Adaptive flow intelligent water heating device

Abstract

This utility model relates to the technical field of heating equipment, and in particular to an adaptive flow intelligent water heating device, comprising an insulated tank, a unit box connected to the top of the insulated tank, a heat-conducting tank connected inside the insulated tank, and water inlet pipes penetrating the bottom sides of both the insulated tank and the heat-conducting tank. A WiFi connection module, a PLC controller, and a storage module are installed inside the unit box. A stirring and heating component is installed inside the heat-conducting tank, a heating component is installed inside the unit box, a cooling component is installed on the outside of the insulated tank, and a filter component is installed on the outside of the water inlet pipe. This adaptive flow intelligent water heating device, through the cooling component, can effectively avoid water temperature runaway caused by excessive insulation of the insulated tank, and through the filter component, significantly reduces the concentration of calcium and magnesium ions in the water, reducing scale formation.

Description

Technical Field

[0001] This utility model relates to the field of heating equipment technology, and in particular to an adaptive flow intelligent water heating device. Background Technology

[0002] Heating equipment refers to equipment designed to provide heat to an indoor space and maintain a certain temperature to achieve suitable living or working conditions. It encompasses components such as heat source equipment, transmission pipelines, heat dissipation terminals, and control systems. It generates, transmits, and releases heat through methods such as coal, gas, electricity, and renewable energy. However, traditional heating equipment relies on manual operation for flow regulation, making it difficult to match the changing heat demand of different times and areas of a building in real time. This can easily lead to energy waste and uneven heating. In complex pipe network environments, hydraulic imbalance is a prominent issue, and end users often experience insufficient or excessive heating. Therefore, there is a particular need for an adaptive flow intelligent water heating system.

[0003] Chinese patent CN219300875U, published on July 4, 2023, discloses a smart energy unit based on the Internet of Things. When the heating temperature needs to be increased, it uses a heating copper pipe for secondary heating. When the heating temperature needs to be reduced, it adds extra water to the inner cavity of the insulation tank through a sixth conduit and an external water source to lower the temperature of the circulating water. However, the insulation tank is designed to reduce heat loss. If the insulation effect is too strong when the heating copper pipe is used for secondary heating, the water temperature in the tank may continue to rise, requiring frequent activation of the water addition and cooling mechanism, which increases the energy consumption of the water pump and water source connection. At the same time, when the external water source is connected to the insulation tank, if no water filtration or softening device is installed, calcium and magnesium ions in the water are prone to form scale in the heating copper pipe and the pipe, which not only affects the heating efficiency but may also block the conduit. Utility Model Content

[0004] The purpose of this invention is to provide an adaptive flow intelligent water heating device to solve the problems mentioned in the background art.

[0005] To achieve the above objectives, this utility model provides the following technical solution: an adaptive flow intelligent water heating device, including a heat-insulating tank, a unit box connected to the top of the heat-insulating tank, a heat-conducting tank connected inside the heat-insulating tank, and water inlet pipes penetratingly connected to the bottom sides of both the heat-insulating tank and the heat-conducting tank. A WiFi connection module is installed inside the unit box, a PLC controller is installed inside the unit box, a storage module is installed inside the unit box, a stirring and heating component is installed inside the heat-conducting tank, a heating component is installed inside the unit box, a cooling component is installed on the outside of the heat-insulating tank, and a filter component is installed on the outside of the water inlet pipe.

[0006] The cooling assembly includes a coolant tank connected to the outside of the insulation tank. The coolant tank has an injection port on its surface, and a sealing plug is installed on the injection port. An internal partition is provided within the coolant tank, and a sealing ring is connected to the side of the partition. A sliding plate is slidably connected to the bottom inner side of the coolant tank, and a cooling fan is installed above the sliding plate. A lever is connected to the outer side of the sliding plate, and a locking block is connected to the inner end of the lever. A locking groove is provided on the side of the coolant tank, and a positioning hole is provided inside the locking block. A spring is connected to the inner end of the positioning hole, and a limit plate is connected to one end of the spring. A fixing block is connected to the outer end of the limit plate. A fixing hole is provided inside the locking groove. A micro pump is connected to the output end of the coolant tank, and a circulating cooling pipe is connected to the surface of the micro pump.

