Integrated control module waterway system
By designing an integrated control module waterway system in the gas heating hot water furnace and integrating the waterway and monitor, the problem of poor water temperature control in the waterway circulation design of the traditional gas heating hot water furnace is solved, and more efficient water temperature control is achieved. Reduce production costs.
Patent Information
- Application Number
- CN202411246080.9
- Authority / Receiving Office
- CN · China
- Patent Type
- Applications(China)
- Current Assignee / Owner
- Filing Date
- 2024-09-06
- Publication Date
- 2024-12-27
AI Technical Summary
The water circuit circulation design of traditional gas heating hot water furnaces leads to poor control of the water temperature for bathrooms, poor accuracy and high cost of the current limiting ring device, and complex structure and poor economicality of the dual servo valves.
Design an integrated control module waterway system, set up an integrated heat exchanger and a water mixing temperature control mechanism between the heating circulation waterway and the bathroom waterway, and realize the heat conversion and temperature control of the waterway through the water mixing valve and bypass pipe, integrating all waterways, The pump body and monitor part form an integrated modular design.
The internal structure of the hot water furnace is simplified, the difficulty and cost of production and assembly are reduced, the accuracy and economy of water temperature control are improved, and the product quality is ensured.
Smart Images
Figure CN119196737A_ABST
Abstract
Description
Technical Field
[0001] The invention relates to a water circuit control system, in particular to an integrated control module water circuit system applied in a gas heating water heater. Background Art
[0002] As we all know, a gas heating water boiler is a heat conversion device. Its main working principle is to generate heat energy by burning gas fuel, especially natural gas fuel, and use this heat energy to heat the water in the pipeline, thereby achieving the purpose of indoor heating or providing sanitary and shower water.
[0003] Limited by the design concept of water circulation of traditional gas heating water boilers, the temperature characteristics and user experience of bathroom water of traditional gas heating water boilers are poor. The most common method in their products is to use a limiting ring device or a double servo valve to control the water circulation.
[0004] When a flow-limiting ring device is used, when the water flow rate of the bathroom is too large, the flow-limiting ring device will adjust the water circulation characteristics to prevent the bathroom water temperature from being too low. However, due to the poor accuracy of the flow-limiting ring device, the water temperature control is poor. When a double servo valve is used, the method of controlling the constant temperature water output of the bathroom through a double servo valve has the disadvantages of high component cost, high control difficulty, and poor economy due to its complex structure. As mentioned above, this is the main disadvantage of traditional technology. Summary of the invention
[0005] The technical solution adopted by the present invention is: an integrated control module water system, the integrated control module water system is arranged in a gas heating stove, the integrated control module water system (300) is arranged between a heating circulation water circuit (100) and a bathroom water circuit (200), wherein the heating circulation water circuit (100)
[0006] It comprises a water boiler main heat exchanger (110), an environmental heat exchanger (120), a heating return water circuit (130) and a heating outlet water circuit (140); the bathroom water circuit (200) comprises a bathroom inlet water circuit (210) and a bathroom outlet water circuit (220).
[0007] The integrated control module water system (300) comprises an integrated heat exchanger (400), a heating water exchange water circuit (310) and a bathroom water exchange water circuit (320), wherein the heating water exchange water circuit (310) is connected between the heating return water circuit (130) and the heating outlet water circuit (140).
[0008] An integrated heating and water-exchanging circuit (311) is provided, and the integrated heating and water-exchanging circuit (311) is arranged in the integrated heat exchanger (400).
[0009] The bathroom water exchange circuit (320) is connected between the bathroom water inlet circuit (210) and the bathroom water outlet circuit (220), and the bathroom water exchange circuit (320) has an integrated bathroom water exchange circuit (321).
[0010] The integrated bathroom water exchange circuit (321) is arranged in the integrated heat exchanger (400).
[0011] The integrated control module water circuit system (300) further comprises a water mixing temperature control mechanism (500), the water mixing temperature control mechanism (500) being arranged in the bathroom water circuit (200), the water mixing temperature control mechanism (500) comprising a water mixing valve (510) and a water mixing bypass pipe (520), wherein the water mixing valve (510) comprises a water inlet (511), a water outlet (512) and a bypass outlet (513), wherein the water inlet (511) is connected to the bathroom water inlet circuit (210), the water outlet (512) is connected to the bathroom water exchange circuit (320), one end of the water mixing bypass pipe (520) is connected to the bypass outlet (513), and the other end of the water mixing bypass pipe (520) is connected to the bathroom water outlet circuit (220).
