Ice container device and drinking equipment

Abstract

The ice liner device comprises an ice liner shell and a refrigeration assembly, the ice liner shell comprises a shell main body and a mounting table structure, the shell main body is provided with a window communicated with the interior of the shell main body, the mounting table structure is connected to the shell main body and arranged at the window, at least part of the mounting table structure extends into the shell main body, and the refrigeration assembly is arranged on the mounting table structure. The part, extending into the shell body, of the mounting table structure is matched with the shell body to define a container outlet cavity, the mounting table structure is provided with a mounting table top located in the shell body, an avoiding opening is formed in the mounting table top, the refrigeration assembly comprises a cold conduction piece, the cold conduction piece comprises a first cold conduction part and a second cold conduction part which are connected, the first cold conduction part is connected to the mounting table top, and the second cold conduction part is connected to the shell body. The second cold conduction part penetrates through the receding opening so as to stretch into the container cavity and is used for exchanging heat with liquid in the container cavity. According to the technical scheme, the heat exchange efficiency of the liquid and the cold conduction piece can be effectively improved, and then the refrigeration water efficiency of the ice container device is improved.

Description

Technical Field

[0001] The utility model relates to the technical field of drinking equipment, in particular to an ice bladder device and drinking equipment using the ice bladder device. Background Art

[0002] In the related art, drinking equipment has the function of cooling water to meet the needs of some users for drinking cold water. However, the heat exchange efficiency of the ice bladder device of most drinking equipment is low, resulting in poor cooling effect of the ice bladder device on the liquid. Utility Model Content

[0003] The embodiments of the utility model provide an ice bladder device and a drinking device, which can effectively improve the heat exchange efficiency between liquid and a cooling member, thereby improving the cooling water efficiency of the ice bladder device.

[0004] In a first aspect, an embodiment of the present utility model provides an ice bladder device, the ice bladder device comprising:

[0005] An ice bladder shell, comprising a shell body and a mounting platform structure, wherein the shell body is provided with a window communicating with the interior thereof, the mounting platform structure is connected to the shell body and is provided at the window, at least a portion of the mounting platform structure extends into the interior of the shell body, and the portion of the mounting platform structure extending into the interior of the shell body cooperates with the shell body to enclose a bladder cavity, the mounting platform structure has a mounting platform surface located inside the shell body, and the mounting platform surface is provided with an escape opening; and

[0006] The refrigeration assembly includes a cooling member, wherein the cooling member includes a first cooling portion and a second cooling portion connected to each other, wherein the first cooling portion is connected to the mounting table, and the second cooling portion is passed through the avoidance opening to extend into the gallbladder cavity for exchanging heat with the liquid in the gallbladder cavity.

[0007] In some embodiments, in the direction in which the second cooling conduction portion extends into the gallbladder cavity, the length of a portion of the second cooling conduction portion extending into the gallbladder cavity is greater than or equal to half of the length of the gallbladder cavity.

[0008] In some of the embodiments, in the direction in which the second cooling conducting portion extends into the gallbladder cavity, there is a gap between the end of the second cooling conducting portion and the cavity wall surface of the gallbladder cavity.

[0009] In some of the embodiments, in the direction in which the mounting platform structure extends into the interior of the shell body, the ratio of the depth of the portion of the mounting platform structure extending into the interior of the shell body to the length of the interior of the shell body is less than or equal to 0.2.

[0010] In some embodiments, the refrigeration assembly further includes a refrigeration element, the refrigeration element includes a cold end and a hot end disposed opposite to each other, the cold end is thermally connected to the first cooling portion, the ice gall device further includes a heat dissipation assembly, the heat dissipation assembly includes a heat exchange element, the heat exchange element is thermally connected to the hot end, and the heat exchange element is provided with a third connection portion;

[0011] Among them, the mounting table is provided with a first connecting part, and the first cooling part is provided with a second connecting part; the first connecting part, the second connecting part and the third connecting part are connected to fix the mounting table structure, the first cooling part and the heat exchange component.

[0012] In some embodiments, the first connection portion, the second connection portion, and the third connection portion are all connection holes;

[0013] The ice bladder device further includes a fastener, which is sequentially passed through the third connecting portion, the second connecting portion, and the first connecting portion.

[0014] In some embodiments, the mounting platform structure also has an inner surface that is arranged opposite to the mounting platform surface, and a connecting boss is protruding from the inner surface. The first connecting portion is a threaded hole opened on the connecting boss, and the threaded hole is not connected to the bile cavity.

[0015] In some embodiments, it also includes:

[0016] A sealing ring surrounds the outer side of the second cooling conduction portion and is disposed between the mounting table and the first cooling conduction portion to seal a gap between the mounting table and the first cooling conduction portion.

[0017] In some embodiments, the refrigeration assembly further comprises:

[0018] a refrigeration component, the refrigeration component being heat-conductingly connected to the first cooling portion; and

[0019] A heat-insulating component is wrapped around the outer side surface of the refrigerating component and abuts against the side surface of the mounting platform structure.

[0020] In some embodiments, the mounting platform structure and the shell body are an integral structure or a separate structure.

[0021] In some embodiments, the second cooling portion is located in the upper half of the gallbladder cavity along its height direction.

[0022] In some embodiments, the second cooling portion includes:

[0023] A plurality of heat exchange fins are connected to the first cooling portion at intervals and are arranged through the avoidance opening to extend into the gallbladder cavity for exchanging heat with the liquid in the gallbladder cavity.

[0024] In some of the embodiments, each of the heat exchange fins is vertically arranged along the height direction of the gallbladder cavity.

[0025] In some embodiments, the ice bladder shell further comprises:

[0026] A partition, the partition is arranged in the bile cavity to divide the bile cavity into a water inlet cavity and a refrigeration cavity separated in the height direction of the bile cavity, and a liquid hole is provided on the partition, and the liquid hole is communicated with both the water inlet cavity and the refrigeration cavity;

[0027] The second cooling portion extends into the refrigeration cavity, and the liquid-passing hole is arranged opposite to the second cooling portion along the height direction of the gallbladder cavity.

[0028] In some embodiments, the shell body comprises:

[0029] a base shell, the base shell forming a first half cavity; and

[0030] A cover body, the cover body is connected to the mounting platform structure and cooperates with the mounting platform structure to form a second half cavity, and is also provided with the window. The cover body is covered on the base shell so that the first half cavity and the second half cavity cooperate to form the gallbladder cavity. The cover body and the base shell are separate structures;

[0031] Among them, the cavity wall of the first half chamber is provided with a first sub-partition, and the cavity wall of the second half chamber is provided with a second sub-partition, the first sub-partition and the second sub-partition are spliced ​​to form the partition, and the liquid-passing hole is formed by the first sub-partition and the second sub-partition, or the liquid-passing hole is opened in the first sub-partition, or the liquid-passing hole is opened in the second sub-partition, or the first sub-partition and the second sub-partition are both provided with the liquid-passing hole.

[0032] In some embodiments, the cavity wall of the first half cavity is provided with a first reinforcing rib; and / or,

[0033] The cavity wall surface of the second half cavity is provided with second reinforcing ribs.

[0034] In some embodiments, the shell body has a water inlet pipe and a water outlet pipe, the water inlet pipe is connected to the water inlet cavity, and the water outlet pipe is connected to the refrigeration cavity;

[0035] Wherein, the water inlet pipe is arranged at the upper half of the shell body along the height direction thereof, and the water outlet pipe is arranged at the lower half of the shell body along the height direction thereof.

[0036] In some embodiments, it also includes:

[0037] The heat-insulating shell has a heat-insulating cavity formed therein, and the ice bladder shell and the refrigeration assembly are both accommodated in the heat-insulating cavity.

[0038] In some embodiments, the refrigeration assembly further includes a refrigeration element, the refrigeration element includes a cold end and a hot end disposed opposite to each other, and the cold end is thermally connected to the first cooling portion;

[0039] The ice bladder device also includes a heat dissipation component, which includes a heat exchanger, a pipeline component and a heat dissipation structure. The heat exchanger is thermally connected to the hot end and communicates with the heat dissipation structure through the pipeline component, so that the cooling medium flowing through the pipeline component cools the heat exchanger;

[0040] Wherein, the refrigeration component and the heat exchange component are both accommodated in the insulation cavity, the heat dissipation structure is located outside the insulation cavity, the insulation shell is provided with a connecting port connected to the insulation cavity, the connecting port is for the pipeline assembly to pass through, so that the pipeline assembly connects the heat exchange component in the insulation cavity and the heat dissipation structure outside the insulation cavity, or the heat exchange component has a joint, the connecting port is for the joint to pass through and communicate with the pipeline assembly outside the insulation cavity.