[0007] Preferably, the stirring and heating assembly includes a motor, which is installed inside the unit housing. The output end of the motor is connected to a rotating shaft, the bottom of the rotating shaft is connected to a stirring shaft, and stirring blades are connected to the surface of the stirring shaft. A fixing frame is installed inside the heat-conducting tank, and a heating copper tube is installed on the surface of the fixing frame. A first temperature sensor is installed on the bottom side inside the heat-conducting tank.

[0008] Preferably, the heating assembly includes a water pump installed inside the unit box. A first conduit is connected to one side of the water pump, and a second conduit is connected to one end of the water pump. A third conduit is connected through one side of the bottom of both the insulation tank and the heat conduction tank. A radiator body is connected to the surface of the second and third conduits. A second temperature sensor is installed on the side of the radiator body. A connecting pipe is connected between the second and third conduits. A solenoid valve is provided on the surface of the connecting pipe, and a water outlet pipe is connected to one side of the top of the connecting pipe.

[0009] Preferably, the lever is installed on the inner bottom side of the coolant tank via a locking block and a locking slot, and the size of the locking block is closely matched with the size of the locking slot.

[0010] Preferably, the circulating cooling pipes are distributed in a spiral pattern between the insulation tank and the heat conduction tank, and form a circulating cooling structure with the coolant in the coolant tank through a micro pump.

[0011] Preferably, the filter assembly includes a filter tube installed at the top of the inlet pipe. A pull plate is installed inside the filter tube, and a guide groove is formed on the inner side of the filter tube. A mounting frame is slidably connected inside the guide groove. A primary filter plate, a secondary filter plate, and a fine filter plate are connected to the surface of the mounting frame. An electrostatic filter layer is disposed in the middle of the filter tube. An activated carbon fiber composite layer is connected to the inner side of the electrostatic filter layer. A non-woven fabric layer is connected to the inner side of the activated carbon fiber composite layer. A flow hole is formed in the middle of the non-woven fabric layer.

[0012] Preferably, the outer wall dimensions of the mounting bracket match the inner wall dimensions of the guide groove, and the pull plate seals the tops of the intermediate filter plate and the fine filter plate.

[0013] Compared with the prior art, the beneficial effects of this utility model are:

[0014] This adaptive flow intelligent water heating equipment, through the setting of cooling components, can effectively avoid water temperature runaway caused by excessive insulation of the insulation tank. When the water temperature in the insulation tank rises abnormally, the cooling components can quickly intervene, using coolant circulation and fan-assisted heat dissipation to precisely regulate the temperature inside the tank, reducing unnecessary water addition and cooling operations, and reducing energy consumption caused by frequent pump start-stop and water source connection. The modular pull-out fan design facilitates quick fault diagnosis and maintenance, ensuring that the cooling function is always online. The threaded circulating cooling pipe significantly improves cooling efficiency, keeping the water temperature stable within a reasonable range. While maintaining good insulation effect, it achieves energy saving and consumption reduction, improving the economic efficiency and stability of equipment operation.