[0012] An integrated control module water system is provided in a gas heating stove. The integrated control module water system (300) is provided between a heating circulation water circuit (100) and a bathroom water circuit (200). The heating circulation water circuit (100) comprises a water furnace main heat exchanger (110), an environmental heat exchanger (120),
[0013] A heating return water circuit (130) and a heating outlet water circuit (140), wherein the bathroom water circuit (200) comprises a bathroom inlet water circuit (210) and a bathroom outlet water circuit (220).
[0014] The integrated control module water system (300) comprises an integrated heat exchanger (400), a heating water exchange circuit (310) and a bathroom water exchange circuit (320), wherein the heating water exchange circuit (310) is connected between the heating return water circuit (130) and the heating outlet water circuit (140), the heating water exchange circuit (310) has an integrated heating water exchange circuit (311), and the integrated heating water exchange circuit (311) is arranged in the integrated heat exchanger (400), wherein the bathroom water exchange circuit (320) is connected between the bathroom water inlet water circuit (210) and the bathroom water outlet water circuit (220), the bathroom water exchange circuit (320) has an integrated bathroom water exchange circuit (321), and the integrated bathroom water exchange circuit (321) is arranged in the integrated heat exchanger (400).
[0015] The integrated control module water circuit system (300) further comprises a water mixing temperature control mechanism (500), the water mixing temperature control mechanism (500) being arranged in the bathroom water circuit (200), the water mixing temperature control mechanism (500) comprising a water mixing valve (510) and a water mixing bypass pipe (520), wherein the water mixing valve (510) comprises a water inlet (511), a water outlet (512) and a bypass outlet (513), wherein the water inlet (511) is connected to the bathroom water inlet circuit (210), the water outlet (512) is connected to the bathroom water exchange circuit (320), one end of the water mixing bypass pipe (520) is connected to the bypass outlet (513), and the other end of the water mixing bypass pipe (520) is connected to the bathroom water outlet circuit (220).
[0016] The integrated heat exchanger (400) of the integrated control module water system (300) is provided with a first integrated platform (410) and a second integrated platform (420), the first integrated platform (410) and the second integrated platform (420) being respectively located on two sides of the integrated heat exchanger (400), wherein the first integrated platform (410) is connected to a water inlet integrated module (430), and the second integrated platform (420) is connected to a water outlet integrated module (440).
[0017] The beneficial effects of the present invention are as follows: The design idea of the present invention is to innovatively propose the idea of integrated modular design of the water system of the integrated control module. The design idea of the present invention is to set the integrated heat exchanger as an integrated integrated assembly platform, and integrate all water circuit parts, pump body parts and monitor parts on the integrated heat exchanger to realize the integrated modular design idea of the water system of the integrated control module. According to the design idea of the present invention, the internal structure of the water heater can be greatly simplified, the difficulty of production and assembly can be reduced, and the production cost can be greatly reduced. The inventor of the present invention believes that if the design idea of the present invention is not adopted, dozens of components need to be assembled separately in the water heater, and the assembly process is complicated, and the quality of the product cannot be guaranteed. BRIEF DESCRIPTION OF THE DRAWINGS
[0018] Figure 1 It is a schematic diagram of the heating circulation water circuit of the present invention.
[0019] Figure 2 It is a schematic diagram of the bathroom water circuit of the present invention.
[0020] Figure 3 It is a schematic diagram of the heating water exchange circuit of the present invention.
[0021] Figure 4 It is a schematic diagram of the bathroom water exchange circuit of the present invention.
[0022] Figure 5It is a schematic diagram of the water system of the integrated control module of the present invention.
[0023] Figure 6 It is a working schematic diagram of the water system of the integrated control module of the present invention.
[0024] Figure 7 Schematic diagram of the water mixing temperature control mechanism of the present invention.
[0025] Figure 8 Schematic diagram of the control and monitoring system of the present invention.
[0026] Fig. 9 It is a working schematic diagram of the water mixing temperature control mechanism of the present invention.
[0027] Fig.10 It is a schematic diagram of the zero cooling water circulation pump, the pressure difference bypass pipeline, the three-way valve, the water supply valve and the circulation pump of the present invention.
[0028] Fig.11 It is a three-dimensional schematic diagram of the water system of the integrated control module of the present invention.
[0029] Fig.12 It is a schematic diagram of the structure of the water system of the integrated control module of the present invention from a bottom up view.
[0030] Fig.13 This is a schematic diagram of the location of the integrated control module water system of the present invention set on the water heater.
[0031] Fig.14 It is a rear structural schematic diagram of the water system of the integrated control module of the present invention.
