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CN113776118B - Wall-mounted furnace control method and device and wall-mounted furnace - Google Patents

Wall-mounted furnace control method and device and wall-mounted furnace Download PDF

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Publication number
CN113776118B
CN113776118B CN202111088591.9A CN202111088591A CN113776118B CN 113776118 B CN113776118 B CN 113776118B CN 202111088591 A CN202111088591 A CN 202111088591A CN 113776118 B CN113776118 B CN 113776118B
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China
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heating
water
temperature
heating water
room
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CN113776118A (en
Inventor
黄旭盈
陈泳霖
李胤媛
徐旺
林梓华
元加加
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Gree Electric Appliances Inc of Zhuhai
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Gree Electric Appliances Inc of Zhuhai
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    • FMECHANICAL ENGINEERING; LIGHTING; HEATING; WEAPONS; BLASTING
    • F24HEATING; RANGES; VENTILATING
    • F24DDOMESTIC- OR SPACE-HEATING SYSTEMS, e.g. CENTRAL HEATING SYSTEMS; DOMESTIC HOT-WATER SUPPLY SYSTEMS; ELEMENTS OR COMPONENTS THEREFOR
    • F24D15/00Other domestic- or space-heating systems
    • F24D15/02Other domestic- or space-heating systems consisting of self-contained heating units, e.g. storage heaters
    • FMECHANICAL ENGINEERING; LIGHTING; HEATING; WEAPONS; BLASTING
    • F24HEATING; RANGES; VENTILATING
    • F24DDOMESTIC- OR SPACE-HEATING SYSTEMS, e.g. CENTRAL HEATING SYSTEMS; DOMESTIC HOT-WATER SUPPLY SYSTEMS; ELEMENTS OR COMPONENTS THEREFOR
    • F24D19/00Details
    • F24D19/10Arrangement or mounting of control or safety devices
    • F24D19/1006Arrangement or mounting of control or safety devices for water heating systems
    • F24D19/1066Arrangement or mounting of control or safety devices for water heating systems for the combination of central heating and domestic hot water
    • FMECHANICAL ENGINEERING; LIGHTING; HEATING; WEAPONS; BLASTING
    • F24HEATING; RANGES; VENTILATING
    • F24HFLUID HEATERS, e.g. WATER OR AIR HEATERS, HAVING HEAT-GENERATING MEANS, e.g. HEAT PUMPS, IN GENERAL
    • F24H1/00Water heaters, e.g. boilers, continuous-flow heaters or water-storage heaters
    • F24H1/10Continuous-flow heaters, i.e. heaters in which heat is generated only while the water is flowing, e.g. with direct contact of the water with the heating medium
    • F24H1/12Continuous-flow heaters, i.e. heaters in which heat is generated only while the water is flowing, e.g. with direct contact of the water with the heating medium in which the water is kept separate from the heating medium
    • F24H1/124Continuous-flow heaters, i.e. heaters in which heat is generated only while the water is flowing, e.g. with direct contact of the water with the heating medium in which the water is kept separate from the heating medium using fluid fuel
    • FMECHANICAL ENGINEERING; LIGHTING; HEATING; WEAPONS; BLASTING
    • F24HEATING; RANGES; VENTILATING
    • F24HFLUID HEATERS, e.g. WATER OR AIR HEATERS, HAVING HEAT-GENERATING MEANS, e.g. HEAT PUMPS, IN GENERAL
    • F24H9/00Details
    • F24H9/20Arrangement or mounting of control or safety devices
    • F24H9/2007Arrangement or mounting of control or safety devices for water heaters
    • F24H9/2035Arrangement or mounting of control or safety devices for water heaters using fluid fuel

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  • Engineering & Computer Science (AREA)
  • Physics & Mathematics (AREA)
  • Thermal Sciences (AREA)
  • Chemical & Material Sciences (AREA)
  • Combustion & Propulsion (AREA)
  • Mechanical Engineering (AREA)
  • General Engineering & Computer Science (AREA)
  • Steam Or Hot-Water Central Heating Systems (AREA)

Abstract

The application relates to a wall-mounted furnace control method and device and a wall-mounted furnace, wherein when the difference value between the outlet water temperature and the indoor temperature of a certain room is larger than or equal to a first preset temperature difference threshold value, heating water conveyed to the room can be heated for the second time, so that the indoor temperature of the room is increased, the difference value between the indoor temperature and the outlet water temperature is reduced, and the difference value between the outlet water temperature and the indoor temperature corresponding to the current room is smaller than the first preset temperature difference value. Through the scheme, the outlet water temperature of each room can be independently controlled, and when the difference between the outlet water temperature and the indoor temperature is large, the heating water can be heated for the second time to increase the indoor temperature, so that the difference between the outlet water temperature and the indoor temperature is reduced. By performing temperature compensation on the heating water with a larger difference between the outlet water temperature and the indoor temperature, the difference between the actual temperatures of the heating water finally flowing into each room can be reduced, and the indoor temperature difference of each room is further reduced.

Description

Wall-mounted furnace control method and device and wall-mounted furnace
Technical Field
The application relates to the technical field of indoor heating, in particular to a wall-mounted furnace control method and device and a wall-mounted furnace.
Background
The wall-mounted boiler is a gas water heater using natural gas as energy source, has powerful household central heating function, and can meet the heating requirements of multiple rooms. Meanwhile, the wall-mounted boiler can provide large-flow constant-temperature sanitary hot water for places such as home bath and kitchen, and brings great convenience to life of people.
When the wall-mounted boiler is used for multi-room heating, the wall-mounted boiler generally outputs heating water with the same temperature to heat each room. However, in the installation process of the wall-mounted furnace, the distance between each room and the wall-mounted furnace is different, and the length of the conveying pipeline is also different, so that different losses of heating water on the conveying pipeline are necessarily caused, and finally, the heating water temperature conveyed to each room is greatly different.
Disclosure of Invention
Based on this, it is necessary to provide a wall-mounted furnace control method and device and a wall-mounted furnace for solving the problem that the temperature difference of heating water conveyed to each room by the conventional wall-mounted furnace is large.