[0015] This adaptive flow intelligent water heating equipment, through the configuration of its filtration components, utilizes a multi-layered physical filter plate and a deep purification layer to effectively intercept large particles such as silt and rust, filter out tiny suspended solids, and remove heavy metal ions, microorganisms, and organic pollutants through electrostatic adsorption and activated carbon adsorption. It significantly reduces the concentration of calcium and magnesium ions in the water, minimizing scale formation. The convenient pull-out design allows users to regularly clean or replace the filter components, ensuring long-term and stable filtration performance. A continuously supplied clean water source effectively improves the heat transfer efficiency of the heating copper pipes, avoids the risk of pipe blockage, extends the service life of the heating components and heating circulation pipes, reduces equipment maintenance costs, and ensures the long-term efficient operation of the heating system. Attached Figure Description

[0016] Figure 1 This is a side view of the structure of the present utility model;

[0017] Figure 2 This is a schematic diagram of the internal structure of the insulated bucket of this utility model;

[0018] Figure 3 This is a schematic diagram of the cooling component structure of this utility model;

[0019] Figure 4 This is a schematic diagram of the filter assembly structure of this utility model;

[0020] Figure 5 This is a schematic diagram of the structure of the electrostatic filter layer, activated carbon fiber composite layer and non-woven fabric layer of this utility model.

[0021] Figure 6 This utility model Figure 4 Enlarged structural diagram at point A in the middle.

[0022] In the diagram: 1. Insulation tank; 2. Unit box; 3. Heat transfer tank; 4. Water inlet pipe; 5. WiFi connection module; 6. PLC controller; 7. Storage module; 8. Stirring and heating assembly; 801. Motor; 802. Rotating shaft; 803. Stirring shaft; 804. Stirring blades; 805. Fixing frame; 806. Heating copper pipe; 807. First temperature sensor; 9. Heating assembly; 901. Water pump; 902. First conduit; 903. Second conduit; 904. Third conduit; 905. Radiator body; 906. Second temperature sensor; 907. Connecting pipe; 908. Solenoid valve; 909. Water outlet pipe; 10. Cooling assembly; 1001. Coolant tank; 1002. Injection port; 1003. Seal 1004. Plug; 1005. Sealing ring; 1006. Pull-out plate; 1007. Cooling fan; 1008. Push block; 1009. Locking block; 1010. Locking groove; 1011. Positioning hole; 1012. Spring; 1013. Limiting plate; 1014. Fixing block; 1015. Fixing hole; 1016. Micro pump; 1017. Circulating cooling pipe; 11. Filter assembly; 1101. Filter tube; 1102. Pull plate; 1103. Guide groove; 1104. Mounting bracket; 1105. Primary filter plate; 1106. Intermediate filter plate; 1107. Fine filter plate; 1108. Electrostatic filter layer; 1109. Activated carbon fiber composite layer; 1110. Non-woven fabric layer; 1111. Flow hole. Detailed Implementation

[0023] The technical solutions of the present utility model will be clearly and completely described below with reference to the accompanying drawings of the embodiments. Obviously, the described embodiments are only some embodiments of the present utility model, and not all embodiments. Based on the embodiments of the present utility model, all other embodiments obtained by those of ordinary skill in the art without creative effort are within the protection scope of the present utility model.

[0024] Please see Figure 1-6This utility model provides a technical solution: an adaptive flow intelligent water heating device, including a heat preservation tank 1, a unit box 2 connected to the top of the heat preservation tank 1, a heat conduction tank 3 connected inside the heat preservation tank 1, and water inlet pipes 4 penetratingly connected to the bottom sides of both the heat preservation tank 1 and the heat conduction tank 3. A WiFi connection module 5 is installed inside the unit box 2, a PLC controller 6 is installed inside the unit box 2, a storage module 7 is installed inside the unit box 2, a stirring and heating component 8 is installed inside the heat conduction tank 3, a heating component 9 is installed inside the unit box 2, a cooling component 10 is installed on the outside of the heat preservation tank 1, and a filter component 11 is installed on the outside of the water inlet pipe 4.

