Cold water generating device

Abstract

Disclosed is a cold water generating device. The cold water generating device according to one aspect of the present invention may comprise: a fluid flow path part that is fluidly connected to the outside and receives a fluid; a cooling member that is fluidly connected to the fluid flow path part and configured to cool the fluid; and a direct water flow path part that is fluidly connected to the fluid flow path part and accommodates the cooled fluid. The cooling member may include: a cooling flow path member that is fluidly connected to the fluid flow path part and provides a space in which the fluid flows; and a cooling module that is coupled to the cooling flow path member and configured to cool the fluid flowing in the cooling flow path member.

Description

Cold water generator

[0001] The present invention relates to a cold water generating device, and more specifically, to a cold water generating device having a structure that enables lightweighting while improving cooling efficiency.

[0002] A water purifier is a general term for any device that receives raw water, processes it, and then provides it to the user. A water purifier can filter raw water using various types of filters before providing it to the user. For example, a water purifier can filter raw water to make it suitable for drinking.

[0003] As living standards improve and consumer demands diversify, water purifiers that offer additional functions beyond simply filtering raw water are gaining popularity. For example, water purifiers that can provide hot water, cold water, and even ice are now on the market and selling well.

[0004] Typically, water purifiers designed to dispense cold water are equipped with a tank to hold purified water and a cooling system to cool the purified water contained in the tank. These types of water purifiers can be referred to as tank-type water purifiers. Tank-type water purifiers are widely used because they can dispense large volumes of cold water simultaneously.

[0005] For systems designed to cool purified water contained in a tank, power is typically required for operation. In particular, to achieve both miniaturization of the water purifier and cooling effect, these systems are often equipped with thermoelectric elements. As is well known, thermoelectric elements utilize the Peltier effect to perform cooling.

[0006] In water purifiers currently on the market, a thermoelectric element is incorporated into the tank itself that holds the purified water, thereby cooling the purified water. Therefore, when the thermoelectric element and its associated fan stop, the temperature of the cold water stored in the tank rises, and the thermoelectric element and its associated fan are configured to operate continuously.

[0007] However, tanks are typically formed with polygonal spaces. Therefore, some of the tank's space may be unfilled with purified or cold water, creating so-called "dead space." In this case, the generated cold water may stagnate within the tank, instead of flowing out first, resulting in a first-in, first-out pattern. If this stagnation persists, the stagnant cold water can become contaminated, potentially contaminating the entire tank.

[0008] Furthermore, because the thermoelectric element is formed with a small area compared to the tank, the cooling effect of the thermoelectric element is unlikely to extend to the entire tank space. Therefore, despite the presence of the thermoelectric element, there is a risk of reduced cooling efficiency.

[0009] Korean Patent No. 10-2036926 discloses a cooling device utilizing a thermoelectric element. Specifically, the device discloses a cooling device utilizing a thermoelectric element capable of providing cold water generated using the thermoelectric element in a direct water form.

[0010] However, the above-mentioned prior art document does not directly cool drinking water using a thermoelectric element, but rather provides a method for generating cooling water to cool drinking water. The above-mentioned prior art document does not provide a method for directly generating drinking cold water using a thermoelectric element.

[0011] Korean Patent Document No. 10-2128694 discloses a large-capacity, direct-type rapid-cooling drinking device. Specifically, the device discloses a large-capacity, direct-type rapid-cooling drinking device capable of generating cold water through heat exchange with the refrigerant by flowing cold water through a cold water coil extending around a refrigerant circulation coil.

[0012] However, the aforementioned prior art only provides a method for generating chilled water directly using a refrigerant and distributing it externally. It fails to provide a method for generating chilled water using a thermoelectric element, rather than a refrigerant, and distributing it externally.

[0013] Furthermore, the above-mentioned prior documents do not provide a method for re-cooling the cold water and then providing it to the outside when the temperature of the generated cold water is not sufficiently low.

[0014] Korean Patent No. 10-2036926 (October 28, 2019)

[0015] Korean Patent No. 10-2128694 (June 24, 2020)

[0016] The present invention is intended to solve the above problems, and an object of the present invention is to provide a cold water generating device having a structure in which the cooling effect of purified water can be improved.

[0017] Another object of the present invention is to provide a cold water generating device having a structure in which purified water can be provided to the outside after being sufficiently cooled.

[0018] Another object of the present invention is to provide a cold water generating device having a structure in which the generated cold water can be provided to the outside without stagnating inside.

[0019] Another object of the present invention is to provide a cold water generating device having a structure in which a space in which purified water is generated can be filled with purified water.

[0020] Another object of the present invention is to provide a cold water generating device having a structure in which purified water introduced first can be generated as cold water and then provided to the outside.

[0021] Another object of the present invention is to provide a cold water generating device having a structure capable of ensuring a sufficient amount of cold water to be supplied at one time.

[0022] Another object of the present invention is to provide a cold water generating device having a structure in which the generated cold water flows can be miniaturized and lightweight.

[0023] The tasks of the present invention are not limited to the tasks mentioned above, and other tasks not mentioned will be clearly understood by those skilled in the art to which the present invention pertains from the description below.

[0024] According to one aspect of the present invention, a chilled water generating device is provided, comprising: a flow path part fluidly connected to the outside to receive a fluid; a cooling member fluidly connected to the flow path part and configured to cool the fluid; and a straight flow path part fluidly connected to the flow path part and configured to receive the cooled fluid, wherein the cooling member includes: a cooling path part fluidly connected to the flow path part and providing a space in which the fluid flows; and a cooling module coupled to the cooling path part and configured to cool the fluid flowing in the cooling path part.

[0025] At this time, the above-mentioned direct current section may be provided with a cold water generating device equipped with a continuously extending pipe.

[0026] In addition, the above-mentioned direct current section may be provided with a cold water generating device formed of a synthetic resin material.

[0027] At this time, a cold water generating device may be provided, wherein the flow path section is fluidly connected to the downstream side of the cooling path member and the upstream side of the straight water path section to guide the cooled fluid to the straight water path section, and includes a circulation path fluidly connected to the upstream side of the cooling path member and the downstream side of the straight water path section to guide the received fluid to the cooling path member.

[0028] In addition, a cold water generating device may be provided, wherein the flow path section includes a circulation pump coupled to the circulation path and configured to provide a transporting force so that the cooled fluid flows along the cooling path member, the direct water path section, and the circulation path.

[0029] At this time, a cold water generating device may be provided, including a first circulation channel fluidly connected to the downstream side of the cooling channel member and the upstream side of the direct water channel member, respectively, and coupled to the circulation pump; and a second circulation channel fluidly connected to the upstream side of the cooling channel member and the downstream side of the direct water channel member, respectively.

[0030] In addition, a cold water generating device may be provided, wherein the fluid path section includes an inlet path fluidly connected to the first circulation path and the outside, respectively, to receive the fluid; and an outlet path fluidly connected to the second circulation path and the outside, respectively, to provide the cooled fluid to the outside.

[0031] At this time, a cold water generating device may be provided in which the flow path section includes a flow fitting member that selectively connects the inflow path and the first circulation path, and selectively connects the outflow path and the second circulation path.

[0032] In addition, a cold water generating device may be provided, wherein the fluid fitting member includes an inlet fitting member coupled with the inlet passage and the first circulation passage to selectively connect the inlet passage and the first circulation passage; and an outlet fitting member coupled with the outlet passage and the second circulation passage to selectively connect the outlet passage and the second circulation passage.

[0033] At this time, a cold water generating device may be provided in which the inlet fitting member is provided as a T fitting and is connected to a pair of parts of the first circulation path and the inlet path, respectively, and the outlet fitting member is provided as a T fitting and is connected to a pair of parts of the second circulation path and the outlet path, respectively.

[0034] In addition, a cold water generating device may be provided, wherein the straight water passage section includes a partition wall member having a circular cross-section, a height in one direction, and a straight water passage hollow formed therein; a first straight water passage that surrounds the partition wall member from the outside, extends in a helical shape, and receives the cooled fluid; and a second straight water passage that is positioned in the straight water passage hollow, surrounds the partition wall member from the inside, extends in a helical shape, and is fluidly connected to the first straight water passage.

[0035] At this time, a cold water generating device may be provided, wherein the first direct current path includes a first external direct current path extending radially outwardly around the bulkhead member; and a second external direct current path continuous with the first external direct current path, positioned between the first external direct current path and the bulkhead member, and fluidly connected to the second direct current path.

[0036] In addition, a cold water generating device may be provided in which a hollow space having a circular cross-section is formed through the inside of the first straight water passage and the second straight water passage.

[0037] At this time, a cold water generating device may be provided in which the cooling module is equipped with a thermoelectric device and the cooling path member is equipped with a temperature sensor.