A wall-mounted furnace control method comprises the following steps: when the wall-mounted furnace normally operates, respectively acquiring the water outlet temperature of heating water conveyed to each room by the wall-mounted furnace and the indoor temperature of each room; comparing and analyzing according to the outlet water temperature and the indoor temperature; and when the difference value between the corresponding outlet water temperature and the indoor temperature of the same room is larger than or equal to a first preset temperature difference threshold value, heating the heating water conveyed to the current room, and stopping heating until the difference value between the corresponding outlet water temperature and the indoor temperature of the current room is smaller than the first preset temperature difference threshold value.
In one embodiment, after the step of comparing and analyzing according to the outlet water temperature and the indoor temperature, the method further comprises: and when the difference value between the corresponding outlet water temperature and the indoor temperature of the same room is smaller than a first preset temperature difference threshold value, directly conveying the heating water with the current outlet water temperature to the corresponding room.
In one embodiment, before the step of obtaining the outlet water temperature of the heating water sent to each room by the wall-mounted furnace and the indoor temperature of each room when the wall-mounted furnace is operating normally, the method further comprises: when a heating signal is received, controlling the wall-mounted furnace to be started for heating water; acquiring the heating water temperature at the heating water outlet of the wall-mounted furnace; and when the difference value between the heating water temperature and the preset temperature is smaller than a second preset temperature difference threshold value, obtaining state information that the wall-mounted furnace normally operates in normal operation.
In one embodiment, after the step of obtaining the heating water temperature at the heating water outlet of the wall-mounted boiler, the method further includes: and when the difference value between the heating water temperature and the preset temperature is larger than or equal to a second preset temperature difference threshold value, the combustion state of the wall-mounted furnace is adjusted until the difference value between the heating water temperature and the preset temperature is smaller than the second preset temperature difference threshold value.
In one embodiment, when the heating signal is received, the step of controlling the wall-hanging stove to open for heating water includes: when a heating signal is received, a preset temperature is set according to the heating signal, and the wall hanging stove is controlled to be started for heating water.
A wall-hanging stove control device, comprising: the temperature acquisition module is used for respectively acquiring the outlet water temperature of the heating water conveyed to each room by the wall-mounted furnace and the indoor temperature of each room when the wall-mounted furnace normally operates; the temperature analysis module is used for comparing and analyzing according to the outlet water temperature and the indoor temperature; and the temperature adjusting module is used for heating the heating water conveyed to the current room when the difference value between the outlet water temperature corresponding to the same room and the indoor temperature is larger than or equal to a first preset temperature difference threshold value, and stopping heating until the difference value between the outlet water temperature corresponding to the current room and the indoor temperature is smaller than the first preset temperature difference threshold value.
The wall-mounted boiler comprises a water heating device, a heating water conveying device and room heating devices, wherein the heating water conveying device is connected with the water heating device, the room heating devices are respectively arranged in all rooms, and the room heating devices are respectively connected with the heating water conveying device; the water heating device is used for heating water to obtain heating water; the room heating device is used for acquiring the indoor temperature of each room and sending the indoor temperature to the heating water conveying device; the heating water conveying device is used for controlling the heating water temperature conveyed to each room according to the wall-mounted boiler control method.
In one embodiment, the heating water conveying device comprises a main controller, a heating water inlet pipeline, a water outlet temperature detector, a water outlet switch, an auxiliary heating device and conveying pipelines, wherein the water outlet temperature detector, the water outlet switch and the auxiliary heating device are respectively connected with the main controller, the main controller is connected with the water heating device, the heating water inlet pipeline is connected with a heating water outlet of the water heating device, the conveying pipelines are respectively connected with the heating water inlet pipeline, and each conveying pipeline is sequentially provided with one water outlet temperature detector, one water outlet switch and one auxiliary heating device in the direction away from the heating water inlet pipeline, and each conveying pipeline is respectively connected with a room heating device.
In one embodiment, the room heating device comprises a slave controller, an indoor temperature detector, a radiating fin and a heating pipeline, wherein the heating pipeline is connected with the heating water conveying device, the radiating fin is arranged on the heating pipeline, the indoor temperature detector is connected with the slave controller, and the slave controller is in communication connection with the heating water conveying device.
In one embodiment, the water heating device comprises an air inlet pipeline, a fuel gas proportional valve, an air inlet pipeline, a combustion assembly, a heating water outlet pipeline and a heating water temperature detector, wherein the air inlet pipeline, the air inlet pipeline and the heating water outlet pipeline are respectively connected with the combustion assembly, the fuel gas proportional valve is arranged on the air inlet pipeline, the heating water temperature detector is arranged on the heating water outlet pipeline, and the fuel gas proportional valve, the heating water temperature detector and the combustion assembly are respectively connected with the heating water conveying device.
According to the wall-mounted furnace control method and device and the wall-mounted furnace, during normal operation of the wall-mounted furnace, when heating water is conveyed to each room for heating, the outlet water temperature and the indoor temperature of the heating water corresponding to each room can be obtained simultaneously for comparison and analysis. When the difference between the water outlet temperature and the indoor temperature of a certain room is greater than or equal to a first preset temperature difference threshold, heating water conveyed to the room can be heated for the second time, so that the indoor temperature of the room is increased, the difference between the indoor temperature and the water outlet temperature is reduced, and the difference between the water outlet temperature and the indoor temperature corresponding to the current room is smaller than the first preset temperature difference. Through the scheme, the outlet water temperature of each room can be independently controlled, and when the difference between the outlet water temperature and the indoor temperature is large, the heating water can be heated for the second time to increase the indoor temperature, so that the difference between the outlet water temperature and the indoor temperature is reduced. By performing temperature compensation on the heating water with a larger difference between the outlet water temperature and the indoor temperature, the difference between the actual temperatures of the heating water finally flowing into each room can be reduced, and the indoor temperature difference of each room is further reduced.
Drawings
In order to more clearly illustrate the technical solutions of the embodiments or the conventional techniques of the present application, the drawings required for the descriptions of the embodiments or the conventional techniques will be briefly described below, and it is apparent that the drawings in the following description are only some embodiments of the present application, and other drawings may be obtained according to the drawings without inventive effort for those skilled in the art.
