Heat exchange system and water outlet device

Abstract

The utility model relates to the field of household appliances, and discloses a heat exchange system and a water outlet device. The heat exchange system is high in heat exchange efficiency, the water flow of the heat exchange system can be increased, the purpose of preparing a large amount of boiled water in a short time is achieved, and therefore the waiting time for a user to receive water is shortened, and meanwhile arrangement space can be saved. The heat exchange system is used for the water outlet device, the water outlet device is provided with a water supply module, the water supply module supplies water to the heat exchange system, the heat exchange system comprises a body and at least one group of heat exchange modules, the heat exchange modules are arranged on the body, and each group of heat exchange modules comprises a first heat exchange assembly and a second heat exchange assembly. The first heat exchange assembly and the second heat exchange assembly preheat normal-temperature water through hot water, and meanwhile the hot water is cooled into warm boiled water.

Description

Technical Field

[0001] The utility model relates to the technical field of household electrical appliances, in particular to a heat exchange system and a water outlet device. Background Art

[0002] With economic development and improved living standards, consumers are paying more and more attention to healthy water use and drinking water, and their requirements for water use are becoming increasingly higher. As a water treatment device that can deeply filter and purify water, water purifiers are gaining recognition and favor among more and more consumers.

[0003] To meet people's need for hot water at any time, water purification equipment includes not only a filtration unit but also a heating unit. Its main operating principle is that raw water is first filtered by the filtration unit, then heated by the heating unit before being connected to the tap to achieve the function of hot water. However, existing water purification equipment has low heat exchange efficiency and small water flow, which cannot meet user needs. Utility Model Content

[0004] In view of this, the present invention provides a heat exchange system and a water outlet device to solve the problems of low heat exchange efficiency, small water flow and inability to meet user needs of existing water purification equipment.

[0005] In a first aspect, the present invention provides a heat exchange system for a water outlet device, wherein the water outlet device has a water supply module, and the water supply module supplies water to the heat exchange system. The heat exchange system includes:

[0006] ontology;

[0007] At least one group of heat exchange modules is arranged on the main body, and each group of heat exchange modules includes a first heat exchange component and a second heat exchange component. The first heat exchange component and the second heat exchange component both use hot water to preheat normal temperature water and cool the hot water into warm boiled water.

[0008] Beneficial effects: The heat exchange system of the present invention includes a main body and at least one group of heat exchange modules, each group of heat exchange modules includes a first heat exchange component and a second heat exchange component, the first heat exchange component and the second heat exchange component both use hot water to preheat normal temperature water, and at the same time cool the hot water into warm boiled water (cooked water). By setting at least one group of heat exchange modules, and each group of heat exchange modules includes two heat exchange components, the heat exchange efficiency of the heat exchange system can be significantly improved, and the water flow rate of the heat exchange system can be increased, so as to achieve the purpose of preparing a large amount of cooked water in a short time, thereby shortening the waiting time for users to get water.

[0009] In an optional embodiment, the first heat exchange assembly includes a first heat exchange assembly first tube and a first heat exchange assembly second tube that are sleeved, one of the first heat exchange assembly first tube inlet and the first heat exchange assembly second tube inlet is connected to the normal temperature water outlet of the water supply module, and the other is connected to the hot water outlet of the water supply module, and accordingly, one of the first heat exchange assembly first tube outlet and the first heat exchange assembly second tube outlet is a first-level preheated water outlet or a first-level preheated water outlet, and the other is a first-level warm boiled water outlet or a first-level warm boiled water outlet;

[0010] The second heat exchange component includes a first tube of the second heat exchange component and a second tube of the second heat exchange component, one of the first tube inlet of the second heat exchange component and the second tube inlet of the second heat exchange component is connected to the first-level preheated water outlet, and the other is connected to the first-level warm boiled water outlet. Accordingly, one of the first tube outlet of the second heat exchange component and the second tube outlet of the second heat exchange component is a second-level preheated water outlet, and the other is a second-level warm boiled water outlet; or one of the first tube inlet of the second heat exchange component and the second tube inlet of the second heat exchange component is connected to the normal temperature water outlet, and the other is connected to the hot water outlet. Accordingly, one of the first tube outlet of the second heat exchange component and the second tube outlet of the second heat exchange component is a second-level preheated water outlet, and the other is a second-level warm boiled water outlet.

[0011] Beneficial Effects: In the heat exchange system of the present invention, both the first heat exchange component and the second heat exchange component are tubular heat exchange structures, and the first heat exchange component and the second heat exchange component can be connected in series or in parallel. When the first heat exchange component and the second heat exchange component are connected in series, one of the first pipe inlet of the second heat exchange component and the second pipe inlet of the second heat exchange component is connected to the first-level preheated water outlet, and the other is connected to the first-level warm water outlet. Correspondingly, one of the first pipe outlet of the second heat exchange component and the second pipe outlet of the second heat exchange component is a second-level preheated water outlet, and the other is a second-level warm water outlet. In this series connection mode, after heat exchange through the first heat exchange component, the normal temperature water becomes the first-level preheated water, and the hot water becomes the first-level warm boiled water. The first-level preheated water and the first-level warm boiled water will enter the second heat exchange component for heat exchange. The first-level preheated water will further become the second-level preheated water (the water temperature of the second-level preheated water is usually higher than the water temperature of the first-level preheated water), and the first-level warm boiled water will further become the second-level warm boiled water (the water temperature of the second-level warm boiled water is usually lower than the water temperature of the first-level warm boiled water). That is, after heat exchange through the first heat exchange component and the second heat exchange component, the water temperatures of the preheated water and the warm boiled water are getting closer and closer, which makes the hot water cooler and can achieve a wider range of water temperature adjustment to meet the user's needs for different boiled water temperatures.

[0012] When the first heat exchange component and the second heat exchange component are connected in parallel, one of the first pipe inlet of the second heat exchange component and the second pipe inlet of the second heat exchange component is connected to the normal temperature water outlet, and the other is connected to the hot water outlet. Accordingly, one of the first pipe outlet of the second heat exchange component and the second pipe outlet of the second heat exchange component is the second-level preheated water outlet, and the other is the second-level warm boiled water outlet. In this parallel connection, the normal temperature water and hot water of the water supply module enter the first heat exchange component and the second heat exchange component at the same time. The first heat exchange component and the second heat exchange component simultaneously preheat the normal temperature water and cool the hot water. This heat exchange method can further improve the heat exchange efficiency, provide users with a large amount of boiled water in a relatively short time, reduce the waiting time for users to receive water, and improve the user experience.

[0013] In an optional embodiment, the first tube of the first heat exchange component is sleeved on the outside of the second tube of the first heat exchange component, and a water flow space is formed between the inner wall of the first tube of the first heat exchange component and the outer wall of the second tube of the first heat exchange component; similarly, the first tube of the second heat exchange component is sleeved on the outside of the second tube of the second heat exchange component, and a water flow space is formed between the inner wall of the first tube of the second heat exchange component and the outer wall of the second tube of the second heat exchange component.

[0014] Beneficial effect: In the heat exchange system of the present invention, a water flow space is formed between the inner wall of the first tube of the first heat exchange component and the outer wall of the second tube of the first heat exchange component, and a water flow space is formed between the inner wall of the first tube of the second heat exchange component and the outer wall of the second tube of the second heat exchange component. The above two water flow spaces both form a normal temperature water channel, and a hot water channel is formed in the second pipeline. Normal temperature water and boiling water exchange heat through heat transfer through the corresponding second tube side walls, thereby achieving the purpose of preheating normal temperature water and cooling hot water. The design of the above heat exchange module is ingenious, which can reduce the loss of hot water heat energy, make full use of the heat energy of hot water, and improve heat exchange efficiency.

[0015] In an optional embodiment, a water connection component is further included, which is arranged on the main body and / or the heat exchange module, and is used to connect the water supply module and the heat exchange system, and / or connect the first heat exchange component and the second heat exchange component.

[0016] Beneficial effects: The heat exchange system of the present invention can facilitate the connection between the water module and the heat exchange system and / or facilitate the first heat exchange component and the second heat exchange component by setting a water connection component, simplify the operation, make full use of the setting space, and make the heat exchange system compact.