[0041] In some embodiments, a wiring groove is formed on the wall of the heat preservation cavity;

[0042] The ice gall device also includes a temperature sensing component, which includes a wire body and a temperature sensing probe connected to the wire body. At least part of the wire body is arranged in the wiring groove, and the temperature sensing probe is used to detect the temperature of the liquid in the gall cavity.

[0043] In some embodiments, a temperature sensing protrusion is protruded on the inner wall of the gallbladder cavity, and the interior of the temperature sensing protrusion is not connected to the gallbladder cavity;

[0044] Wherein, the temperature sensing probe extends into the interior of the temperature sensing protrusion.

[0045] In some embodiments, the temperature-sensing protrusion and the temperature-sensing element each include a plurality of temperature-sensing protrusions, and the plurality of temperature-sensing protrusions are arranged at intervals along the height direction of the gallbladder cavity;

[0046] Wherein, a temperature sensing probe of the temperature sensing component correspondingly extends into a detection hole of the temperature sensing protrusion.

[0047] In some embodiments, the ice bladder device further includes a liquid cooling heat dissipation component, the refrigeration component further includes a refrigeration element, the refrigeration element includes a cold end and a hot end disposed opposite to each other, and the cold end is thermally connected to the first cooling portion;

[0048] Wherein, the liquid cooling heat dissipation component is thermally connected to the hot end to dissipate heat from the hot end.

[0049] In some embodiments, the liquid cooling heat dissipation assembly includes a heat exchanger, a pipeline structure, and a heat dissipation structure;

[0050] The heat exchange element is thermally connected to the hot end and communicates with the heat dissipation structure through the pipeline structure, so that the cooling medium flowing through the pipeline structure can cool the heat exchange element.

[0051] In some embodiments, the interior of the heat exchange element, the interior of the heat dissipation structure, and the pipeline structure are connected to form a closed-loop fluid flow path, and the fluid flow path is configured to allow the cooling medium to circulate.

[0052] In some embodiments, the heat exchange element has two joints connected to the interior thereof, the two joints include an inlet joint and an outlet joint, and the heat dissipation structure has an inlet and an outlet connected to the interior thereof;

[0053] The pipeline structure comprises:

[0054] a liquid inlet pipe, one end of which is connected to the inlet, and the other end of which is connected to the outlet joint; and

[0055] a liquid outlet pipe, one end of which is connected to the outlet and the other end of which is connected to the inlet joint;

[0056] Wherein, the liquid inlet pipe and / or the liquid outlet pipe are / is configured to be deformable.

[0057] In some embodiments, the heat dissipation structure includes a liquid cooling element and a heat dissipation fan. The liquid cooling element is connected to the heat exchange element through the pipeline structure. The heat dissipation fan is installed on the liquid cooling element to dissipate heat from the liquid cooling element.

[0058] In a second aspect, an embodiment of the utility model provides a drinking device, the drinking device comprising:

[0059] An ice bladder device as described above; and

[0060] The casing is provided with a water outlet, the ice container device is accommodated in the casing, and the container cavity is communicated with the water outlet.

[0061] Based on the ice flask device and drinking equipment of the embodiment of the utility model, at least part of the mounting platform structure extends into the interior of the shell body, and the first cooling portion is connected to the mounting platform located inside the shell body, so that the ice flask device of this embodiment has the following technical effects on the basis of having functions such as refrigeration:

[0062] Since the mounting surface is located inside the shell body, and on the basis of the first cooling part being connected to the mounting surface, compared with the form in which the mounting surface is located outside the shell body, the second cooling part connected to the first cooling part in this embodiment can extend into the gallbladder cavity more inwardly, so that the contact area between the liquid in the gallbladder cavity and the second cooling part can be increased. In this way, the efficiency of heat exchange between the second cooling part and the liquid can be effectively improved, and the liquid entering the gallbladder cavity can also exchange heat with the second cooling part as much as possible, so that the temperature uniformity of the liquid in the gallbladder cavity can be improved.

[0063] Furthermore, compared to the form of excessively lengthening the length of the second cooling conduction portion in order to make it extend further inward into the bile cavity, the present embodiment sets the position of the mounting table surface of the mounting table structure so that the second cooling conduction portion can extend further inward into the bile cavity without excessively lengthening its own length. In this way, the manufacturing materials used for the second cooling conduction portion can be reduced, the production cost of the cooling component can be reduced, and the overall production cost of the ice bile device can be effectively reduced. BRIEF DESCRIPTION OF THE DRAWINGS

[0064] In order to more clearly illustrate the embodiments of the utility model or the technical solutions in the prior art, the drawings required for use in the embodiments or the description of the prior art will be briefly introduced below. Obviously, the drawings described below are only some embodiments of the utility model. For ordinary technicians in this field, other drawings can be obtained based on the structures shown in these drawings without paying creative work.

[0065] Figure 1 This is a structural schematic diagram of an embodiment of the ice bladder device of the utility model;

[0066] Figure 2 for Figure 1 The exploded structural diagram of the ice bladder device shown;

[0067] Figure 3 For along Figure 1 Sectional view of the AA section;

[0068] Figure 4 For along Figure 1 Sectional view of the middle BB section;

[0069] Figure 5 for Figure 4A partial enlarged view of point C in the middle;

[0070] Figure 6 for Figure 2 The schematic diagram of the exploded structure of the ice gall shell from one perspective is shown;

[0071] Figure 7 for Figure 2 A schematic diagram of the exploded structure of the ice gall shell from another perspective is shown;

[0072] Figure 8 for Figure 2 The structural schematic diagram of the heat exchanger shown;

[0073] Fig. 9 for Figure 2 The structural schematic diagram of the cooling element is shown.

[0074] Description of Figure Numbers:

[0075] 100, ice gall device; 10, ice gall shell; 10a, gall cavity; 10b, water inlet cavity; 10c, refrigeration cavity; 11, shell body; 11a, window; 111, water inlet pipe; 113, water outlet pipe; 115, base shell; 115a, first half cavity; 1151, first reinforcing rib; 117, cover; 117a, second half cavity; 1171, second reinforcing rib; 13, mounting platform structure; 131, mounting platform; 131a, avoidance; 1311, first connecting part; 133, inner surface; 1331, connecting convex column; 15, partition; 15a, liquid hole; 151, first sub-partition; 153, second sub-partition; 17, temperature sensing convex column; 171, detection hole; 30 , refrigeration component; 31, cooling element; 311, first cooling part; 3111, second connecting part; 313, second cooling part; 3131, heat exchange fin; 33, refrigeration element; 331, cold end; 333, hot end; 35, insulation element; 50, heat dissipation component; 51, liquid cooling heat dissipation component; 53, heat exchange element; 531, third connecting part; 532, joint; 533, inlet joint; 535, outlet joint; 55, pipeline structure; 551, liquid inlet pipeline; 553, liquid outlet pipeline; 57, heat dissipation structure; 571, inlet; 573, outlet; 575, liquid cooling element; 70, insulation shell; 71, insulation cavity; 73, connecting port; 75, wiring groove; 90, sealing ring.

[0076] The realization of the purpose, functional features and advantages of the utility model will be further explained in conjunction with embodiments and with reference to the accompanying drawings. DETAILED DESCRIPTION

[0077] In order to make the purpose, technical solutions and advantages of the present invention more clear, the following part will further describe the embodiments of the present invention in detail in conjunction with the accompanying drawings.

[0078] When the following description refers to the drawings, unless otherwise indicated, the same numbers in different drawings represent the same or similar elements. The embodiments described in the following exemplary embodiments do not represent all embodiments consistent with the present utility model. Instead, they are only examples of devices and methods consistent with some aspects of the present utility model as detailed in the attached claims.

[0079] In the description of the present utility model, it should be understood that the terms "first", "second", etc. are only used for descriptive purposes and cannot be understood as indicating or implying relative importance. For those of ordinary skill in the art, the specific meanings of the above terms in the present utility model can be understood according to specific circumstances. In addition, in the description of the present utility model, unless otherwise specified, "plurality" refers to two or more. "And / or" describes the association relationship of associated objects, indicating that three relationships may exist. For example, A and / or B can represent: A exists alone, A and B exist at the same time, and B exists alone. The character " / " generally indicates that the previously associated objects are in an "or" relationship.