[0038] In addition, a cold water generating device may be provided, wherein the cooling channel member comprises a cooling channel space formed sunken therein and fluidly connected to the flow channel portion to form a space in which the fluid flows; and a cooling channel rib positioned in the cooling channel space and extending from an inner surface surrounding the cooling channel space to divide the cooling channel space into a plurality of small spaces that are continuous with each other.

[0039] According to the above configuration, the cooling effect of the cold water generating device according to the embodiment of the present invention can be improved.

[0040] In addition, according to the above configuration, the cold water generating device according to the embodiment of the present invention can be provided to the outside after the purified water has been sufficiently cooled.

[0041] In addition, according to the above configuration, the cold water generating device according to the embodiment of the present invention can provide the generated cold water to the outside without stagnating inside.

[0042] In addition, according to the above configuration, the cold water generating device according to the embodiment of the present invention can fill the space where purified water is generated with purified water.

[0043] In addition, according to the above configuration, the cold water generating device according to the embodiment of the present invention can first generate the introduced purified water into cold water and then provide it to the outside.

[0044] In addition, according to the above configuration, the cold water generating device according to the embodiment of the present invention can secure a sufficient amount of cold water flow rate that can be provided at one time.

[0045] In addition, according to the above configuration, the cold water generating device according to the embodiment of the present invention can have a configuration in which the generated cold water flows, which can be made smaller and lighter.

[0046] The effects of the present invention are not limited to the effects described above, and should be understood to include all effects that can be inferred from the detailed description of the present invention or the composition of the invention described in the claims.

[0047] FIG. 1 is a perspective view illustrating a cold water generating device according to an embodiment of the present invention.

[0048] Figure 2 is a perspective view from another angle showing the cold water generating device of Figure 1.

[0049] Figure 3 is an exploded perspective view showing the configuration of the cold water generating device of Figures 1 and 2.

[0050] Fig. 4 is a perspective view showing a housing provided in the cold water generator of Fig. 1.

[0051] Figure 5 is a perspective view from another angle showing the housing of Figure 4.

[0052] Figure 6 is an exploded perspective view showing the housing of Figure 4.

[0053] Fig. 7 is a perspective view showing a cooling member, a direct water flow path section, and a flow path section provided in the cold water generating device of Fig. 1.

[0054] Fig. 8 is an exploded perspective view showing the cooling member, the direct current path section, and the flow path section of Fig. 7.

[0055] Fig. 9 is a perspective view illustrating the cooling member of Fig. 7.

[0056] Fig. 10 is an exploded perspective view showing the configuration of the cooling member of Fig. 9.

[0057] Fig. 11 is a perspective view showing the heat dissipation fins and cooling module provided in the cooling member of Fig. 7.

[0058] Figure 12 is a front view showing the heat dissipation fins and cooling module of Figure 11.

[0059] Fig. 13 is a perspective view showing a cooling flow path member provided in the cooling member of Fig. 7.

[0060] Fig. 14 is a plan view showing the cooling flow path member of Fig. 13.

[0061] Fig. 15 is a cross-sectional view taken along line AA of the cooling member of Fig. 13.

[0062] Fig. 16 is a perspective view showing the straight-line section of Fig. 7.

[0063] Fig. 17 is a front view showing the straight-line section of Fig. 16.

[0064] Fig. 18 is a bottom view showing the straight-line section of Fig. 16.

[0065] Fig. 19 is a BB cross-sectional view showing the straight-line section of Fig. 16.

[0066] Fig. 20 is an exploded perspective view showing the flow path section of Fig. 7.

[0067] Fig. 21 is a perspective view showing a portion of the flow path section of Fig. 20.

[0068] Fig. 22 is a perspective view showing another part of the flow path section of Fig. 20.

[0069] Fig. 23 is a perspective view showing another portion of the flow path section of Fig. 20.

[0070] FIG. 24 is a block diagram illustrating a first flow (F1) formed in a cold water generating device according to an embodiment of the present invention.

[0071] Figures 25 and 26 are perspective views illustrating the first flow (F1) of Figure 24.

[0072] FIG. 27 is a block diagram illustrating a second flow (F2) formed in a cold water generating device according to an embodiment of the present invention.

[0073] Figures 28 and 29 are perspective views illustrating the second flow (F2) of Figure 27.

[0074] Hereinafter, embodiments of the present invention will be described in detail with reference to the attached drawings so that those skilled in the art can easily practice the present invention. The present invention may be implemented in various different forms and is not limited to the embodiments described herein. To clearly explain the present invention, parts irrelevant to the description are omitted in the drawings, and the same reference numerals designate identical or similar components throughout the specification.

[0075] The words and terms used in this specification and claims should not be construed as limited to their ordinary or dictionary meanings, but should be interpreted in a way that is consistent with the technical idea of ​​the present invention, in accordance with the principles by which the inventor can define terms and concepts in order to best explain his or her invention.

[0076] Therefore, the embodiments described in this specification and the configurations illustrated in the drawings correspond to a preferred embodiment of the present invention, and do not represent all of the technical ideas of the present invention, so there may be various equivalents and modified examples that can replace the configuration at the time of filing of the present invention.

[0077] In the following description, descriptions of some components may be omitted to clarify the features of the present invention.

[0078]

[0079] The term "fluid communication" as used herein refers to one or more elements being fluidly connected to one another. In one embodiment, the fluid communication may be formed by elements such as conduits, pipes, or piping. In the following description, the fluid communication may be used in the same sense as one or more elements being "fluidly connected" to one another.

[0080] The term "conduction" as used herein refers to the connection of one or more elements to enable the transmission of current or electrical signals. In one embodiment, the conduction may be formed in a wired form, such as by a conductor element, or in a wireless form, such as Bluetooth, Wi-Fi, or RFID. In one embodiment, the conduction may also include the meaning of "communication."

[0081] The term "fluid" used in the following description refers to any form of material that can flow and change shape or volume, etc., due to an external force. In one embodiment, the fluid may be a liquid such as water or a gas such as air.

[0082] The terms “upper side,” “lower side,” “left side,” “right side,” “front side,” and “rear side” used in the following description shall be understood with reference to the coordinate system depicted throughout the attached drawings.

[0083]

[0084] Referring to FIGS. 1 to 3, a cold water generating device (10) according to an embodiment of the present invention is illustrated. The cold water generating device (10) according to an embodiment of the present invention may be configured to receive a fluid from the outside, cool it, and provide it to the outside. To this end, the cold water generating device (10) may be fluidically connected to the outside.

[0085] The cold water generating device (10) may be installed and utilized in any device requiring cooling of a fluid. In one embodiment, the cold water generating device (10) may be installed and utilized in a water purifier, dispenser, or the like.

[0086] A cold water generating device (10) according to an embodiment of the present invention can generate cold water by cooling purified water delivered from the outside. At this time, the cold water generating device (10) can be configured so that the delivered cold water does not stagnate but continuously flows and is cooled. Furthermore, if the cold water is not sufficiently cooled, the cold water generating device (10) can re-cool it to a desired temperature and provide it to the outside.

[0087] Furthermore, the cold water generation device (10) allows the introduced purified water to flow and be cooled within the components for generating cold water, and can then flow within other components. Therefore, the other components need not be formed of a highly thermally conductive material, such as a metal material such as stainless steel. Accordingly, the freedom in selecting materials for the other components can be enhanced, the weight of the other components can be reduced, and the convenience of manufacturing can be enhanced.

[0088] In the illustrated embodiment, the cold water generating device (10) includes a housing (100), a cooling member (200), a direct water passage section (300), and a flow passage section (400).

[0089] The housing (100) constitutes a portion of the exterior of the cold water generator (10). A space is formed inside the housing (100) to accommodate some components of the cold water generator (10). In addition, the housing (100) is coupled to and supports other components of the cold water generator (10).

[0090] In the illustrated embodiment, the housing (100) at least partially accommodates the direct flow path portion (300) and the flow path portion (400). Additionally, the housing (100) is coupled to and supports the cooling member (200).

[0091] The housing (100) may be formed of a material with low thermal conductivity. This is to prevent the temperature of the fluid flowing in the direct flow path section (300) and the flow path section (400) from being disturbed by external factors. In one embodiment, the housing (100) may be formed of a synthetic resin material such as plastic.

[0092] The housing (100) can have any shape that can accommodate the direct flow path section (300) and the flow path section (400), and can be coupled with and support the cooling member (200). In the illustrated embodiment, the housing (100) has a three-dimensional shape having a length in the front-back direction, a width in the left-right direction, and a height in the up-down direction.

[0093] In the embodiments illustrated in FIGS. 3 to 6, the housing (100) includes an outer housing (110) and an inner housing (120).

[0094] The outer housing (110) constitutes the outer shape of the housing (100). The outer housing (110) is coupled to and supports the cooling member (200) and the flow path section (400). In the illustrated embodiment, the cooling member (200) is coupled to one side in the height direction of the outer housing (110), i.e., the upper side. The flow path section (400) is coupled to and supported on one side in the length direction of the outer housing (110), i.e., the front side.

