the side of the refrigeration base 4025 where the ventilation window 4021 is provided. The battery mounting part 409 is installed on the outer surface of the storage module 100 or on the mounting surface 4025 of the refrigeration base 402. An external power port 4023 and a wiring hole 4024 are also provided on the mounting surface 4025.

[0162] Preferably, the condenser pipe 452 and the cooling fan 450 are located near the air outlet. The ventilation window 4021 near the condenser pipe 452 and the cooling fan 450 is the air outlet. The ventilation window 4021 near the control panel 4022 is the air inlet. The two ventilation windows 4021 allow outside air to pass through, and the two ventilation windows 4021 define a heat dissipation channel.

[0163] Preferably, the battery mounting portion 409 is mounted in the side pocket of the soft outer casing 200. The battery mounting portion 409 is mounted in the battery pouch of the soft outer casing 200. The battery mounting portion 409 is locked to the cooling base 402. The position of the battery mounting portion 409 is perpendicular to the plane defined by the two ventilation windows 4021. That is, the battery mounting portion 409 is away from the heat dissipation channel defined by the two ventilation windows 4021. In this embodiment, the ventilation windows 4021 on both sides are distributed front and back, with the front ventilation window 4021 being the air outlet and the rear ventilation window being the air inlet. The condenser pipe 452 and the cooling fan 450 are disposed close to the front ventilation window 4021. A certain gap is maintained between the first storage body 110 and the second storage body 120, and the evaporator pipe 454 extends into this gap to reduce the temperature. The evaporator pipe 454 is equivalent to the cooling element 118. The evaporator pipe 454 is tightly wrapped around the outside of the second storage body 120. With this layout, the compressor 451 works in conjunction with the condenser 452 and the evaporator 454 to form a complete refrigeration cycle system, which can accurately and efficiently cool the interior of the storage unit 102.

[0164] To further improve the performance of the refrigeration system, a cooling fan 453 is specially designed to dissipate heat from the condenser coil 452. The dissipated heat is blown out through the front ventilation window 4021, ensuring that the condensation process can proceed smoothly and preventing the system from overheating. In addition, the ventilation windows 4021 on the front and rear sides not only optimize air circulation but also facilitate the rapid dissipation of heat to the external environment, thereby ensuring the stability and durability of the entire refrigeration system.

[0165] In this embodiment, the battery mounting part 409 is installed on the side away from the cooling base 402, preferably on the side of the storage body 102 facing away from the cooling base 402. This layout aims to effectively prevent the heat generated by the cooling component 450 during operation from adversely affecting the performance of the battery pack 405. Through this structure, the battery pack 405 can be maintained in a more stable and suitable working environment, thereby ensuring its long-term stable operation. When installed in this way, the wires are routed from the outside of the storage body 102 and are shielded and concealed by the soft outer casing 200 to prevent the wires from being exposed to the user.

[0166] In one embodiment of ventilation window 4021, such as Figure 21 As shown, a ventilation window 4021 is provided on the side of the refrigeration base 402 opposite to the storage body 102, and a second ventilation window 4021 is provided on the front or back of the refrigeration base 402. The two ventilation windows 4021 are respectively set as the air inlet and the air outlet, and the condenser pipe 452 is close to the air outlet.

[0167] In one embodiment of ventilation window 4021, such asFigure 22 As shown, the ventilation window 4021 protrudes from the cooling base 402, thus increasing the installation area of ​​the ventilation window 4021. This allows the cooling fan 453 to be installed inside the ventilation window 4021, making the interior of the cooling base 402 more spacious, which facilitates airflow and improves heat dissipation. Of course, the protruding ventilation window 4021 also allows for the addition of a cooling fan 453 within it, increasing the exhaust volume. This also improves the heat dissipation of the temperature control module 250.

[0168] In one embodiment of the ventilation window 4021 (not shown in the figure), three or more ventilation windows 4021 are provided, and each ventilation window 4021 is not coplanar. At least one ventilation window 4021 is configured as an air inlet, at least one ventilation window 4021 is configured as an air outlet, and the remaining ventilation windows 4021 are configured as either air inlets or outlets as needed. This increases the airflow and improves the heat dissipation and ventilation effect. Of course, to increase the airflow on a particular side, multiple coplanar ventilation windows 4021 can be provided on one side; this method is equivalent to increasing the area of ​​the ventilation windows 4021.