[0017] In an optional embodiment, the water channel connection assembly includes a first water channel plate, the first water channel plate is disposed on the body or the first heat exchange assembly, and the first water channel plate has a first water channel plate first flow channel and a first water channel plate second flow channel;

[0018] The first flow channel inlet of the first water channel plate is connected to the normal temperature water outlet, the first flow channel outlet of the first water channel plate is connected to the first pipe inlet of the first heat exchange component, the second flow channel inlet of the first water channel plate is connected to the hot water outlet, and the second flow channel outlet of the first water channel plate is connected to the second pipe inlet of the first heat exchange component.

[0019] Beneficial effect: In the heat exchange system of the present invention, the first waterway plate is arranged on the main body or the first heat exchange component, which can make the heat exchange system more compact. The connection method of the above-mentioned first waterway plate is suitable for the series connection method of the first heat exchange component and the second heat exchange component. The use of the first waterway plate can facilitate the pipeline connection, improve the efficiency of the pipeline connection, and facilitate and simplify the structural layout of the pipeline.

[0020] In an optional embodiment, the water channel connection assembly further includes a first guide groove, which is arranged on the main body, the first guide groove inlet is connected to the normal temperature water outlet, and the first guide groove outlet is connected to the first flow channel inlet of the first water channel plate.

[0021] Beneficial effect: In the heat exchange system of the present invention, the first guide groove is arranged on the main body, which can make the heat exchange system more compact. The connection method of the above-mentioned first guide groove is suitable for the series connection method of the first heat exchange component and the second heat exchange component. The use of the first guide groove can facilitate the pipeline connection, improve the efficiency of the pipeline connection, and facilitate and simplify the structural layout of the pipeline.

[0022] In an optional embodiment, the water channel connection assembly further includes a third water channel plate, the third water channel plate is disposed on the body or the first heat exchange assembly, the third water channel plate has a first flow channel of the third water channel plate and a second flow channel of the third water channel plate, the first flow channel inlet of the third water channel plate is connected to the first pipe outlet of the first heat exchange assembly, and the first flow channel outlet of the third water channel plate is connected to the first pipe inlet of the second heat exchange assembly;

[0023] The second flow channel inlet of the third waterway plate is connected to the second pipe outlet of the first heat exchange assembly, and the second flow channel outlet of the third waterway plate is connected to the second pipe inlet of the second heat exchange assembly.

[0024] Beneficial effects: In the heat exchange system of the present invention, the water channel connection assembly further includes a third water channel plate, which can make the heat exchange system more compact and facilitate pipe connection.

[0025] In an optional embodiment, the water channel connection assembly also includes a second guide groove, which is arranged on the main body, and the first flow channel outlet of the third water channel plate is connected to the first pipe inlet of the second heat exchange assembly through the second guide groove; the second guide groove inlet is connected to the first flow channel outlet of the third water channel plate, and the second guide groove outlet is connected to the first pipe inlet of the second heat exchange assembly.

[0026] Beneficial effect: In the heat exchange system of the present invention, the second guide groove is arranged on the main body, which can make the heat exchange system more compact. The connection method of the above-mentioned second guide groove is suitable for the series connection method of the first heat exchange component and the second heat exchange component. The use of the second guide groove can facilitate the pipeline connection, improve the efficiency of the pipeline connection, and facilitate and simplify the structural layout of the pipeline.

[0027] In an optional embodiment, the water channel connection assembly further includes a second water channel plate, which is disposed on the body or the second heat exchange assembly, and has a second water channel plate first flow channel and a second water channel plate second flow channel therein, and the second guide groove outlet is connected to the first pipe inlet of the second heat exchange assembly through the second water channel plate first flow channel;

[0028] The first flow channel inlet of the second waterway plate is connected to the outlet of the second guide groove, and the first flow channel outlet of the second waterway plate is connected to the first pipe inlet of the second heat exchange assembly;

[0029] The second flow channel inlet of the second water channel plate is connected to the second flow channel outlet of the third water channel plate, and the second flow channel outlet of the second water channel plate is connected to the second pipe inlet of the second heat exchange assembly.

[0030] Beneficial effects: In the heat exchange system of the present invention, the water channel connection assembly further includes a second water channel plate, which can make the heat exchange system more compact and facilitate pipe connection.

[0031] In an optional embodiment, the water channel connection assembly further includes a third guide groove, the third guide groove is provided on the body, the second flow channel of the third water channel plate is connected to the second pipe inlet of the second heat exchange assembly through the third guide groove, and the third guide groove is connected to the second pipe inlet of the second heat exchange assembly through the second flow channel of the second water channel plate;

[0032] The inlet of the third guide groove is connected to the second flow channel outlet of the third waterway plate, the outlet of the third guide groove is connected to the second flow channel inlet of the second waterway plate, the second flow channel outlet of the second waterway plate is connected to the second pipe inlet of the second heat exchange component, and the second pipe outlet of the second heat exchange component is connected to the water outlet pipe.

[0033] Beneficial effect: In the heat exchange system of the present invention, the third guide groove is arranged on the main body, which can make the heat exchange system more compact. The connection method of the above-mentioned third guide groove is suitable for the series connection method of the first heat exchange component and the second heat exchange component. The use of the third guide groove can facilitate the pipeline connection, improve the efficiency of the pipeline connection, and facilitate and simplify the structural layout of the pipeline.

[0034] In an optional embodiment, the water connection assembly further includes a fourth guide groove, which is arranged on the main body, the inlet of the fourth guide groove is connected to the first pipe outlet of the second heat exchange assembly, and the outlet of the fourth guide groove is connected to the water outlet pipeline.

[0035] Beneficial effect: In the heat exchange system of the present invention, the fourth guide groove is arranged on the main body, which can make the heat exchange system more compact. The connection method of the above-mentioned fourth guide groove is suitable for the series connection method of the first heat exchange component and the second heat exchange component. The fourth guide groove can be used to facilitate pipeline connection, improve the efficiency of pipeline connection, and facilitate and simplify the structural layout of the pipeline.

[0036] In an optional embodiment, the water channel connection assembly includes a first water channel plate, the first water channel plate is disposed on the body or the first heat exchange assembly, and the first water channel plate has a first water channel plate first flow channel and a first water channel plate second flow channel;

[0037] The first flow channel inlet of the first waterway plate is connected to the second pipe outlet of the first heat exchange component, the first flow channel outlet of the first waterway plate is connected to the water outlet pipeline, the second flow channel inlet of the first waterway plate is connected to the first pipe outlet of the first heat exchange component, and the second flow channel outlet of the first waterway plate is connected to the water outlet pipeline.

[0038] Beneficial effect: In the heat exchange system of the present invention, the first waterway plate is arranged on the main body or the first heat exchange component, which can make the heat exchange system more compact. The connection method of the above-mentioned first waterway plate is suitable for the parallel connection method of the first heat exchange component and the second heat exchange component. The use of the first waterway plate can facilitate the pipeline connection, improve the efficiency of the pipeline connection, and facilitate and simplify the structural layout of the pipeline.

[0039] In an optional embodiment, the water channel connection component also includes a second water channel plate, which is arranged on the main body or the second heat exchange component, and has a second water channel plate first flow channel and a second water channel plate second flow channel. The first flow channel inlet of the second water channel plate is connected to the second pipe outlet of the second heat exchange component, the first flow channel outlet of the second water channel plate is connected to the water outlet pipe, the second flow channel inlet of the second water channel plate is connected to the first pipe outlet of the second heat exchange component, and the second flow channel outlet of the second water channel plate is connected to the water outlet pipe.

[0040] Beneficial effect: In the heat exchange system of the present invention, the second waterway plate is arranged on the main body or the second heat exchange component, which can make the heat exchange system more compact. The connection method of the above-mentioned second waterway plate is suitable for the parallel connection method of the first heat exchange component and the second heat exchange component. The use of the second waterway plate can facilitate the pipeline connection, improve the efficiency of the pipeline connection, and facilitate and simplify the structural layout of the pipeline.

[0041] In an optional embodiment, the water channel connection component also includes a third water channel plate, which is arranged on the main body or the second heat exchange component, and has a third water channel plate first flow channel and a third water channel plate second flow channel. The first flow channel inlet of the third water channel plate is connected to the normal temperature water outlet, the first flow channel outlet of the third water channel plate is connected to the first pipe inlet of the first heat exchange component and the first pipe inlet of the second heat exchange component, the second flow channel inlet of the third water channel plate is connected to the hot water outlet, and the second flow channel outlet of the third water channel plate is connected to the second pipe inlet of the first heat exchange component and the second pipe inlet of the second heat exchange component.