[0095] A space is formed inside the outer housing (110). The space of the outer housing (110) accommodates the inner housing (120) and a portion of the direct flow path section (300) and the flow path section (400) accommodated in the inner housing (120).

[0096] In the illustrated embodiment, the outer housing (110) includes an outer housing body (111), a euro support member (112), and an outer housing space (113).

[0097] The outer housing body (111) constitutes the outer shape and body of the outer housing (110). The outer housing body (111) may have a shape corresponding to the shape of the housing (100). In the illustrated embodiment, the outer housing body (111) has a three-dimensional shape having a length in the front-back direction, a width in the left-right direction, and a height in the up-down direction.

[0098] The outer housing body (111) is coupled with a euro support member (112). On one longitudinal side of the outer housing body (111), in the illustrated embodiment, a euro support member (112) is formed on the front outer side.

[0099] An outer housing space (113) is formed inside the outer housing body (111). The outer housing body (111) at least partially surrounds the outer housing space (113). In the illustrated embodiment, the outer housing body (111) surrounds the outer housing space (113) on the front side, the left side, the upper side, and the lower side. The outer housing body (111) can support other components of the inner housing (120) or other cold water generating device (10) accommodated in the outer housing space (113).

[0100] The euro support member (112) supports the portion of the flow path section (400) that is exposed to the outside of the outer housing (110), i.e., the flow fitting member (450) and the fitting support member (460) to be described later. The euro support member (112) surrounds the flow fitting member (450) and the fitting support member (460).

[0101] A space is formed inside the euro support member (112) to accommodate a fluid fitting member (450) and a fitting support member (460). The space is connected to the external housing space (113).

[0102] The euro support member (112) is coupled to the outer housing body (111). In the illustrated embodiment, the euro support member (112) is coupled to the front side outer surface of the outer housing body (111).

[0103] The euro support member (112) may have any shape capable of surrounding and supporting the fluid fitting member (450) and the fitting support member (460). In the illustrated embodiment, the euro support member (112) is a three-dimensional shape having a height in the vertical direction and a length in the left-right direction that is longer than the width in the front-back direction.

[0104] The outer housing space (113) is a space formed inside the outer housing (110). The outer housing space (113) is defined by being at least partially surrounded by the outer housing body (111). In the illustrated embodiment, the front side, left side, upper side, and lower side of the outer housing space (113) are surrounded by the outer housing body (111). The outer housing space (113) can accommodate each part of the inner housing (120) and the direct flow path part (300) and the flow path part (400) accommodated therein.

[0105] The inner housing (120) constitutes the internal structure of the housing (100). The inner housing (120) is accommodated in the outer housing space (113) and surrounded by the outer housing body (111).

[0106] The inner housing (120) is coupled to and supports the straight flow path section (300) and the flow path section (400). A space is formed inside the inner housing (120) to at least partially accommodate the straight flow path section (300) and the flow path section (400). In the illustrated embodiment, the inner housing (120) accommodates the entire straight flow path section (300) and a portion of the flow path section (400).

[0107] In the illustrated embodiment, the inner housing (120) includes an inner housing body (121), an inner housing cover (122), and an inner housing space (123).

[0108] The inner housing body (121) constitutes the outer shape and body of the inner housing (120). The inner housing body (121) may have a shape corresponding to the shape of the housing (100) or the outer housing body (111). In the illustrated embodiment, the inner housing body (121) is a three-dimensional shape having a length in the front-back direction, a width in the left-right direction, and a height in the up-down direction.

[0109] The inner housing body (121) is coupled with the inner housing cover (122). The inner housing space (123) formed inside the inner housing body (121) can be covered by the inner housing cover (122). In the illustrated embodiment, one side in the height direction of the inner housing body (121), i.e., the upper side, is coupled with the inner housing cover (122).

[0110] The inner housing body (121) at least partially surrounds the inner housing space (123). The inner housing body (121) may surround a portion of the straight flow path section (300) and the flow path section (400) accommodated in the inner housing space (123). In the illustrated embodiment, the inner housing body (121) surrounds the front side, the rear side, the left side, the right side, and the lower side of the inner housing space (123).

[0111] The inner housing body (121) may be formed of an insulating material. This is to prevent the temperature of the fluid flowing in the direct flow path (300) accommodated in the inner housing space (123) from increasing due to random heat exchange with the outside.

[0112] Alternatively, a material for insulation, such as expanded Styrofoam, may be filled or applied to the outer surface of the inner housing body (121) or the inner housing space (123).

[0113] The inner housing cover (122) constitutes another part of the inner housing (120). The inner housing cover (122) is coupled with the inner housing body (121) and surrounds the inner housing space (123). In the illustrated embodiment, the inner housing cover (122) is coupled with the upper side of the inner housing body (121) and is configured to cover the upper side of the inner housing space (123).

[0114] The inner housing cover (122) may have a shape corresponding to the shape of the inner housing body (121). In the illustrated embodiment, the inner housing cover (122) has a three-dimensional shape with a rectangular cross-section and a vertical height. The inner housing cover (122) may be formed of the same material as the inner housing body (121).

[0115] The inner housing space (123) is a space formed inside the inner housing (120). The inner housing space (123) is defined by being at least partially surrounded by the inner housing body (121). In the illustrated embodiment, the front side, the rear side, the left side, the right side, and the lower side of the inner housing space (123) are surrounded by the inner housing body (121). One side in the height direction of the inner housing space (123), in the illustrated embodiment, the upper side, is covered by the inner housing cover (122).

[0116] The internal housing space (123) may have a shape corresponding to the shape of the internal housing body (121). In the illustrated embodiment, the internal housing space (123) is a three-dimensional shape having a length in the front-back direction, a width in the left-right direction, and a height in the up-down direction.

[0117] The inner housing space (123) accommodates a straight flow path (300). The straight flow path (300) accommodated in the inner housing space (123) can be communicated with the outside through a flow path (400). In one embodiment, the inner housing space (123) can be filled with a material for insulation so that the straight flow path (300) can be insulated from the outside.

[0118] The inner housing space (123) at least partially accommodates the flow path section (400). The flow path section (400) can be coupled to the direct flow path section (300) in the inner housing space (123).

[0119] The inner housing space (123) is connected to the outer housing space (113). Although not designated by a drawing symbol, an opening may be formed on one longitudinal side of the inner housing body (121) and the inner housing cover (122), in the illustrated embodiment, the front side. The opening may be formed on the upper front edge of the inner housing body (121) and the lower front edge of the inner housing cover (122), respectively.

[0120] The above opening can communicate the internal housing space (123) with the outside. The flow path part (400) accommodated in the internal housing space (123) can be coupled to the flow path support member (112) through the above opening and exposed to the outside.

[0121] The cooling member (200) substantially performs the function of cooling the fluid introduced into the cold water generation device (10). The cooling member (200) can cool the fluid by exchanging heat with the introduced fluid. In an embodiment where the fluid is purified water, the cooling member (200) can cool the purified water to produce cold water.

[0122] The cooling member (200) is electrically connected to the outside. The power and control signals required for the operation of the cooling member (200) can be transmitted from an external control power source (not shown).

[0123] The cooling member (200) is coupled to the housing (100). The cooling member (200) can be coupled to and supported by the outer housing (110). The cooling member (200) is exposed to the outside of the housing (100).

[0124] The cooling member (200) is coupled to the flow path section (400). The cooling member (200) is fluidly connected to the flow path section (400). As will be described later, the flow path section (400) is fluidly connected to the direct flow path section (300), so it can be said that the cooling member (200) is fluidly connected to the direct flow path section (300) through the flow path section (400).

[0125] In the embodiments illustrated in FIGS. 7 to 15, the cooling member (200) includes a heat dissipation fin (210), a cooling module (220), a cooling cover (230), and a cooling path member (240).

[0126] The heat dissipation fin (210) constitutes a part of the cooling member (200). The heat dissipation fin (210) releases heat transferred to the cooling member (200), i.e., heat transferred from the purified water flowing into the cold water generation device (10), to the outside.

[0127] A heat dissipation fin (210) is coupled to a cooling module (220). The heat dissipation fin (210) can receive heat transferred from the purified water flowing inside the cooling module (220). A cooling pipe (221) provided in the cooling module (220) is penetrated and coupled to the heat dissipation fin (210). The heat dissipation fin (210) can be supported at a position spaced apart from the housing (100) by the cooling pipe (221).

[0128] The heat dissipation fin (210) may be provided in any form capable of dissipating the received heat to the outside. In the illustrated embodiment, the heat dissipation fin (210) is configured to include a plurality of plates that are stacked and spaced apart from each other in the height direction, i.e., the vertical direction. The plates are formed such that the length in the left-right direction is longer than the width in the front-back direction, and the thickness in the vertical direction is greater.