[0169] In a modified embodiment of the above embodiment (not shown in the figure), at least one side of the cooling base 402 is set as a stepped surface, which can increase the number of sides of the cooling base 402, thereby allowing more ventilation windows 4021 to be opened, further improving the heat dissipation and ventilation effect.

[0170] In another modified embodiment of the above example (not shown in the figure), multiple adjacent ventilation windows 4021 are all configured as air inlets, thus forming a large air inlet window, which increases the airflow entering the cooling base 402 and improves the heat dissipation and cooling effect. Of course, in other embodiments, multiple adjacent ventilation windows 4021 can also be configured as air outlets, thereby increasing the exhaust volume of the cooling base 402, accelerating air convection, and improving the heat dissipation and cooling effect. In other possible embodiments, the multiple ventilation windows 4021 are divided into two groups, with one group of adjacent ventilation windows 4021 configured as air inlets and the other group of adjacent ventilation windows 4021 configured as air outlets. In this way, both the air intake and exhaust volume of the cooling base 402 are increased, resulting in better ventilation and heat dissipation.

[0171] There are one or more battery packs 405, which are detachably plugged into the battery mounting section 409 for power supply.

[0172] In a modified embodiment, there are two or more battery mounting portions 409 for removable insertion and removal of two or more battery packs 405.

[0173] An external power port 4023 is provided on the mounting surface 4025, allowing an external power cord to be plugged in, thus providing additional power support to the storage device when needed. This not only enhances the practicality and flexibility of the storage device but also provides users with more diverse power supply options. For example, users can connect the storage device to a car power source for convenient mobile power supply, ensuring a continuous and stable power supply to the storage device in any environment.

[0174] In this embodiment, the external power port 4023 and the battery mounting part 409 are disposed opposite to each other on both sides of the soft outer casing 200.

[0175] In a modified embodiment of this example, the external power port 4023 and the battery mounting portion 409 are arranged coplanarly. Furthermore, the cooling base 402 of this embodiment integrates a control panel 4022, which is installed at the ventilation window 4021 at the air inlet. The control panel 4022 not only provides users with an intuitive operating interface but also allows users to easily control the cooling component 450 in various ways. Through the control panel 4022, users can easily adjust cooling parameters, monitor operating status, and even perform fault diagnosis and repair, greatly improving the usability and maintainability of the equipment.

[0176] In another embodiment, such as Figures 16 to 19 As shown, the storage unit 102 is externally fitted with a soft backpack 500, and a metal bracket 501 is installed on the soft backpack 500 for fixing the soft backpack 500 to a means of transportation, such as a bicycle or a car, so that the storage device can be carried on the means of transportation.

[0177] By configuring the soft backpack 500 on the storage body 102, a portable solution is provided for users. The soft backpack 500 can perfectly fit the shape of the storage body 102 and provide it with good protection.

[0178] To enhance the practicality of the soft backpack 500, a metal bracket 501 is installed. This bracket effectively secures the soft backpack 500 to various vehicles, such as bicycles and cars. Users can easily mount the storage device on their vehicle according to their needs, making it convenient to carry and move. This method allows users to easily carry the storage device with them, meeting their storage needs at any time, while also ensuring ease of use and maintainability.

[0179] The soft backpack 500 has through holes 503 on both sides corresponding to the ventilation windows 4021. The soft outer bag 200 has multiple side pockets, one of which is a battery pocket 502. The battery pocket 502 is formed on the side of the ventilation channel defined by the two ventilation windows 4021 of the soft outer bag 200. That is, at least one battery pocket 502 is formed in the vertical direction of the ventilation channel defined by the two ventilation windows 4021 of the soft outer bag 200. By providing through holes 503 corresponding to the ventilation windows 4021, the cooling component 450 can dissipate heat smoothly.

[0180] In this embodiment, when the storage body 102 is covered by a soft backpack 500, the battery mounting part 409 and the battery pack 405 can be placed inside the battery bag 502 for storage and installation. The wires can be held between the storage module 100, the cooling base 402, and the storage body 102, and the wires can be concealed by the soft outer sheath 200. This protects the battery pack 405 and the wires. Furthermore, the battery bag 502 is provided with a zipper opening, which facilitates opening and closing of the battery bag 502 and also makes it convenient to replace the battery pack 405 inside the battery bag 502.