[0042] Beneficial effect: In the heat exchange system of the present invention, the third waterway plate is arranged on the main body or the second heat exchange component, which can make the heat exchange system more compact. The connection method of the above-mentioned third waterway plate is suitable for the parallel connection method of the first heat exchange component and the second heat exchange component. The use of the third waterway plate can facilitate the connection of pipelines, improve the efficiency of pipeline connection, and facilitate and simplify the structural layout of the pipelines.

[0043] In an optional embodiment, the first heat exchange component and / or the second heat exchange component are arranged in an S-shape on the main body; and the first heat exchange component and the second heat exchange component are arranged in parallel.

[0044] Beneficial Effects: In the heat exchange system of the present invention, the first and / or second heat exchange components are arranged in an S-shape within the main body, making the structure of the first and / or second heat exchange components more compact, reducing the structural volume and saving installation space, while ensuring heat exchange efficiency. Furthermore, the first and second heat exchange components are arranged side by side within the main body, saving installation space and being suitable for water outlet devices with limited internal installation space.

[0045] In a second aspect, the present invention further provides a water outlet device, comprising:

[0046] A water supply module having a normal temperature water outlet and a hot water outlet;

[0047] The heat exchange system as described above is in communication with the water supply module;

[0048] The water outlet module is in communication with the heat exchange system, and the water outlet module has a water outlet pipeline.

[0049] Because the water outlet device of the present invention includes the heat exchange system of the present invention and has the same beneficial effects as the heat exchange system, it will not be described in detail here.

[0050] In an optional embodiment, the water outlet device is a water purifier.

[0051] Beneficial Effects: The water outlet device of the present invention, specifically a water purification device, has high heat exchange efficiency and can increase the water flow rate of the heat exchange system, achieving the goal of producing a large amount of purified cooked water in a short period of time, thereby shortening the waiting time for users to receive water. Furthermore, the second heat exchange component is arranged side by side with the first heat exchange component in the main body, which saves installation space and is suitable for water outlet devices with limited internal installation space. BRIEF DESCRIPTION OF THE DRAWINGS

[0052] In order to more clearly illustrate the specific implementation methods of the utility model or the technical solutions in the prior art, the drawings required for use in the specific implementation methods or the description of the prior art will be briefly introduced below. Obviously, the drawings described below are some implementation methods of the utility model. For ordinary technicians in this field, other drawings can be obtained based on these drawings without paying any creative work.

[0053] Figure 1 A schematic diagram of an embodiment of the heat exchange system of the present utility model Figure 1 ;

[0054] Figure 2 A schematic diagram of an embodiment of the heat exchange system of the present utility model Figure 2 ;

[0055] Figure 3 A schematic diagram of an embodiment of the heat exchange system of the present utility model Figure 3 ;

[0056] Figure 4 This is another embodiment of the heat exchange system of the present invention. Figure 1 ;

[0057] Figure 5 This is another embodiment of the heat exchange system of the present invention. Figure 2 .

[0058] Description of reference numerals:

[0059] 1. Body; 101. First body part; 102. Second body part;

[0060] 2. First heat exchange assembly; 201. First pipe inlet of first heat exchange assembly; 202. Second pipe inlet of first heat exchange assembly; 203. First pipe outlet of first heat exchange assembly; 204. Second pipe outlet of first heat exchange assembly;

[0061] 3. Second heat exchange assembly; 301. First pipe inlet of second heat exchange assembly; 302. Second pipe inlet of second heat exchange assembly; 303. First pipe outlet of second heat exchange assembly; 304. Second pipe outlet of second heat exchange assembly;

[0062] 401, first waterway plate; 402, second waterway plate; 403, third waterway plate;

[0063] 501, first guide trough; 5011, first guide trough inlet; 5012, first guide trough outlet; 502, second guide trough; 5021, second guide trough inlet; 5022, second guide trough outlet; 503, third guide trough; 5031, third guide trough inlet; 5032, third guide trough outlet; 504, fourth guide trough; 5041, fourth guide trough inlet; 5042, fourth guide trough outlet. DETAILED DESCRIPTION

[0064] To make the purpose, technical solutions, and advantages of the embodiments of the present invention more clear, the technical solutions in the embodiments of the present invention will be clearly and completely described below in conjunction with the drawings in the embodiments of the present invention. Obviously, the embodiments described are part of the embodiments of the present invention, not all of the embodiments. Based on the embodiments of the present invention, all other embodiments obtained by those skilled in the art without making creative efforts shall fall within the scope of protection of the present invention.

[0065] The following combination Figure 1-Figure 5 , describing the embodiments of the heat exchange system and water outlet device of the present invention.

[0066] According to an embodiment of the present utility model, a heat exchange system is provided for a water outlet device, the water outlet device has a water supply module, the water supply module supplies water to the heat exchange system, the heat exchange system includes: a main body 1 and at least one group of heat exchange modules, the heat exchange modules are arranged on the main body 1, each group of heat exchange modules includes a first heat exchange component 2 and a second heat exchange component 3, the first heat exchange component 2 and the second heat exchange component 3 both use hot water to preheat normal temperature water, and at the same time cool the hot water to warm boiled water.

[0067] This heat exchange system, by setting up at least one group of heat exchange modules, and each group of heat exchange modules includes two heat exchange components, can significantly improve the heat exchange efficiency of the heat exchange system, and can increase the water flow of the heat exchange system, thereby achieving the purpose of preparing a large amount of cooked water in a short time, thereby shortening the waiting time for users to get water.

[0068] The water outlet device can be a water purifier, water dispenser, etc. The water outlet device includes a water supply module, etc. The water supply module is used to provide normal temperature water and hot water. The normal temperature water can be water from the tap water network or purified water, which can be selected and set according to the use scenario of the heat exchange system. The hot water can come from water heated by the heating element. The water supply module has a normal temperature water outlet and a hot water outlet.

[0069] The heat exchange system body 1 is the load-bearing structure of the heat exchange system and has a certain structural strength. The body 1 is used to install the heat exchange module and water connection pipes. In this embodiment, the body 1 is a plate-like structure or a frame structure, and the body 1 is usually made of metal.

[0070] like Figure 1-Figure 3 As shown, specifically, the main body 1 includes a first main body part 101 and a second main body part 102, the first main body part 101 and the second main body part 102 are both plate-like structures or frame structures, and the first main body part 101 and the second main body part 102 are arranged side by side, the first main body part 101 and the second main body part 102 can be separately arranged and assembled into one through a splicing structure, or integrally formed, or separately arranged and installed side by side, and the first main body part 101 and the second main body part 102 can adopt the above-mentioned arrangement method.

[0071] In order to facilitate the installation of the main body 1, mounting holes are formed at the corners of the first main body part 101 and the second main body part 102. The main body 1 can be assembled and disassembled by fasteners such as bolts.

[0072] In this embodiment, the heat exchange system includes a group of heat exchange modules, and the heat exchange module includes a first heat exchange component 2 and a second heat exchange component 3. The first heat exchange component 2 and the second heat exchange component 3 are both arranged on the main body 1, and the first heat exchange component 2 and the second heat exchange component 3 are arranged in parallel, which can save the setting space and is suitable for water outlet devices with limited internal setting space.

[0073] Specifically, the first heat exchange assembly 2 is disposed in the first body portion 101, and the second heat exchange assembly 3 is disposed in the second body portion 102. The first heat exchange assembly 2 and the second heat exchange assembly 3 have the same function, and both can use hot water to preheat room temperature water and cool the hot water to warm boiled water (cooked water).

[0074] Furthermore, the first heat exchange component 2 and / or the second heat exchange component 3 are arranged in an S shape on the main body 1.

[0075] The first heat exchange component 2 and / or the second heat exchange component 3 are arranged in an S-shape, which can save space, make the pipeline layout compact, arrange more heat exchange pipelines in a limited space, and improve the heat exchange efficiency. In this embodiment, the first heat exchange component 2 and the second heat exchange component 3 are both arranged in an S-shape, and the first body part 101 and the second body part 102 are both rectangular structures. The first heat exchange component 2 and the second heat exchange component 3 are respectively arranged along the length direction of the first body part 101 and the second body part 102. Figure 1-Figure 3 As shown, the bending directions of the first heat exchange component 2 and the second heat exchange component 3 are consistent, so that the heat exchange component structure is unified, easy to manufacture and form, which is conducive to reducing manufacturing costs and difficulty.