[0129] The cooling module (220) is a part where the cooling member (200) is connected to the housing (100). The cooling module (220) is mounted and supported on the upper side of the external housing (110). In addition, the cooling module (220) is configured to cool the introduced purified water.

[0130] The cooling module (220) is coupled to the heat dissipation fin (210). The heat transferred from the introduced water to the cooling module (220) can be transferred to the heat dissipation fin (210) and released to the outside.

[0131] The cooling module (220) is coupled to a cooling cover (230). One side of the cooling module (220) in the height direction, the upper side in the illustrated embodiment, is covered by the cooling cover (230). The cooling pipe (221) of the cooling module (220) can be supported by the cooling cover (230).

[0132] The cooling module (220) is coupled to the cooling channel member (240). The cooling module (220) covers a space formed inside the cooling channel member (240), i.e., a cooling channel space (242), and is coupled to the cooling channel member (240). The cooling module (220) may be configured to cool purified water flowing in the cooling channel space (242). In one embodiment, the cooling module (220) may come into contact with the purified water flowing in the cooling channel space (242) to exchange heat.

[0133] The cooling module (220) may be provided in any form capable of generating cold water by cooling purified water delivered to the cold water generation device (10). In one embodiment, the cooling module (220) may be provided as a thermoelement. In the above embodiment, the cooling module (220) may be electrically connected to an external control power source (not shown) to receive power and control signals.

[0134] The cooling module (220) may have a shape corresponding to the shape of the cooling channel member (240). In the illustrated embodiment, the cooling module (220) is formed in a polygonal plate shape having a length in the front-back direction, a width in the left-right direction, and a thickness in the up-down direction. At this time, the cross-sectional area of ​​the cooling module (220) is formed to be greater than the cross-sectional area of ​​the cooling channel space (242), so that the cooling module (220) can seal the cooling channel space (242).

[0135] In the illustrated embodiment, the cooling module (220) includes a cooling pipe (221).

[0136] The cooling pipe (221) is configured to connect the cooling module (220) to the heat dissipation fin (210). The cooling pipe (221) can support the heat dissipation fin (210). In addition, the cooling pipe (221) can form a passage for heat transferred from the water to the cooling module (220) to be transferred to the heat dissipation fin (210).

[0137] A cooling pipe (221) extends between the cooling module (220) and the heat dissipation fins (210). In the illustrated embodiment, the cooling pipe (221) comprises a portion extending horizontally and another portion extending vertically at a predetermined angle with the first portion. The other portion of the cooling pipe (221) is respectively penetrated and connected to a plurality of plates constituting the heat dissipation fins (210).

[0138] A plurality of cooling pipes (221) may be provided. The plurality of cooling pipes (221) may be spaced apart from each other in the width direction of the cooling module (220), in the left-right direction in the illustrated embodiment, and may be respectively connected to the heat dissipation fins (210) at different locations. In the illustrated embodiment, five cooling pipes (221) are provided, spaced apart from each other in the left-right direction, and respectively connected to the cooling module (220) and the heat dissipation fins (210).

[0139] The cooling cover (230) is configured to cover the cooling module (220). The cooling cover (230) covers one side of the cooling module (220) in the thickness direction, the upper side in the illustrated embodiment. Heat transferred to the cooling module (220) can be transferred to the heat dissipation fin (210) through the cooling pipe (221) without being arbitrarily released to the outside by the cooling cover (230). For this purpose, the cooling cover (230) can be formed of a material with low thermal conductivity.

[0140] The cooling cover (230) may have a shape corresponding to the shape of the cooling module (220). In the illustrated embodiment, the cooling cover (230) is formed in a polygonal plate shape having a length in the front-back direction, a width in the left-right direction, and a thickness in the up-down direction.

[0141] The cooling channel member (240) constitutes a part through which the fluid delivered to the cold water generator (10) flows. The introduced purified water flows in the cooling channel member (240) and can be cooled.

[0142] The cooling duct member (240) is coupled to the housing (100). The cooling duct member (240) can be coupled to and supported by the upper surface of the outer housing (110).

[0143] The cooling channel member (240) is coupled with the cooling module (220). The space formed inside the cooling channel member (240) (i.e., the cooling channel space (242)) can be covered and sealed by the cooling module (220). In the illustrated embodiment, one side in the height direction of the cooling channel member (240), i.e., the upper side, is coupled with the cooling module (220). The purified water flowing inside the cooling channel member (240) can be cooled by the cooling module (220).

[0144] The cooling channel member (240) is coupled to the flow channel member (400). The cooling channel member (240) is fluidly connected to the flow channel member (400) and can receive purified water. The cooling water generated by flowing through the cooling channel member (240) and being cooled by the cooling module (220) can be transferred to the direct water channel member (300) through the flow channel member (400).

[0145] Accordingly, it can be said that the cooling flow path member (240) is fluidly connected to the external and direct flow path members (300) through the flow path member (400).

[0146] The cooling channel member (240) may be formed of a material with high thermal conductivity. In one embodiment, the cooling channel member (240) may be formed of a stainless steel material.

[0147] In the cold water generation device (10) according to an embodiment of the present invention, the cold water generation process, i.e., the process of cooling purified water, is performed only in the cooling channel member (240). That is, the cooling module (220) may be configured to cool only purified water flowing in the cooling channel member (240).

[0148] Therefore, cold water can be generated even if other components, excluding the cooling channel member (240) among the components for fluid flow, i.e., the straight water channel section (300) and the flow channel section (400), are not formed of a material with high thermal conductivity.

[0149] Accordingly, compared to the case where the straight flow path section (300) and the flow path section (400) are formed of a heavy and expensive metal material, such as stainless steel, the straight flow path section (300) and the flow path section (400) can be formed of a lightweight and inexpensive material, such as synthetic resin.

[0150] As a result, the weight and manufacturing cost of the entire cold water generator (10) can be reduced, and manufacturing convenience can be improved.

[0151] Meanwhile, a temperature sensor (S) may be placed in the cooling channel member (240) (see FIGS. 24 and 27). The temperature sensor (S) may be placed on the upstream or downstream side of the cooling channel member (240) and may generate sensing information on the temperature of the incoming purified water or cold water or the temperature of the outgoing cold water.

[0152] The detection information generated by the temperature sensor (S) can be transmitted to a control unit (not shown) and used to calculate control information for controlling the operation of the circulation pump (440).

[0153] As best illustrated in FIGS. 13 to 15, the cooling channel member (240) includes a cooling channel body (241), a cooling channel space (242), a cooling channel rib (243), a cooling channel outlet (244), and a cooling channel inlet (245).

[0154] The cooling path body (241) constitutes the outer shape of the cooling path member (240). The cooling path body (241) is a portion where the cooling path member (240) is connected to the housing (100) and the cooling module (220).

[0155] A different configuration of a cooling channel member (240) is formed or combined in the cooling channel body (241). In the illustrated embodiment, a cooling channel space (242) and a cooling channel rib (243) are formed inside the cooling channel body (241). A cooling channel outlet (244) and a cooling channel inlet (245) are combined on the outside of the cooling channel body (241).

[0156] The cooling channel body (241) may have a shape corresponding to the shape of the cooling module (220). In the illustrated embodiment, the cooling channel body (241) is formed in a polygonal plate shape having a length in the front-back direction, a width in the left-right direction, and a thickness in the up-down direction.

[0157] A cooling path space (242) is formed inside the cooling path body (241).

[0158] The cooling passage space (242) is a space in which purified water transferred from the flow passage section (400) flows. The purified water flows in the cooling passage space (242) and can be cooled.

[0159] The cooling channel space (242) may have a shape corresponding to the shape of the cooling module (220) or the cooling channel body (241). In the illustrated embodiment, the cooling channel space (242) is formed as a polygonal plate-shaped space having a length in the front-back direction, a width in the left-right direction, and a thickness in the up-down direction.

[0160] In the above embodiment, one side of the cooling passage space (242) in the thickness direction, the remaining part except the upper side in the illustrated embodiment, i.e. the front side, the rear side, the left side, the right side and the lower side, can be surrounded by the cooling passage body (241).

[0161] One side in the thickness direction of the cooling passage space (242) is formed open and can be covered by the cooling module (220). The purified water flowing in the cooling passage space (242) can be cooled by coming into contact with the cooling module (220) through the one side.

[0162] The cooling passage space (242) can be divided into a plurality of small spaces that are interconnected by cooling passage ribs (243). The purified water introduced into the cooling passage space (242) flows along the plurality of small spaces, and the heat exchange time with the cooling module (220) can be increased. As a result, the cooling effect of the purified water can be improved.

[0163] The cooling passage space (242) is connected to the cooling passage outlet (244). The cooled water flowing in the cooling passage space (242) can flow out to the first circulation passage (431) through the cooling passage outlet (244).