FIG. 1 is a schematic flow chart of a method for controlling a wall-hanging stove in an embodiment;
FIG. 2 is a schematic flow chart of a method for controlling a wall-hanging stove in another embodiment;
FIG. 3 is a schematic diagram of a water heating control flow in an embodiment;
FIG. 4 is a schematic diagram of a water heating control flow in another embodiment;
FIG. 5 is a schematic diagram of a control device for a wall-hanging stove according to an embodiment;
FIG. 6 is a schematic diagram of a control device for a wall-hanging stove according to another embodiment;
FIG. 7 is a schematic view of a wall-mounted boiler according to an embodiment;
FIG. 8 is a schematic view of a wall hanging stove according to another embodiment;
FIG. 9 is a schematic diagram of a heating water supply device according to an embodiment;
FIG. 10 is a schematic diagram of a room heating apparatus according to an embodiment;
FIG. 11 is a schematic view of a water heating apparatus according to an embodiment.
Detailed Description
In order that the application may be readily understood, a more complete description of the application will be rendered by reference to the appended drawings. Preferred embodiments of the present application are shown in the drawings. This application may, however, be embodied in many different forms and should not be construed as limited to the embodiments set forth herein. Rather, these embodiments are provided so that this disclosure will be thorough and complete.
Referring to fig. 1, a method for controlling a wall-hanging stove includes steps S500, S600 and S700.
Step S500, when the wall-mounted furnace normally operates, the water outlet temperature of the heating water conveyed to each room by the wall-mounted furnace and the indoor temperature of each room are respectively obtained.
Specifically, the wall-mounted boiler obtains heating water after heating the input cold water, outputs the heating water to different rooms, and heats the rooms by radiating heat in the heating water. The wall-mounted boiler provided by the application comprises a water heating device, a heating water conveying device and a room heating device. The water heating device can heat cold water by natural gas and the like, obtain hot water with a certain temperature and then convey the hot water to the heating water conveying device. The heating water conveying device conveys the hot water to different rooms respectively, and meanwhile, the temperature of the heating water which is finally conveyed to each room is independently controlled according to the outlet water temperature and the indoor temperature of the heating water which are corresponding to different rooms. The room heating device is used for radiating the heat of the heating water conveyed to each room into the room to realize the heating function, and collecting the indoor temperature of each room and feeding back to the heating water conveying device for analysis.
In the technical scheme of the application, the normal operation of the wall-mounted boiler means that the water heating device is positioned in a state that heating water meeting a certain temperature condition can be conveyed to the heating water conveying device. For example, in one more detailed embodiment, it may refer to the water heating device being in heating water in which a difference between a temperature of heating water supplied to the heating water supply device and a preset temperature is less than a second preset temperature difference threshold, wherein the preset temperature is set by a user. After the wall-mounted boiler is in a normal running state, the heating water conveying device starts to execute the wall-mounted boiler control scheme, and firstly, the outlet water temperature of the heating water and the indoor temperature of each room are obtained.
It can be understood that the outlet temperature of the heating water according to this embodiment refers to: after the heating water obtained by heating by the water heating device is split by the heating water conveying device, the water temperatures at the front ends (namely, the ends close to the water heating device) of the conveying pipelines corresponding to different rooms are respectively calculated. The collected water outlet temperatures are basically consistent among different rooms, but the lengths of the conveying pipelines among different rooms are inconsistent, so that the actual water temperatures flowing into the room heating devices are different to some extent, and finally, the indoor temperatures are different.
It should be noted that the way of obtaining the outlet water temperature of the heating water is not the only way, in one embodiment, the outlet water temperature may be collected by temperature detectors separately disposed on each conveying pipeline and then sent to the heating water conveying device, that is, the heating water conveying device in this embodiment does not have a temperature collecting function, and the outlet water temperature is collected by additional temperature detectors. In another embodiment, a plurality of temperature detectors may be integrated in the heating water delivery device, and each temperature detector correspondingly collects a high water temperature in a delivery pipeline, so that the heating water delivery device is utilized to directly obtain the corresponding water outlet temperature of each room. The indoor temperature can be that the room heating devices arranged in all rooms are integrated with temperature detectors, and the indoor temperature is directly collected by the room heating devices in all rooms and then sent to the heating water conveying device.
And S600, comparing and analyzing according to the outlet water temperature and the indoor temperature.
Specifically, after the heating water delivery device obtains the outlet water temperature of the heating water delivered to each room and the indoor temperature of each room, the outlet water temperature and the indoor temperature are combined for comparison analysis. In the comparison and analysis process, the water outlet temperature and the indoor temperature in the same room are respectively compared and analyzed, whether the difference between the water outlet temperature and the indoor temperature in the same room is too large is judged by comparing the difference between the water outlet temperature and the indoor temperature, and the corresponding temperature control is carried out on the room according to the comparison result.
And step S700, heating the heating water conveyed to the current room when the difference value between the outlet water temperature corresponding to the same room and the indoor temperature is larger than or equal to a first preset temperature difference threshold value, and stopping heating until the difference value between the outlet water temperature corresponding to the current room and the indoor temperature is smaller than the first preset temperature difference threshold value.
Specifically, in the solution of this embodiment, a first preset temperature difference threshold is pre-stored in the heating water delivery device, and when the heating water delivery device analyzes the outlet water temperature and the indoor temperature corresponding to each room, the heating water delivery device compares and analyzes the difference between the outlet water temperature and the indoor temperature of the same room and the first preset temperature difference threshold. If the difference value is greater than or equal to the first preset temperature difference threshold value, the fact that the temperature difference is too large is indicated, and the heating water conveyed to the room needs to be heated for the second time, so that the temperature of the actual heating water finally conveyed to the room is increased, and after heat dissipation and heating are finally carried out, the indoor temperature of the room is increased. Because the secondary heating of the heating water is carried out at the rear end of the part for detecting the outlet water temperature, the detected outlet water temperature is basically kept unchanged at the moment, the indoor temperature is increased, the difference between the outlet water temperature and the indoor temperature is gradually reduced finally, and the secondary heating operation of the heating water is stopped after the difference is finally smaller than the first preset temperature difference threshold value.
It should be noted that in the scheme of the present application, the operation of the heating water delivery device to obtain the outlet water temperature and the indoor temperature of each room is performed in real time. Even after the secondary heating is stopped when the difference value between the outlet water temperature corresponding to the current room and the indoor temperature is smaller than the first preset temperature difference threshold value, if the difference value between the outlet water temperature of the room and the indoor temperature is detected to be larger than or equal to the first preset temperature difference threshold value again, the secondary heating of the heating water is started again.