[0076] In other embodiments, according to different heat exchange requirements, the first heat exchange component 2 or the second heat exchange component 3 can be arranged in an S shape on the main body 1.

[0077] Furthermore, the first heat exchange component 2 includes a first heat exchange component first tube and a first heat exchange component second tube, one of the first heat exchange component first tube inlet 201 and the first heat exchange component second tube inlet 202 is connected to the normal temperature water outlet of the water supply module, and the other is connected to the hot water outlet of the water supply module. Accordingly, one of the first heat exchange component first tube outlet 203 and the first heat exchange component second tube outlet 204 is a first-level preheated water outlet or a first-level preheated water outlet, and the other is a first-level warm boiled water outlet or a first-level warm boiled water outlet; the second heat exchange component 3 includes a second heat exchange component first tube and a second heat exchange component second tube, the first heat exchange component first tube inlet One of 301 and the second pipe inlet 302 of the second heat exchange component is connected to the first-level preheated water outlet, and the other is connected to the first-level warm boiled water outlet. Accordingly, one of the first pipe outlet 303 of the second heat exchange component and the second pipe outlet 304 of the second heat exchange component is the second-level preheated water outlet, and the other is the second-level warm boiled water outlet; or one of the first pipe inlet 301 of the second heat exchange component and the second pipe inlet 302 of the second heat exchange component is connected to the normal temperature water outlet, and the other is connected to the hot water outlet. Accordingly, one of the first pipe outlet 303 of the second heat exchange component and the second pipe outlet 304 of the second heat exchange component is the second-level preheated water outlet, and the other is the second-level warm boiled water outlet.

[0078] The first heat exchange component 2 and the second heat exchange component 3 are both sleeve-type heat exchange structures, which can significantly save the overall installation space of the heat exchange system, make the structure compact, and facilitate sufficient heat exchange and reduce heat loss.

[0079] The first heat exchange assembly 2 includes a first heat exchange assembly first tube (outer tube) and a first heat exchange assembly second tube (inner tube) that are sleeved. The first heat exchange assembly first tube can be sleeved on the outside of the first heat exchange assembly second tube, or the first heat exchange assembly second tube can be sleeved on the outside of the first heat exchange assembly first tube. In this embodiment, the first heat exchange assembly first tube is sleeved on the outside of the first heat exchange assembly second tube. The axial lengths of the first heat exchange assembly first tube and the first heat exchange assembly second tube should be selected and set according to design requirements and space, etc. Preferably, the lengths of the first heat exchange assembly first tube and the first heat exchange assembly second tube are the same. The longer the axial lengths of the first heat exchange assembly first tube and the first heat exchange assembly second tube, the longer the heat exchange path between the first heat exchange assembly first tube and the first heat exchange assembly second tube, which is conducive to sufficient heat exchange between the two.

[0080] The second heat exchange assembly 3 includes a sleeved first tube (outer tube) of the second heat exchange assembly and a second tube (inner tube) of the second heat exchange assembly. The first tube of the second heat exchange assembly can be sleeved on the outside of the second tube of the second heat exchange assembly, or the second tube of the second heat exchange assembly can be sleeved on the outside of the first tube of the second heat exchange assembly. In this embodiment, the first tube of the second heat exchange assembly is sleeved on the outside of the second tube of the second heat exchange assembly. The axial length of the first tube of the second heat exchange assembly and the second tube of the second heat exchange assembly should be selected and set according to design requirements and space, etc. Preferably, the length of the first tube of the second heat exchange assembly and the second tube of the second heat exchange assembly are the same. The longer the axial length of the first tube of the second heat exchange assembly and the second tube of the second heat exchange assembly, the longer the heat exchange path between the first tube of the second heat exchange assembly and the second tube of the second heat exchange assembly, which is conducive to sufficient heat exchange between the two.

[0081] In the first heat exchange assembly 2, the functions of the first tube of the first heat exchange assembly and the second tube of the first heat exchange assembly can be interchanged. For example, the first tube of the first heat exchange assembly can be fed with normal temperature water and the second tube of the first heat exchange assembly can be fed with hot water, or the first tube of the first heat exchange assembly can be fed with hot water and the second tube of the first heat exchange assembly can be fed with normal temperature water. This can be selected based on the heat exchange requirements. Similarly, in the second heat exchange assembly 3, the functions of the first tube of the second heat exchange assembly and the second tube of the second heat exchange assembly can be interchanged. For example, the first tube of the second heat exchange assembly can be fed with normal temperature water and the second tube of the second heat exchange assembly can be fed with hot water, or the first tube of the second heat exchange assembly can be fed with hot water and the second tube of the second heat exchange assembly can be fed with normal temperature water. This can be selected based on the heat exchange requirements.

[0082] The first heat exchange component 2 and the second heat exchange component 3 can be connected in series or in parallel.

[0083] When the first heat exchange component 2 and the second heat exchange component 3 are connected in series, the first heat exchange component 2 is used to achieve primary heat exchange, and the second heat exchange component 3 is used to achieve secondary heat exchange. At this time, in the first heat exchange component 2, one of the first heat exchange component first pipe inlet 201 and the first heat exchange component second pipe inlet 202 is connected to the normal temperature water outlet of the water supply module, and the other is connected to the hot water outlet of the water supply module. Accordingly, one of the first heat exchange component first pipe outlet 203 and the first heat exchange component second pipe outlet 204 is a primary preheated water outlet, and the other is a primary warm boiled water outlet. In the second heat exchange component 3, one of the second heat exchange component first pipe inlet 301 and the second heat exchange component second pipe inlet 302 is connected to the primary preheated water outlet, and the other is connected to the primary warm boiled water outlet. Accordingly, one of the second heat exchange component first pipe outlet 303 and the second heat exchange component second pipe outlet 304 is a secondary preheated water outlet, and the other is a secondary warm boiled water outlet.

[0084] In this series connection mode, after heat exchange in the first heat exchange component 2, the normal temperature water becomes the first-level preheated water, and the hot water becomes the first-level warm boiled water. The first-level preheated water and the first-level warm boiled water will continue to enter the second heat exchange component 3 for heat exchange. The first-level preheated water further becomes the second-level preheated water (the water temperature of the second-level preheated water is usually higher than the water temperature of the first-level preheated water), and the first-level warm boiled water further becomes the second-level warm boiled water (the water temperature of the second-level warm boiled water is usually lower than the water temperature of the first-level warm boiled water). That is, after heat exchange between the first heat exchange component and the second heat exchange component, the water temperatures of the preheated water and the warm boiled water are getting closer and closer, which makes the hot water cooler and can achieve a wider range of water temperature adjustment to meet the user's needs for different boiled water temperatures.

[0085] In this embodiment, the first pipe of the first heat exchange assembly is fed with normal temperature water, the second pipe of the first heat exchange assembly is fed with hot water, the first pipe of the second heat exchange assembly is fed with first-level preheated water, and the second pipe of the second heat exchange assembly is fed with first-level warm boiled water.

[0086] Furthermore, the first tube of the first heat exchange component is sleeved on the outside of the second tube of the first heat exchange component, and a water flow space is formed between the inner wall of the first tube of the first heat exchange component and the outer wall of the second tube of the first heat exchange component; similarly, the first tube of the second heat exchange component is sleeved on the outside of the second tube of the second heat exchange component, and a water flow space is formed between the inner wall of the first tube of the second heat exchange component and the outer wall of the second tube of the second heat exchange component.

[0087] The first tube of the first heat exchange assembly is sleeved on the outside of the second tube of the first heat exchange assembly. Normal temperature water is passed into the first tube of the first heat exchange assembly, while hot water is passed into the second tube of the first heat exchange assembly. The normal temperature water in the first tube of the first heat exchange assembly and the hot water in the second tube of the first heat exchange assembly exchange heat through the tube wall of the second tube of the first heat exchange assembly, gradually heating up the normal temperature water in the first tube of the first heat exchange assembly and preheating the normal temperature water, while cooling down the hot water in the second tube of the first heat exchange assembly.

[0088] The tube wall of the second tube of the first heat exchange component should be made of a material that can transfer heat. In this embodiment, the second tube of the first heat exchange component is formed by a metal tube, that is, the tube wall of the second tube of the first heat exchange component is made of metal, and the internal space of the metal tube is the second tube of the first heat exchange component to ensure heat exchange efficiency.