[0164] The cooling passage space (242) is connected to the cooling passage inlet (245). The introduced purified water or pre-cooled purified water can flow into the cooling passage space (242) through the second circulation passage (432) and the cooling passage inlet (245).

[0165] The cooling path rib (243) divides the cooling path space (242) into a plurality of small spaces that are connected to each other. The cooling path rib (243) is positioned in the cooling path space (242) and is continuous with the inner circumference of the cooling path body (241) that surrounds the cooling path space (242).

[0166] The cooling path rib (243) may have any shape that can divide the cooling path space (242) into a plurality of small spaces that are interconnected. In the illustrated embodiment, the cooling path rib (243) is formed in a polygonal plate shape having a length in the front-back direction, a height in the up-down direction, and a thickness in the left-right direction.

[0167] At this time, the length in the front-back direction of the cooling channel rib (243) may be formed to be less than the length in the front-back direction of the cooling channel space (242). The purified water introduced into the cooling channel space (242) may flow along the space formed between the end of the cooling channel rib (243) and the inner surface of the cooling channel body (241) and be cooled.

[0168] A plurality of cooling path ribs (243) may be provided. The plurality of cooling path ribs (243) may be spaced apart from each other in the thickness direction, i.e., in the left-right direction in the illustrated embodiment.

[0169] At this time, some of the plurality of cooling channel ribs (243) may be continuous with one side of the inner circumference of the cooling channel body (241) in the longitudinal direction, i.e., the rear-side inner circumference in the illustrated embodiment. The remaining of the plurality of cooling channel ribs (243) may be continuous with the other side of the inner circumference of the cooling channel body (241) in the longitudinal direction, i.e., the front-side inner circumference in the illustrated embodiment.

[0170] Additionally, the cooling path ribs (243) of some of the above and the remaining cooling path ribs (243) of the above can be arranged alternately along the separation direction, i.e., the left-right direction in the illustrated embodiment.

[0171] Accordingly, a plurality of small spaces that are interconnected in a zigzag shape can be defined in the cooling passage space (242). As a result, the purified water flowing in the cooling passage space (242) also flows in a zigzag shape, and the heat exchange time with the cooling module (220) is increased, so that the cooling efficiency of the purified water can be improved.

[0172] The cooling channel outlet (244) constitutes a portion through which the cooling channel space (242) communicates with the outside. The cooling channel outlet (244) communicates the cooling channel space (242) with the circulation channel (430), specifically, the first circulation channel (431). The generated cold water can flow out into the first circulation channel (431) through the cooling channel outlet (244).

[0173] The cooling channel outlet (244) is coupled with the cooling channel body (241). The cooling channel outlet (244) is formed to extend from one side of the width direction of the cooling channel body (241), in the illustrated embodiment, from the left side.

[0174] The cooling flow outlet (244) is connected to and coupled with the cooling flow fitting member (453). The cooling flow outlet (244) is connected to the first circulation flow path (431) through the cooling flow fitting member (453).

[0175] The cooling channel inlet (245) constitutes another part through which the cooling channel space (242) communicates with the outside. The cooling channel inlet (245) communicates the cooling channel space (242) with the circulation channel (430), specifically, the second circulation channel (432). Purified water provided from the outside or cold water that is circulating can flow into the cooling channel space (242) through the second circulation channel (432) and the cooling channel inlet (245).

[0176] The cooling channel inlet (245) is coupled with the cooling channel body (241). The cooling channel inlet (245) is formed to extend from the other side in the width direction of the cooling channel body (241), in the illustrated embodiment, from the right side.

[0177] The cooling flow inlet (245) is connected to and coupled with the cooling flow fitting member (454). The cooling flow inlet (245) is connected to the second circulation flow path (432) through the cooling flow fitting member (454).

[0178] The direct water passage unit (300) stores the generated cold water. The direct water passage unit (300) is fluidly connected to the cooling member (200), specifically the cooling passage unit (240), and can receive and store the generated cold water. Therefore, the direct water passage unit (300) can be said to function as a type of tank.

[0179] In addition, due to the shape of the direct water passage part (300), the direct water passage part (300) may be configured to provide the generated cold water directly to the outside without storing it. In the above embodiment, it can be said that the cold water generation device (10) is provided in a direct water type. In the above embodiment, the purified water generated by the cooling member (200) may be provided directly to the outside through the direct water passage part (300) and the flow passage part (400) in sequence.

[0180] The direct flow path part (300) is coupled to the housing (100). The direct flow path part (300) is accommodated in the internal housing space (123) and supported by the internal housing body (121). The direct flow path part (300) is not arbitrarily exposed to the outside.

[0181] The direct flow path (300) is connected to the cooling member (200). Specifically, the direct flow path (300) can be connected to the cooling member (200) by the flow path (400). Cold water generated in the cooling member (200) can be delivered to the direct flow path (300).

[0182] The direct flow path section (300) is coupled to the flow path section (400). The direct flow path section (300) is connected to the flow path section (400) and can receive any fluid. For example, the direct flow path section (300) can receive purified water transmitted from the outside through the flow path section (400).

[0183] In addition, the direct flow path section (300) can receive cold water generated in the cooling member (200) through the flow path section (400). Furthermore, the cold water flowing in the direct flow path section (300) can be delivered to the outside through the flow path section (400) or circulated back to the cooling member (200).

[0184] As described above, the cold water generating device (10) according to the embodiment of the present invention is configured so that only the cooling member (200) performs the function of cooling purified water. Therefore, the direct water passage section (300) through which the generated cold water flows or is stored is not required to be formed of a material with high thermal conductivity.

[0185] Accordingly, as described above, the direct-flow guiding portion (300) can be formed of lightweight and inexpensive materials such as synthetic resin, thereby reducing weight and manufacturing costs and improving manufacturing convenience.

[0186] In the embodiments illustrated in FIGS. 16 to 19, the straight-line flow path (300) includes a first straight-line flow path (310), a second straight-line flow path (320), a bulkhead member (330), and a straight-line fitting member (340).

[0187] The first direct water passage (310) constitutes a portion of the direct water passage section (300). The first direct water passage (310) is a portion where purified water or previously generated cold water introduced from the outside flows into the direct water passage section (300). The first direct water passage (310) is connected to and connected with the first circulation passage (431) by a direct water fitting member (340), specifically, a first direct water fitting member (341).

[0188] The first direct water passage (310) is connected to and communicated with the second direct water passage (320). Clean or cold water flowing into the first direct water passage (310) can flow out into the second direct water passage (320). In the illustrated embodiment, one side in the height direction of the first direct water passage (310), i.e., the lower side, is connected to and communicated with the above-mentioned side, i.e., the lower side, of the second direct water passage (320).

[0189] A hollow space is formed within the first straight channel (310). The hollow space extends along the extension direction of the first straight channel (310). At this time, the cross-sectional area of ​​the hollow space may be formed to be larger than the cross-sectional area of ​​the hollow space formed within the second straight channel (320).

[0190] In addition, the cross-section of the hollow body may be formed in a circular shape. Accordingly, purified or cold water introduced into the first direct water passage (310) may be first-in, first-out (FIFO). In other words, the amount of purified or cold water stagnating in the first direct water passage (310) among the purified or cold water introduced may be minimized.

[0191] The first straight water passage (310) may be formed to accommodate a sufficient amount of purified or cold water. In other words, the first straight water passage (310) may be formed to have as long an extension length as possible. In the illustrated embodiment, the first straight water passage (310) extends in a helical shape.

[0192] The first direct current flow path (310) is connected to and connected with the second direct current flow path (320). In addition, the first direct current flow path (310) is formed to surround the second direct current flow path (320) radially outside.

[0193] The first straight flow path (310) is coupled to a bulkhead member (330). The first straight flow path (310) may be formed in a spiral shape by being wound around the bulkhead member (330). The bulkhead member (330) and the second straight flow path (320) may be sequentially arranged in the straight flow path hollow space (H) formed inside the first straight flow path (310).

[0194] The first direct current (310) can be divided into a plurality of parts. The plurality of parts constituting the first direct current (310) can be connected to each other and arranged in parallel along the radial direction.

[0195] In the illustrated embodiment, the first direct current flow path (310) includes a first external direct current flow path (310a) and a first internal direct current flow path (310b).

[0196] The first external straight flow path (310a) may be defined as a portion located radially outer among the portions of the first straight flow path (310). The first straight flow path (310a) surrounds the second straight flow path (310b) from the radially outer side. A first straight fitting member (341) is coupled to a radially outer end of the first external straight flow path (310a). A second straight fitting member (342) of the first internal straight flow path (310b) is coupled to a radially inner end of the first external straight flow path (310a).

[0197] The first internal straight flow path (310b) may be defined as a portion located radially inward among the portions of the first straight flow path (310). One side in the height direction of the first internal straight flow path (310b), in the illustrated embodiment, an upper end, is coupled and communicated with the first external straight flow path (310a). The other side in the height direction of the first internal straight flow path (310b), in the illustrated embodiment, a lower end, is coupled and communicated with the second straight flow path (320).