[0181] A cooling fan 453 is installed to dissipate heat from the condenser coil 452. The heat dissipated is blown out through the front ventilation window 4021 to ensure that the condensation process can proceed smoothly and to prevent the system from overheating. In addition, the ventilation windows 4021 on the front and rear sides not only optimize air circulation, but also facilitate the rapid dissipation of heat to the external environment, thereby ensuring the stability and durability of the entire refrigeration system.

[0182] Figure 18 The variant of the embodiment shown differs from the above embodiment in that the center of gravity of the temperature control module 250 in this embodiment is relatively close to the storage body 102, wherein the center of gravity G of the temperature control module 250 is located at 1.5 times the radius R of the central axis of the storage body 102, and protrudes beyond 1 times the radius R of the storage body 102.

[0183] More preferably, the center of gravity G of the temperature control module 250 is located at 1.3 times the radius R of the central axis of the storage body 102, and protrudes 1.1 times the radius R of the storage body 102.

[0184] The temperature control module 250 and the battery mounting portion 409 are disposed on the same side and are relatively close to each other. The temperature control module 250 and the battery mounting portion 409 are respectively disposed on the radial side of the storage body 102 and arranged along the axial direction.

[0185] The temperature control module 250 and the battery mounting portion 409 are disposed on the same side and are relatively close to each other. The temperature control module 250 and the battery mounting portion 409 are respectively disposed on the radial side of the storage body 102 and arranged along the axial direction.

[0186] In a modified embodiment, the battery mounting portion 409 is detachable from the cooling base 402, and the cooling base 402 is provided with the battery mounting portion 409 having an opening, the battery mounting portion 409 not protruding from the radial surface of the temperature control module 250.

[0187] It is worth mentioning that the battery mounting part 409 is located in the space below the bottom surface and radial side surface of the storage body 102.

[0188] Preferably, the battery mounting portion 409 is embedded in the cooling base 402. That is, the battery mounting portion 409 does not protrude from the radial side of the storage body 102, while the temperature control module 250 protrudes from the radial side of the storage body 102.

[0189] Furthermore, the opening of the battery mounting section 409 is provided facing the air inlet end, wherein the opening of the battery mounting section 409 and the control panel 4022 are provided on the same side.

[0190] In a modified embodiment, the opening of the battery mounting portion 409 is arranged in an axial direction, wherein the orientation of the opening of the battery mounting portion 409 is perpendicular to the heat dissipation channel defined by at least two ventilation windows 4021, to facilitate user insertion and removal.

[0191] It is worth mentioning that the control panel 4022 protrudes from the space below the radial circumferential surface and bottom surface of the storage body 102, and the orientation of the opening of the battery mounting part 409 is parallel to the heat dissipation channel defined by at least two ventilation windows 4021, that is, the control panel 4022 and the extension direction of the heat dissipation channel defined by the two ventilation windows 4021 are arranged in the same direction; or

[0192] In other embodiments, the control panel 4022 and the two ventilation windows 4021 are arranged vertically to define the extension direction of the heat dissipation channel, and the control panel 4022 is disposed on the radial side of the cooling base 402.

[0193] Alternatively, the control panel 4022 and the two ventilation windows 4021 are arranged perpendicularly to the extension direction of the heat dissipation channel, and the control panel 4022 is disposed on the axial surface of the cooling base 402. The opening of the battery mounting portion 409 is arranged in the axial direction, wherein the orientation of the opening of the battery mounting portion 409 is perpendicular to the heat dissipation channel defined by at least two ventilation windows 4021.

[0194] In a modified embodiment, the cooling base 402 has a mounting surface 4025, a battery mounting part 409 is mounted on the mounting surface 4025, the battery mounting part 409 is electrically connected to the control circuit 404, and the mounting surface of the cooling base 402 is the plane that defines the ventilation window 4021 at the air inlet end.

[0195] In a modified embodiment, the cooling base 402 has a mounting surface 4025, a battery mounting part 409 is mounted on the mounting surface 4025, the battery mounting part 409 is electrically connected to the control circuit 404, and the mounting surface of the cooling base 402 is the plane that defines the ventilation window 4021 at the air outlet.