[0089] In this embodiment, the first tube of the first heat exchange assembly and the second tube of the first heat exchange assembly are coaxially arranged so that the water flow space between the inner wall of the first tube of the first heat exchange assembly and the outer wall of the second tube of the first heat exchange assembly is uniform.

[0090] In other embodiments, the second tube of the first heat exchange assembly may also be sleeved on the outside of the first tube of the first heat exchange assembly.

[0091] Similarly, the first tube of the second heat exchange component is sleeved on the outside of the second tube of the second heat exchange component, and normal temperature water or first-level preheated water (normal temperature water with higher temperature) is passed into the first tube of the second heat exchange component, while hot water or first-level warm boiled water (hot water with lower temperature) is passed into the second tube of the second heat exchange component. The normal temperature water or first-level preheated water in the first tube of the second heat exchange component and the hot water or first-level warm boiled water in the second tube of the second heat exchange component exchange heat through the tube wall of the second tube of the second heat exchange component, gradually further heating up the normal temperature water or first-level preheated water in the first tube of the second heat exchange component, and at the same time further cooling down the hot water or first-level warm boiled water in the second tube of the second heat exchange component.

[0092] The tube wall of the second tube of the second heat exchange component should be made of a material that can transfer heat. In this embodiment, the second tube of the second heat exchange component is formed by a metal tube, that is, the tube wall of the second tube of the second heat exchange component is made of metal, and the internal space of the metal tube is the second tube of the second heat exchange component to ensure heat exchange efficiency.

[0093] In this embodiment, the first tube of the second heat exchange assembly and the second tube of the second heat exchange assembly are coaxially arranged so that the water flow space between the inner wall of the first tube of the second heat exchange assembly and the outer wall of the second tube of the second heat exchange assembly is uniform.

[0094] In other embodiments, the second tube of the second heat exchange assembly may also be sleeved on the outside of the first tube of the second heat exchange assembly.

[0095] Furthermore, the heat exchange system also includes a water connection component, which is arranged on the main body 1 and / or the heat exchange module. The water connection component is used to connect the water supply module and the heat exchange system, and / or connect the first heat exchange component 2 and the second heat exchange component 3.

[0096] Since the first heat exchange component 2 and the second heat exchange component 3 are arranged in parallel, the connection between the water supply module and the heat exchange system and / or the connection between the first heat exchange component 2 and the second heat exchange component 3 are realized through the water connector component, which can make the pipeline connection more convenient and improve the assembly efficiency.

[0097] In this embodiment, the water connection assembly is used to connect the water supply module and the heat exchange system, and to connect the first heat exchange assembly 2 and the second heat exchange assembly 3 .

[0098] In other embodiments, the water connection assembly is used to connect the water supply module and the heat exchange system, or to connect the first heat exchange assembly 2 and the second heat exchange assembly 3.

[0099] Furthermore, the water channel connection component includes a first water channel plate 401, which is arranged on the main body 1 or the first heat exchange component 2, and has a first water channel plate first flow channel and a first water channel plate second flow channel; the first flow channel inlet of the first water channel plate is connected to the normal temperature water outlet, the first flow channel outlet of the first water channel plate is connected to the first pipe inlet 201 of the first heat exchange component, the second flow channel inlet of the first water channel plate is connected to the hot water outlet, and the second flow channel outlet of the first water channel plate is connected to the second pipe inlet 202 of the first heat exchange component.

[0100] In this embodiment, the first heat exchange component 2 and the second heat exchange component 3 are connected in series.

[0101] The first waterway plate 401 is disposed within the first heat exchange assembly 2 and has two flow channels: a first waterway plate first flow channel and a second waterway plate second flow channel. The first waterway plate first flow channel inlet is connected to the normal-temperature water outlet, which in turn is connected to the first heat exchange assembly first pipe inlet 201, allowing normal-temperature water to enter the first heat exchange assembly first pipe. The second waterway plate second flow channel inlet is connected to the hot-water outlet, which in turn is connected to the second heat exchange assembly second pipe inlet 202, allowing hot water to enter the first heat exchange assembly second pipe, thereby performing primary heat exchange within the first heat exchange assembly.

[0102] Furthermore, the water channel connection assembly also includes a first guide groove 501, which is arranged on the main body 1, the first guide groove inlet 5011 is connected to the normal temperature water outlet, and the first guide groove outlet 5012 is connected to the first flow channel inlet of the first water channel plate.

[0103] In this embodiment, the first guide groove 501 is arranged on one long side of the first main body part 101, and a water passage is provided inside the first guide groove 501. The first guide groove inlet 5011 is connected to the normal temperature water outlet, and the first guide groove outlet 5012 is connected to the first flow channel inlet of the first waterway plate, thereby allowing normal temperature water to enter the first tube of the first heat exchange component.

[0104] Furthermore, the water channel connection component also includes a third water channel plate 403, which is arranged on the main body 1 or the first heat exchange component 2. The third water channel plate 403 has a third water channel plate first flow channel and a third water channel plate second flow channel. The first flow channel inlet of the third water channel plate is connected to the first pipe outlet 203 of the first heat exchange component, and the first flow channel outlet of the third water channel plate is connected to the first pipe inlet 301 of the second heat exchange component; the second flow channel inlet of the third water channel plate is connected to the second pipe outlet 204 of the first heat exchange component, and the second flow channel outlet of the third water channel plate is connected to the second pipe inlet 302 of the second heat exchange component.

[0105] In this embodiment, the third waterway plate 403 is disposed within the first heat exchange assembly 2 and has two flow channels: a first flow channel and a second flow channel. The inlet of the first flow channel of the third waterway plate is connected to the first pipe outlet 203 of the first heat exchange assembly, and the outlet of the first flow channel of the third waterway plate is connected to the first pipe inlet 301 of the second heat exchange assembly, thereby outputting the primary preheated water to the first pipe of the second heat exchange assembly.

[0106] The second flow channel inlet of the third waterway plate is connected to the second pipe outlet 204 of the first heat exchange component, and the second flow channel outlet of the third waterway plate is connected to the second pipe inlet 302 of the second heat exchange component to output the first-level warm boiled water to the second pipe of the second heat exchange component.

[0107] Furthermore, the water channel connection assembly also includes a second guide groove 502, the second guide groove 502 is arranged on the main body 1, and the first flow channel outlet of the third water channel plate is connected to the first pipe inlet 301 of the second heat exchange assembly through the second guide groove 502; the second guide groove inlet 5021 is connected to the first flow channel outlet of the third water channel plate, and the second guide groove outlet 5022 is connected to the first pipe inlet 301 of the second heat exchange assembly.

[0108] In this embodiment, the second guide groove 502 is arranged on the other long side of the first main body part 101, and a water passage is provided inside the second guide groove 502. The second guide groove inlet 5021 is connected to the first flow channel outlet of the third waterway plate, and the second guide groove outlet 5022 is connected to the first pipe inlet 301 of the second heat exchange component to pass the first-level preheated water after the first-level heat exchange into the first pipe of the second heat exchange component.

[0109] Furthermore, the water channel connection component also includes a second water channel plate 402, which is arranged on the main body 1 or the second heat exchange component 3. The second water channel plate 402 has a second water channel plate first flow channel and a second water channel plate second flow channel. The second guide groove outlet 5022 is connected to the first pipe inlet 301 of the second heat exchange component through the second water channel plate first flow channel; the first flow channel inlet of the second water channel plate is connected to the second guide groove outlet 5022, and the first flow channel outlet of the second water channel plate is connected to the first pipe inlet 301 of the second heat exchange component; the second flow channel inlet of the second water channel plate is connected to the second flow channel outlet of the third water channel plate, and the second flow channel outlet of the second water channel plate is connected to the second pipe inlet 302 of the second heat exchange component.

[0110] In this embodiment, the second waterway plate 402 is disposed in the second heat exchange assembly 3 , and has two flow channels therein, namely, the first flow channel of the second waterway plate and the second flow channel of the second waterway plate.

[0111] The first flow channel inlet of the second waterway plate is connected to the second guide groove outlet 5022, and the first flow channel outlet of the second waterway plate is connected to the first pipe inlet 301 of the second heat exchange component to input the first level preheated water into the first pipe of the second heat exchange component.

[0112] The second flow channel inlet of the second waterway plate is connected to the second flow channel outlet of the third waterway plate, and the second flow channel outlet of the second waterway plate is connected to the second pipe inlet 302 of the second heat exchange component to input the first-level warm boiled water into the second pipe of the second heat exchange component.