[0198] As the first direct water passage (310) is composed of the first external direct water passage (310a) and the first internal direct water passage (310b), the volume of the hollow space formed within the entire first direct water passage (310) can be increased. Accordingly, the flow rate of purified water or cold water that can flow in or be accommodated in the first direct water passage (310) can be increased. Accordingly, the flow rate of cold water provided externally can also be increased.

[0199] The second direct water passage (320) constitutes another part of the direct water passage section (300). The second direct water passage (320) receives purified or cold water that has passed through the first direct water passage (310). The purified or cold water that has entered the second direct water passage (320) may be provided to the outside through the flow passage section (400) or may be circulated along the flow passage section (400). The second direct water passage (320) is connected to the second circulation passage (432) by means of a direct water fitting member (340), specifically, a second direct water fitting member (342).

[0200] A hollow space is formed inside the second straight channel (320). The hollow space extends along the extension direction of the second straight channel (320). At this time, the cross-sectional area of ​​the hollow space may be formed to be smaller than the cross-sectional area formed inside the first straight channel (310).

[0201] In addition, the cross-section of the hollow body may also be formed in a circular shape. Accordingly, the purified or cold water flowing into the second direct water passage (320) may also be first-in, first-out, so that the purified or cold water stagnating in the second direct water passage (320) may be minimized.

[0202] The second straight water passage (320) may be formed to accommodate a sufficient amount of purified or cold water. In other words, the second straight water passage (320) may be formed to have as long an extension length as possible. In other words, the second straight water passage (320) is formed in a spiral shape.

[0203] The second direct water passage (320) is connected to and coupled with the first direct water passage (310). Clean water or cold water that has passed through the first direct water passage (310) can flow into the second direct water passage (320). In the illustrated embodiment, one side in the height direction of the second direct water passage (320), i.e., the lower side, is connected to and coupled with the one side, i.e., the lower side, of the first internal direct water passage (310b). The second direct water passage (320) can be fluidly connected to the first direct water passage (310) by a second direct water fitting member (342).

[0204] The second straight flow path (320) is coupled to the bulkhead member (330). The second straight flow path (320) is accommodated in the straight flow path hollow (H) formed inside the bulkhead member (330) and is positioned radially inward of the bulkhead member (330). The second straight flow path (320) is surrounded radially outward by the bulkhead member (330).

[0205] The bulkhead member (330) supports a first straight channel (310) and a second straight channel (320) that extend in a spiral shape. The first straight channel (310) is positioned radially outside the bulkhead member (330). The first straight channel (310) is wound around the bulkhead member (330).

[0206] A straight water passage hollow (H) defined by being surrounded by the bulkhead member (330) is formed on the radially inner side of the bulkhead member (330). The second straight water passage (320) is accommodated in the straight water passage hollow (H) and is arranged to face the first straight water passage (310) with the bulkhead member (330) interposed therebetween in the radial direction.

[0207] Accordingly, even if the first straight flow path (310) and the second straight flow path (320) are formed to have different cross-sectional areas, the spiral shape can be stably maintained by the bulkhead member (330).

[0208] The direct fitting member (340) is a configuration in which the direct flow path section (300) is coupled with another configuration, specifically, the flow path section (400). The direct fitting member (340) fluidly connects the first direct flow path (310) and the second direct flow path (320) to the flow path section (400), respectively.

[0209] A plurality of straight fitting members (340) may be provided. One of the plurality of straight fitting members (340) fluidly connects the first straight fitting passage (310) to the outside, thereby forming an inflow passage for purified or cold water. Another of the plurality of straight fitting members (340) fluidly connects the second straight fitting passage (320) to the outside, thereby forming an outflow passage for purified or cold water.

[0210] In the illustrated embodiment, the straight fitting member (340) includes a first straight fitting member (341) and a second straight fitting member (342).

[0211] The first direct fitting member (341) fluidly connects the first direct flow path (310) and the first circulation path (431). The first direct fitting member (341) is coupled to and communicates with the circulation inlet fitting member (455). Clean or cold water introduced into the first circulation path (431) can flow out into the first direct flow path (310) through the first direct fitting member (341).

[0212] The second direct fitting member (342) fluidly connects the first direct flow path (310) and the second direct flow path (320). The second direct fitting member (342) is connected and communicated with the lower end of the first internal direct flow path (310b) and the lower end of the second direct flow path (320), respectively. Clean or cold water flowing into the first direct flow path (310) can flow out into the second direct flow path (320) through the second direct fitting member (342).

[0213] The fluid path section (400) fluidly connects the outside and the direct flow path section (300). Purified water delivered from the outside can be delivered to the direct flow path section (300) through the fluid path section (400). Cold water contained in the direct flow path section (300) can be provided to the outside through the fluid path section (400).

[0214] In addition, the flow path section (400) fluidly connects the cooling path section (240) of the cooling member (200) and the direct water path section (300). The purified water delivered from the outside or the cold water that has been cooled by passing through the cooling path section (240) can be delivered to the direct water path section (300) through the flow path section (400).

[0215] That is, the flow path section (400) constitutes an inflow path of purified water and an outflow path of cold water with respect to the outside. At the same time, the flow path section (400) constitutes a circulation path of purified water or cold water. The purified water or cold water circulates through the cooling path member (240) along the flow path section (400) and, after being sufficiently cooled, can be received in the direct water path section (300) or provided to the outside.

[0216] Accordingly, as described above, the cooling efficiency of cold water can be improved.

[0217] The flow path section (400) is coupled to the housing (100). A portion of the flow path section (400) may be accommodated and supported by the flow path support member (112). The flow path section (400) is at least partially exposed to the outside of the housing (100).

[0218] The flow path section (400) is connected to and coupled with the cooling member (200). Specifically, the flow path section (400) can comprise an inlet path through which purified water or cold water flows into the cooling path section (240) and an outlet path through which water flows out from the cooling path section (240).

[0219] The flow path section (400) is connected to and connected with the direct water path section (300). Specifically, the flow path section (400) can form an inflow path through which purified water or cold water flows into the direct water path section (300) and an outflow path through which purified water or cold water flows out from the direct water path section (300).

[0220] As described above, the cold water generating device (10) according to the embodiment of the present invention is configured so that only the cooling member (200) performs the function of cooling purified water. Therefore, the flow path section (400) through which the generated cold water flows or is stored is not required to be formed of a material with high thermal conductivity.

[0221] Accordingly, as described above, the fluid path section (400) can be formed of lightweight and inexpensive materials such as synthetic resin, thereby reducing weight and manufacturing costs and improving manufacturing convenience.

[0222] In the embodiments illustrated in FIGS. 20 to 23, the flow path section (400) includes an inlet path (410), an outlet path (420), a circulation path (430), a circulation pump (440), a flow fitting member (450), and a fitting support member (460).

[0223] The inlet passage (410) is a component that fluidly connects the flow passage section (400) to the outside. The inlet passage (410) is located on the outside of the housing (100) and is fluidly connected to the outside. In an embodiment in which a cold water generating device (10) is provided in a water purifier, the inlet passage (410) is fluidly connected to a filter member (not shown) to receive purified water.

[0224] The inlet passage (410) is fluidly connected to the circulation passage (430), specifically, the first circulation passage (431). The purified water introduced through the inlet passage (410) can be transferred to the first circulation passage (431) through the inlet fitting member (451).

[0225] The outlet passage (420) is another configuration in which the flow passage section (400) is fluidly connected to the outside. The outlet passage (420) is located on the outside of the housing (100) and is fluidly connected to the outside. In an embodiment in which the cold water generating device (10) is provided in the water purifier, the outlet passage (420) can be fluidly connected to a faucet to provide cold water to the outside.

[0226] The outlet passage (420) is fluidly connected to the circulation passage (430), specifically, the second circulation passage (432). Cold water received in the direct water passage section (300) can be provided to the outside via the second circulation passage (432).

[0227] The circulation path (430) is a portion where the fluid path section (400) is connected to the cooling member (200) and the direct flow path section (300). The circulation path (430) is fluidly connected to the cooling path section (240), the first direct flow path (310), and the second direct flow path (320), respectively.

[0228] The circulation path (430) is connected to and connected with the inlet path (410). Purified water provided from the outside can be delivered to the circulation path (430).

[0229] The circulation path (430) is connected to the outlet path (420). Cold water received in the direct water path section (300) can be provided to the outside through the circulation path (430).

[0230] The circulation path (430) is coupled with a circulation pump (440). A flow of cold water or purified water can be formed in the circulation path (430) by the transport force provided by the circulation pump (440).

