CN118089162A - Temperature adjusting system and adjusting method - Google Patents
Temperature adjusting system and adjusting method Download PDFInfo
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- 230000005855 radiation Effects 0.000 claims abstract description 45
- 238000010438 heat treatment Methods 0.000 claims abstract description 36
- 238000005057 refrigeration Methods 0.000 claims description 37
- 230000008859 change Effects 0.000 claims description 24
- 238000004378 air conditioning Methods 0.000 claims description 21
- 238000001816 cooling Methods 0.000 claims description 11
- 239000003507 refrigerant Substances 0.000 claims description 10
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Abstract
The invention relates to the technical field of building heating and refrigerating combination, in particular to a temperature regulating system and a regulating method, wherein in the regulating method, a combined system which is formed by combining an air conditioner end, a cold energy regulating end and a radiation refrigerating device is configured, and a controller acquires parameters such as a difference value between a set temperature and an average indoor temperature, a temperature difference value between the set temperature and an outlet side of an indoor coil pipe and the like so as to coordinate and control the opening or closing of the air conditioner end, a Peltier refrigerator and the radiation refrigerating device, thereby reducing energy consumption on the basis of realizing higher temperature regulating efficiency. The invention solves the problems that the traditional single system is limited by weather, insufficient refrigerating and heating power or excessively high energy consumption and the like, has a better application range, and can be widely applied to the building fields of large-scale commercial buildings, cold chain logistics, granary storage, machine rooms and the like.
Description
Technical Field
The invention relates to a building heating and refrigerating combined system, in particular to a temperature regulating system and a regulating method.
Background
The earth surface has an atmospheric window wave band (mainly 8-13 μm), namely, the passive cooling process of the object can be realized by selecting materials with high radiation and high reflectivity (more than or equal to 93 percent). At present, the radiation refrigerating material in the market can reduce the temperature of an object to be 4-5 ℃ lower than the ambient temperature in the daytime and 9-10 ℃ lower than the ambient temperature at night. The radiation refrigeration technology is applied to places such as large commercial buildings, cold chain logistics, granary storage, machine rooms and the like, and can effectively reduce the refrigeration consumption of the buildings.
However, single radiation refrigeration is limited by weather environment, low refrigeration power, and low indoor temperature caused by external radiation heat in winter, namely, a single refrigeration radiation system has a problem of narrow application range, so that it is necessary to propose a combined system for realizing more economical and energy-saving refrigeration and heating by combining air conditioning, radiation refrigeration and other regulating equipment.
Disclosure of Invention
The invention aims to provide a temperature regulating method, which aims to configure a combined system for refrigerating and heating and adopts corresponding regulation measures to improve the application range, economy and energy conservation of the combined system.
In order to achieve the above purpose, the present invention adopts the following technical scheme:
A method of temperature regulation, comprising:
And (3) configuring a temperature regulation system: the temperature regulation system is configured to comprise a cold energy regulation end, an air conditioning end, a radiation refrigerating device, a room temperature sensor and a controller, wherein the cold energy regulation end comprises a Peltier refrigerator, a heat exchanger and an indoor coil, and a refrigerant configuring the cold energy regulation end flows back to the Peltier refrigerator after passing through an evaporator of the air conditioning end, the heat exchanger and the indoor coil; the indoor coil is configured to be provided with a first temperature sensor at the inlet side and a second temperature sensor at the outlet side;
Configuring a temperature regulation mode of the controller to be a refrigeration mode and a heating mode;
In the cooling mode: acquiring a set temperature T, acquiring an indoor average temperature T 1, setting a first set threshold T 41, a second set threshold T 42 and a third set threshold T 43, and enabling T 41＞T42＞T43 to be the same; calculating a first temperature difference value T 31,T31=T1 -T, and executing a first running state when T 31＞T41 is carried out, wherein an air conditioner end, a Peltier refrigerator and a radiation refrigerating device are simultaneously started in the first running state; when T 41≥T31＞T42 is carried out, executing a second running state, wherein the air conditioner end is kept closed in the second running state, and the Peltier refrigerator and the radiation refrigerating device are kept open; when T 42≥T31＞T43 is carried out, executing a third running state, keeping the air conditioner end and the Peltier refrigerator closed and keeping the radiation refrigeration device open; acquiring the temperature T 22 of the outlet side of the indoor coil in the first running state, calculating a second temperature difference value T 32,T32=T-T22, and closing the Peltier refrigerator when T 32 is larger than a fourth set threshold value T 44;
In the heating mode: starting the air conditioner end, the Peltier refrigerator and the radiation refrigerating device; acquiring an inlet side temperature T 21 of an indoor coil and an outlet side temperature T 22 of the indoor coil, acquiring a third temperature difference value T 33,T33=T22-T21, setting a fifth set threshold value T 55, closing the air conditioner end when T 33＞T55 is met, closing the Peltier refrigerator when T 33 is still larger than T 55 after the preset time period of closing the air conditioner end is met, adjusting the infrared radiation emissivity of the surface coating according to T 33 after the preset time period of the radiation refrigerating device, and closing the heating mode when T 33 is still larger than T 55 after the preset time period of the emissivity of the radiation refrigerating device is adjusted.