[0196] In several embodiments, the wires are connected to the mobile power supply 405 within the battery mounting section 409. This minimizes the impact of heat from the temperature control module 250 on the battery pack housed in the battery mounting section 409. Due to the soft outer casing 200, the wiring in the battery mounting section 409 can be exposed to the outside of the storage body 102 and is not exposed to the user.

[0197] In a modified embodiment, there are multiple battery packs 405, which are detachably plugged into the battery mounting portion 409 for power supply.

[0198] In a modified embodiment, there are two or more battery mounting portions 409 for detachable insertion and removal of two or more battery packs 405.

[0199] In a modified embodiment, the external power port 4023 and the battery mounting portion 409 are disposed opposite each other on both sides of the soft outer casing 200.

[0200] In a modified embodiment, the external power port 4023 and the battery mounting portion 409 are arranged coplanarly.

[0201] Optionally, the storage module 100 and the soft cover 202 define a sealed connection position, and the soft body 204 and the soft cover 202 define a receiving connection position 201. The sealed connection position and the receiving connection position 201 are set to be offset in the height direction.

[0202] In one embodiment, the electronic control unit 404 further includes at least two modes, namely a first cooling mode and a second cooling mode, which can be switched and selected by a button trigger.

[0203] In one embodiment, the temperature control module 250 is detachably connected to the storage mechanism.

[0204] In one embodiment, the battery mounting section 409 includes at least one battery compartment and at least one power supply interface disposed in the battery compartment, the power supply interface being electrically connected to the temperature control module 250.

[0205] In one embodiment, the carrying component 300 includes at least one human body carrying member connected to the storage mechanism. The human body carrying member includes a body and at least one shock absorber. The body has an outer surface and an inner surface. The outer surface of the body is connected to the storage mechanism, and the shock absorber is disposed on the inner surface of the body.

[0206] In one embodiment, the carrying component 300 includes at least one carrying extension component 318 disposed on the outer surface of the storage mechanism for snapping, hooking or binding.

[0207] In one embodiment, the storage module 100 includes a first region and at least a second region, the first region and the second region being at least partially separated, the first region receiving a lower cooling temperature from the cooling component 450 relative to the second region, so as to manage the temperature of the first region and the second region in a partitioned manner.

[0208] In one embodiment, the storage module 100 includes a first storage module 100 and a second storage module 100 stacked on top of the first storage module 100, the first storage module 100 and the second storage module 100 being spaced apart and fitted with an insulating material; or

[0209] The storage module 100 includes a first storage module 100 and a second storage module 100 stacked on top of the first storage module 100, with a vacuum maintained between the first storage module 100 and the second storage module 100.

[0210] In one embodiment, a temperature-controlled storage device with a battery pack 405 includes a temperature-controlled storage device and one or more battery packs 405. The battery packs 405 are detachably placed in the battery mounting portion 409 of the temperature-controlled storage device. The battery packs 405 can be at least partially exposed to the external environment of the storage device. The battery packs 405 are electrically connected to the temperature control module 250 in the battery mounting portion 409 to supply power to the temperature control module 250.

[0211] In one embodiment, the portable temperature-controlled storage device includes a temperature-controlled storage device and at least one human carrier 310 that can form one or more closed loops. The human carrier 310 is detachably mounted to the temperature-controlled storage device so that a supported object can pass through one or more closed loops of the human carrier 310 to support the temperature-controlled storage device away from the ground.

[0212] In one embodiment, the temperature-controlled storage device includes a storage mechanism and a carrying connection portion disposed in the storage mechanism, the carrying connection portion being connected to a human body carrying piece 310, wherein:

[0213] The carrying connection has at least two through-holes through which the human body carrier 310 can pass to form one or more closed loops, for supporting the temperature-controlled storage device, which is located away from the ground, through which the supported object can pass.

[0214] The carrying connection is one or more locking members, and at least one human carrying member 310, which can form one or more closed loops, is locked in the locking members to support the temperature-controlled storage device through one or more closed loops, away from the ground; or

[0215] The carrying connector has at least one through-hole through which the carrying element passes to form a hook for supporting the temperature-controlled storage device, allowing the supported object to pass through the carrying element, away from the ground; or

[0216] The carrying connector has a hook for supporting the temperature-controlled storage device so that the supported object can pass through the carrying connector to support it away from the ground; or

[0217] The carrying connector has a latch for securing the supported object to the carrying connector to support the temperature-controlled storage device away from the ground.