[0231] The circulation path (430) may be composed of a plurality of parts depending on the configuration in which they are connected to each other. In the illustrated embodiment, the circulation path (430) includes a first circulation path (431) and a second circulation path (432).

[0232] The first circulation path (431) constitutes a path through which purified water or cold water flows into the circulation path (430). The first circulation path (431) is connected to and communicates with the cooling path outlet (244), the inflow path (410), and the first direct water path (310), respectively. The first circulation path (431) is connected to a circulation pump (440) so that a transport force can be provided to purified water or cold water remaining in the first circulation path (4310).

[0233] The first circulation path (431) can be divided into a plurality of parts depending on the configuration to which it is coupled. In the illustrated embodiment, the first circulation path (431) is configured to include a part located on the front side and coupled and communicated with the inlet path (410) and the first direct water path (310), respectively, and another part located on the rear side and coupled and communicated with the cooling path outlet (244) and coupled with the circulation pump (440).

[0234] The above part is connected and communicated with the inlet flow path (410) and the other part by the inlet fitting member (451). In addition, the above part is connected and communicated with the first direct flow path (310) by the circulation inlet fitting member (455).

[0235] The above other part is connected and communicated with the above other part by an inlet fitting member (451). In addition, the above other part is connected and communicated with a cooling flow outlet (244) by a cooling outlet fitting member (453).

[0236] The second circulation path (432) constitutes a path through which purified water or cold water that has passed through the direct water path section (300) flows into the circulation path (430). The second circulation path (432) is connected to and communicates with the cooling path inlet (245), the outlet path (420), and the second direct water path (320), respectively. The purified water or cold water inside the second circulation path (432) can flow by the conveying force provided by the circulation pump (440).

[0237] The second circulation path (432) can be divided into a plurality of parts depending on the configuration to which it is coupled. In the illustrated embodiment, the second circulation path (432) is configured to include a part located on the front side and coupled and communicated with the outlet path (420) and the second direct water path (320), respectively, and another part located on the rear side and coupled and communicated with the part and the cooling path inlet (245).

[0238] The above part is connected and communicated with the outlet path (420) and the other part by the outlet fitting member (452). In addition, the above part is connected and communicated with the second direct flow path (320) by the circulation outlet fitting member (456).

[0239] The above other part is connected and communicated with the above one part by means of an outlet fitting member (452). In addition, the above other part is connected and communicated with a cooling path inlet (245) by means of a cooling inlet fitting member (454).

[0240] A detailed description of the process in which purified water or cold water is circulated along the circulation path (430) and re-cooled will be provided later.

[0241] The circulation pump (440) is coupled and communicated with the circulation path (430) to provide a transfer force to the interior of the circulation path (430). The circulation path (430) is coupled and communicated with the cooling path member (240), the direct water path section (300), the inflow path (410), and the outflow path (420), respectively, so it will be understood that the transfer force provided by the circulation pump (440) can be provided to purified water or cold water remaining in each component coupled and communicated with the circulation path (430).

[0242] The circulation pump (440) may be provided in any form capable of providing a transport force to the fluid. The circulation pump (440) may be electrically connected to an external control power source (not shown) to receive power and control signals necessary for operation.

[0243] The fluid fitting member (450) fluidly connects each component of the fluid path section (400) to another component of the cold water generating device (10). The fluid fitting member (450) is positioned between each component of the fluid path section (400) or between each component of the fluid path section (400) and another component of the cold water generating device (10), and can be coupled thereto, respectively.

[0244] The fluid fitting member (450) is coupled to the housing (100). Specifically, some components of the fluid fitting member (450) can be coupled to and supported by the euro support member (112).

[0245] A plurality of fluid fitting members (450) may be provided. A plurality of fluid fitting members (450) may be positioned at different locations to fluidly connect different configurations to each other.

[0246] In the illustrated embodiment, the flow fitting member (450) includes an inlet fitting member (451), an outlet fitting member (452), a cooling outlet fitting member (453), a cooling inlet fitting member (454), a circulation inlet fitting member (455), and a circulation outlet fitting member (456).

[0247] The inlet fitting member (451) fluidly connects the inlet flow path (410) and the first circulation flow path (431). As described above, the first circulation flow path (431) may be divided into a plurality of parts depending on the fluidly connected configuration. The inlet fitting member (451) is connected to the inlet flow path (410), the one part of the first circulation flow path (431), and the other part of the first circulation flow path (431), respectively.

[0248] That is, the inlet fitting member (451) may be provided as a 3-way fitting or a T-shaped fitting.

[0249] The inlet fitting member (451) can be configured to selectively connect the inlet flow path (410), the first circulation flow path (431), and the other part thereof with each other.

[0250] That is, the inlet fitting member (451) may allow the inlet passage (410) and the other portion of the first circulation passage (431) to communicate with each other, but may block the communication between the inlet passage (410) and the other portion of the first circulation passage (431). Alternatively, the inlet fitting member (451) may allow the inlet passage (410), the one portion of the first circulation passage (431), and the other portion of the first circulation passage to communicate with each other.

[0251] For this purpose, the inlet fitting member (451) may be equipped with a 3-way valve, or the inlet fitting member (451) itself may be equipped with a 3-way valve.

[0252] The outlet fitting member (452) fluidly connects the outlet flow path (420) and the second circulation flow path (432). As described above, the second circulation flow path (432) may be divided into a plurality of parts depending on the configuration of the fluidly connected parts. The outlet fitting member (452) may be respectively coupled to the outlet flow path (420), the one part of the second circulation flow path (432), and the other part of the second circulation flow path (432).

[0253] That is, the outlet fitting member (452) may also be provided as a 3-way fitting or a T-shaped fitting.

[0254] The outlet fitting member (452) can be configured to selectively connect the outlet path (420), the part of the second circulation path (432), and the other part of the second circulation path (432) to each other.

[0255] That is, the outlet fitting member (452) may allow both the part and the other part of the second circulation path (432) to communicate, but may block the communication with the outlet path (420). Alternatively, the outlet fitting member (452) may block the communication between the part and the other part of the second circulation path (432), but may allow the communication between the part of the outlet path (420) and the second circulation path (432).

[0256] For this purpose, the discharge fitting member (452) may be equipped with a 3-way valve, or the discharge fitting member (452) itself may be equipped with a 3-way valve.

[0257] The cooling outlet fitting member (453) fluidly connects the first circulation path (431) and the cooling path outlet (244). The cooling outlet fitting member (453) is positioned on the rear side and is connected to the other part of the first circulation path (431), which is a part connected and communicated with the circulation pump (440), and the cooling path outlet (244), respectively.

[0258] The cooling inlet fitting member (454) fluidly connects the second circulation path (432) and the cooling path inlet (245). The cooling inlet fitting member (454) is respectively coupled to the other portion of the second circulation path (432) located on the rear side and the cooling path inlet (245).

[0259] The circulation inlet fitting member (455) fluidly connects the first circulation flow path (431) and the first direct flow path (310). The circulation inlet fitting member (455) is respectively connected to a portion of the first circulation flow path (431) located on the front side and an upper end of the first external direct flow path (310a).

[0260] The circulation outlet fitting member (456) fluidly connects the second circulation flow path (432) and the second direct flow path (320). The circulation outlet fitting member (456) is respectively coupled to the other portion of the second circulation flow path (432) located on the front side and the upper end of the second direct flow path (320).

[0261] The fitting support member (460) is coupled to and supports the circulation inlet fitting member (455) and the circulation outlet fitting member (456). The fitting support member (460) is coupled to and supported by the flow path support member (112). The fitting support member (460) is accommodated in the flow path support member (112) together with the circulation inlet fitting member (455) and the circulation outlet fitting member (456).

[0262] The fitting support member (460) may be provided in any shape that can support the circulation inlet fitting member (455) and the circulation outlet fitting member (456). In the illustrated embodiment, the fitting support member (460) is provided in the shape of a polygonal plate having a length in the left-right direction longer than a height in the up-down direction and a thickness in the front-back direction.

[0263]

[0264] Referring to FIGS. 24 to 29, the flow of purified water or cold water formed inside a cold water generating device (10) according to an embodiment of the present invention is illustrated as an example.

[0265] As described above, the flow path section (400) can constitute an inflow path for purified water and an outflow path for cold water. At the same time, the flow path section (400) can constitute a circulation path for purified water or cold water.

[0266] Accordingly, inside the cold water generating device (10), either a flow for circulation of purified water or cold water (hereinafter, first flow (F1)) or a flow for inflow of purified water and outflow of cold water (hereinafter, second flow (F2)) can be formed.

[0267] Referring to FIGS. 24 to 26, a first flow (F1) formed in a cold water generating device (10) according to an embodiment of the present invention is illustrated as an example. The first flow (F1) may be defined as a flow in which purified water is provided to the cold water generating device (10), and the provided purified water circulates through the cold water generating device (10) and passes through the cooling channel member (240) multiple times to be re-cooled.