[0080] Unless otherwise defined, all technical and scientific terms used herein have the same meaning as those commonly understood by those skilled in the art of the present invention. The terms used in this specification are only for the purpose of describing specific embodiments and are not intended to limit the present invention. The term "and / or" used herein includes any and all combinations of one or more related listed items.

[0081] See also Figure 1 The utility model proposes a drinking device. In the embodiment of the utility model, the drinking device includes but is not limited to a water dispenser or a water purifier. The water dispenser can be a tabletop water dispenser, a vertical water dispenser, an embedded water dispenser, a pipeline dispenser, etc. with functions such as cooling water, and the water purifier can include a filtering device, which is used to filter tap water that cannot be directly drunk, so that the tap water becomes direct drinking water, so as to improve the water purification effect of the water purifier. The embodiment of the utility model does not limit the specific form of the drinking device.

[0082] Please refer to Figure 1 to Figure 2, the drinking device includes a housing (not shown in the figure) and an ice gall device 100. The housing is provided with a water outlet, the ice gall device 100 is accommodated inside the housing, and a gall cavity 10a is formed inside the housing, and the gall cavity 10a is connected to the water outlet. It is understandable that the water flowing through the gall cavity 10a can be made into cold water by the ice gall device 100, thereby meeting the user's demand for drinking cold water. It should be noted that the room temperature water referred to here is generally defined as a temperature between 20 degrees Celsius and 30 degrees Celsius, while cold water is water with a lower temperature than room temperature water, for example, the temperature of cold water is 2 degrees Celsius to 10 degrees Celsius, and is lower than the normal temperature water between 20 degrees Celsius and 30 degrees Celsius. It should be noted here that the cooling object of the gall cavity 10a of the drinking device in this embodiment can be a beverage, such as coffee or sparkling water, in addition to drinking water. This embodiment is not limited to this. The following content still takes the cooling object of the gall cavity 10a as drinking water to introduce the structure of the ice gall device 100.

[0083] Please refer to Figures 2 to 4 In some embodiments, the ice bladder device 100 includes an ice bladder shell 10 and a refrigeration assembly 30 .

[0084] The ice bladder shell 10 includes a shell body 11 and a mounting platform structure 13. The shell body 11 can be a square structure, and the shell body 11, as the main shell component of the ice bladder device 100, can protect the structure arranged inside the main shell. The shell body 11 can be made of stainless steel, which has the advantages of being more affordable, having good corrosion resistance, strong antibacterial and anti-corrosion ability, and being easy to clean. Of course, the shell body 11 can also be made of ceramic material, which is not limited in this embodiment. The shell body 11 is provided with a window 11a connected to its interior, and the window 11a can be square in shape. The window 11a runs through the inner shell wall and the outer shell wall of the shell body 11, and is used for the refrigeration assembly 30 to pass through.

[0085] The mounting platform structure 13 is used for mounting the refrigeration assembly 30. The mounting platform structure 13 may be in a square shape, and may be made of materials such as stainless steel or plastic. For example, the material of the mounting platform structure 13 is the same as that of the shell body 11, both of which are made of stainless steel. Of course, the material of the mounting platform structure 13 may also be different from that of the shell body 11, for example, the material of the mounting platform structure 13 is plastic, while the material of the shell body 11 is stainless steel. This embodiment does not limit this.

[0086] Specifically, the mounting platform structure 13 is connected to the shell body 11 and is disposed at the window 11a. Based on this, the mounting platform structure 13 and the shell body 11 can be an integral structure, so that the shell body 11 and the mounting platform structure 13 can be manufactured by an integral molding method. For example, when the shell body 11 and the mounting platform structure 13 are both made of stainless steel, they can be molded by a process such as stretching, thereby making the connection strength between the shell body 11 and the mounting platform structure 13 better and reducing the assembly steps of the shell body 11 and the mounting platform structure 13.

[0087] Optionally, the mounting platform structure 13 and the shell body 11 can also be split structures. In this way, the mounting platform structure 13 and the shell body 11 can be separately molded and then assembled, thereby reducing the process requirements for manufacturing the ice bladder shell 10 and facilitating manufacturing in a workshop.

[0088] See also Figure 5 , at least part of the mounting platform structure 13 extends into the shell body 11. It can be understood that the mounting platform structure 13, on the basis of being arranged at the window 11a, can be entirely extended into the shell body 11, or a part of it can be extended into the shell body 11, and the remaining part is placed outside the shell body 11. The part of the mounting platform structure 13 extending into the shell body 11 cooperates with the shell body 11 to enclose the gallbladder cavity 10a. The mounting platform structure 13 has a mounting platform surface 131 located inside the shell body 11, wherein the mounting platform surface 131 is the surface of the part of the mounting platform structure 13 located inside the shell body 11 facing the window 11a. The mounting platform surface 131 is provided with an avoidance opening 131a.

[0089] The refrigeration assembly 30 is used to cool the liquid to cool the liquid. The refrigeration assembly 30 includes a cooling member 31, and the material of the cooling member 31 can be a material with good thermal conductivity such as stainless steel or copper. The cooling member 31 includes a first cooling portion 311 and a second cooling portion 313 connected to each other, wherein the first cooling portion 311 is connected to the mounting table 131, and the second cooling portion 313 is penetrated through the avoidance port 131a to extend into the gallbladder cavity 10a, and is used to exchange heat with the liquid in the gallbladder cavity 10a. It can be understood that the first cooling portion 311 can transfer the cold generated by the refrigeration assembly 30 to the second cooling portion 313, so that when the liquid such as drinking water enters the gallbladder cavity 10a and contacts the second cooling portion 313, the heat of the liquid can be heat exchanged with the cold transferred to the second cooling portion 313, so that the liquid can be cooled to make the cold water required by the user, and then flow from the gallbladder cavity 10a to the water outlet of the casing.

[0090] In summary, by at least partially extending the mounting platform structure 13 into the shell body 11, and the first cooling portion 311 being connected to the mounting platform 131 located inside the shell body 11, the ice bladder device 100 of this embodiment has the following technical effects in addition to having functions such as refrigeration:

[0091] Since the mounting surface 131 is located inside the shell body 11, and on the basis of the first cooling portion 311 being connected to the mounting surface 131, compared with the form in which the mounting surface 131 is located outside the shell body 11, the second cooling portion 313 connected to the first cooling portion 311 in this embodiment can extend into the gallbladder cavity 10a more inwardly, so that the contact area between the liquid in the gallbladder cavity 10a and the second cooling portion 313 can be increased. In this way, the efficiency of heat exchange between the second cooling portion 313 and the liquid can be effectively improved, and the liquid entering the gallbladder cavity 10a can also exchange heat with the second cooling portion 313 as much as possible, so that the temperature uniformity of the liquid in the gallbladder cavity 10a can be improved.

[0092] Furthermore, compared to the form of excessively lengthening the length of the second cooling portion 313 in order to allow the second cooling portion 313 to extend further into the gallbladder cavity 10a, the present embodiment sets the position of the mounting table surface 131 of the mounting table structure 13 so that the second cooling portion 313 can extend further into the gallbladder cavity 10a without excessively lengthening its own length. In this way, the manufacturing materials of the second cooling portion 313 can be reduced, the production cost of the cooling component 31 can be reduced, and the overall production cost of the ice gallbladder device 100 can be effectively reduced.

[0093] Please refer to Figure 3 to Figure 4 In some embodiments, in the direction in which the second cooling portion 313 extends into the gallbladder cavity 10a, the length of the portion of the second cooling portion 313 extending into the gallbladder cavity 10a is greater than or equal to half the length of the gallbladder cavity 10a. It can be understood that in this embodiment, on the basis that the first cooling portion 311 is connected to the mounting table 131 located inside the shell body 11, the position of the second cooling portion 313 extending into the gallbladder cavity 10a can be closer to the inside. Specifically, the length of the portion of the second cooling portion 313 extending into the gallbladder cavity 10a can be greater than or equal to half the length of the gallbladder cavity 10a. Therefore, compared to the form in which the length of the portion of the second cooling portion 313 extending into the gallbladder cavity 10a is less than half the length of the gallbladder cavity 10a, when the liquid flows into the gallbladder cavity 10a, the contact area between the liquid and the second cooling portion 313 of this embodiment will increase, which can effectively improve the efficiency of heat exchange between the second cooling portion 313 and the liquid.