[0025] The cooling assembly 10 includes a coolant tank 1001, which is connected to the outside of the insulation tank 1. A filling port 1002 is provided on the surface of the coolant tank 1001, and a sealing plug 1003 is installed on the surface of the filling port 1002. A partition 1004 is provided inside the coolant tank 1001, and a sealing ring 1005 is connected to the side of the partition 1004. A pull plate 1006 is slidably connected to the bottom inner side of the coolant tank 1001. A cooling fan 1007 is installed above the pull plate 1006. A lever 1008 is connected to the outside of the pull plate 1006, and a locking block 1009 is connected to the inner end of the lever 1008. A slot 1010 is provided on the side of the coolant tank 1001, and a positioning function is provided inside the locking block 1009. Hole 1011, the inner end of positioning hole 1011 is connected to spring 1012, one end of spring 1012 is connected to limit plate 1013, the outer end of limit plate 1013 is connected to fixing block 1014, the inner side of slot 1010 is provided with fixing hole 1015, the output end of coolant tank 1001 is connected to micro pump 1016, the surface of micro pump 1016 is connected to circulating cooling pipe 1017, through the setting of cooling component 10, when the water temperature in heat conduction tank 3 is too high and needs to be cooled during the operation of adaptive flow intelligent water heating equipment, cooling component 10 starts to work, adds appropriate amount of water from injection port 1002, starts cooling fan 1007, and rapidly cools the upper water through partition 1004. Pump 1016 pumps cooled water from coolant tank 1001 through circulating cooling pipe 1017 to the vicinity of heat transfer tank 3, achieving surrounding cooling of heat transfer tank 3 and quickly removing excess heat. When cooling fan 1007 malfunctions, pull block 1008 can be pulled, and locking block 1009 moves with the pull plate. At this time, spring 1012 is compressed and contracts, and the fixing block 1014 is retracted into positioning hole 1011 through limit plate 1013, thereby releasing the lock on locking block 1009. Pull plate 1006 and cooling fan 1007 can then be pulled out together, facilitating quick disassembly and maintenance of the malfunctioning fan and preventing a decrease in cooling efficiency due to equipment failure. After maintenance, simply push pull plate 1006 back into coolant tank 1001. 01. When the locking block 1009 slides to the locking slot 1010, the spring 1012 resets and pushes the fixing block 1014 into the fixing hole 1015, thus completing the automatic locking of the pull plate. This ensures that the cooling fan 1007 returns to its stable position, guarantees the continuous and efficient operation of the cooling component 10, and achieves precise temperature control of the heat transfer tank 3. This prevents the equipment from being affected by overheating, thus extending its heating performance and service life. The partition 1004 and the sealing ring 1005 work together to divide the interior of the coolant tank 1001 into different areas, preventing coolant from flowing into the interior of the cooling fan 1007 through gaps and causing damage to parts. The filling port 1002 is used to add coolant, and the sealing plug 1003 prevents coolant leakage and external impurities from entering the interior of the coolant tank 1001.

[0026] Furthermore, the stirring and heating assembly 8 includes a motor 801, which is installed inside the unit housing 2. The output end of the motor 801 is connected to a rotating shaft 802, and the bottom of the rotating shaft 802 is connected to a stirring shaft 803. Stirring blades 804 are connected to the surface of the stirring shaft 803. A fixing frame 805 is installed inside the heat transfer tank 3, and a heating copper pipe 806 is installed on the surface of the fixing frame 805. A first temperature sensor 807 is installed on the bottom side of the inside of the heat transfer tank 3. Through the configuration of the stirring and heating assembly 8, when the adaptive flow intelligent water heating equipment starts heating, the PLC controller 6 receives the heating command and drives the stirring and heating assembly 8 to start working. The motor 801 is powered on and rotates, driving the rotating shaft 802 to rotate. The rotating shaft 802 then drives the stirring shaft 803 and the stirring blades 804 to rotate at high speed inside the heat transfer tank 3, stirring the water in the tank and causing the water to circulate. Simultaneously, heating... When the copper pipe 806 is connected to the power supply, it begins to heat up. The heat generated is transferred to the surrounding water through heat conduction. In this process, the stirring action of the stirring blade 804 is crucial. It can effectively break the natural convection limitation of the water, accelerate the heat exchange between the water and the heating copper pipe 806, and avoid local water temperature being too high or too low, so that the water in the heat transfer tank 3 is heated more evenly. The first temperature sensor 807 monitors the water temperature at the bottom of the heat transfer tank 3 in real time and transmits the temperature data to the PLC controller 6. When the water temperature reaches the preset upper limit of the heating temperature, the PLC controller 6 controls the motor 801 to reduce its speed or stop working, and at the same time reduces the power of the heating copper pipe 806 or stops heating. When the water temperature drops to the preset lower limit temperature, the PLC controller 6 restarts the motor 801 and the heating copper pipe 806 to resume stirring and heating, thereby achieving precise control of the water temperature and ensuring that the heating equipment outputs hot water at a suitable temperature.