Referring to fig. 2, in one embodiment, after step S600, the method further includes step S800.
Step S800, when the difference between the corresponding outlet water temperature and the indoor temperature in the same room is smaller than the first preset temperature difference threshold, directly conveying the heating water with the current outlet water temperature to the corresponding room.
Specifically, when the heating water conveying device compares and analyzes the outlet water temperature and the indoor temperature corresponding to each room, the situation that the difference between the outlet water temperature and the indoor temperature is smaller than the first preset temperature difference threshold value in some rooms can also occur, and at the moment, the fact that the temperature difference between the outlet water temperature and the indoor temperature of the type of rooms is smaller is indicated, and at the moment, secondary heating of heating water is not needed, and only the heating water corresponding to the current outlet water temperature is directly conveyed to the corresponding room for heating.
Through the scheme of the embodiment, the heating water with larger difference between the outlet temperature and the indoor temperature is conveyed to the corresponding room after being secondarily heated, and the heating water with smaller difference between the outlet temperature and the indoor temperature is directly conveyed to the corresponding room without being secondarily heated. So that the actual water temperature difference of the heating water finally delivered to different rooms can be effectively reduced.
Referring to fig. 3, in an embodiment, before step S500, the method further includes step S100, step S200, and step S300.
Step S100, when a heating signal is received, controlling the wall-mounted furnace to be started for heating water; step S200, obtaining the heating water temperature at the heating water outlet of the wall-mounted furnace; step S300, when the difference value between the heating water temperature and the preset temperature is smaller than a second preset temperature difference threshold value, the state information that the wall-mounted furnace is in normal operation is obtained.
Specifically, the heating signal is a starting signal sent by a user when the user needs to heat by using the wall-mounted furnace. It will be appreciated that the transmission of the heating signal is not exclusive and in one embodiment the heating signal may be transmitted by the user through the room heating appliance and then received by the heating water delivery device. In another embodiment, the user may also directly input in the heating water delivery device.
The wall-hanging stove is opened and is carried out water heating, namely the water heating device of wall-hanging stove starts the operation, and water heating device's specific structure is not unique, in an embodiment, water heating device includes air inlet line, gas proportional valve, water inlet line, combustion component, heating water outlet line and heating water temperature detector, air inlet line, water inlet line and heating water outlet line connect combustion component respectively, gas proportional valve sets up in air inlet line, heating water temperature detector sets up in heating water outlet line, gas proportional valve, heating water temperature detector and combustion component connect heating water conveyor respectively.
When the water heating device starts to operate, water to be heated (cold water or heating water flowing back by the room heating device) flows into the combustion assembly through the water inlet pipeline, meanwhile, fuel gas enters the combustion assembly through the air inlet pipeline, the heating water conveying device controls the combustion assembly to start to operate, fuel gas combusts in the combustion assembly to perform heat exchange, the water to be heated is heated to obtain heating water, and finally, the heating water flows out from the heating water outlet pipeline to the heating water conveying device. In the process, a heating water temperature detector arranged in a heating water outlet pipeline detects which heating water temperature is selected in real time, and the acquired heating water temperature is sent to a heating water conveying device to be compared and analyzed with a preset temperature. If the difference between the heating water temperature and the preset temperature is smaller than the second preset temperature difference threshold, the fact that the heating water obtained by the water heating device meets the user requirement is indicated, and the heating water conveying device considers that the wall-mounted boiler is in a normal running state.
With continued reference to fig. 3, in one embodiment, step S400 is further included after step S200.
Step S400, when the difference between the heating water temperature and the preset temperature is greater than or equal to a second preset temperature difference threshold, the combustion state of the wall-mounted furnace is adjusted until the difference between the heating water temperature and the preset temperature is smaller than the second preset temperature difference threshold.
Specifically, when the heating water transporting device performs comparative analysis according to the heating water temperature and the preset temperature, a case may also occur in which the difference between the heating water temperature and the preset temperature is greater than or equal to a second preset temperature difference threshold. At this time, it is explained that the heating water obtained by the water heating device does not reach the user's expectation, and the combustion state of the wall-hanging stove, specifically, the combustion state of the combustion assembly of the water heating device, will need to be adjusted, so that the temperature of the heating water output from the combustion assembly is increased.
It can be appreciated that the manner of adjusting the combustion state of the wall-mounted boiler is not unique, in a more detailed embodiment, the adjustment of the amount of the fuel gas in the combustion assembly can be achieved, specifically, the opening of the fuel gas proportional valve on the air inlet pipe is increased, so that the fuel gas in the combustion assembly is increased, and the heating water conveying device with higher temperature is obtained through heating, and finally, the difference between the heating water temperature and the preset temperature is smaller than the second preset temperature difference threshold.
Referring to fig. 4, in one embodiment, step S100 includes step S110.
Step S110, when a heating signal is received, a preset temperature is set according to the heating signal, and the wall hanging stove is controlled to be started for heating water.
Specifically, in the solution of this embodiment, the heating signal is not only used for controlling the opening of the wall-mounted boiler, but also for performing the setting operation of the preset temperature in the wall-mounted boiler. That is, in this embodiment, whenever a user needs to perform heating, the preset temperature expected by the user is sent to the heating water delivery device while the wall-hanging stove is started, so that the heating water delivery device controls the heating water with the output temperature matched with the water heating device (that is, the heating water with the temperature difference smaller than the second preset temperature difference threshold value).
According to the wall-mounted boiler control method, during normal operation of the wall-mounted boiler, when heating water is conveyed to each room for heating, the outlet water temperature and the indoor temperature of the heating water corresponding to each room can be obtained simultaneously for comparison and analysis. When the difference between the water outlet temperature and the indoor temperature of a certain room is greater than or equal to a first preset temperature difference threshold, heating water conveyed to the room can be heated for the second time, so that the indoor temperature of the room is increased, the difference between the indoor temperature and the water outlet temperature is reduced, and the difference between the water outlet temperature and the indoor temperature corresponding to the current room is smaller than the first preset temperature difference. Through the scheme, the outlet water temperature of each room can be independently controlled, and when the difference between the outlet water temperature and the indoor temperature is large, the heating water can be heated for the second time to increase the indoor temperature, so that the difference between the outlet water temperature and the indoor temperature is reduced. By performing temperature compensation on the heating water with a larger difference between the outlet water temperature and the indoor temperature, the difference between the actual temperatures of the heating water finally flowing into each room can be reduced, and the indoor temperature difference of each room is further reduced.