[0032] Fig.15 It is a schematic diagram of the top structure of the water system of the integrated control module of the present invention. DETAILED DESCRIPTION
[0033] like Figures 1 to 15 As shown, an integrated control module water system (300) is arranged in a gas heating stove, which can be a gas heating hot water boiler or a wall-mounted boiler or other similar equipment.
[0034] The integrated control module water circuit system (300) is arranged between the heating circulation water circuit (100) and the bathroom water circuit (200).
[0035] The heating circulation water circuit (100) includes a water boiler main heat exchanger (110), an environmental heat exchanger (120), a heating return water circuit (130) and a heating outlet water circuit (140), wherein the water boiler main heat exchanger (110) is arranged in a gas heating hot water boiler, and the environmental heat exchanger (120) is arranged in a space requiring heating. In practice, the environmental heat exchanger (120) can be a radiator, a geothermal pipe or other equipment.
[0036] The heating return water circuit (130) and the heating outlet water circuit (140) are connected between the water boiler main heat exchanger (110) and the environmental heat exchanger (120).
[0037] The heating circulation water circuit (100) is provided with heating circulation water (W1), and the heating circulation water (W1) circulates among the water boiler main heat exchanger (110), the environmental heat exchanger (120), the heating return water circuit (130) and the heating outlet water circuit (140).
[0038] First, the heating circulating water (W1) flows into the water boiler main heat exchanger (110) through the heating return water path (130), and the water boiler main heat exchanger (110) heats the heating circulating water (W1) flowing through to obtain heated circulating water (W2).
[0039] Then, the heated circulating water (W2) flows into the environmental heat exchanger (120) through the heating water outlet water path (140). The heated circulating water (W2) exchanges heat while flowing through the environmental heat exchanger (120). The heated circulating water (W2) transfers the heat value (H1) it carries to the environmental heat exchanger (120). The heat value (H1) is transferred to the heated space through the environmental heat exchanger (120), thereby achieving the effect of increasing the ambient temperature in the heated space.
[0040] The heated circulating water (W2) that has completed heat exchange in the environmental heat exchanger (120) is converted into the heating circulating water (W1), and the heating circulating water (W1) flows into the water boiler main heat exchanger (110) again through the heating return water path (130), and the cycle is repeated in this way, thereby achieving the effect of circulating the heating circulating water (W1) between the water boiler main heat exchanger (110) and the environmental heat exchanger (120) and performing heat exchange.
[0041] The bathroom waterway (200) comprises a bathroom water inlet waterway (210) and a bathroom water outlet waterway (220), and bathroom water (S1) enters the bathroom waterway (200) from the bathroom water inlet waterway (210).
[0042] Then the water flows out from the bathroom water outlet (220) for people to use.
[0043] In practice, the bathroom water inlet waterway (210) is connected to an external waterway, such as a tap waterway, and the bathroom water outlet waterway (220) is connected to an external waterway of the bathroom, such as a bathroom showerhead.
[0044] The integrated control module water system (300) comprises an integrated heat exchanger (400), a heating water exchange circuit (310) and a bathroom water exchange circuit (320), wherein the heating water exchange circuit (310) is connected between the heating return water circuit (130) and the heating outlet water circuit (140).
[0045] The heating water exchange circuit (310) comprises an integrated heating water exchange circuit (311), and the integrated heating water exchange circuit (311) is arranged in the integrated heat exchanger (400), wherein the bathroom water exchange circuit (320) is connected between the bathroom water inlet circuit (210) and the bathroom water outlet circuit (220).
[0046] The bathroom hot water exchange circuit (320) comprises an integrated bathroom hot water exchange circuit (321), and the integrated bathroom hot water exchange circuit (321) is arranged in the integrated heat exchanger (400).
[0047] The integrated control module water system (300) performs water heat conversion when working.
[0048] The heating circulating water (W1) in the heating return water circuit (130) is split at the heating heat exchange water circuit (310) to form circulating water (WS1) and heat exchange circulating water (WS2).
[0049] The circulating water (WS1) continues to flow along the heating return water path (130) toward the water boiler main heat exchanger (110).
[0050] The heat exchange circulating water (WS2) flows into the integrated heat exchanger (400) along the heating water exchange circuit (310), and then the heat exchange circulating water (WS2) flows out along the heating water exchange circuit (310) and merges into the heating water outlet circuit (140).
[0051] When the heat exchange circulating water (WS2) flows through the integrated heating water exchange circuit (311), the exchange heat value (h1) of the heat exchange circulating water (WS2) is transferred to the integrated heat exchanger (400).
[0052] The bathroom water (S1) in the bathroom water inlet circuit (210) flows into the integrated heat exchanger (400) along the bathroom water exchange circuit (320), and then the bathroom water (S1) flows into the bathroom water outlet circuit (220) along the bathroom water exchange circuit (320).