[0218] In another embodiment, a portable temperature-controlled storage device includes a temperature-controlled storage device and an electric vehicle. The temperature-controlled storage device is pre-installed in the electric vehicle, which includes a detachable power supply 405 that can supply power to both the electric vehicle and the temperature-controlled storage device.

[0219] It's worth mentioning that the 405 power bank is an external power source.

[0220] In one embodiment, the temperature-controlled storage device includes an electric drive vehicle and the temperature-controlled storage device being simultaneously powered by a mobile power supply 405, wherein:

[0221] At least one of the electric vehicle and the temperature-controlled storage device is powered by a power cord connection; or

[0222] At least one of the electric drive vehicle and the temperature-controlled storage device is directly connected to the power supply via an electrical connector; or

[0223] At least one of the electric vehicle and the temperature-controlled storage device is powered by direct contact via wireless charging.

[0224] In one embodiment, the temperature-controlled storage device includes a mobile power supply 405 of the type of a battery pack 405 having multiple batteries, a group of battery packs 405 having multiple battery packs 405, or an energy storage power supply having an inverter circuit.

[0225] In one embodiment, a method for heat recovery from a temperature-controlled storage device includes:

[0226] S001 A storage module 100 and a temperature control module 250 for cooling, to regulate the temperature within the storage module 100; and

[0227] S002 A soft shell 200 has a recovery chamber that retains the heat output from the temperature control module in the recovery chamber to heat the placed object.

[0228] In one embodiment, a method for heat recovery from a temperature-controlled storage device further includes, prior to step S001:

[0229] S003 A mobile power bank 405 supplies power to the temperature control module 250 by connecting to a battery mounting section 409 of the temperature control storage device; or

[0230] S004 A mobile power supply 405 supplies power to the temperature control module 250 by means of a power connection portion of the temperature control storage device connected to a power cord.

[0231] It is worth mentioning that the recycling chamber of the soft shell 200 is formed inside the ear cover 220.

[0232] It is worth mentioning that in embodiments 1 to 12, the soft shell 200 and the soft outer casing 200 refer to the same component. It is also worth noting the soft material that can conceal and house the storage module 100. Due to its malleable shape, it can modify the appearance of the temperature-controlled storage device, meaning the temperature-controlled storage device does not necessarily have to be a square shell. The soft outer casing 200 simultaneously seals and wraps both the storage module 100 and the temperature-controlled module 250, modifying the protruding parts of the storage module 100, thus not only improving its appearance but also further enhancing its heat insulation function.

[0233] In another embodiment, a temperature-controlled storage device includes:

[0234] At least one storage mechanism includes at least one storage module 100, at least one soft shell 200 covering the storage module 100, and an openable storage cover 104. An overflow space 112 is defined between the storage module 100 and the soft shell 200. The storage cover 104 is openably sealed to the storage shell and defines a storage opening. The storage opening connects the overflow space 112 and the storage space. A temperature control module 250 is disposed in the overflow space 112.

[0235] At least one temperature control module 250 is attached to the bottom of the storage module 100 and at least partially protrudes from the storage module 100. The temperature control module 250 is at least partially covered by a soft shell 200. The temperature control module 250 is cooled when powered to regulate the temperature of the storage space of the storage module 100.

[0236] In one embodiment, the temperature control module 250 is powered, wherein the temperature-controlled storage device includes one or more battery mounting portions 409, which are at least partially exposed to the external environment of the storage device, and the battery mounting portions 409 and the temperature control module 250 are electrically connected such that a battery pack 405 is electrically connected to the temperature control module 250 at the battery mounting portions 409 to power the temperature control module 250; and / or

[0237] The temperature-controlled storage device includes a power connection part, which is electrically connected to the temperature control module 250. The power connection part can be connected to a power source by wiring.

[0238] In one embodiment, the temperature control module 250 is powered, wherein the temperature control storage device includes a power connection part, the power connection part includes one or more power supply interfaces 407, the one or more power supply interfaces 407 can be circuitically connected to an external power source, and the type of power supply interface 407 includes TYPEC, AC female plug, triangular interface, USB interface.