Referring to fig. 5, a wall-hanging stove control device includes: a temperature acquisition module 400, a temperature analysis module 500, and a temperature adjustment module 600.
The temperature obtaining module 400 is configured to obtain, when the wall-mounted boiler is operating normally, the outlet water temperature of the heating water delivered to each room by the wall-mounted boiler and the indoor temperature of each room; the temperature analysis module 500 is used for comparing and analyzing according to the outlet water temperature and the indoor temperature; the temperature adjustment module 600 is configured to heat the heating water delivered to the current room when the difference between the outlet water temperature corresponding to the same room and the indoor temperature is greater than or equal to a first preset temperature difference threshold, and stop heating until the difference between the outlet water temperature corresponding to the current room and the indoor temperature is less than the first preset temperature difference threshold.
In one embodiment, the temperature adjustment module 600 is further configured to directly send the heating water with the current outlet water temperature to the corresponding room when the difference between the outlet water temperature and the indoor temperature corresponding to the same room is less than the first preset temperature difference threshold.
Referring to fig. 6, in one embodiment, before the temperature obtaining module 400, the wall-hanging stove control device further includes a start control module 100, a heating water temperature obtaining module 200, and a water heating control module 300.
The starting control module 100 is used for controlling the wall hanging stove to be started for heating water when receiving a heating signal; the heating water temperature acquisition module 200 is used for acquiring the heating water temperature at the heating water outlet of the wall-mounted furnace; the water heating control module 300 is configured to obtain state information that the wall-mounted boiler is in normal operation when a difference between the heating water temperature and the preset temperature is smaller than a second preset temperature difference threshold.
In one embodiment, the water heating control module 300 is further configured to adjust the combustion state of the wall-hanging stove when the difference between the heating water temperature and the preset temperature is greater than or equal to the second preset temperature difference threshold value, until the difference between the heating water temperature and the preset temperature is less than the second preset temperature difference threshold value.
In one embodiment, the start control module 100 is further configured to set a preset temperature according to the heating signal when the heating signal is received, and control the wall hanging stove to be turned on for heating water.
The specific limitation of the wall-mounted boiler control device can be referred to the limitation of the wall-mounted boiler control method, and the description thereof is omitted here. All or part of the modules in the wall-mounted boiler control device can be realized by software, hardware and a combination thereof. The above modules may be embedded in hardware or may be independent of a processor in the computer device, or may be stored in software in a memory in the computer device, so that the processor may call and execute operations corresponding to the above modules.
According to the wall-mounted boiler control device, in the normal operation process of the wall-mounted boiler, when heating water is conveyed to each room for heating, the outlet water temperature and the indoor temperature of the heating water corresponding to each room can be obtained simultaneously for comparison and analysis. When the difference between the water outlet temperature and the indoor temperature of a certain room is greater than or equal to a first preset temperature difference threshold, heating water conveyed to the room can be heated for the second time, so that the indoor temperature of the room is increased, the difference between the indoor temperature and the water outlet temperature is reduced, and the difference between the water outlet temperature and the indoor temperature corresponding to the current room is smaller than the first preset temperature difference. Through the scheme, the outlet water temperature of each room can be independently controlled, and when the difference between the outlet water temperature and the indoor temperature is large, the heating water can be heated for the second time to increase the indoor temperature, so that the difference between the outlet water temperature and the indoor temperature is reduced. By performing temperature compensation on the heating water with a larger difference between the outlet water temperature and the indoor temperature, the difference between the actual temperatures of the heating water finally flowing into each room can be reduced, and the indoor temperature difference of each room is further reduced.
Referring to fig. 7, a wall-mounted boiler includes a water heating device 10, a heating water delivery device 20 and a room heating device 30, wherein the heating water delivery device 20 is connected with the water heating device 10, the room heating devices 30 are respectively arranged in each room, and the room heating devices 30 are respectively connected with the heating water delivery device 20; the water heating device 10 is used for heating water to obtain heating water; the room heating device 30 is used for acquiring the indoor temperature of each room and sending the indoor temperature to the heating water delivery device 20; the heating water supply device 20 is used to control the temperature of the heating water supplied to each room according to the above-described wall-hanging boiler control method.
Specifically, the wall-mounted boiler obtains heating water after heating the input cold water, outputs the heating water to different rooms, and heats the rooms by radiating heat in the heating water. The wall-mounted boiler provided by the application comprises three parts, namely a water heating device 10, a heating water conveying device 20 and a room heating device 30. The water heating apparatus 10 may heat cold water by natural gas or the like to obtain hot water having a predetermined temperature, and then deliver the hot water to the heating water delivery apparatus 20. The heating water delivery device 20 delivers the hot water to different rooms, and simultaneously analyzes the outlet water temperature and the indoor temperature of the heating water corresponding to different rooms, thereby realizing independent control of the temperature of the heating water finally delivered to each room. The room heating device 30 is used for radiating the heat of the heating water delivered to each room to the room to realize the heating function, and collecting the indoor temperature of each room and feeding back to the heating water delivery device 20 for analysis.
The outlet temperature of the heating water is as follows: after the heating water heated by the water heating device 10 is split by the heating water conveying device 20, the water temperatures at the front ends of conveying pipelines under different rooms (namely, at the end close to the water heating device 10) respectively correspond to each other. Therefore, the temperature of different rooms can be acquired to obtain the water outlet temperature of heating water.
After the heating water supply device 20 obtains the outlet temperature of the heating water supplied to each room and the indoor temperature of each room, a comparison analysis is performed with respect to each outlet temperature and the indoor temperature. In the comparison and analysis process, the water outlet temperature and the indoor temperature in the same room are respectively compared and analyzed, whether the difference between the water outlet temperature and the indoor temperature in the same room is too large is judged by comparing the difference between the water outlet temperature and the indoor temperature, and the corresponding temperature control is carried out on the room according to the comparison result.