[0053] When the bathroom water (S1) flows through the integrated bathroom water exchange circuit (321), the exchange heat value (h1) in the integrated heat exchanger (400) is transferred to the bathroom water (S1), so that the bathroom water (S1) flowing out of the bathroom water outlet circuit (220) reaches the temperature value required by the user.
[0054] The main design concept of the present invention is that, by setting up the integrated control module water system (300), the heating circulating water (W1) in the heating circulating water circuit (100) can be used to heat the bathroom water (S1) to meet the user's usage requirements.
[0055] In a specific implementation, the integrated control module water circuit system (300) further includes a water mixing temperature control mechanism (500), which is disposed in the bathroom water circuit (200), and the water mixing temperature control mechanism (500) includes a water mixing valve (510) and a water mixing bypass pipe (520).
[0056] The water mixing valve (510) comprises a water inlet (511), a water outlet (512) and a bypass outlet (513).
[0057] The water inlet (511) is connected to the bathroom water inlet circuit (210), the water outlet (512) is connected to the bathroom water exchange circuit (320), one end of the mixing water bypass pipe (520) is connected to the bypass water outlet (513), and the other end of the mixing water bypass pipe (520) is connected to the bathroom water outlet circuit (220).
[0058] The integrated control module water system (300) also includes a control and monitoring system.
[0059] The control and monitoring system comprises a main controller (600), a bathroom water ingress monitor (610) and a bathroom water ingress monitor (620).
[0060] The main controller (600) is respectively connected to the water boiler main heat exchanger (110), the water mixing valve (510), the bathroom water inlet monitor (610), and the bathroom water inlet monitor (620); the bathroom water inlet monitor (610) is arranged in the bathroom water inlet waterway (210), and the bathroom water inlet monitor (620) is arranged in the bathroom water outlet waterway (220).
[0061] The control and monitoring system works according to the following steps:
[0062] Step A: The bathroom water inlet monitor (610) constantly collects the inlet water flow signal (D1) of the bathroom water (S1) in the bathroom water inlet waterway (210), wherein the inlet water flow signal (D1) comprises an inlet water flow rate signal (DS1) and an inlet water temperature signal (DT1).
[0063] The bathroom water inlet monitor (620) constantly collects the outflow water flow signal (D2) of the bathroom water (S1) in the bathroom water outlet water path (220), and the outflow water flow signal (D2) is an outflow water temperature signal.
[0064] Step B: The inlet water flow signal (D1) and the outlet water flow signal (D2) are transmitted to the main controller (600), and the main controller (600) controls the water boiler main heat exchanger (110) and the mixing valve (510), and the control method is as follows:
[0065] When the main controller (600) detects that the water inlet flow rate signal (DS1) is greater than the maximum rated value, the main controller (600) controls the water mixing valve (510) to reduce the flow rate of bathroom water (S1) flowing from the bathroom water inlet waterway (210) into the bathroom water exchange waterway (320).
[0066] It is further described that the maximum rated value of the water inlet flow rate signal (DS1) corresponds to the maximum heating power of the water boiler main heat exchanger (110). When the water inlet flow rate signal (DS1) is greater than the maximum rated value, the water boiler main heat exchanger (110) is insufficient to sufficiently heat the bathroom water (S1). At this moment, the water mixing valve (510) is used to reduce the flow rate of the bathroom water (S1) so that the water boiler can achieve a balanced operation.
[0067] When the main controller (600) detects that the water inlet flow rate signal (DS1) is less than the minimum rated value, the main controller (600) controls the water boiler main heat exchanger (110) to reduce the heating power of the water boiler main heat exchanger (110).
[0068] In practice, the main controller (600) controls the water boiler main heat exchanger (110) to reduce the heating power of the water boiler main heat exchanger (110) by using intermittent combustion.
[0069] It is further described that when the water inlet flow rate signal (DS1) is less than the minimum rated value, if the heating power of the water boiler main heat exchanger (110) is not reduced, the shower water outlet temperature will inevitably be too high, causing a safety hazard.
[0070] When the main controller (600) detects that the water inlet flow rate signal (DS1) changes, the main controller (600) simultaneously controls the heating power of the water boiler main heat exchanger (110) and the flow rate of the bathroom water (S1) flowing from the water inlet (511) in the water mixing valve (510) into the water outlet (512), so that the heating power of the water boiler main heat exchanger (110) and the flow rate of the bathroom water (S1) flowing from the water inlet (511) into the water outlet (512) are matched, and the above matching action is terminated when the set temperature signal pre-stored in the main controller (600) is consistent with the water outlet temperature signal of the sampled water outlet flow signal (D2). It is further described that the set temperature signal pre-stored in the main controller (600) is the set shower water temperature value input by the user to the water boiler.