[0113] Furthermore, the water path connection component also includes a third guide groove 503, which is arranged on the main body 1, and the second flow channel of the third waterway plate is connected to the second pipe inlet 302 of the second heat exchange component through the third guide groove 503, and the third guide groove 503 is connected to the second pipe inlet 302 of the second heat exchange component through the second flow channel of the second waterway plate; the third guide groove inlet 5031 is connected to the second flow channel outlet of the third waterway plate, the third guide groove outlet 5032 is connected to the second flow channel inlet of the second waterway plate, the second flow channel outlet of the second waterway plate is connected to the second pipe inlet 302 of the second heat exchange component, and the second pipe outlet 304 of the second heat exchange component is connected to the water outlet pipeline.

[0114] In this embodiment, the third guide groove 503 is disposed on one long side of the second main body portion 102. A water passage is defined within the third guide groove 503. The third guide groove inlet 5031 is connected to the second flow channel outlet of the third waterway plate. The third guide groove outlet 5032 is connected to the second flow channel inlet of the second waterway plate. The second flow channel outlet of the second waterway plate is connected to the second pipe inlet 302 of the second heat exchange assembly, allowing the first-stage warm water, which has undergone the first-stage heat exchange, to flow into the second pipe of the second heat exchange assembly. Furthermore, the second pipe outlet 304 of the second heat exchange assembly is connected to the outlet pipe, enabling the output of the second-stage warm water. The outlet pipe includes a regulating valve, etc.

[0115] In other embodiments, the second pipe outlet 304 of the second heat exchange assembly may also be connected to the water outlet pipeline through a fourth waterway plate, and the fourth waterway plate is disposed on other structures of the water outlet device.

[0116] Furthermore, the water channel connection assembly also includes a fourth guide groove 504, which is arranged on the main body 1, the fourth guide groove inlet 5041 is connected to the first pipe outlet 303 of the second heat exchange assembly, and the fourth guide groove outlet 5042 is connected to the water outlet pipeline.

[0117] In this embodiment, the fourth guide groove 504 is arranged on the other long side of the second main body part 102, and a water passage is provided inside the fourth guide groove 504. The fourth guide groove inlet 5041 is connected to the first pipe outlet 303 of the second heat exchange component, and the fourth guide groove outlet 5042 is connected to the water outlet pipeline to realize the output of secondary preheated water.

[0118] The following describes the overall connection mode of the first heat exchange component 2 and the second heat exchange component 3 connected in series in accordance with the present embodiment with reference to the accompanying drawings:

[0119] Normal temperature water circuit - the normal temperature water outlet of the water supply module is connected to the first guide groove inlet 5011, the first guide groove outlet 5012 is connected to the first flow channel inlet of the first waterway plate, and the first flow channel outlet of the first waterway plate is connected to the first pipe inlet 201 of the first heat exchange component, so that normal temperature water enters the first pipe of the first heat exchange component to form first-level preheated water; then, the first pipe outlet 203 of the first heat exchange component is connected to the first flow channel inlet of the third waterway plate, the first flow channel outlet of the third waterway plate is connected to the second guide groove inlet 5021, the second guide groove outlet 5022 is connected to the first flow channel inlet of the second waterway plate, and the first flow channel outlet of the second waterway plate is connected to the first pipe inlet 301 of the second heat exchange component, so that the first-level preheated water enters the first pipe of the second heat exchange component to form second-level preheated water, and the first pipe outlet 303 of the second heat exchange component is connected to the fourth guide groove inlet 5041, and the fourth guide groove outlet 5042 is connected to the water outlet pipeline to realize the output of second-level preheated water.

[0120] Hot water circuit - the hot water outlet of the water supply module is connected to the second flow channel inlet of the first water circuit plate, and the second flow channel outlet of the first water circuit plate is connected to the second pipe inlet 202 of the first heat exchange component, so that the hot water enters the second pipe of the first heat exchange component to form first-level warm boiled water; afterward, the second pipe outlet 204 of the first heat exchange component is connected to the second flow channel inlet of the third water circuit plate, the second flow channel outlet of the third water circuit plate is connected to the third guide groove inlet 5031, the third guide groove outlet 5032 is the second flow channel inlet of the second water circuit plate, and the second flow channel outlet of the second water circuit plate is connected to the second pipe inlet 302 of the second heat exchange component, so that the first-level warm boiled water enters the second pipe of the second heat exchange component to form second-level warm boiled water, and the second pipe outlet 304 of the second heat exchange component is connected to the outlet pipeline to realize the output of second-level warm boiled water.

[0121] This embodiment also provides a water outlet device, comprising: a water supply module, the heat exchange system of the above embodiment, and a water outlet module. The water supply module has a normal temperature water outlet and a hot water outlet. The heat exchange system is connected to the water supply module, and the water outlet module is connected to the heat exchange system. The water outlet module has a water outlet pipeline.

[0122] This water outlet device, by installing at least one set of heat exchange modules, each consisting of two heat exchange components, significantly improves the heat exchange efficiency of the heat exchange system and increases the water flow rate of the heat exchange system, enabling the production of large quantities of cooked water in a short period of time, thereby shortening the waiting time for users to receive water. Furthermore, the first heat exchange component 2 and the second heat exchange component 3 are arranged side by side within the main body, saving space and being suitable for water outlet devices with limited internal space.

[0123] The water supply module is used to provide both room temperature water and hot water, and has a room temperature water outlet and a hot water outlet. The water outlet module may include a water outlet pipeline, a valve, a water outlet faucet, etc. Of course, the water outlet device also has other structures and components common to existing water outlet devices, which will not be detailed here.

[0124] Furthermore, the water outlet device is a water purifier.

[0125] A water purifier is a type of water treatment equipment that deeply filters and purifies raw water according to specific usage requirements. Water purifiers using this heat exchange system offer high heat exchange efficiency and a wide temperature reduction range for hot water, enabling them to provide warm water across a wider temperature range to meet diverse user needs. Furthermore, their high water output reduces waiting time for users to collect water, providing a better user experience.

[0126] like Figure 3-Figure 5 As shown, it is a heat exchange system of another embodiment of the present invention. The difference between this embodiment and the previous embodiment is that the first heat exchange component 2 and the second heat exchange component 3 are connected in parallel.

[0127] When the first heat exchange component 2 and the second heat exchange component 3 are connected in parallel, the first heat exchange component 2 and the second heat exchange component 3 are both used to achieve first-level heat exchange. At this time, in the first heat exchange component 2, one of the first heat exchange component first pipe inlet 201 and the first heat exchange component second pipe inlet 202 is connected to the normal temperature water outlet of the water supply module, and the other is connected to the hot water outlet of the water supply module. Accordingly, one of the first heat exchange component first pipe outlet 203 and the first heat exchange component second pipe outlet 204 is the first-level preheated water outlet, and the other is the first-level warm boiled water outlet. In the second heat exchange component 3, one of the second heat exchange component first pipe inlet 301 and the second heat exchange component second pipe inlet 302 is connected to the normal temperature water outlet, and the other is connected to the hot water outlet. Accordingly, one of the second heat exchange component first pipe outlet 303 and the second heat exchange component second pipe outlet 304 is the second-level preheated water outlet, and the other is the second-level warm boiled water outlet.

[0128] In this embodiment, normal temperature water is passed through the first tube of the first heat exchange assembly and the first tube of the second heat exchange assembly, while hot water is passed through the second tube of the first heat exchange assembly and the second tube of the second heat exchange assembly.

[0129] In this parallel connection mode, the normal temperature water and hot water of the water supply module enter the first heat exchange component 2 and the second heat exchange component 3 at the same time. The first heat exchange component 2 and the second heat exchange component 3 synchronously preheat the normal temperature water and cool the hot water. This heat exchange mode can further improve the heat exchange efficiency, provide users with a large amount of cooked water in a shorter time, reduce the waiting time for users to get water, and improve the user experience.

[0130] Furthermore, the water channel connection component includes a first water channel plate 401, which is arranged on the main body 1 or the first heat exchange component 2, and has a first water channel plate first flow channel and a first water channel plate second flow channel; the first flow channel inlet of the first water channel plate is connected to the second pipe outlet 204 of the first heat exchange component, the first flow channel outlet of the first water channel plate is connected to the water outlet pipeline, the second flow channel inlet of the first water channel plate is connected to the first pipe outlet 203 of the first heat exchange component, and the second flow channel outlet of the first water channel plate is connected to the water outlet pipeline.