[0239] The power supply interface 407 is an electrical connection interface, and it is the same component in different embodiments.

[0240] The battery mounting portion 409 may be at least partially exposed to the external environment of the storage mechanism, and the battery mounting portion 409 protrudes from the radially extending wall of the soft shell 200.

[0241] The battery mounting portion 409 can be at least partially exposed to the external environment of the storage mechanism, and the battery mounting portion 409 protrudes from the storage cover 104.

[0242] In another embodiment, a temperature-controlled storage device includes:

[0243] At least one storage mechanism includes at least one storage module 100, at least one soft shell 200 covering the storage module 100, and an openable storage cover 104. An overflow space 112 is defined between the storage module 100 and the soft shell 200. The storage cover 104 is openably sealed to the storage shell and defines a storage opening. The storage opening connects the overflow space 112 and the storage space. A temperature control module 250 is disposed in the overflow space 112.

[0244] At least one temperature control module 250 is attached to the bottom of the storage module 100. The temperature control module 250 cools when powered to regulate the temperature of the storage space within the storage module 100.

[0245] One or more battery mounting portions 409 are at least partially exposed to the external environment of the storage mechanism. The battery mounting portions 409 at least partially protrude from the sidewall of the storage module 100, and the temperature control module 250 is at least partially covered by the soft shell 200. The battery mounting portions 409 and the temperature control module 250 are electrically connected so that the battery pack 405 is electrically connected to the temperature control module 250 in the battery mounting portions 409 to supply power to the temperature control module 250.

[0246] The battery mounting portion 409 may be at least partially exposed to the external environment of the storage mechanism, and the battery mounting portion 409 protrudes from the main extension wall of the soft shell 200.

[0247] In one embodiment, the cooling base 402 has a mounting surface 4025, a battery mounting part 409 is mounted on the mounting surface 4025, the battery mounting part 409 is electrically connected to the control circuit 404, and the mounting surface of the cooling base 402 is perpendicular to the plane defined by the two ventilation windows 4021.

[0248] Preferably, the cooling base 402 has a mounting surface 4025, a battery mounting part 409 is mounted on the mounting surface 4025, the battery mounting part 409 is electrically connected to the control circuit 404, the ventilation window 4021 defining the air inlet end of the cooling base 4025 is coplanar with a control panel 4022, the control circuit 404 is electrically connected to the control panel 4022, and the mounting surface of the cooling base 402 and the control panel 4022 are held on both sides at the corners of the cooling base 402.

[0249] In one embodiment, the cooling base 402 has a mounting surface 4025, a battery mounting part 409 is mounted on the mounting surface 4025, the battery mounting part 409 is electrically connected to the control circuit 404, and the mounting surface of the cooling base 402 is the plane that defines the ventilation window 4021 at the air inlet end.

[0250] In one embodiment, the cooling base 402 has a mounting surface 4025, a battery mounting part 409 is mounted on the mounting surface 4025, the battery mounting part 409 is electrically connected to the control circuit 404, and the mounting surface of the cooling base 402 is the plane that defines the ventilation window 4021 at the air outlet.

[0251] In one embodiment, the battery mounting portion 409 is mounted on the outside of the storage module 100, and the battery mounting portion 409 is kept perpendicular to the plane defined by the two ventilation windows 4021.

[0252] In one embodiment, the battery mounting portion 409 is mounted on the outside of the storage module 100, and the battery mounting portion 409 is mounted on the plane defined by any two ventilation windows 4021.

[0253] In some embodiments, a temperature-controlled storage device includes at least one storage module 100, at least one temperature control module 250, at least one battery mounting portion 409, and a soft outer casing 200. The storage module 100 includes at least one storage body 102 and a storage cover 104. The storage cover 104 is closable and covers the storage body 102. The soft outer casing 200 covers the storage body 102.

[0254] The temperature control module 250 is located at the bottom of the storage body 102. One side of the temperature control module 250 is covered by a soft outer casing 200. The temperature control module 250 is cooled after being powered on, and is used to regulate the internal temperature of the storage body 102.

[0255] The battery mounting part 409 is located on the outside of the storage module 100. The battery mounting part 409 is electrically connected to the temperature control module 250. A battery pack 405 is detachably installed in the battery mounting part 409 to power the temperature control module 250.