[0071] When the main controller (600) detects that the outlet water temperature signal of the outlet water flow signal (D2) is greater than the rated maximum temperature, the main controller (600) controls the mixing valve (510) to open the bypass outlet (513), so that part of the bathroom water (S1) in the bathroom water inlet circuit (210) is directly introduced into the bathroom water outlet circuit (220) through the mixing bypass pipe (520), so as to reduce the temperature value of the bathroom water (S1) in the bathroom water outlet circuit (220).
[0072] The above method is applicable to the scenario where, when the user turns on the hot water in the shower for a short time and the outlet water temperature is too high, the main controller (600) can control the water mixing valve (510) to divert the flow, and mix the low-temperature bathroom water with the high-temperature bathroom water through the water mixing bypass pipe (520) to optimally control the outlet water temperature of the shower.
[0073] In specific implementation, the water mixing valve (510) is a flow servo integrated valve. In practice, a ball valve three-way structure or a water flow servo valve can be used.
[0074] During specific implementation, a zero-cold water circulation pump (230) is provided in the bathroom water circuit (200), and the zero-cold water circulation pump (230) is connected and arranged between the bathroom water inlet circuit (210) and the bathroom water outlet circuit (220).
[0075] In a non-showering state, the zero-cold water circulation pump (230) operates to cause the bathroom water (S1) to circulate between the bathroom water inlet water path (210), the bathroom water outlet water path (220) and the zero-cold water circulation pump (230), thereby ensuring that the water temperature of the bathroom water (S1) in the bathroom water outlet water path (220) is maintained at a temperature set by the user. In practice, the zero-cold water circulation pump (230) is a 36V motor pump with speed feedback.
[0076] During specific implementation, a pressure differential bypass pipeline (150) is provided in the heating circulation water circuit (100), and the pressure differential bypass pipeline (150) is connected between the heating water exchange water circuit (310) and the heating water outlet water circuit (140). A pressure differential bypass valve (151) is provided on the pressure differential bypass pipeline (150), and the pressure differential bypass valve (151) is connected to the main controller (600).
[0077] In a specific implementation, a three-way valve (160) is provided at the connection position between the heating water exchange circuit (310) and the heating water outlet circuit (140) in the heating circulation water circuit (100). In practice, the three-way valve (160) is a reciprocating valve or a rubber ball valve driven by an AC synchronous motor or a stepping motor.
[0078] During specific implementation, a water replenishment valve (170) is provided between the heating return water circuit (130) and the bathroom inlet water circuit (210).
[0079] During specific implementation, a circulation pump (180) is provided between the heating water exchange circuit (310) and the heating return water circuit (130) in the heating circulation water circuit (100). In practice, the circulation pump (180) can be a circulation pump compatible with variable frequency or fixed frequency of 5 meters, 6 meters or 7 meters.
[0080] In specific implementation, the integrated control module water system (300) is an integrated modular design, which is described in detail as follows.
[0081] The integrated heat exchanger (400) of the integrated control module water system (300) is provided with a first integrated platform (410) and a second integrated platform (420), the first integrated platform (410) and the second integrated platform (420) being respectively located on two sides of the integrated heat exchanger (400), wherein the first integrated platform (410) is connected to a water inlet integrated module (430), and the second integrated platform (420) is connected to a water outlet integrated module (440).
[0082] The water inlet integrated module (430) is provided with a heating heat exchange water inlet connection port (431), a bathroom heat exchange water inlet connection port (432), the zero cooling water circulation pump (230) and the water mixing valve (510), wherein the heating heat exchange water circuit (310) is connected to the heating heat exchange water inlet connection port (431), the bathroom heat exchange water circuit (320) is connected to the bathroom heat exchange water inlet connection port (432), the zero cooling water circulation pump (230) is arranged on the bathroom heat exchange water circuit (320), and the water mixing valve (510) is arranged between the bathroom heat exchange water circuit (320) and the bathroom water inlet connection port (210).
[0083] It is worth noting that the external pipeline used to connect the zero-cold water circulation pump (230) between the bathroom water inlet waterway (210) and the bathroom water outlet waterway (220) is not integrated into the integrated control module waterway system (300).
[0084] The water outlet integrated module (440) is provided with a heating heat exchange water outlet connection port (441), a bathroom heat exchange water outlet connection port (442), and the three-way valve (160), wherein the heating heat exchange water circuit (310) is connected to the heating heat exchange water outlet connection port (441), the bathroom heat exchange water circuit (320) is connected to the bathroom heat exchange water outlet connection port (442), and the three-way valve (160) is arranged between the heating water outlet circuit (140) and the heating water exchange water circuit (310).