[0131] In this embodiment, the first heat exchange component 2 and the second heat exchange component 3 are connected in parallel.

[0132] The first waterway plate 401 is disposed within the first heat exchange assembly 2 and has two flow channels therein: a first waterway plate first flow channel and a second waterway plate second flow channel. The inlet of the first waterway plate first flow channel is connected to the second pipe outlet 204 of the first heat exchange assembly, which in turn is connected to the outlet pipe, allowing the first-stage warm water of the first heat exchange assembly to enter the outlet pipe. The inlet of the second waterway plate second flow channel is connected to the first pipe outlet 203 of the first heat exchange assembly, which in turn is connected to the outlet pipe, allowing the first-stage preheated water of the first heat exchange assembly to enter the outlet pipe.

[0133] Furthermore, the water channel connection component also includes a second water channel plate 402, which is arranged on the main body 1 or the second heat exchange component 3. The second water channel plate 402 has a second water channel plate first flow channel and a second water channel plate second flow channel. The first flow channel inlet of the second water channel plate is connected to the second pipe outlet 304 of the second heat exchange component, the first flow channel outlet of the second water channel plate is connected to the water outlet pipeline, the second flow channel inlet of the second water channel plate is connected to the first pipe outlet 303 of the second heat exchange component, and the second flow channel outlet of the second water channel plate is connected to the water outlet pipeline.

[0134] In this embodiment, the second waterway plate 402 is disposed in the second heat exchange assembly 3 and has two flow channels therein: a first flow channel of the second waterway plate and a second flow channel of the second waterway plate. The inlet of the first flow channel of the second waterway plate is connected to the second pipe outlet 304 of the second heat exchange assembly, and the outlet of the first flow channel of the second waterway plate is connected to the outlet pipe, allowing the second-stage warm water of the second heat exchange assembly to enter the outlet pipe. The inlet of the second flow channel of the second waterway plate is connected to the first pipe outlet 303 of the second heat exchange assembly, and the outlet of the second flow channel of the second waterway plate is connected to the outlet pipe, allowing the second-stage preheated water of the second heat exchange assembly to enter the outlet pipe.

[0135] Furthermore, the water channel connection component also includes a third water channel plate 403, which is arranged on the main body 1 or the second heat exchange component 3. The third water channel plate 403 has a third water channel plate first flow channel and a third water channel plate second flow channel. The first flow channel inlet of the third water channel plate is connected to the normal temperature water outlet, the first flow channel outlet of the third water channel plate is connected to the first pipe inlet 201 of the first heat exchange component and the first pipe inlet 301 of the second heat exchange component, the second flow channel inlet of the third water channel plate is connected to the hot water outlet, and the second flow channel outlet of the third water channel plate is connected to the second pipe inlet 202 of the first heat exchange component and the second pipe inlet 302 of the second heat exchange component.

[0136] In this embodiment, the third waterway plate 403 is disposed in the second heat exchange assembly 3 and has two flow channels therein: a first flow channel and a second flow channel. The inlet of the first flow channel of the third waterway plate is connected to the normal temperature water outlet, and the outlet of the first flow channel of the third waterway plate is connected to the first pipe inlet 201 of the first heat exchange assembly and the first pipe inlet 301 of the second heat exchange assembly, so that normal temperature water enters the first pipe of the first heat exchange assembly and the second pipe of the second heat exchange assembly, respectively. The inlet of the second flow channel of the third waterway plate is connected to the hot water outlet, and the outlet of the second flow channel of the third waterway plate is connected to the second pipe inlet 202 of the first heat exchange assembly and the second pipe inlet 302 of the second heat exchange assembly, so that hot water enters the second pipe of the first heat exchange assembly and the second pipe of the second heat exchange assembly, respectively.

[0137] The overall connection mode of the first heat exchange component 2 and the second heat exchange component 3 in parallel in this embodiment is described below with reference to the accompanying drawings:

[0138] Normal temperature water circuit - the normal temperature water outlet of the water supply module is connected to the first flow channel inlet of the third water channel plate, and the first flow channel outlet of the third water channel plate is respectively connected to the first pipe inlet 201 of the first heat exchange component and the first pipe inlet 301 of the second heat exchange component, so that normal temperature water enters the first pipe of the first heat exchange component and the second pipe of the second heat exchange component respectively to form the first and second first-level preheated water; afterward, the first pipe outlet 203 of the first heat exchange component is connected to the second flow channel inlet of the first water channel plate, and the second flow channel outlet of the first water channel plate is connected to the outlet pipe, so that the first first-level preheated water of the first heat exchange component enters the outlet pipe to realize the output of the first first-level preheated water; at the same time, the first pipe outlet 303 of the second heat exchange component is connected to the second flow channel inlet of the second water channel plate, and the second flow channel outlet of the second water channel plate is connected to the outlet pipe, so that the second first-level preheated water of the second heat exchange component enters the outlet pipe to realize the output of the second first-level preheated water.

[0139] Hot water circuit - the hot water outlet of the water supply module is connected to the second flow channel inlet of the third water channel plate, and the second flow channel outlet of the third water channel plate is respectively connected to the second pipe inlet 202 of the first heat exchange component and the second pipe inlet 302 of the second heat exchange component, so that the hot water enters the second pipe of the first heat exchange component and the second pipe of the second heat exchange component respectively, forming the first level warm boiled water and the second level warm boiled water; afterward, the second pipe outlet 204 of the first heat exchange component is connected to the first flow channel inlet of the first water channel plate, and the first flow channel outlet of the first water channel plate is connected to the outlet pipe, so that the first level warm boiled water of the first heat exchange component enters the outlet pipe, so as to realize the output of the first level warm boiled water; at the same time, the second pipe outlet 304 of the second heat exchange component is connected to the first flow channel inlet of the second water channel plate, and the first flow channel outlet of the second water channel plate is connected to the outlet pipe, so that the second level warm boiled water of the second heat exchange component enters the outlet pipe, so as to realize the output of the second level warm boiled water.

[0140] It should be noted that the heat exchange system of the present invention can be connected in series or in parallel according to different heat exchange needs. When the first heat exchange component 2 and the second heat exchange component 3 are connected in series or in parallel, some waterway connection components do not need to be used. For example, when the first heat exchange component 2 and the second heat exchange component 3 are connected in series, the second waterway plate 402 and the third waterway plate 403 do not need to be used, but the second waterway plate 402 and the third waterway plate 403 can still be set on the heat exchange system. When the first heat exchange component 2 and the second heat exchange component 3 are connected in parallel, the first guide groove 501, the second guide groove 502, the third guide groove 503 and the fourth guide groove 504 do not need to be used, but the second waterway plate 402 and the third waterway plate 403 can still be set on the heat exchange system.

[0141] In other embodiments, the heat exchange system may further include two or three groups of heat exchange modules, each group of heat exchange modules having the same structure. In this case, the water storage capacity of the heat exchange system is larger to meet different needs.

[0142] Although the embodiments of the present invention have been described with reference to the accompanying drawings, those skilled in the art may make various modifications and variations without departing from the spirit and scope of the present invention, and such modifications and variations shall fall within the scope defined by the appended claims.

Claims

1. A heat exchange system, characterized in that: Used for a water outlet device, the water outlet device has a water supply module, the water supply module supplies water to the heat exchange system, and the heat exchange system includes: Ontology(1); At least one group of heat exchange modules is arranged on the main body (1), and each group of heat exchange modules includes a first heat exchange component (2) and a second heat exchange component (3). The first heat exchange component (2) and the second heat exchange component (3) both use hot water to preheat normal temperature water and cool the hot water to warm boiled water.