[0027] Furthermore, the heating assembly 9 includes a water pump 901, which is installed inside the unit housing 2. A first conduit 902 is connected to one side of the water pump 901, and a second conduit 903 is connected to one end of the water pump 901. A third conduit 904 is connected through one side of the bottom of both the insulation tank 1 and the heat transfer tank 3. A radiator body 905 is connected to the surfaces of the second conduit 903 and the third conduit 904. A second temperature sensor 906 is installed on the side of the radiator body 905. The second conduit 903 and the third conduit 904 are connected... A connecting pipe 907 is connected, and a solenoid valve 908 is installed on the surface of the connecting pipe 907. A water outlet pipe 909 is connected to one side of the top of the connecting pipe 907. Based on the configuration of the heating component 9, when the adaptive flow intelligent water heating equipment starts its heating function, the PLC controller 6 controls the water pump 901 to start. The water pump 901 draws heated hot water from the heat transfer tank 3 and the insulation tank 1 through the third conduit 904. The hot water flows into the water pump 901 through the first conduit 902, and then is transported to the radiator body 905 through the second conduit 903. The hot water flows within the radiator body 905, dissipating heat into the surrounding environment to provide heating. Simultaneously, a second temperature sensor 906 monitors the temperature of the hot water within the radiator body 905 in real time and feeds the data back to the PLC controller 6. When the heating intensity needs adjustment, the PLC controller 6 controls the opening and closing of the solenoid valve 908 based on the data from the second temperature sensor 906. If the heating demand increases, the PLC controller 6 opens the solenoid valve 908, opening the connecting pipe 907. More hot water can then flow directly into the outlet pipe 909 through the connecting pipe 907, and then return to the heat transfer tank 3 and the insulation tank 1 via the third conduit 904, accelerating the hot water circulation speed and increasing the heat dissipation of the radiator body 905. If the heating demand decreases, the PLC controller 6 closes the solenoid valve 908, reducing the hot water circulation flow and decreasing the heat dissipation efficiency of the radiator body 905. Through this control method, the heating component 9 can flexibly adjust the hot water circulation flow and heat dissipation intensity according to actual heating needs, achieving adaptive heating while ensuring the efficient and stable operation of the entire heating system.

[0028] Furthermore, the lever 1008, via the locking block 1009 and the locking groove 1010, drives the pull plate 1006 to be installed on the inner bottom side of the coolant tank 1001. The size of the locking block 1009 and the size of the locking groove 1010 are closely matched. Through the setting of the locking block 1009 and the locking groove 1010, the closely matched size enables the pull plate 1006 to achieve precise positioning and stable connection with the coolant tank 1001, ensuring that the pull plate 1006 slides smoothly in the coolant tank 1001 and is not easy to shake after installation. This effectively avoids displacement or vibration noise when the cooling fan 1007 is working. This structure facilitates quick disassembly and assembly of the pull plate 1006. When the cooling fan 1007 malfunctions, the operator can quickly unlock and pull it out for inspection and maintenance, greatly improving equipment maintenance efficiency. At the same time, the locking design enhances the sealing of the coolant tank 1001, preventing coolant leakage and the entry of external dust and impurities, ensuring the cleanliness of the coolant and the cooling effect.