A first preset temperature difference threshold value is pre-stored in the heating water delivery device 20, and when the heating water delivery device 20 respectively analyzes the outlet water temperature and the indoor temperature corresponding to each room, the outlet water temperature and the indoor temperature of the same room are subjected to difference, and then the difference value is compared with the first preset temperature difference threshold value for analysis. If the difference value is greater than or equal to the first preset temperature difference threshold value, the fact that the temperature difference is too large is indicated, and the heating water conveyed to the room needs to be heated for the second time, so that the temperature of the actual heating water finally conveyed to the room is increased, and after heat dissipation and heating are finally carried out, the indoor temperature of the room is increased. Because the secondary heating of the heating water is carried out at the rear end of the part for detecting the outlet water temperature, the detected outlet water temperature is basically kept unchanged at the moment, the indoor temperature is increased, the difference between the outlet water temperature and the indoor temperature is gradually reduced finally, and the secondary heating operation of the heating water is stopped after the difference is finally smaller than the first preset temperature difference threshold value.
When the heating water conveying device 20 performs comparison analysis according to the outlet water temperature and the indoor temperature corresponding to each room, the situation that the difference between the outlet water temperature and the indoor temperature is smaller than the first preset temperature difference threshold value in some rooms also occurs, and this indicates that the temperature difference between the outlet water temperature and the indoor temperature in the same type of room is smaller, and at this time, the heating water is not required to be secondarily heated, and only the heating water corresponding to the current outlet water temperature is required to be directly conveyed to the corresponding room for heating.
Referring to fig. 8, in one embodiment, the heating water delivery device 20 includes a main controller (not shown), a heating water inlet pipe 21, a water outlet temperature detector 22, a water outlet switch 23, an auxiliary heating device 24 and a delivery pipe 25, wherein the water outlet temperature detector 22, the water outlet switch 23 and the auxiliary heating device 24 are respectively connected to the main controller (not shown), the main controller is connected to the water heating device 10 (not shown), the heating water inlet pipe 21 is connected to a heating water outlet of the water heating device 10, each delivery pipe 25 is respectively connected to the heating water inlet pipe 21, a water outlet temperature detector 22, a water outlet switch 23 and an auxiliary heating device 24 are sequentially arranged in a direction that each delivery pipe 25 is far away from the heating water inlet pipe 21, and each delivery pipe 25 is respectively connected to a room heating device 30.
Specifically, in the present embodiment, the heating water supply device 20 has a function of collecting the outlet water temperature of the heating water in different rooms. The heating water delivery device 20 includes a main controller for performing the entire wall-hanging boiler control scheme, a water outlet temperature detector 22 for collecting and transmitting the water outlet temperatures of the heating water of different rooms to the main controller, an auxiliary heating device 24 for performing secondary heating on the heating water when secondary heating is required, and a water outlet switch 23 and a delivery pipe 25 for distributing the heating water outputted from the water heating device 10 to different rooms. When a certain room needs to be heated, the main controller only needs to turn on the water outlet switch 23 on the corresponding conveying pipeline 25 of the room. When the room is heated, the outlet water temperature of the heating water at the front end of the conveying pipeline 25 is detected by the outlet water temperature detector 22 and sent to the main controller for analysis, and if the difference between the outlet water temperature and the indoor temperature of the room is greater than or equal to a first preset temperature difference threshold, the main controller controls the auxiliary heating device 24 to start to operate, and the heating water actually reaching the room is heated for the second time until the difference between the outlet water temperature and the indoor temperature of the room is smaller than the first preset temperature difference threshold.
It is understood that the specific type of the auxiliary heating apparatus 24 is not exclusive, as long as it is capable of performing the secondary heating of the heating water in the different delivery pipes 25, respectively. For example, in one more detailed embodiment, the auxiliary heating 24 is an electrical heating. The electric heating device is utilized to carry out secondary heating of heating water, and the secondary heating can be realized only by electrifying the corresponding electric heating device, so that the electric heating device has the advantage of strong heating convenience. Further, the electric heating device may be an electric heating wire or the like.
Further, in an embodiment, referring to fig. 9, the main controller, the heating water inlet pipeline 21, the outlet temperature detector 22, the outlet switch 23, the auxiliary heating device 24 and the delivery pipeline 25 may be integrally arranged to obtain the integrated heating water delivery device 20, and in the actual use process, only the heating water inlet pipeline 21 needs to be connected to the heating water outlet of the water heating device 10.
Referring to fig. 10 in combination, in one embodiment, the room heating apparatus 30 includes a slave controller 32, an indoor temperature detector 33, a fin 34, and a heating pipe 31, the heating pipe 31 is connected to the heating water supply apparatus 20, the fin 34 is disposed on the heating pipe 31, the indoor temperature detector 33 is connected to the slave controller 32, and the slave controller 32 is in communication connection with the heating water supply apparatus 20.
Specifically, the room heating device 30 is provided with an indoor temperature detector 33, and the indoor temperature of the corresponding room can be collected and transmitted to the slave controller 32 in real time by the indoor temperature detector 33, and then transmitted to the heating water delivery device 20, specifically, the master controller of the heating water delivery device 20, which is in communication connection with the slave controller 32. The heat radiating fins 34 are provided to the heating pipe 31, and heat generated from heating water in the heating pipe 31 can be transferred to the heat radiating fins 34 and then radiated to the surrounding air through the heat radiating fins 34, thereby realizing a heating operation. Also, in a more detailed embodiment, the slave controller 32, the indoor temperature detector 33, the heat sink 34 and the heating pipe 31 may be integrally designed, as shown in fig. 10, and in actual use, only one end of the heating pipe 31 needs to be connected to the heating water delivery device 20 (specifically, different delivery pipes 25 in the heating water delivery device 20).
It should be noted that the specific type of the outlet water temperature detector 22 and the indoor temperature detector 33 is not unique, for example, in a more detailed embodiment, the outlet water temperature detector 22 and the indoor temperature detector 33 are both temperature sensors. In other embodiments, the outlet water temperature detector 22 and the indoor temperature detection may be a detection device with a temperature acquisition function, such as a temperature sensing bulb.