[0094] Of course, in other embodiments, in the direction in which the second cooling portion 313 extends into the gallbladder cavity 10a, the length of the portion of the second cooling portion 313 extending into the gallbladder cavity 10a is less than half the length of the gallbladder cavity 10a, and this embodiment does not limit this.

[0095] Please continue to refer to Figure 3 to Figure 4 , further, in the direction in which the second cooling portion 313 extends into the gallbladder cavity 10a, there is a gap between the end of the second cooling portion 313 and the cavity wall surface of the gallbladder cavity 10a. In this way, on the basis of being able to increase the contact area between the second cooling portion 313 and the liquid, it is possible to avoid the second cooling portion 313 from touching the cavity wall surface of the gallbladder cavity 10a, and, compared with the form in which the end of the second cooling portion 313 abuts against the cavity wall surface of the gallbladder cavity 10a, the end of the second cooling portion 313 of this embodiment does not abut against the cavity wall surface of the gallbladder cavity 10a, so that the length of the second cooling portion 313 is shorter, thereby not only improving the heat exchange efficiency between the second cooling portion 313 and the liquid, but also appropriately reducing the manufacturing materials of the second cooling portion 313, reducing the production cost of the cooling member 31, and thus effectively reducing the overall production cost of the ice gallbladder device 100. Of course, in other embodiments, in the direction in which the second cooling portion 313 extends into the gallbladder cavity 10a, the end of the second cooling portion 313 can abut against the cavity wall surface of the gallbladder cavity 10a, and this embodiment does not limit this.

[0096] See also Figure 4 In some embodiments, in the direction in which the mounting platform structure 13 extends into the shell body 11, the ratio of the depth of the portion of the mounting platform structure 13 extending into the shell body 11 to the length of the shell body 11 is less than or equal to 0.2. In this way, the mounting platform structure 13 can achieve the installation of the cooling member 31 while avoiding reducing the efficiency of heat exchange between the second cooling portion 313 and the liquid. It is understandable that if the ratio of the depth of the portion of the mounting platform structure 13 extending into the shell body 11 to the length of the shell body 11 is greater than 0.2, the depth of the portion of the mounting platform structure 13 extending into the shell body 11 is too deep, resulting in the mounting platform structure 13 blocking part of the liquid, making it impossible for the part of the liquid to come into good contact with the second cooling portion 313, thereby reducing the contact area between the liquid and the second cooling portion 313.

[0097] Exemplarily, the ratio of the depth of the portion of the mounting platform structure 13 extending into the interior of the shell body 11 to the length of the interior of the shell body 11 can be specifically 0.05, 0.1, 0.15 or 0.2, etc.; and, in other embodiments, the ratio of the depth of the portion of the mounting platform structure 13 extending into the interior of the shell body 11 to the length of the interior of the shell body 11 can also be greater than 0.2, for example, the ratio is specifically 0.3, and this embodiment does not impose any restrictions on this.

[0098] See also Figure 4In some embodiments, the second cooling portion 313 is located in the upper half of the gallbladder cavity 10a along its height direction. It is understandable that liquids with different temperature values ​​have different densities, and liquids with higher temperature values ​​have lower density than liquids with lower temperature values. Therefore, the flow of liquids will generate natural convection based on the density difference, that is, liquids with higher density will flow to liquids with lower density. In this way, when the second cooling part 313 is located in the upper half of the gallbladder cavity 10a along its height direction, the temperature value of the liquid that is cooled after contacting and exchanging heat with the second cooling part 313 will be lower than the temperature value of the liquid located in the lower half of the gallbladder cavity 10a along its height direction. Therefore, the liquid with a lower temperature value will flow to the area in the lower half of the gallbladder cavity 10a along its height direction. Therefore, compared with the form in which the second cooling part 313 is located in the lower half of the gallbladder cavity 10a along its height direction, the circulation flow space of the liquid that is cooled after exchanging heat with the second cooling part 313 in this embodiment will be larger, thereby avoiding the weakening of the natural flow of the liquid, thereby making the temperature uniformity of the liquid in the gallbladder cavity 10a better.

[0099] Of course, in other embodiments, the second cooling portion 313 may be located in the middle or lower half of the gallbladder cavity 10a along its height direction, which is not limited in this embodiment.

[0100] See also Figure 3 Further, the second cooling part 313 includes a plurality of heat exchange fins 3131, each of which may be in the shape of a long strip. The plurality of heat exchange fins 3131 are connected to the first cooling part 311 at intervals, and are arranged in the avoidance opening 131a to extend into the gallbladder cavity 10a, for heat exchange with the liquid in the gallbladder cavity 10a. In this way, the gap between two adjacent heat exchange fins 3131 can allow the liquid to flow, thereby increasing the contact area between the liquid and the second cooling part 313, and further improving the heat exchange efficiency between the liquid and the second cooling part 313.

[0101] Optionally, the second cooling part 313 may also be a block-shaped heat exchange body, and the second cooling part 313 is provided with a plurality of heat exchange holes, and the heat exchange holes are used for liquid to flow. In this way, by providing a plurality of heat exchange holes, the contact area between the liquid and the second cooling part 313 can be increased, thereby improving the heat exchange efficiency between the liquid and the second cooling part 313. This embodiment does not specifically limit the specific structural form of the second cooling part 313.

[0102] On the basis that the second cooling part 313 includes a plurality of heat exchange fins 3131, in order to reduce the resistance of the second cooling part 313 to the liquid in the gallbladder cavity 10a during natural convection, in some embodiments, each heat exchange fin 3131 is vertically arranged along the height direction of the gallbladder cavity 10a. In this way, compared with the form in which each heat exchange fin 3131 is arranged horizontally, not only can the blocking area of ​​the heat exchange fin 3131 to the natural downward flow of the liquid be reduced, so that the resistance of the liquid during natural convection can be reduced, but also the liquid can flow through the gap between two adjacent heat exchange fins 3131 arranged vertically, so that the contact area between the liquid and the second cooling part 313 is larger, thereby improving the heat exchange efficiency between the liquid and the second cooling part 313.

[0103] Of course, in other embodiments, each heat exchange fin 3131 may also be arranged horizontally or obliquely, and this embodiment does not limit this.

[0104] Please refer to Figures 2 to 5 In some embodiments, the refrigeration assembly 30 further includes a refrigeration element 33 and a heat preservation element 35. The refrigeration element 33 is thermally connected to the first heat conduction part, wherein the refrigeration element 33 may be a refrigeration chip, for example, a TEC (Thermoelectric Cooler) refrigeration chip, and includes a cold end 331 and a hot end 333 (such as Figure 2 ), the cold end 331 is thermally connected to the first heat conducting part. It can be understood that after the TEC refrigeration sheet is connected to the external power supply, the cold end 331 will absorb heat from the first heat conducting part, while the hot end 333 will release heat to the outside. Compared with the refrigeration element 33 in the form of a compressor, the TEC refrigeration sheet not only does not generate excessive noise during the actual working process, so that the drinking device can be used in indoor environments with high noise requirements, but also has a small size, so that the ice bladder device 100 is small in size, and the drinking device can be miniaturized to be used in a relatively compact environment.

[0105] The heat preservation part 35 is wrapped around the outer side of the refrigeration part 33. It can be understood that there is a large temperature difference between the cold end 331 and the hot end 333 of the refrigeration plate, so that condensation will occur at the cold end 331, and the water droplets generated by the condensation will have the risk of dripping onto the wires of the refrigeration part 33, which poses a risk of electrical hazards. Based on this, by wrapping the heat preservation part 35 around the outer side of the refrigeration part 33, the energy transfer between the cold end 331 and the hot end 333 can be isolated, so that the probability of condensation of the refrigeration plate can be effectively reduced, thereby greatly reducing the risk of electrical hazards. On the basis of the heat preservation part 35 abutting against the side surface of the mounting platform structure 13, the heat preservation part 35 and the refrigeration part 33 wrapped by the heat preservation part 35 can be arranged inside the ice bladder shell 10, and neither of them protrudes from the window 11a of the ice bladder shell 10. Compared with the form in which the heat preservation part 35 and the refrigeration part 33 are located outside the ice bladder shell 10, the overall appearance of the ice bladder device 100 of this embodiment will be more regular and beautiful.