[0085] The mixed water bypass pipe (520) of the mixed water temperature control mechanism (500) is arranged in communication between the water inlet integrated module (430) and the water outlet integrated module (440).
[0086] The integrated heating and heat exchange water circuit (311) of the heating and heat exchange water circuit (310) is connected between the heating and heat exchange water inlet connection port (431) and the heating and heat exchange water outlet connection port (441).
[0087] The integrated bathroom heat exchange water circuit (321) of the bathroom heat exchange water circuit (320) is connected between the bathroom heat exchange water inlet connection port (432) and the bathroom heat exchange water outlet connection port (442).
[0088] During specific implementation, the water inlet integrated module (430) is provided with a water inlet monitoring container (451), and the bathroom water inlet monitor (610) is arranged in the water inlet monitoring container (451) to achieve the function of constantly collecting the inlet water flow signal (D1) of the bathroom water (S1) in the bathroom water inlet waterway (210).
[0089] The water outlet integrated module (440) is provided with a water outlet monitoring container (452), and the bathroom water inlet monitor (620) is arranged in the water outlet monitoring container (452) to achieve the function of collecting the water outlet flow signal (D2) of the bathroom water (S1) in the bathroom water outlet water path (220) at all times.
[0090] The design concept of the present invention is to innovatively propose an integrated modular design concept for the integrated control module water system (300).
[0091] The design concept of the present invention is to configure the integrated heat exchanger (400) into an integrated integrated assembly platform, and integrate all water circuit parts, pump body parts and monitor parts on the integrated heat exchanger (400), so as to realize the integrated modular design concept of the integrated control module water circuit system (300). According to the design concept of the present invention, the internal structure of the water heater can be greatly simplified, the difficulty of production and assembly can be reduced, and the production cost can be greatly reduced. The inventor of the present invention believes that if the design concept of the present invention is not adopted, dozens of components need to be assembled separately in the water heater, the assembly process is complicated, and the quality of the product cannot be guaranteed.
Claims
1. An integrated control module water system, characterized in that: The integrated control module water system is arranged in a gas heating stove. The integrated control module water system (300) is arranged between a heating circulation water circuit (100) and a bathroom water circuit (200). The heating circulation water circuit (100) comprises a water furnace main heat exchanger (110), an environmental heat exchanger (120), a heating return water circuit (130) and a heating outlet water circuit (140). The bathroom water circuit (200) comprises a bathroom inlet water circuit (210) and a bathroom outlet water circuit (220). The integrated control module water system (300) comprises an integrated heat exchanger (400), a heating water exchange circuit (310) and a bathroom water exchange circuit (320), wherein the heating water exchange circuit (310) is connected between the heating return water circuit (130) and the heating outlet water circuit (140), the heating water exchange circuit (310) has an integrated heating water exchange circuit (311), and the integrated heating water exchange circuit (311) is arranged in the integrated heat exchanger (400). The bathroom water exchange circuit (320) is connected between the bathroom water inlet circuit (210) and the bathroom water outlet circuit (220), and the bathroom water exchange circuit (320) has an integrated bathroom water exchange circuit (321). The integrated bathroom water exchange circuit (321) is arranged in the integrated heat exchanger (400). The integrated control module water circuit system (300) further comprises a water mixing temperature control mechanism (500), the water mixing temperature control mechanism (500) being arranged in the bathroom water circuit (200), the water mixing temperature control mechanism (500) comprising a water mixing valve (510) and a water mixing bypass pipe (520), wherein the water mixing valve (510) comprises a water inlet (511), a water outlet (512) and a bypass outlet (513), wherein the water inlet (511) is connected to the bathroom water inlet circuit (210), the water outlet (512) is connected to the bathroom water exchange circuit (320), one end of the water mixing bypass pipe (520) is connected to the bypass outlet (513), and the other end of the water mixing bypass pipe (520) is connected to the bathroom water outlet circuit (220).
2. The integrated control module water system according to claim 1, characterized in that: The integrated control module water circuit system (300) further includes a control monitoring system, which includes a main controller (600), a bathroom water inlet monitor (610), and a bathroom water inlet monitor (620), wherein the main controller (600) is respectively connected to the water boiler main heat exchanger (110), the water mixing valve (510), the bathroom water inlet monitor (610), and the bathroom water inlet monitor (620), the bathroom water inlet monitor (610) is arranged in the bathroom water inlet circuit (210), and the bathroom water inlet monitor (620) is arranged in the bathroom water outlet circuit (220).