Referring to fig. 11, in one embodiment, the water heating apparatus 10 includes an air inlet pipeline 13, a fuel gas proportional valve 14, an air inlet pipeline 11, a combustion assembly 12, a heating water outlet pipeline 15 and a heating water temperature detector 16, wherein the air inlet pipeline 13, the air inlet pipeline 11 and the heating water outlet pipeline 15 are respectively connected with the combustion assembly 12, the fuel gas proportional valve 14 is disposed on the air inlet pipeline 13, the heating water temperature detector 16 is disposed on the heating water outlet pipeline 15, and the fuel gas proportional valve 14, the heating water temperature detector 16 and the combustion assembly 12 are respectively connected with the heating water conveying apparatus 20.
Specifically, when the water heating apparatus 10 starts to operate, water to be heated (which may be cold water or heating water flowing back from the room heating apparatus 30) flows into the combustion assembly 12 through the water inlet pipeline 11, while gas enters the combustion assembly 12 through the gas inlet pipeline 13, the heating water delivery apparatus 20 controls the combustion assembly 12 to start to operate, gas burns in the combustion assembly 12 to perform heat exchange, the water to be heated is heated to obtain heating water, and finally flows out from the heating water outlet pipeline 15 to the heating water delivery apparatus 20. In this process, the heating water temperature detector 16 provided in the heating water outlet pipe 15 detects which heating water temperature you select in real time, and transmits the collected heating water temperature to the heating water delivery device 20 for comparison analysis with a preset temperature. If the difference between the heating water temperature and the preset temperature is smaller than the second preset temperature difference threshold, it indicates that the heating water obtained by the water heating device 10 at this time meets the user requirement, and the heating water conveying device 20 considers that the wall-mounted boiler is in a normal running state.
When the heating water transporting device 20 performs a comparative analysis according to the heating water temperature and the preset temperature, there may be a case where the difference between the heating water temperature and the preset temperature is greater than or equal to a second preset temperature difference threshold. At this time, it is explained that the heating water obtained by the water heating apparatus 10 does not reach the user's expectation, and it will be necessary to adjust the combustion state of the wall-hanging stove, specifically, the combustion state of the combustion module 12 of the water heating apparatus 10, so that the temperature of the heating water outputted from the combustion module 12 increases.
Further, referring to fig. 11 in combination, the combustion assembly 12 includes an ignition needle 122 and a heat exchanger 121, and the water heating apparatus 10 further includes a water pump 19, a water pressure sensor 18, an expansion tank 17, a fan 41, a wind pressure switch 42, a plate heat exchanger 43, a domestic hot water pipe 44, a three-way valve 46, a tap water inlet pipe 48, a tap water temperature detector 49, a connection pipe 47, and a domestic hot water temperature sensor 45. The water pump 19 and the water pressure sensor 18 are both arranged on the water inlet pipeline 11, the expansion tank 17 is connected with the water inlet pipeline 11, the fan 41 and the wind pressure switch 42 are both arranged at the air outlet at the top of the heat exchanger 121, the three-way valve 46 is arranged on the heating water outlet pipeline 15, the plate heat exchanger 43 is connected with the three-way valve 46, the tap water inlet pipeline 48 and the domestic hot water pipeline 44 are both connected with the plate heat exchanger 43, the tap water temperature detector 49 is arranged on the tap water purifying pipeline 48, and the plate heat exchanger 43 is also connected with the water inlet pipeline 11 through the connecting pipeline 47. Through the scheme of this embodiment, the water heating device 10 not only can heat heating water under the condition that the wind pressure switch 42, the fan 41 and the water pump 19 are turned on, but also can provide domestic hot water for users through the plate heat exchanger 43, so that the water heating device has stronger convenience in use.
The following examples illustrate the application in the most detailed form in order to facilitate the understanding of the technical aspects of the application. Taking room a as an example, when the wall-mounted furnace receives a heating operation signal, the preset temperature is set to Tw, and the wall-mounted furnace operates at this time. The wind pressure switch 42 and the fan 41 on the wall-mounted boiler work, then gas enters the combustion chamber through the air inlet pipeline 13 and the gas proportional valve 14, the main controller of the heating water conveying device 20 controls the ignition needle 122 to ignite, meanwhile, the water pump 19 is controlled to work to guide water to the heat exchanger to heat, the heated water is subjected to temperature detection through the heating water temperature detector 16, the temperature Ts is recorded, the main controller compares the difference value of the Ts and the Tw, the air inflow of the gas proportional valve 14 is adjusted, and the air inflow of the gas proportional valve 14 is not adjusted until the difference value of the Ts and the Tw reaches a first preset temperature difference threshold value, so that the wall-mounted boiler works normally.
After normal operation, the wall-mounted boiler heating water flows into the heating water conveying device 20, reaches the outlet water temperature detector 22 corresponding to the room A, records Tsa, the main controller controls the outlet water switch 23 (specifically, an electromagnetic valve) corresponding to the room A to be opened, heating water is output to the radiating fins 34 in the room heating device 30 corresponding to the room A, the room is heated, at this time, the indoor temperature detector 33 on the room heating device 30 collects indoor temperature Ta, the main controller compares the difference between Tsa and Ta through sending from the controller 32 to the main controller, if the difference between Ta and Tsa is greater than or equal to a preset allowable temperature difference Tt, the main controller controls the auxiliary heating device 24 corresponding to the room A to operate, heating water is heated until the difference between Ta and Tsa is within Tt, and the auxiliary heating device 24 stops operating.
According to the wall-mounted furnace, in the normal operation process of the wall-mounted furnace, when heating water is conveyed to each room for heating, the outlet water temperature and the indoor temperature of the heating water corresponding to each room can be obtained simultaneously for comparison and analysis. When the difference between the water outlet temperature and the indoor temperature of a certain room is greater than or equal to a first preset temperature difference threshold, heating water conveyed to the room can be heated for the second time, so that the indoor temperature of the room is increased, the difference between the indoor temperature and the water outlet temperature is reduced, and the difference between the water outlet temperature and the indoor temperature corresponding to the current room is smaller than the first preset temperature difference. Through the scheme, the outlet water temperature of each room can be independently controlled, and when the difference between the outlet water temperature and the indoor temperature is large, the heating water can be heated for the second time to increase the indoor temperature, so that the difference between the outlet water temperature and the indoor temperature is reduced. By performing temperature compensation on the heating water with a larger difference between the outlet water temperature and the indoor temperature, the difference between the actual temperatures of the heating water finally flowing into each room can be reduced, and the indoor temperature difference of each room is further reduced.