[0029] Furthermore, the circulating cooling pipe 1017 is spirally distributed between the insulation tank 1 and the heat-conducting tank 3, and forms a circulating cooling structure with the coolant in the coolant tank 1001 through the micro pump 1016. The spiral distribution of the circulating cooling pipe 1017 significantly increases the contact area between the cooling pipe 1017 and the insulation tank 1 and the heat-conducting tank 3, allowing the coolant to more fully remove heat from the tank and improve cooling efficiency. The circulating structure ensures continuous flow of coolant, avoids local overheating, maintains a uniform and stable temperature inside the tank, and reduces the risk of water evaporation and contamination by circulating the coolant in the closed pipe, extending the service life of the coolant and reducing operating costs. In addition, this design can flexibly adjust the coolant flow rate and circulation path according to the actual heat generation of the equipment, achieving dynamic and efficient cooling control and providing a reliable guarantee for the stable operation of the heating equipment.

[0030] Furthermore, the filter assembly 11 includes a filter tube 1101, which is installed at the top of the inlet pipe 4. A pull plate 1102 is installed inside the filter tube 1101. A guide groove 1103 is formed on the inner side of the filter tube 1101. A mounting bracket 1104 is slidably connected inside the guide groove 1103. A primary filter plate 1105, a secondary filter plate 1106, and a fine filter plate 1107 are connected to the surface of the mounting bracket 1104. An electrostatic filter layer 1108 is disposed in the middle of the interior of the filter tube 1101. An activated carbon fiber composite layer 1109 is connected to the inner side of filter 1108, and a non-woven fabric layer 1110 is connected to the inner side of activated carbon fiber composite layer 1109. A flow hole 1111 is opened in the middle of the non-woven fabric layer 1110. Through the setting of filter assembly 11, when the adaptive flow intelligent water heating equipment is started, water flows from the inlet pipe 4 into filter pipe 1101 to start a multi-stage purification process. The water first passes through the primary filter plate 1105, whose larger pore size intercepts large particles of impurities such as silt and rust, thus initially purifying the water quality. Subsequently, the water flows through the intermediate filter plate 1106, which further filters out fine particles in the water. The first physical filtration removes particles such as dust and flocculent matter, improving water purity. Next, the fine filter plate 1107 takes effect; its precise filtration structure traps tiny particles, such as algae spores and colloidal substances, preparing for subsequent deep filtration. After physical filtration, the water flows into the electrostatic filter layer 1108. This layer uses electrostatic adsorption to capture charged impurities in the water, such as bacteria, viruses, and some heavy metal ions, effectively reducing the content of microbial and ionic pollutants. Then, the water flows through the activated carbon fiber composite layer 1109. This layer utilizes the powerful adsorption capacity of activated carbon to remove residual chlorine, organic matter, and other pollutants from the water. The filter removes impurities such as color and odor, improving the taste and smell of the water. Finally, the water flows through the non-woven fabric layer 1110, whose dense fiber structure further intercepts residual microparticles, ensuring that the water quality meets high standards. The purified water flows out of the filter pipe 1101 through the flow hole 1111 and enters the heating system. During maintenance, the operator can pull the pull plate 1102 to drive the mounting bracket 1104 to slide along the guide groove 1103, and pull out the primary filter plate 1105, intermediate filter plate 1106 and fine filter plate 1107 as a whole from the filter pipe 1101 for cleaning or replacement, which can easily and quickly restore the filtration performance of the filter components.