3. The integrated control module water system according to claim 1, characterized in that: A zero-cold water circulation pump (230) is provided in the bathroom water circuit (200), and the zero-cold water circulation pump (230) is connected between the bathroom water inlet circuit (210) and the bathroom water outlet circuit (220). A three-way valve (160) is provided at the connection position between the heating water exchange circuit (310) and the heating water outlet circuit (140) in the heating circulation water circuit (100).
4. An integrated control module water system according to any one of claims 1 to 3, characterized in that: A pressure differential bypass pipeline (150) is provided in the heating circulation water circuit (100), and the pressure differential bypass pipeline (150) is arranged in communication between the heating water exchange circuit (310) and the heating water outlet circuit (140). A pressure differential bypass valve (151) is arranged on the pressure differential bypass pipeline (150), and the pressure differential bypass valve (151) is connected to the main controller (600). A water replenishment valve (170) is arranged between the heating return water circuit (130) and the bathroom water inlet circuit (210). A circulation pump (180) is arranged between the heating water exchange circuit (310) and the heating return water circuit (130) in the heating circulation water circuit (100).
5. The integrated control module water system according to claim 3, characterized in that: The integrated heat exchanger (400) of the integrated control module water system (300) is provided with a first integrated platform (410) and a second integrated platform (420), the first integrated platform (410) and the second integrated platform (420) being located on both sides of the integrated heat exchanger (400), respectively, wherein the first integrated platform (410) is connected to a water inlet integrated module (430), and the second integrated platform (420) is connected to a water outlet integrated module (440), The water inlet integrated module (430) is provided with a heating heat exchange water inlet connection port (431), a bathroom heat exchange water inlet connection port (432), the zero cooling water circulation pump (230) and the water mixing valve (510), wherein the heating heat exchange water circuit (310) is connected to the heating heat exchange water inlet connection port (431), the bathroom heat exchange water circuit (320) is connected to the bathroom heat exchange water inlet connection port (432), the zero cooling water circulation pump (230) is arranged on the bathroom heat exchange water circuit (320), and the water mixing valve (510) is arranged between the bathroom heat exchange water circuit (320) and the bathroom water inlet connection port (210). The water outlet integrated module (440) is provided with a heating heat exchange water outlet connection port (441), a bathroom heat exchange water outlet connection port (442), and the three-way valve (160), wherein the heating heat exchange water circuit (310) is connected to the heating heat exchange water outlet connection port (441), the bathroom heat exchange water circuit (320) is connected to the bathroom heat exchange water outlet connection port (442), and the three-way valve (160) is provided between the heating water outlet circuit (140) and the heating water exchange water circuit (310). The mixed water bypass pipe (520) of the mixed water temperature control mechanism (500) is arranged in communication between the water inlet integrated module (430) and the water outlet integrated module (440). The integrated heating water exchange circuit (311) of the heating water exchange circuit (310) is connected between the heating water exchange inlet connection port (431) and the heating water exchange outlet connection port (441). The integrated bathroom heat exchange water circuit (321) of the bathroom heat exchange water circuit (320) is connected between the bathroom heat exchange water inlet connection port (432) and the bathroom heat exchange water outlet connection port (442).
6. An integrated control module water system, which is arranged in a gas heating stove, characterized in that: The integrated control module water circuit system (300) is arranged between a heating circulation water circuit (100) and a bathroom water circuit (200), wherein the heating circulation water circuit (100) comprises a water boiler main heat exchanger (110), an environmental heat exchanger (120), a heating return water circuit (130) and a heating outlet water circuit (140), wherein the bathroom water circuit (200) comprises a bathroom inlet water circuit (210) and a bathroom outlet water circuit (220), The integrated control module water system (300) comprises an integrated heat exchanger (400), a heating water exchange circuit (310) and a bathroom water exchange circuit (320), wherein the heating water exchange circuit (310) is connected between the heating return water circuit (130) and the heating outlet water circuit (140), the heating water exchange circuit (310) comprises an integrated heating water exchange circuit (311), and the integrated heating water exchange circuit (311) is arranged in the integrated heat exchanger (400), wherein the bathroom water exchange circuit (320) is connected between the bathroom water inlet water circuit (210) and the bathroom water outlet water circuit (220), the bathroom water exchange circuit (320) comprises an integrated bathroom water exchange circuit (321), and the integrated bathroom water exchange circuit (321) is arranged in the integrated heat exchanger (400), The integrated control module water circuit system (300) further comprises a water mixing temperature control mechanism (500), the water mixing temperature control mechanism (500) being arranged in the bathroom water circuit (200), the water mixing temperature control mechanism (500) comprising a water mixing valve (510) and a water mixing bypass pipe (520), wherein the water mixing valve (510) comprises a water inlet (511), a water outlet (512) and a bypass outlet (513), wherein the water inlet (511) is connected to the bathroom water inlet circuit (210), the water outlet (512) is connected to the bathroom water exchange circuit (320), one end of the water mixing bypass pipe (520) is connected to the bypass outlet (513), and the other end of the water mixing bypass pipe (520) is connected to the bathroom water outlet circuit (220), The integrated heat exchanger (400) of the integrated control module water system (300) is provided with a first integrated platform (410) and a second integrated platform (420), the first integrated platform (410) and the second integrated platform (420) being respectively located on two sides of the integrated heat exchanger (400), wherein the first integrated platform (410) is connected to a water inlet integrated module (430), and the second integrated platform (420) is connected to a water outlet integrated module (440).