[0256] In some embodiments, the temperature control module 250 includes at least one cooling component 450 and a control circuit 404 electrically connected to the cooling component 450, and the battery mounting portion 409 is electrically connected to the control circuit 404.

[0257] In some embodiments, the refrigeration assembly 450 includes a compressor 451, a condenser 452 connected to the compressor 451, and an evaporator 454 connected to the condenser 452, with a cooling fan 453 installed on one side of the condenser 452.

[0258] In some embodiments, the refrigeration component 450 and the control circuit 404 are both installed in the refrigeration base 402. Ventilation windows 4021 are provided on both sides of the refrigeration base 402. The condenser pipe 452 and the cooling fan 450 are close to one of the ventilation windows 4021. The compressor 451, the condenser pipe 452 and the cooling fan 450 are arranged in sequence in the heat dissipation channel defined by the two ventilation windows 4021.

[0259] In some embodiments, the cooling base 402 has a mounting surface 4025, and ventilation windows 4021 are provided on both sides of the cooling base 402. The battery mounting part 409 is mounted on the mounting surface 4025.

[0260] The mounting surface of the refrigeration base 402 is perpendicular to the plane defined by the two ventilation windows 4021; or

[0261] The mounting surface of the cooling base 402 is the plane that defines the ventilation window 4021 at the air inlet end; or

[0262] The mounting surface of the refrigeration base 402 is the plane that defines the ventilation window 4021 at the air outlet.

[0263] The cooling base 402 has a mounting surface 4025, and ventilation windows 4021 are provided on both sides of the cooling base 402. The ventilation window 4021 defining the air inlet end is coplanar with a control panel 4022. The control circuit 404 is connected to the control panel 4022. The mounting surface of the cooling base 402 and the control panel 4022 are held at the corners of the cooling base 402 on both sides; or

[0264] The battery mounting portion 409 is mounted on the outside of the storage module 100, and the battery mounting portion 409 is held perpendicular to the plane defined by the two ventilation windows 4021; or

[0265] The battery mounting part 409 is mounted on the outside of the storage module 100, and the battery mounting part 409 is mounted on the plane defined by any two ventilation windows 4021; or

[0266] The soft enclosure includes an openable storage body 102 and a storage cover 104, with the storage body 102 covering the storage body 102 and the battery mounting part 409 mounted on top of the storage cover 104.

[0267] In some embodiments, the cooling base 402 has a mounting surface 4025, and the battery mounting part 409 is mounted on the outer surface of the storage module 100 or on the mounting surface 4025 of the cooling base 402. The mounting surface 4025 is also provided with an external power port 4023 and a wiring hole 4024. The external power port 4023 is used for connecting an external power source, wherein:

[0268] The external power port 4023 and the battery mounting part 409 are arranged coplanarly; or

[0269] The external power port 4023 and the battery mounting part 409 are respectively disposed on both sides of the soft outer casing 200.

[0270] The soft backpack 500 has at least one battery pocket 502 on its side for mounting the battery mounting part 409.

[0271] In some embodiments, the temperature-controlled storage device further includes one or more battery packs 405, which are detachably plugged into the battery mounting portion 409 for power supply.

[0272] In some embodiments, there are two or more battery mounting portions 409 for removable insertion and removal of two or more battery packs 405.

[0273] There are one or more battery packs 405, which are detachably plugged into the battery mounting section 409 for power supply.

[0274] In some embodiments, there are two or more battery mounting portions 409 for removable insertion and removal of two or more battery packs 405.

Claims

1. A temperature-controlled storage device, characterized by, The battery pack comprises at least one storage module (100), at least one temperature control module (250), at least one battery mounting portion (409), and a soft outer package (200); The temperature control module (250) is installed on the storage module (100), and one side of the temperature control module (250) is covered by the soft outer package (200); The temperature control module (250) comprises a refrigeration base (402) and a refrigeration assembly (450) installed in the refrigeration base (402); The refrigeration base (402) is provided with a ventilation window (4021) for dissipating heat of the refrigeration assembly and a control panel (4022) for operating the refrigeration assembly (450).