[0106] Please refer to Figures 4 to 5 In some embodiments, the ice gall device 100 further includes a sealing ring 90, which may be arranged in an annular shape. The sealing ring 90 surrounds the outer side of the second cooling portion 313 and is arranged between the mounting table 131 and the first cooling portion 311 to seal the gap between the mounting table 131 and the first cooling portion 311. In this way, the sealing ring 90 can reduce the possibility of the liquid in the gall cavity 10a flowing out of the gap between the mounting table 131 and the first cooling portion 311, thereby preventing the liquid from flowing out and flowing to the cooling plate as much as possible, and providing a certain degree of electrical safety protection for the cooling plate.

[0107] See also Figure 4 In some embodiments, the ice bladder device 100 further includes a heat-insulating shell 70. The heat-insulating shell 70 may be a rectangular parallelepiped structure, and the heat-insulating shell 70 is at least one of an organic heat-insulating material, an inorganic heat-insulating material, and a metal heat-insulating material.

[0108] An insulation cavity 71 is formed in the insulation shell 70, and the ice bladder shell 10 and the refrigeration assembly 30 are both accommodated in the insulation cavity 71. In this way, the insulation shell 70 can insulate the ice bladder shell 10 and the refrigeration assembly 30, reduce the influence of the ice bladder shell 10 and the refrigeration assembly 30 on the temperature of the liquid in the bladder cavity 10a due to heat exchange with the external environment, so that the liquid can be kept at a lower temperature for a longer time, so that the temperature stability of the liquid is better, and then the operation time of the refrigeration component 33 of the refrigeration assembly 30 can be reduced, thereby effectively reducing the energy consumption of the refrigeration component 33.

[0109] See also Figure 2In some embodiments, the ice gall device 100 further includes a heat dissipation component 50, which is thermally connected to the hot end 333 to dissipate heat from the hot end 333. Exemplarily, the heat dissipation component 50 may be a liquid cooling heat dissipation component 51, which is thermally connected to the hot end 333 to dissipate heat from the hot end 333. In this way, not only the heat dissipation efficiency of the hot end 333 can be improved, but also the noise generated during its own operation can be reduced. Of course, the heat dissipation component 50 may also be a heat pipe heat dissipation component 50 or an air cooling heat dissipation component 50, etc., which is not limited in this example.

[0110] See also Figure 2 Furthermore, the heat dissipation component 50 includes a heat exchanger 53, a pipeline structure 55 and a heat dissipation structure 57. The heat exchanger 53 is thermally connected to the hot end 333 and communicates with the heat dissipation structure 57 through the pipeline structure 55, so that the cooling medium flowing through the pipeline structure 55 can cool down the heat exchanger 53. Exemplarily, when the heat dissipation component 50 is in the form of a liquid-cooled heat dissipation component 51, the cooling medium can be a cooling liquid; and when the heat dissipation component 50 is a heat pipe heat dissipation component 50, the cooling medium can be a phase change material such as a refrigerant. The heat exchanger 53 can be a metal liquid cold plate, so that the cooling medium can flow through the flow channel in the metal liquid cold plate to cool down the heat exchanger 53. The heat dissipation structure 57 can dissipate the heat of the heat exchanger 53 taken away by the cooling medium.

[0111] Please refer to Figure 1 to Figure 2 , wherein the refrigeration element 33 and the heat exchange element 53 are both accommodated in the insulation cavity 71, the heat dissipation structure 57 is located outside the insulation cavity 71, and the insulation shell 70 is provided with a connecting port 73 connected to the insulation cavity 71, and the connecting port 73 is for the pipeline structure 55 to pass through, so that the pipeline structure 55 connects the heat exchange element 53 in the insulation cavity 71 and the heat dissipation structure 57 outside the insulation cavity 71, or, the heat exchange element 53 has a joint 532, and the connecting port 73 is for the joint 532 to pass through and communicate with the pipeline structure 55 outside the insulation cavity 71.

[0112] Based on this, the heat preservation shell 70 can not only insulate the ice bladder shell 10 and the refrigeration assembly 30, but also insulate the heat exchanger 53. In this way, when the refrigeration assembly 33 is in a stopped state, even if the cold water in the bladder cavity 10a is transferred to the heat exchanger 53 through the cold conduction member 31 and the refrigeration member 33 in sequence, the heat preservation shell 70 can reduce the heat exchange efficiency between the heat exchanger 53 and the external environment, so that the liquid can be kept at a lower temperature for a longer time, so that the temperature stability of the liquid is better, and then the operation time of the refrigeration member 33 of the refrigeration assembly 30 can be further reduced, thereby effectively reducing the energy consumption of the refrigeration member 33.

[0113] Furthermore, since the refrigeration component 33, the heat preservation component 35 and the heat exchange component 53 are all arranged inside the ice bladder shell 10, the cavity wall surface of the insulation cavity 71 does not need to be designed with an avoidance groove for avoiding the refrigeration component 33, the heat preservation component 35 and the heat exchange component 53. In this way, the cavity wall surface of the insulation cavity 71 is more regular and beautiful, and it is convenient to manufacture the insulation shell 70.

[0114] Please refer to Figure 1 to Figure 2 In some embodiments, the liquid cooling heat dissipation component 51 includes a heat exchanger 53, a pipeline structure 55 and a heat dissipation structure 57. The heat exchanger 53 is thermally connected to the hot end 333 and communicates with the heat dissipation structure 57 through the pipeline structure 55, so that the cooling medium flowing through the pipeline structure 55 cools the heat exchanger 53. In this way, compared with the heat dissipation component 50 being a heat pipe heat dissipation component 50 and the pipeline structure 55 being a heat pipe pipeline, the pipeline structure 55 is smaller in size, which can reduce the occupancy rate of the ice tank device 100, thereby making it easier to miniaturize the drinking device.

[0115] Furthermore, the interior of the heat exchanger 53, the interior of the heat dissipation structure 57 and the pipe structure 55 are connected to form a closed-loop fluid path, and the fluid path is configured to allow the cooling medium to circulate. In this way, in actual use, the ice bladder device 100 does not need to introduce additional new cooling medium to achieve the heat dissipation function, which is convenient for long-term use by users, and the cooling medium can circulate in the fluid path and be reused, thereby reducing the cost of the liquid cooling heat dissipation component 51 during the heat dissipation operation.

[0116] Furthermore, the heat exchange element 53 has two joints 532 communicating with the interior thereof, the two joints 532 include an inlet joint 533 and an outlet joint 535, and the heat dissipation structure 57 has an inlet 571 and an outlet 573 communicating with the interior thereof;

[0117] The pipeline structure 55 includes a liquid inlet pipeline 551 and a liquid outlet pipeline 553. One end of the liquid inlet pipeline 551 is connected to the inlet 571, and the other end is connected to the outlet joint 535. One end of the liquid outlet pipeline 553 is connected to the outlet 573, and the other end is connected to the inlet joint 533.

[0118] The liquid inlet pipe 551 is deformable, so that the liquid inlet pipe 551 can be deformed according to the actual space situation inside the ice bladder device 100 to obtain a more reasonable pipe path, thereby further reducing the space occupancy rate of the liquid inlet pipe 551 inside the ice bladder device 100, making it easier to miniaturize the drinking device.

[0119] Alternatively, the liquid outlet pipe 553 is deformable, so that the liquid outlet pipe 553 can be deformed according to the actual space situation inside the ice bladder device 100 to obtain a more reasonable pipe routing, thereby further reducing the space occupancy rate of the liquid outlet pipe 553 inside the ice bladder device 100, making it easier to miniaturize the drinking device;

[0120] Alternatively, the liquid inlet pipe 551 and the liquid outlet pipe 553 are both deformable. In this way, the liquid inlet pipe 551 and the liquid outlet pipe 553 can be deformed according to the actual space conditions inside the ice bladder device 100 to obtain a more reasonable pipe routing path, thereby further reducing the space occupancy rate of the liquid inlet pipe 551 and the liquid outlet pipe 553 inside the ice bladder device 100, making it easier to miniaturize the drinking device.

[0121] Please refer to Figure 1 to Figure 2 In some embodiments, the heat dissipation structure 57 includes a liquid cooling element 575 and a heat dissipation fan (not shown in the figure). The liquid cooling element 575 is connected to the heat exchange element 53 through the pipe structure 55, and the heat dissipation fan is installed on the liquid cooling element 575 to dissipate heat from the liquid cooling element 575. In this way, the heat dissipation structure 57 uses a combination of liquid cooling and air cooling, so that the heat dissipation fan can force convection to dissipate heat from the liquid cooling element 575. Specifically, the heat dissipation fan can enhance the circulation of air around the liquid cooling element 575, so that more air flows through the liquid cooling element 575, thereby improving the heat dissipation effect of the liquid cooling element 575. In other embodiments, the heat dissipation structure 57 can be a separate liquid cooling element 575, that is, the liquid cooling element 575 is dissipated by an external cooling liquid flowing through the liquid cooling element 575, and this embodiment is not limited to this.