7. The integrated control module water system according to claim 6, characterized in that: A zero-cold water circulation pump (230) is provided in the bathroom water circuit (200), and the zero-cold water circulation pump (230) is arranged in communication between the bathroom water inlet circuit (210) and the bathroom water outlet circuit (220). A three-way valve (160) is provided at a communication position between the heating water exchange circuit (310) and the heating water outlet circuit (140) in the heating circulation water circuit (100). The water inlet integrated module (430) is provided with a heating heat exchange water inlet connection port (431), a bathroom heat exchange water inlet connection port (432), the zero cooling water circulation pump (230) and the water mixing valve (510), wherein the heating heat exchange water circuit (310) is connected to the heating heat exchange water inlet connection port (431), the bathroom heat exchange water circuit (320) is connected to the bathroom heat exchange water inlet connection port (432), the zero cooling water circulation pump (230) is arranged on the bathroom heat exchange water circuit (320), and the water mixing valve (510) is arranged between the bathroom heat exchange water circuit (320) and the bathroom water inlet connection port (210). The water outlet integrated module (440) is provided with a heating heat exchange water outlet connection port (441), a bathroom heat exchange water outlet connection port (442), and the three-way valve (160), wherein the heating heat exchange water circuit (310) is connected to the heating heat exchange water outlet connection port (441), the bathroom heat exchange water circuit (320) is connected to the bathroom heat exchange water outlet connection port (442), and the three-way valve (160) is provided between the heating water outlet circuit (140) and the heating water exchange water circuit (310). The mixing water bypass pipe (520) of the mixing water temperature control mechanism (500) is connected and arranged between the water inlet integrated module (430) and the water outlet integrated module (440); the integrated heating heat exchange water circuit (311) of the heating heat exchange water circuit (310) is connected between the heating heat exchange water inlet connection port (431) and the heating heat exchange water outlet connection port (441); and the integrated bathroom heat exchange water circuit (321) of the bathroom heat exchange water circuit (320) is connected between the bathroom heat exchange water inlet connection port (432) and the bathroom heat exchange water outlet connection port (442).
8. The integrated control module water system according to claim 6, characterized in that: The integrated control module water circuit system (300) further includes a control monitoring system, which includes a main controller (600), a bathroom water inlet monitor (610), and a bathroom water inlet monitor (620), wherein the main controller (600) is respectively connected to the water boiler main heat exchanger (110), the water mixing valve (510), the bathroom water inlet monitor (610), and the bathroom water inlet monitor (620), the bathroom water inlet monitor (610) is arranged in the bathroom water inlet circuit (210), and the bathroom water inlet monitor (620) is arranged in the bathroom water outlet circuit (220).
9. The integrated control module water system according to claim 8, characterized in that: The water inlet integrated module (430) is provided with a water inlet monitoring container (451), and the bathroom water inlet monitor (610) is arranged in the water inlet monitoring container (451); the water outlet integrated module (440) is provided with a water outlet monitoring container (452), and the bathroom water inlet monitor (620) is arranged in the water outlet monitoring container (452).
10. The integrated control module water system according to claim 7, characterized in that: A pressure differential bypass pipeline (150) is provided in the heating circulation water circuit (100), and the pressure differential bypass pipeline (150) is arranged in communication between the heating water exchange circuit (310) and the heating water outlet circuit (140). A pressure differential bypass valve (151) is arranged on the pressure differential bypass pipeline (150), and the pressure differential bypass valve (151) is connected to the main controller (600). A water replenishment valve (170) is arranged between the heating return water circuit (130) and the bathroom water inlet circuit (210). A circulation pump (180) is arranged between the heating water exchange circuit (310) and the heating return water circuit (130) in the heating circulation water circuit (100).