The technical features of the above-described embodiments may be arbitrarily combined, and all possible combinations of the technical features in the above-described embodiments are not described for brevity of description, however, as long as there is no contradiction between the combinations of the technical features, they should be considered as the scope of the description.
The above examples illustrate only a few embodiments of the application, which are described in detail and are not to be construed as limiting the scope of the claims. It should be noted that it will be apparent to those skilled in the art that several variations and modifications can be made without departing from the spirit of the application, which are all within the scope of the application. Accordingly, the scope of protection of the present application is to be determined by the appended claims.

Claims (9)

1. The wall-mounted furnace control method is characterized by comprising the following steps of:
When the wall-mounted furnace normally operates, respectively acquiring the water outlet temperature of heating water conveyed to each room by the wall-mounted furnace and the indoor temperature of each room; the heating water is heated by a water heating device, and the water heating device comprises an air inlet pipeline, a fuel gas proportional valve, a water inlet pipeline, a combustion assembly, a heating water outlet pipeline and a heating water temperature detector; the air inlet pipeline, the water inlet pipeline and the heating water outlet pipeline are respectively connected with the combustion assembly, the fuel gas proportional valve is arranged on the air inlet pipeline, the heating water temperature detector is arranged on the heating water outlet pipeline, and the fuel gas proportional valve, the heating water temperature detector and the combustion assembly are respectively connected with the heating water conveying device;
comparing and analyzing according to the outlet water temperature and the indoor temperature;
and when the difference value between the corresponding outlet water temperature and the indoor temperature of the same room is larger than or equal to a first preset temperature difference threshold value, heating the heating water conveyed to the current room, and stopping heating until the difference value between the corresponding outlet water temperature and the indoor temperature of the current room is smaller than the first preset temperature difference threshold value.
2. The wall-hanging boiler control method according to claim 1, further comprising, after the step of comparing and analyzing the outlet water temperature and the indoor temperature:
And when the difference value between the corresponding outlet water temperature and the indoor temperature of the same room is smaller than a first preset temperature difference threshold value, directly conveying the heating water with the current outlet water temperature to the corresponding room.
3. The wall-hanging stove control method according to claim 1, wherein when the wall-hanging stove is operating normally, the steps of obtaining the outlet water temperature of the heating water delivered to each room by the wall-hanging stove, and the indoor temperature of each room are preceded by the steps of:
When a heating signal is received, controlling the wall-mounted furnace to be started for heating water;
acquiring the heating water temperature at the heating water outlet of the wall-mounted furnace;
And when the difference value between the heating water temperature and the preset temperature is smaller than a second preset temperature difference threshold value, obtaining state information that the wall-mounted furnace normally operates in normal operation.
4. The wall-hanging stove control method according to claim 3, further comprising, after the step of obtaining the heating water temperature at the heating water outlet of the wall-hanging stove:
And when the difference value between the heating water temperature and the preset temperature is larger than or equal to a second preset temperature difference threshold value, the combustion state of the wall-mounted furnace is adjusted until the difference value between the heating water temperature and the preset temperature is smaller than the second preset temperature difference threshold value.
5. The wall-hanging stove control method according to claim 3, wherein the step of controlling the wall-hanging stove to be opened for water heating when receiving the heating signal comprises the steps of:
when a heating signal is received, a preset temperature is set according to the heating signal, and the wall hanging stove is controlled to be started for heating water.
6. A wall-hanging stove control device, characterized by comprising:
The temperature acquisition module is used for respectively acquiring the outlet water temperature of the heating water conveyed to each room by the wall-mounted furnace and the indoor temperature of each room when the wall-mounted furnace normally operates; the heating water is heated by a water heating device, and the water heating device comprises an air inlet pipeline, a fuel gas proportional valve, a water inlet pipeline, a combustion assembly, a heating water outlet pipeline and a heating water temperature detector; the air inlet pipeline, the water inlet pipeline and the heating water outlet pipeline are respectively connected with the combustion assembly, the fuel gas proportional valve is arranged on the air inlet pipeline, the heating water temperature detector is arranged on the heating water outlet pipeline, and the fuel gas proportional valve, the heating water temperature detector and the combustion assembly are respectively connected with the heating water conveying device;
the temperature analysis module is used for comparing and analyzing according to the outlet water temperature and the indoor temperature;
and the temperature adjusting module is used for heating the heating water conveyed to the current room when the difference value between the outlet water temperature corresponding to the same room and the indoor temperature is larger than or equal to a first preset temperature difference threshold value, and stopping heating until the difference value between the outlet water temperature corresponding to the current room and the indoor temperature is smaller than the first preset temperature difference threshold value.
7. The wall-mounted boiler is characterized by comprising a water heating device, a heating water conveying device and room heating devices, wherein the heating water conveying device is connected with the water heating device, the room heating devices are respectively arranged in all rooms, and the room heating devices are respectively connected with the heating water conveying device;
The water heating device is used for heating water to obtain heating water; the room heating device is used for acquiring the indoor temperature of each room and sending the indoor temperature to the heating water conveying device; the heating water conveying device is used for controlling the heating water temperature conveyed to each room according to the wall-mounted boiler control method of any one of claims 1-5.
8. The wall-hanging stove according to claim 7, wherein the heating water conveying device comprises a main controller, a heating water inlet pipeline, a water outlet temperature detector, a water outlet switch, an auxiliary heating device and a conveying pipeline;
The water outlet temperature detector, the water outlet switch and the auxiliary heating device are respectively connected with the main controller, the main controller is connected with the water heating device, the heating water inlet pipeline is connected with a heating water outlet of the water heating device, the conveying pipelines are respectively connected with the heating water inlet pipeline, each conveying pipeline is far away from the direction of the heating water inlet pipeline, and is sequentially provided with the water outlet temperature detector, the water outlet switch and the auxiliary heating device, and each conveying pipeline is respectively connected with a room heating device.
9. The wall-hanging stove according to claim 7, wherein the room heating device comprises a slave controller, an indoor temperature detector, a heat sink, and a heating pipe;
The heating pipeline is connected with the heating water conveying device, the radiating fins are arranged on the heating pipeline, the indoor temperature detector is connected with the slave controller, and the slave controller is in communication connection with the heating water conveying device.
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