[0268] First, the first flow (F1) can be formed in a process in which purified water is continuously supplied from the outside.

[0269] In the above embodiment, the inlet fitting member (451) allows communication between the inlet flow path (410), the first circulation flow path (431), and the other part. Accordingly, purified water introduced from the outside passes through the inlet flow path (410) and the first circulation flow path (431) in sequence and is delivered to the direct water flow path section (300).

[0270] The purified water passing through the direct flow path (300) flows into the second circulation path (432). At this time, the outlet fitting member (452) is operated to allow communication between the above-mentioned part of the second circulation path (432) and the above-mentioned other part, but block communication between the above-mentioned part of the second circulation path (432) and the outlet path (420).

[0271] Accordingly, the purified water flowing into the second circulation path (432) is not discharged to the outside but is transferred to the cooling path member (240). The purified water flowing into the cooling path member (240) flows through the cooling path space (242) and is cooled and then transferred to the other part of the first circulation path (431).

[0272] Additionally, the first flow (F1) can be formed by circulating supplied purified water or generated cold water while the supply of purified water from the outside is blocked.

[0273] In the above embodiment, the inlet fitting member (451) blocks the communication between the inlet flow path (410) and the first circulation flow path (431), and allows the communication between the part of the first circulation flow path (431) and the other part. Accordingly, additional supply of purified water from the outside is blocked, and the introduced purified water and the generated cold water can be continuously re-cooled by circulating through the cooling flow path member (240), the direct water flow path section (300), and the circulation flow path (430).

[0274] Each of the above embodiments can be performed in accordance with the detection information generated by the temperature sensor (S) provided in the cooling channel member (240).

[0275] That is, if the temperature of the generated cold water is higher than the reference value based on the detection information generated by the temperature sensor (S), the control unit (not shown) can operate the circulation pump (440) to circulate the cold water. Accordingly, the generated cold water can be continuously reintroduced into the cooling channel member (240) and re-cooled.

[0276] If the temperature of the generated cold water is below a reference value based on the detection information generated by the temperature sensor (S), the control unit (not shown) can stop the circulation pump (440) to stop the circulation of the cold water.

[0277] Referring to FIGS. 27 to 29, a second flow (F2) formed in a cold water generating device (10) according to an embodiment of the present invention is illustrated as an example. The second flow (F2) can be defined as a flow in which the generated cold water is provided to the outside.

[0278] In the above embodiment, the inlet fitting member (451) blocks the connection between the inlet flow path (410) and the first circulation flow path (431). Accordingly, the supply of purified water from the outside is blocked, and the second flow (F2) can be formed only by the cold water generated by being provided to the cold water generating device (10).

[0279] When a user manipulates the faucet (not shown), cold water contained in the direct flow path (300) flows out to the second circulation path (432). At this time, the discharge fitting member (452) allows communication between a portion of the second circulation path (432) and the discharge path (420), but blocks communication between the portion of the second circulation path (432) and the other portion.

[0280] Accordingly, the cold water flowing into the second circulation path (432) can be provided to the outside through the outlet path (420).

[0281]

[0282] Although the embodiments of the present invention have been described, the spirit of the present invention is not limited to the embodiments presented in this specification, and those skilled in the art who understand the spirit of the present invention will be able to easily propose other embodiments by adding, changing, deleting, or adding components within the scope of the same spirit, but this will also be considered to fall within the spirit of the present invention.

[0283] 10: Cold water generator 100: Housing

[0284] 110: Outer housing 111: Outer housing body

[0285] 112: Euro support member 113: External housing space

[0286] 120: Inner housing 121: Inner housing body

[0287] 122: Inner housing cover 123: Inner housing space

[0288] 200: Cooling member 210: Radiating fin

[0289] 220: Cooling module 221: Cooling pipe

[0290] 230: Cooling cover 240: Cooling duct member

[0291] 241: Cooling passage body 242: Cooling passage space

[0292] 243: Cooling duct rib 244: Cooling duct outlet

[0293] 245: Cooling duct inlet 300: Direct water duct section

[0294] 310: 1st direct flow 310a: 1st external direct flow

[0295] 310b: 1st internal direct flow 320: 2nd internal direct flow

[0296] 330: Bulkhead member 340: Straight fitting member

[0297] 341: First straight fitting member 342: Second straight fitting member

[0298] 400: Flow path 410: Inflow path

[0299] 420: Outflow Euro 430: Circulation Euro

[0300] 431: 1st Circulation Euro 432: 2nd Circulation Euro

[0301] 440: Circulation pump 450: Flow fitting member

[0302] 451: Inlet fitting member 452: Outlet fitting member

[0303] 453: Cooling outlet fitting member 454: Cooling inlet fitting member

[0304] 455: Circulation inlet fitting member 456: Circulation outlet fitting member

[0305] 460: Fitting support member H: Straight Euro hollow

[0306] S: Temperature sensor F1: First flow

[0307] F2: Second flow

Claims

1. A fluid path part that is fluidly connected to the outside and receives fluid; A cooling member fluidly connected to the above fluid passage and configured to cool the fluid; and A straight flow path part fluidly connected to the above-mentioned fluid path part and containing the cooled fluid, The above cooling member, A cooling channel member fluidly connected to the above fluid path section and providing a space through which the fluid flows; A cooling module coupled to the cooling channel member and configured to cool the fluid flowing in the cooling channel member, Cold water generating device.

2. In paragraph 1, The above straight-line section is provided with a continuously extending pipe. Cold water generating device.

3. In paragraph 1, The above straight-line section is formed of a synthetic resin material. Cold water generating device.

4. In paragraph 1, The above fluid path part is, A circulation channel fluidly connected to the downstream side of the cooling channel member and the upstream side of the straight channel section to guide the cooled fluid to the straight channel section, and fluidly connected to the upstream side of the cooling channel member and the downstream side of the straight channel section to guide the received fluid to the cooling channel member. Cold water generating device.

5. In paragraph 4, The above fluid path part is, A circulation pump coupled to the above circulation path and configured to provide a transport force so that the cooled fluid flows along the cooling path member, the direct current path portion, and the circulation path. Cold water generating device.

6. In paragraph 5, The above fluid path part is, A first circulation channel fluidly connected to the downstream side of the cooling channel member and the upstream side of the direct current channel portion, and coupled to the circulation pump; and Including a second circulation channel fluidly connected to the upstream side of the cooling channel member and the downstream side of the direct current channel portion, respectively. Cold water generating device.

7. In paragraph 6, The above fluid path part is, An inlet passage fluidly connected to the first circulation path and the outside, respectively, to receive the fluid; and Including an outlet passage fluidly connected to the second circulation path and the outside, respectively, to provide the cooled fluid to the outside. Cold water generating device.

8. In paragraph 7, The above fluid path part is, A flow fitting member that selectively connects the inflow path and the first circulation path, and selectively connects the outflow path and the second circulation path, Cold water generating device.

9. In paragraph 8, The above fluid fitting member is, An inlet fitting member coupled to the inlet flow path and the first circulation flow path, selectively connecting the inlet flow path and the first circulation flow path; and Including an outlet fitting member that is coupled to the outlet passage and the second circulation passage and selectively connects the outlet passage and the second circulation passage. Cold water generating device.

10. In paragraph 9, The above inlet fitting member is provided as a T fitting, and is connected to a pair of parts of the first circulation path and the above inlet path, respectively. The above-mentioned outlet fitting member is provided as a T-fitting, and is connected to a pair of parts of the second circulation path and the above-mentioned outlet path, respectively. Cold water generating device.

11. In paragraph 1, The above straight-line section is, A bulkhead member having a circular cross-section and a height in one direction, and having a vertical water flow path hollow formed therein; A first straight channel that surrounds the bulkhead member from the outside, extends in a helical shape, and receives the cooled fluid; and A second straight channel positioned in the above straight channel hollow, surrounding the bulkhead member from the inside, extending in a spiral shape, and fluidly connected to the first straight channel, Cold water generating device.

12. In paragraph 11, The above first direct current is, A first external straight channel extending radially outwardly around the bulkhead member; and A second external direct current flow path is continuous with the first external direct current flow path, is positioned between the first external direct current flow path and the bulkhead member, and is fluidly connected to the second direct current flow path. Cold water generating device.

13. In paragraph 11, A hollow having a circular cross-section is formed through the inside of the first and second straight channels. Cold water generating device.

14. In paragraph 1, The above cooling module is equipped with a thermoelectric device, The above cooling duct member is provided with a temperature sensor, Cold water generating device.

15. In paragraph 1, The above cooling path member is, A cooling channel space formed inside thereof and fluidly connected to the flow channel section, forming a space in which the fluid flows; and A cooling channel rib is positioned in the cooling channel space and extends from an inner surface surrounding the cooling channel space to divide the cooling channel space into a plurality of continuous small spaces. Cold water generating device.

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