[0122] See also Figure 2 In some embodiments, a wiring groove 75 is formed on the wall of the heat preservation cavity 71, and the ice gall device 100 also includes a temperature sensing component (not shown in the figure), the temperature sensing component includes a wire body and a temperature sensing probe connected to the wire body, at least part of the wire body is arranged in the wiring groove 75, and the temperature sensing probe is used to detect the temperature of the liquid in the gall cavity 10a.

[0123] It is understandable that the drinking device may also include a display unit (not shown in the figure) and an electric control board (not shown in the figure). A display area is also provided on the housing, and the display area corresponds to the display unit. The electric control board is used to electrically connect the temperature sensing unit and the display unit, so that after the temperature sensing probe detects the temperature of the liquid, it can transmit the temperature information to the display unit, and the display unit displays the temperature of the liquid. In this way, the user can know the temperature of the liquid before taking water, which improves the user's experience. In addition, on the basis that the heat preservation shell 70 can play a heat preservation effect for the ice bladder shell 10 and other components, the cavity wall of the heat preservation cavity 71 is formed with a wiring groove 75 to avoid interference with the wiring of the temperature sensing unit, making the wiring arrangement of the temperature sensing unit more convenient and reasonable.

[0124] Please refer to Figure 6 to Figure 7 Furthermore, a temperature sensing protrusion 17 is convexly provided on the inner wall of the gallbladder cavity 10a, and a detection hole 171 is formed inside the temperature sensing protrusion 17 and communicated with the heat preservation cavity 71. The temperature sensing probe extends into the detection hole 171. In this way, along the protruding direction of the temperature sensing protrusion 17, the temperature sensing probe can extend to a position further inside the gallbladder cavity 10a through the temperature sensing protrusion 17, so as to detect a more accurate temperature of the liquid in the gallbladder cavity 10a.

[0125] The detection hole 171 is not connected to the gallbladder cavity 10a, so that the temperature sensing probe will not come into contact with the liquid in the gallbladder cavity 10a, so as to ensure the water quality of the liquid in the gallbladder cavity 10a, and further ensure the drinking safety of the user.

[0126] Optionally, the temperature-sensing protrusion 17 and the temperature-sensing element each include a plurality of temperature-sensing protrusions 17, which are arranged at intervals along the height direction of the gallbladder cavity 10a, wherein the temperature-sensing probe of a temperature-sensing element extends into the detection hole 171 of a temperature-sensing protrusion 17. It can be understood that, along the height direction of the gallbladder cavity 10a, the liquid with a lower temperature will be located in the lower half of the gallbladder cavity 10a, while the liquid with a higher temperature will be located in the upper half of the gallbladder cavity 10a. Therefore, on the basis of the presence of a plurality of temperature-sensing protrusions 17 arranged at intervals along the height direction of the gallbladder cavity 10a, on the one hand, one of the temperature-sensing probes can be selectively used to detect the temperature of the liquid in the gallbladder cavity 10a according to the actual needs of the user. When the user has a more stringent requirement on the temperature accuracy of the cold water, the temperature-sensing probe located at the upper position can be used to detect the temperature of the liquid in the gallbladder cavity 10a, and when the user has a more relaxed requirement on the temperature accuracy of the cold water, the temperature-sensing probe located at the lower position can be used to detect the temperature of the liquid in the gallbladder cavity 10a.

[0127] It is understandable that when the user has more stringent requirements on the temperature accuracy of cold water, the temperature sensing probe located at the top can be used to detect the temperature of the liquid in the gallbladder cavity 10a, and the detected temperature will be relatively high. If the cold water temperature required by the user at this time is 4 degrees Celsius, and the temperature displayed on the display is 5 degrees Celsius, the user can control the refrigeration component 33 to reduce the liquid in the gallbladder cavity 10a by another 1 degree Celsius. In this way, the liquid at the top can also reach 4 degrees Celsius, and the liquid at the bottom will naturally be lower than 4 degrees Celsius, thereby ensuring that the cold water finally output from the outlet can at least be lower than 4 degrees Celsius.

[0128] In this way, the corresponding temperature sensing probe can be selected and started to detect the temperature of the liquid in the gallbladder cavity 10a according to the accuracy required by the user for the cold water temperature.

[0129] On the other hand, it is also possible to start multiple temperature probes at the same time, and use the multiple temperature probes to jointly detect the temperature of the liquid at different heights in the bile cavity 10a, and then transmit the multiple temperature information to the electronic control board. The electronic control board then obtains the average temperature value information of the liquid in the bile cavity 10a through the multiple temperature information, and then transmits the average temperature value information to the display.

[0130] Please refer to Figure 6 to Figure 7 In some embodiments, the ice bladder shell 10 further includes a partition 15, which is disposed in the bladder cavity 10a to separate the bladder cavity 10a into a water inlet cavity 10b and a refrigeration cavity 10c separated in the height direction of the bladder cavity 10a, and a liquid hole 15a is provided on the partition 15, and the liquid hole 15a is connected to both the water inlet cavity 10b and the refrigeration cavity 10c. Among them, the second cooling portion 313 extends into the refrigeration cavity 10c, and the liquid hole 15a is disposed opposite to the second cooling portion 313 along the height direction of the bladder cavity 10a. In this way, the liquid in the water inlet chamber 10b can pass through the barrier of the partition 15 and flow to the refrigeration chamber 10c through the liquid hole 15a of the partition 15. On the basis that the liquid hole 15a is arranged opposite to the second cooling part 313 along the height direction of the gallbladder chamber 10a, the liquid flowing out of the liquid hole 15a can flow through the second cooling part 313 as evenly as possible and exchange heat with the second cooling part 313, thereby improving the heat exchange efficiency between the second cooling part 313 and the liquid. In addition, the partition 15 can reduce the impact of the liquid on the lower temperature liquid located in the lower part of the gallbladder chamber 10a, prevent the higher temperature liquid from convection with the lower temperature liquid and affect the temperature of the liquid finally flowing out of the water outlet, which is conducive to improving the cooling water effect.

[0131] Optionally, the liquid passage hole 15a may be in the shape of an elongated strip and extend along the length direction of the second cooling portion 313, so that the liquid can contact different regions of the second cooling portion 313 to increase the contact area between the liquid and the second cooling portion 313. In addition, there may be multiple liquid passage holes 15a, which are arranged at intervals along the length direction of the second cooling portion 313, so that the liquid can also contact different regions of the second cooling portion 313 to increase the contact area between the liquid and the second cooling portion 313.

[0132] Please refer to Figure 6 to Figure 7 Further, the shell body 11 includes a base shell 115 and a cover 117. The base shell 115 forms a first half cavity 115a. The cover 117 is connected to the mounting platform structure 13 and cooperates with the mounting platform structure 13 to form a second half cavity 117a. A window 11a is also provided. The cover 117 is covered on the base shell 115 so that the first half cavity 115a and the second half cavity 117a cooperate to form a bile cavity 10a. The cover 117 and the base shell 115 are separate structures. The cavity wall of the first half cavity 115a is provided with a first sub-partition 151, and the cavity wall of the second half cavity 117a is provided with a second sub-partition 153. The first sub-partition 151 and the second sub-partition 153 are spliced ​​to form a partition 15.

[0133] In the actual manufacturing process of the shell body 11, the base shell 115 and the cover body 117 can be separately molded first, then the first sub-partition 151 is assembled into the first half cavity 115a, and the second sub-partition 153 is assembled into the second half cavity 117a, and finally the cover body 117 is covered on the base shell 115, and the first sub-partition 151 and the second sub-partition 153 are spliced ​​to form the partition 15. In this way, it is convenient for the workshop to manufacture the shell body 11.

[0134] See also Figure 6 In some embodiments, the cavity wall surface of the first half cavity 115a is provided with a first reinforcing rib 1151. The first reinforcing rib 1151 can be provided on the cavity side wall of the first half cavity 115a, and extend in the direction from the cover 117 toward the base shell 115. In this way, the strength of the base shell 115 can be improved by the first reinforcing rib 1151, so as to prevent the deformation of the base shell 115 caused by the impact of the liquid in the first bile cavity 10a on the cavity wall surface of the first half cavity 115a.