[0031] Furthermore, the outer wall dimensions of the mounting bracket 1104 match the inner wall dimensions of the guide groove 1103. The pull plate 1102 seals the tops of the intermediate filter plate 1106 and the fine filter plate 1107. Through the arrangement of the guide groove 1103, the mounting bracket 1104, and the pull plate 1102, the precisely matched mounting bracket 1104 and guide groove 1103 provide stable support and precise positioning for the primary, intermediate, and fine filter plates, ensuring that the filter assembly does not shake or shift after installation, guaranteeing that water flows smoothly through each filtration stage, and preventing water from being trapped due to gaps. The filtered water bypass and the tight size fit create a closed filtration space inside the filter tube 1101, preventing water leakage and impurities from entering the interlayer, thus improving the filtration effect and efficiency. The pull plate 1102 seals the top of the intermediate and fine filter plates, further enhancing the sealing performance and simplifying the disassembly process. During maintenance, simply pull the pull plate 1102 to easily pull out the multi-layer filter plates along the guide groove 1103 for centralized cleaning or replacement, greatly shortening maintenance time, reducing operation difficulty, ensuring the long-term efficient operation of the filter components, and continuously providing clean water for heating equipment.

[0032] Working Principle: After the equipment starts, the water in the inlet pipe 4 first passes through the filter assembly 11, sequentially through primary, intermediate, and fine filter plates, as well as an electrostatic filter layer, an activated carbon fiber composite layer, and a non-woven fabric layer, completing multi-stage purification to ensure the cleanliness of the water entering the system. The purified water flows into the heat transfer tank 3, and the stirring and heating assembly 8 starts working. The motor 801 drives the stirring shaft 803 and stirring blades 804 to rotate, which, together with the heating copper pipe 806, accelerates the heat exchange of the water, causing the water temperature to rise evenly. The first temperature sensor 807 monitors the water temperature in real time and feeds it back to the PLC controller 6 to achieve precise temperature control. When heating demand is received, the PLC controller 6 starts the heating assembly 9, and the water pump 901 draws hot water from the heat transfer tank 3 and the insulation tank 1, and delivers it to the radiator body 905 for heat dissipation through the conduit. The second temperature sensor 906 monitors the water temperature. The PLC controller 6 adjusts the opening and closing of the solenoid valve 908 based on feedback data to control the hot water circulation flow and achieve adaptive heating. If the water temperature in the heat transfer tank 3 is too high, the cooling component 10 starts, and the micro pump 1016 cools the water in the coolant tank 1001 and circulates it around the heat transfer tank 3 through the spirally distributed circulating cooling pipes 1017 to cool it down. The baffle 1004 and the cooling fan 1007 assist in cooling the coolant. If the cooling fan 1007 fails, it can be quickly disassembled and repaired through the lever 1008 and the locking block 1009. In addition, the WiFi connection module 5 supports remote control, and the storage module 7 records the operating data to provide a basis for equipment optimization and fault diagnosis. All components work together to ensure the efficient, stable, and intelligent operation of the heating equipment, thus completing the use of an adaptive flow intelligent water heating equipment.

[0033] Although embodiments of the present invention have been shown and described, it will be understood by those skilled in the art that various changes, modifications, substitutions and alterations can be made to these embodiments without departing from the principles and spirit of the present invention, the scope of which is defined by the appended claims and their equivalents.

Claims

1. An adaptive flow intelligent water heating device, comprising an insulated tank (1), characterized in that: The top of the heat-insulating barrel (1) is connected to the unit box (2), and the inside of the heat-insulating barrel (1) is connected to the heat-conducting barrel (3). The bottom sides of the heat-insulating barrel (1) and the heat-conducting barrel (3) are both connected to the water inlet pipe (4). The unit box (2) is equipped with a WiFi link module (5), a PLC controller (6), a storage module (7), a stirring and heating component (8), a heating component (9), a cooling component (10), and a filter component (11) on the outside of the water inlet pipe (4). The cooling component (10) includes a coolant tank (1001), which is connected to the outside of the insulation tank (1). The surface of the coolant tank (1001) is provided with an injection port (1002), and a sealing plug (1003) is installed on the surface of the injection port (1002). A partition (1004) is provided inside the coolant tank (1001), and a sealing ring (1005) is connected to the side of the partition (1004). A sliding plate (1006) is slidably connected to the bottom inner side of the coolant tank (1001). A cooling fan (1007) is installed above the sliding plate (1006), and a lever (1008) is connected to the outside of the sliding plate (1006). The inner end of the lever (1008) is connected to a locking block (1009), the side of the coolant tank (1001) is provided with a locking groove (1010), the inside of the locking block (1009) is provided with a positioning hole (1011), the inner end of the positioning hole (1011) is connected to a spring (1012), one end of the spring (1012) is connected to a limiting plate (1013), the outer end of the limiting plate (1013) is connected to a fixing block (1014), the inner side of the locking groove (1010) is provided with a fixing hole (1015), the output end of the coolant tank (1001) is connected to a micro pump (1016), and the surface of the micro pump (1016) is connected to a circulating cooling pipe (1017).