2. The temperature-controlled storage device of claim 1, wherein: The temperature control module (250) is at least partially protruded from the radial circumferential surface of the storage module (100); The gravity center of the temperature control module (250) is located at 2 times the radius of the central axis of the storage module (100) and protrudes from 1.5 times the radius of the storage module (100); or The gravity center of the temperature control module (250) is located at 1.5 times the radius of the central axis of the storage module (100) and protrudes from 1 times the radius of the storage module (100).

3. The temperature-controlled storage device of claim 1, wherein: The temperature control module (250) is at least partially protruded from the radial circumferential surface of the storage module (100); The ventilation window (4021) defining the air inlet end is protruded from the radial circumferential surface of the storage module (100), and the ventilation window (4021) is composed of multiple adjacent ventilation windows (4021).

4. The temperature-controlled storage device of claim 1, wherein: The battery mounting portion (409) and the temperature control module (250) protrude from the radial circumferential surface and the lower space defined by the bottom surface of the storage module (100); The temperature control module (250) and the battery mounting portion (409) are arranged on the same side, and are arranged on the radial side surface of the storage module (100) and arranged along the axial direction, respectively; or The temperature control module (250) and the battery mounting portion (409) are arranged on adjacent side surfaces, and are arranged on the radial side surface of the storage module, respectively; or The temperature control module and the battery mounting portion (409) are arranged on the refrigeration base (402), and the opening direction of the battery mounting portion (409) is towards the extension direction of the heat dissipation channel defined by the two ventilation windows; or The temperature control module and the battery mounting portion (409) are arranged on the refrigeration base (402), and the opening direction of the battery mounting portion (409) is towards the vertical radial surface of the extension direction of the heat dissipation channel defined by the two ventilation windows; or The battery mounting portion (409) is detachably mounted on the refrigeration base (402), and the refrigeration base (402) is provided with the battery mounting portion (409) with an opening, and the battery mounting portion (409) does not protrude from the radial surface of the temperature control module (250).

5. The temperature-controlled storage device of claim 2, wherein: The temperature control module (250) protrudes from the lower space defined by the radial circumferential surface and the bottom surface of the storage module (100), and the battery mounting portion (409) is retained in the lower space defined by the radial circumferential surface and the bottom surface of the storage module; The opening of the battery mounting portion (409) is arranged towards at least one heat dissipation channel, and the opening of the battery mounting portion (409) and the control panel (4022) are arranged on the same plane.

6. The temperature-controlled storage device of claim 1, wherein: The control panel (4022) protrudes from the lower space defined by the radial circumferential surface and the bottom surface of the storage module (100); The control panel (4022) and the two ventilation windows (4021) are arranged in the same direction of the extension direction of the heat dissipation channel; or The control panel (4022) and the two ventilation windows (4021) are arranged in the perpendicular direction of the extension direction of the heat dissipation channel, and the control panel (4022) is arranged on the radial side surface of the refrigeration base (402); or The control panel (4022) and the two ventilation windows (4021) are arranged in the perpendicular direction of the extension direction of the heat dissipation channel, and the control panel (4022) is arranged on the axial surface of the refrigeration base (402).

7. The temperature-controlled storage device of any one of claims 1 to 5, wherein: The opening of the battery mounting portion (409) is arranged towards the axial direction, and the opening of the battery mounting portion (409) is perpendicular to the heat dissipation channel defined by at least two ventilation windows (4021); or The opening of the battery mounting portion (409) is parallel to the heat dissipation channel defined by at least two ventilation windows (4021).

8. The temperature-controlled storage device of claim 1, wherein: The ventilation window (4021) is two, and the two ventilation windows (4021) are arranged on the opposite two side surfaces of the refrigeration base (402) and are respectively arranged as the air inlet end and the air outlet end. Or The ventilation window (4021) arranged as the air inlet end is two or more, and at least two ventilation windows (4021) are not arranged on the same plane.

9. The temperature-controlled storage device of claim 8, wherein: The refrigeration assembly (450) comprises a compressor (451), a condenser pipe (452) connected with the compressor (451), and an evaporator pipe (454) connected with the condenser pipe (452), and the condenser pipe (452) is provided with a heat dissipation fan (453) on one side.

10. The temperature-controlled storage device of claim 9, wherein: The evaporator pipe (454) and the heat dissipation fan (453) are close to at least one air outlet end.

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