[0135] Optionally, there may be a plurality of first reinforcing ribs 1151 , and the plurality of first reinforcing ribs 1151 are arranged at intervals along the circumference of the base shell 115 , thereby improving the overall strength of the base shell 115 along its circumference.

[0136] See also Figure 7In some embodiments, the cavity wall of the second half cavity 117a is provided with a second reinforcing rib 1171. The second reinforcing rib 1171 can be provided on the cavity bottom wall of the second half cavity 117a and extend along the width direction of the cover body 117. In this way, the second reinforcing rib 1171 can be used to improve the strength of the cover body 117, thereby preventing the liquid in the second bile cavity 10a from impacting the cavity wall of the second half cavity 117a and causing deformation of the second cavity.

[0137] Optionally, there may be multiple second reinforcing ribs 1171 , and multiple first reinforcing ribs 1151 are arranged at intervals along the height direction of the gallbladder cavity 10 a , which can enhance the overall strength of the cover body 117 along its circumference.

[0138] Please refer to Figure 6 to Figure 7 In some embodiments, the cavity wall surface of the first half cavity 115a is provided with a first reinforcing rib 1151, and the cavity wall surface of the second half cavity 117a is provided with a second reinforcing rib 1171. The first reinforcing rib 1151 can be provided on the cavity side wall of the first half cavity 115a, and extend in the direction from the cover 117 to the base shell 115. In this way, the strength of the base shell 115 can be improved by the first reinforcing rib 1151, and the deformation of the base shell 115 caused by the impact of the liquid in the first gallbladder cavity 10a on the cavity wall surface of the first half cavity 115a is avoided; and the second reinforcing rib 1171 can be provided on the cavity bottom wall of the second half cavity 117a, and extend along the width direction of the cover 117. In this way, the strength of the cover 117 can be improved by the second reinforcing rib 1171, and the deformation of the second half cavity 117 caused by the impact of the liquid in the second gallbladder cavity 10a on the cavity wall surface of the second half cavity 117a is avoided.

[0139] Optionally, the number of the first reinforcing ribs 1151 can be multiple, and the multiple first reinforcing ribs 1151 are arranged at intervals along the circumference of the base shell 115, so that the overall strength of the base shell 115 along its circumference can be improved; and the number of the second reinforcing ribs 1171 can be multiple, and the multiple first reinforcing ribs 1151 are arranged at intervals along the height direction of the bile cavity 10a, so that the overall strength of the cover body 117 along its circumference can be improved.

[0140] Please refer to Figure 6 to Figure 7 In some embodiments, the shell body 11 has a water inlet pipe 111 and a water outlet pipe 113, the water inlet pipe 111 is connected to the water inlet chamber 10b, and the water outlet pipe 113 is connected to the refrigeration chamber 10c, and the water outlet pipe 113 can be connected to the water outlet through a pipeline.

[0141] The water inlet pipe 111 is arranged at the upper half of the shell body 11 along the height direction thereof, and the water outlet pipe 113 is arranged at the lower half of the shell body 11 along the height direction thereof. In this way, the liquid that enters through the water inlet pipe 111 and finally flows out through the water outlet pipe 113 can flow naturally by its own gravity when flowing in the water inlet chamber 10b and the refrigeration chamber 10c, so that the ice bladder device 100 does not need to be provided with an additional water pump to drive the liquid to flow to the water outlet pipe 113, making the structure of the ice bladder device 100 simpler and the production cost lower. Of course, in other embodiments, the water outlet pipe 113 is arranged at the middle of the shell body 11 along the height direction thereof, and this embodiment does not limit this.

[0142] Please refer to Figure 6 , Figure 8 as well as Fig. 9 In some embodiments, the heat exchanger 53 is provided with a third connection portion 531, the mounting table 131 is provided with a first connection portion 1311, and the first cooling portion 311 is provided with a second connection portion 3111, wherein the first connection portion 1311, the second connection portion 3111 and the third connection portion 531 are connected to fix the mounting table structure 13, the first cooling portion 311 and the heat exchanger 53. In this way, on the basis of the fixed connection of the mounting table structure 13, the first cooling portion 311 and the heat exchanger 53, the first cooling portion 311 can be clamped and fixed by the mounting table structure 13 and the heat exchanger 53, so that the fixing effect of the first cooling portion 311 can be improved.

[0143] Please refer to Figure 6 , Figure 8 as well as Fig. 9 Furthermore, the first connection part 1311, the second connection part 3111 and the third connection part 531 are all connection holes, and the ice gall device 100 further includes a fastener (not shown in the figure), which is sequentially penetrated through the third connection part 531, the second connection part 3111 and the first connection part 1311. In this way, the third connection part 531, the second connection part 3111 and the first connection part 1311 can be fixedly connected by the penetration of the fastener, and the installation operation is convenient.

[0144] See also Figure 6Furthermore, the mounting platform structure 13 also has an inner surface 133 that is disposed opposite to the mounting platform surface 131, and a connecting boss 1331 is convexly disposed on the inner surface 133, and the first connecting portion 1311 is a threaded hole opened in the connecting boss 1331, and the threaded hole is not connected to the gallbladder cavity 10a. In this way, compared with the form of providing a nut to achieve threaded cooperation with the fastener, the connecting boss 1331 can prevent the fastener from contacting the liquid in the gallbladder cavity 10a, so as to ensure the water quality of the liquid in the gallbladder cavity 10a, and further ensure the drinking safety of the user, and in the actual operation process, it is only necessary to directly extend the fastener into the connecting boss 1331 after the fastener is sequentially inserted into the third connecting portion 531, the second connecting portion 3111 and the first connecting portion 1311, and then the fastener is rotated to achieve cooperation with the threaded hole, so that it is more convenient to operate the fastener for connection.

[0145] The same or similar numbers in the drawings of this embodiment correspond to the same or similar parts; in the description of the present utility model, it should be understood that if the terms "upper", "lower", "left", "right" and the like indicate directions or positional relationships based on the directions or positional relationships shown in the drawings, it is only for the convenience of describing the present utility model and simplifying the description, rather than indicating or implying that the device or element referred to must have a specific direction, be constructed and operated in a specific direction. Therefore, the terms describing the positional relationship in the drawings are only used for illustrative purposes and cannot be understood as limitations on this patent. For ordinary technicians in this field, the specific meanings of the above terms can be understood according to specific circumstances.

[0146] The above are only preferred embodiments of the present invention and are not intended to limit the present invention. Any modifications, equivalent substitutions and improvements made within the spirit and principles of the present invention should be included in the protection scope of the present invention.

Claims

1. An ice bladder device, characterized in that: include: An ice bladder shell comprises a shell body and a mounting platform structure, wherein the shell body is provided with a window communicating with the interior thereof, the mounting platform structure is connected to the shell body and is provided at the window, at least a portion of the mounting platform structure extends into the interior of the shell body, and the portion of the mounting platform structure extending into the interior of the shell body cooperates with the shell body to enclose a bladder cavity, the mounting platform structure has a mounting platform surface located inside the shell body, and the mounting platform surface is provided with an escape opening; and The refrigeration assembly includes a cooling member, wherein the cooling member includes a first cooling portion and a second cooling portion connected to each other, wherein the first cooling portion is connected to the mounting table, and the second cooling portion is passed through the avoidance opening to extend into the gallbladder cavity for exchanging heat with the liquid in the gallbladder cavity.

2. The ice bladder device according to claim 1, characterized in that: In the direction in which the second cooling conduction portion extends into the gallbladder cavity, a length of a portion of the second cooling conduction portion extending into the gallbladder cavity is greater than or equal to half of the length of the gallbladder cavity.

3. The ice bladder device according to claim 2, characterized in that: In the direction in which the second cooling conducting portion extends into the gallbladder cavity, there is a gap between the end of the second cooling conducting portion and the cavity wall surface of the gallbladder cavity.

4. The ice bladder device according to claim 1, characterized in that: In the direction in which the mounting platform structure extends into the interior of the shell body, a ratio of a depth of a portion of the mounting platform structure extending into the interior of the shell body to a length of the interior of the shell body is less than or equal to 0.

2.