2. The heat exchange system according to claim 1, characterized in that: The first heat exchange component (2) comprises a first heat exchange component first pipe and a first heat exchange component second pipe, one of the first heat exchange component first pipe inlet (201) and the first heat exchange component second pipe inlet (202) is connected to the normal temperature water outlet of the water supply module, and the other is connected to the hot water outlet of the water supply module. Accordingly, one of the first heat exchange component first pipe outlet (203) and the first heat exchange component second pipe outlet (204) is a first-level preheated water outlet or a first-level preheated water outlet, and the other is a first-level warm boiled water outlet or a first-level warm boiled water outlet. The second heat exchange component (3) comprises a first pipe of the second heat exchange component and a second pipe of the second heat exchange component, one of the first pipe inlet (301) of the second heat exchange component and the second pipe inlet (302) of the second heat exchange component is connected to the first-level preheated water outlet, and the other is connected to the first-level warm boiled water outlet; correspondingly, one of the first pipe outlet (303) of the second heat exchange component and the second pipe outlet (304) of the second heat exchange component is a second-level preheated water outlet, and the other is a second-level warm boiled water outlet; or One of the first pipe inlet (301) of the second heat exchange component and the second pipe inlet (302) of the second heat exchange component is connected to the normal temperature water outlet, and the other is connected to the hot water outlet. Accordingly, one of the first pipe outlet (303) of the second heat exchange component and the second pipe outlet (304) of the second heat exchange component is a second-level preheated water outlet, and the other is a second-level warm boiled water outlet.

3. The heat exchange system according to claim 2, characterized in that: The first tube of the first heat exchange component is sleeved on the outside of the second tube of the first heat exchange component, and a water flow space is formed between the inner wall of the first tube of the first heat exchange component and the outer wall of the second tube of the first heat exchange component; similarly, the first tube of the second heat exchange component is sleeved on the outside of the second tube of the second heat exchange component, and a water flow space is formed between the inner wall of the first tube of the second heat exchange component and the outer wall of the second tube of the second heat exchange component.

4. The heat exchange system according to claim 2, characterized in that: It also includes a water connection component, which is arranged on the body (1) and / or the heat exchange module, and is used to connect the water supply module and the heat exchange system, and / or connect the first heat exchange component (2) and the second heat exchange component (3).

5. The heat exchange system according to claim 4, characterized in that: The waterway connection assembly comprises a first waterway plate (401), the first waterway plate (401) being arranged on the body (1) or the first heat exchange assembly (2), and the first waterway plate (401) having a first waterway plate first flow channel and a first waterway plate second flow channel; The first flow channel inlet of the first waterway plate is connected to the normal temperature water outlet, the first flow channel outlet of the first waterway plate is connected to the first pipe inlet (201) of the first heat exchange component, the second flow channel inlet of the first waterway plate is connected to the hot water outlet, and the second flow channel outlet of the first waterway plate is connected to the second pipe inlet (202) of the first heat exchange component.

6. The heat exchange system according to claim 5, characterized in that: The water channel connection assembly further comprises a first guide groove (501), the first guide groove (501) being arranged on the body (1), the first guide groove inlet (5011) being connected to the normal temperature water outlet, and the first guide groove outlet (5012) being connected to the first flow channel inlet of the first water channel plate.

7. The heat exchange system according to claim 5, characterized in that: The water channel connection assembly further comprises a third water channel plate (403), the third water channel plate (403) being arranged on the body (1) or the first heat exchange assembly (2), and the third water channel plate (403) having a third water channel plate first flow channel and a third water channel plate second flow channel; The first flow channel inlet of the third waterway plate is connected to the first pipe outlet (203) of the first heat exchange component, and the first flow channel outlet of the third waterway plate is connected to the first pipe inlet (301) of the second heat exchange component; The second flow channel inlet of the third waterway plate is connected to the second pipe outlet (204) of the first heat exchange component, and the second flow channel outlet of the third waterway plate is connected to the second pipe inlet (302) of the second heat exchange component.

8. The heat exchange system according to claim 7, characterized in that: The waterway connection assembly further comprises a second guide groove (502), the second guide groove (502) being provided on the body (1), and the first flow channel outlet of the third waterway plate is connected to the first pipe inlet (301) of the second heat exchange assembly via the second guide groove (502); The second guide groove inlet (5021) is connected to the first flow channel outlet of the third waterway plate, and the second guide groove outlet (5022) is connected to the first pipe inlet (301) of the second heat exchange assembly.

9. The heat exchange system according to claim 8, characterized in that: The water channel connection assembly further comprises a second water channel plate (402), the second water channel plate (402) being arranged on the body (1) or the second heat exchange assembly (3), the second water channel plate (402) comprising a first flow channel of the second water channel plate and a second flow channel of the second water channel plate, the second guide groove outlet (5022) being connected to the first pipe inlet (301) of the second heat exchange assembly via the first flow channel of the second water channel plate; The first flow channel inlet of the second waterway plate is connected to the second guide groove outlet (5022), and the first flow channel outlet of the second waterway plate is connected to the first pipe inlet (301) of the second heat exchange assembly; The second flow channel inlet of the second waterway plate is connected to the second flow channel outlet of the third waterway plate, and the second flow channel outlet of the second waterway plate is connected to the second pipe inlet (302) of the second heat exchange component.

10. The heat exchange system according to claim 9, characterized in that: The waterway connection assembly further comprises a third guide groove (503), the third guide groove (503) being arranged on the body (1), the second flow channel outlet of the third waterway plate being connected to the second pipe inlet (302) of the second heat exchange assembly via the third guide groove (503), and the third guide groove (503) being connected to the second pipe inlet (302) of the second heat exchange assembly via the second flow channel of the second waterway plate; The third guide groove inlet (5031) is connected to the second flow channel outlet of the third waterway plate, the third guide groove outlet (5032) is connected to the second flow channel inlet of the second waterway plate, the second flow channel outlet of the second waterway plate is connected to the second pipe inlet (302) of the second heat exchange component, and the second pipe outlet (304) of the second heat exchange component is connected to the water outlet pipeline.

11. The heat exchange system according to claim 10, characterized in that: The water channel connection assembly further comprises a fourth guide groove (504), the fourth guide groove (504) being arranged on the body (1), the fourth guide groove inlet (5041) being connected to the first pipe outlet (303) of the second heat exchange assembly, and the fourth guide groove outlet (5042) being connected to the water outlet pipeline.

12. The heat exchange system according to claim 4, characterized in that: The waterway connection assembly comprises a first waterway plate (401), the first waterway plate (401) being arranged on the body (1) or the first heat exchange assembly (2), and the first waterway plate (401) having a first waterway plate first flow channel and a first waterway plate second flow channel; The first flow channel inlet of the first waterway plate is connected to the second pipe outlet (204) of the first heat exchange component, the first flow channel outlet of the first waterway plate is connected to the water outlet pipeline, the second flow channel inlet of the first waterway plate is connected to the first pipe outlet (203) of the first heat exchange component, and the second flow channel outlet of the first waterway plate is connected to the water outlet pipeline.

13. The heat exchange system according to claim 12, characterized in that: The water channel connection component further comprises a second water channel plate (402), the second water channel plate (402) being arranged on the body (1) or the second heat exchange component (3), the second water channel plate (402) comprising a first flow channel of the second water channel plate and a second flow channel of the second water channel plate, the first flow channel inlet of the second water channel plate being connected to the second pipe outlet (304) of the second heat exchange component, the first flow channel outlet of the second water channel plate being connected to the water outlet pipe, the second flow channel inlet of the second water channel plate being connected to the first pipe outlet (303) of the second heat exchange component, and the second flow channel outlet of the second water channel plate being connected to the water outlet pipe.

14. The heat exchange system according to claim 13, characterized in that: The water channel connection component further comprises a third water channel plate (403), the third water channel plate (403) being arranged on the body (1) or the second heat exchange component (3), the third water channel plate (403) comprising a first flow channel of the third water channel plate and a second flow channel of the third water channel plate, the first flow channel inlet of the third water channel plate being connected to the normal temperature water outlet, the first flow channel outlet of the third water channel plate being connected to the first pipe inlet (201) of the first heat exchange component and the first pipe inlet (301) of the second heat exchange component, the second flow channel inlet of the third water channel plate being connected to the hot water outlet, and the second flow channel outlet of the third water channel plate being connected to the second pipe inlet (202) of the first heat exchange component and the second pipe inlet (302) of the second heat exchange component.

15. The heat exchange system according to any one of claims 1 to 14, characterized in that: The first heat exchange component (2) and / or the second heat exchange component (3) are arranged in an S-shape on the body (1); and the first heat exchange component (2) and the second heat exchange component (3) are arranged in parallel.

16. A water outlet device, characterized in that: include: A water supply module having a normal temperature water outlet and a hot water outlet; The heat exchange system according to any one of claims 1 to 15, being in communication with the water supply module; The water outlet module is in communication with the heat exchange system, and the water outlet module has a water outlet pipeline.

17. The water outlet device according to claim 16, characterized in that: The water outlet device is a water purifier.

Images