2. The adaptive flow intelligent water heating device according to claim 1, characterized in that: The stirring and heating assembly (8) includes a motor (801), which is installed inside the unit box (2). The output end of the motor (801) is connected to a rotating shaft (802). The bottom of the rotating shaft (802) is connected to a stirring shaft (803). The surface of the stirring shaft (803) is connected to stirring blades (804). A fixing frame (805) is installed inside the heat-conducting barrel (3). A heating copper tube (806) is installed on the surface of the fixing frame (805). A first temperature sensor (807) is installed on the bottom inside the heat-conducting barrel (3).

3. The adaptive flow intelligent water heating device according to claim 1, characterized in that: The heating assembly (9) includes a water pump (901), which is installed inside the unit box (2). A first conduit (902) is connected to one side of the water pump (901), and a second conduit (903) is connected to one end of the water pump (901). A third conduit (904) is connected through one side of the bottom of the heat insulation tank (1) and the heat conduction tank (3). A radiator body (905) is connected to the surface of the second conduit (903) and the third conduit (904). A second temperature sensor (906) is installed on the side of the radiator body (905). A connecting pipe (907) is connected between the second conduit (903) and the third conduit (904). A solenoid valve (908) is provided on the surface of the connecting pipe (907). A water outlet pipe (909) is connected to one side of the top of the connecting pipe (907).

4. The adaptive flow intelligent water heating device according to claim 1, characterized in that: The push block (1008) drives the pull plate (1006) to be installed on the inner bottom side of the coolant tank (1001) via the card block (1009) and the card slot (1010). The size of the card block (1009) is closely matched with the size of the card slot (1010).

5. The adaptive flow intelligent water heating device according to claim 1, characterized in that: The circulating cooling pipe (1017) is distributed in a spiral pattern between the heat insulation tank (1) and the heat conduction tank (3), and forms a circulating cooling structure with the coolant in the coolant tank (1001) through the micro pump (1016).

6. The adaptive flow intelligent water heating device according to claim 1, characterized in that: The filter assembly (11) includes a filter tube (1101), which is installed at the top of the inlet pipe (4). A pull plate (1102) is installed inside the filter tube (1101). A guide groove (1103) is provided on the inner side of the filter tube (1101). A mounting bracket (1104) is slidably connected inside the guide groove (1103). A primary filter plate (1105) is connected to the surface of the mounting bracket (1104). A medium-sized filter plate (1106) is connected to the mounting bracket (1104), a fine filter plate (1107) is connected to the surface of the mounting bracket (1104), an electrostatic filter layer (1108) is provided in the middle of the filter tube (1101), an activated carbon fiber composite layer (1109) is connected to the inner side of the electrostatic filter layer (1108), a non-woven fabric layer (1110) is connected to the inner side of the activated carbon fiber composite layer (1109), and a flow hole (1111) is opened in the middle of the non-woven fabric layer (1110).

7. The adaptive flow intelligent water heating device according to claim 6, characterized in that: The outer wall dimensions of the mounting bracket (1104) match the inner wall dimensions of the guide groove (1103), and the pull plate (1102) seals the top of the intermediate filter plate (1106) and the fine filter plate (1107).

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