5. The ice bladder device according to claim 1, characterized in that: The refrigeration assembly further includes a refrigeration element, the refrigeration element includes a cold end and a hot end which are arranged opposite to each other, the cold end is thermally connected to the first cold conducting part, the ice gallbladder device further includes a heat dissipation assembly, the heat dissipation assembly includes a heat exchange element, the heat exchange element is thermally connected to the hot end, and the heat exchange element is provided with a third connection part; Among them, the mounting table is provided with a first connecting part, and the first cooling part is provided with a second connecting part; the first connecting part, the second connecting part and the third connecting part are connected to fix the mounting table structure, the first cooling part and the heat exchange component.

6. The ice bladder device according to claim 5, characterized in that: The first connection portion, the second connection portion and the third connection portion are all connection holes; The ice bladder device further includes a fastener, which is sequentially passed through the third connecting portion, the second connecting portion, and the first connecting portion.

7. The ice bladder device according to claim 6, characterized in that: The mounting platform structure also has an inner surface that is arranged opposite to the mounting platform surface, and a connecting boss is protruding from the inner surface. The first connecting portion is a threaded hole opened in the connecting boss, and the threaded hole is not connected to the gallbladder cavity.

8. The ice bladder device according to claim 1, characterized in that: Also includes: A sealing ring surrounds the outer side of the second cooling conduction portion and is disposed between the mounting table and the first cooling conduction portion to seal a gap between the mounting table and the first cooling conduction portion.

9. The ice bladder device according to claim 1, characterized in that: The refrigeration assembly also includes: a refrigeration component, the refrigeration component being heat-conductingly connected to the first cooling portion; and A heat-insulating component is wrapped around the outer side surface of the refrigerating component and abuts against the side surface of the mounting platform structure.

10. The ice bladder device according to claim 1, characterized in that: The mounting platform structure and the shell body are an integral structure or a separate structure.

11. The ice bladder device according to claim 1, characterized in that: The second cooling portion is located at the upper half of the gallbladder cavity along its height direction.

12. The ice bladder device according to claim 1, characterized in that: The second cooling portion comprises: A plurality of heat exchange fins are connected to the first cooling portion at intervals and are penetrated through the avoidance opening to extend into the gallbladder cavity for exchanging heat with the liquid in the gallbladder cavity.

13. The ice bladder device according to claim 12, characterized in that: Each of the heat exchange fins is vertically arranged along the height direction of the gallbladder cavity.

14. The ice bladder device according to claim 1, characterized in that: The ice gall shell also includes: A partition, the partition is arranged in the bile cavity to divide the bile cavity into a water inlet cavity and a refrigeration cavity separated in the height direction of the bile cavity, and a liquid hole is provided on the partition, and the liquid hole is communicated with both the water inlet cavity and the refrigeration cavity; The second cooling portion extends into the refrigeration cavity, and the liquid-passing hole is arranged opposite to the second cooling portion along the height direction of the gallbladder cavity.

15. The ice bladder device according to claim 14, characterized in that: The shell body comprises: a base shell, the base shell forming a first half cavity; and A cover body, the cover body is connected to the mounting platform structure and cooperates with the mounting platform structure to form a second half cavity, and is also provided with the window. The cover body is covered on the base shell so that the first half cavity and the second half cavity cooperate to form the gallbladder cavity. The cover body and the base shell are separate structures; Among them, the cavity wall of the first half chamber is provided with a first sub-partition, and the cavity wall of the second half chamber is provided with a second sub-partition, the first sub-partition and the second sub-partition are spliced ​​to form the partition, and the liquid-passing hole is formed by the first sub-partition and the second sub-partition, or the liquid-passing hole is opened in the first sub-partition, or the liquid-passing hole is opened in the second sub-partition, or the first sub-partition and the second sub-partition are both provided with the liquid-passing hole.

16. The ice bladder device according to claim 15, characterized in that: The cavity wall of the first half cavity is provided with a first reinforcing rib; and / or, The cavity wall surface of the second half cavity is provided with second reinforcing ribs.

17. The ice bladder device according to claim 14, characterized in that: The shell body has a water inlet pipe and a water outlet pipe, the water inlet pipe is connected to the water inlet cavity, and the water outlet pipe is connected to the refrigeration cavity; Wherein, the water inlet pipe is arranged at the upper half of the shell body along the height direction thereof, and the water outlet pipe is arranged at the lower half of the shell body along the height direction thereof.

18. The ice bladder device according to any one of claims 1 to 17, characterized in that: Also includes: The heat-insulating shell has a heat-insulating cavity formed therein, and the ice bladder shell and the refrigeration assembly are both accommodated in the heat-insulating cavity.

19. The ice bladder device according to claim 18, characterized in that: The refrigeration assembly further includes a refrigeration element, the refrigeration element includes a cold end and a hot end which are arranged opposite to each other, and the cold end is thermally connected to the first cooling portion; The ice bladder device also includes a heat dissipation component, which includes a heat exchanger, a pipeline structure and a heat dissipation structure. The heat exchanger is thermally connected to the hot end and communicates with the heat dissipation structure through the pipeline structure, so that the cooling medium flowing through the pipeline structure cools the heat exchanger; Wherein, the refrigeration component and the heat exchange component are both accommodated in the insulation cavity, the heat dissipation structure is located outside the insulation cavity, the insulation shell is provided with a connecting port connected to the insulation cavity, the connecting port is for the pipeline structure to pass through, so that the pipeline structure connects the heat exchange component in the insulation cavity and the heat dissipation structure outside the insulation cavity, or the heat exchange component has a joint, the connecting port is for the joint to pass through and communicate with the pipeline structure outside the insulation cavity.

20. The ice bladder device according to claim 18, characterized in that: The cavity wall of the heat preservation cavity is formed with a wiring groove; The ice gall device also includes a temperature sensing component, which includes a wire body and a temperature sensing probe connected to the wire body. At least part of the wire body is arranged in the wiring groove, and the temperature sensing probe is used to detect the temperature of the liquid in the gall cavity.

21. The ice bladder device according to claim 20, characterized in that: A temperature sensing protrusion is convexly provided on the inner wall of the bile cavity, a detection hole communicating with the heat preservation cavity is formed inside the temperature sensing protrusion, and the detection hole is not communicated with the bile cavity; Wherein, the temperature sensing probe extends into the detection hole.

22. The ice bladder device according to claim 21, characterized in that: The temperature-sensing protrusion and the temperature-sensing element both include a plurality of them, and the plurality of temperature-sensing protrusions are arranged at intervals along the height direction of the gallbladder cavity; Wherein, a temperature sensing probe of the temperature sensing component correspondingly extends into a detection hole of the temperature sensing protrusion.

23. The ice bladder device according to any one of claims 1 to 17, characterized in that: The ice bladder device further includes a liquid cooling heat dissipation component, the refrigeration component further includes a refrigeration element, the refrigeration element includes a cold end and a hot end which are arranged opposite to each other, and the cold end is thermally connected to the first cooling portion; Wherein, the liquid cooling heat dissipation component is thermally connected to the hot end to dissipate heat from the hot end.

24. The ice bladder device according to claim 23, characterized in that: The liquid cooling heat dissipation component includes a heat exchanger, a pipeline structure and a heat dissipation structure; The heat exchange element is thermally connected to the hot end and communicates with the heat dissipation structure through the pipeline structure, so that the cooling medium flowing through the pipeline structure can cool the heat exchange element.

25. The ice bladder device according to claim 24, characterized in that: The interior of the heat exchange element, the interior of the heat dissipation structure and the pipeline structure are connected to form a closed-loop fluid flow path, and the fluid flow path is configured to allow the cooling medium to circulate.

26. The ice bladder device according to claim 25, characterized in that: The heat exchange element has two joints connected to the interior thereof, the two joints include an inlet joint and an outlet joint, and the heat dissipation structure has an inlet and an outlet connected to the interior thereof; The pipeline structure comprises: a liquid inlet pipe, one end of which is connected to the inlet, and the other end of which is connected to the outlet joint; and a liquid outlet pipe, one end of which is connected to the outlet and the other end of which is connected to the inlet joint; Wherein, the liquid inlet pipe and / or the liquid outlet pipe are / is configured to be deformable.

27. The ice bladder device according to claim 24, characterized in that: The heat dissipation structure includes a liquid cooling element and a heat dissipation fan. The liquid cooling element is connected to the heat exchange element through the pipeline structure. The heat dissipation fan is installed on the liquid cooling element to dissipate heat from the liquid cooling element.

28. A drinking device, characterized in that: include: An ice bladder device as claimed in any one of claims 1 to 27; and The casing is provided with a water outlet, the ice container device is accommodated in the casing, and the container cavity is communicated with the water outlet.

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