Further, the method further comprises the following steps:
A flow rate sensor is arranged at the inlet side of the indoor coil pipe, and a rotating speed sensor is arranged at the outlet side of the indoor coil pipe;
Acquiring a set flow velocity V of the indoor coil, an actual flow velocity V 2 of the indoor coil, a set fan rotating speed S of the indoor coil and an actual fan rotating speed S 2 of the indoor coil;
When the indoor coil is in the first running state, the actual flow velocity V2 of the indoor coil keeps the maximum flow velocity running state, the actual fan rotating speed S 2 keeps the maximum rotating speed running state, and the running time is gradually reduced to the set flow velocity V, and the fan rotating speed S of the indoor coil is set;
When the indoor coil is in the second running state or the third running state, the actual flow velocity V2 of the indoor coil is kept in the set flow velocity V, the actual fan rotating speed S 2 is kept in the maximum rotating speed running state, and the fan rotating speed S of the indoor coil is gradually reduced along with the running time.
Further, the method further comprises the following steps:
acquiring indoor space distribution parameters and performing grid division on the indoor space; configuring the room temperature sensor in each grid;
acquiring the indoor average temperature T1 based on grid temperature, grid position and grid user number information;
The indoor average temperature T1 is ；
Wherein P 11...P1n is the user weight coefficient of each grid, X 11...X1n is the temperature weight coefficient of each grid, T 11...T1n is the detection temperature of each grid, and n is the grid number;
The user weighting coefficient is 1-1.3, and when the number of grid users is 0, the user weighting coefficient is 1, and the user weighting coefficient is positively related to the number of grid users; the temperature weighting coefficient is 0.8-1.2, and the temperature weighting coefficient is positively correlated with the distance between the grid and the air outlet position of the indoor coil.
Further, the method further comprises the following steps: configuring the heat exchanger as a phase change heat exchanger; in the heating mode, when T 33 is greater than a fifth set threshold T 55, the phase change heat exchanger is heated in preference to the radiant refrigeration unit.
Further, the method further comprises the following steps: configuring the heat exchanger as a phase change heat exchanger; when the indoor coil is closed and the electricity price is in the valley stage, one or more of an air conditioner end, a Peltier refrigerator and a radiation refrigerating device are started to realize cold accumulation of the phase change cold accumulator.
When the indoor coil is opened and the electricity price is in a peak stage, the phase change cold accumulator is firstly opened to release cold.
Further, the method further comprises the following steps: and configuring a solar photovoltaic power supply board for the Peltier refrigerator, wherein the solar photovoltaic power supply board is arranged on a roof or an outer wall of a building.
The second object of the present invention is to provide a temperature adjusting system, which is aimed at improving the application range, economy and energy saving.
A temperature regulating system comprises a cold energy regulating end, an air conditioning end, a radiation refrigerating device, a room temperature sensor and a controller; the cold energy adjusting end comprises a Peltier refrigerator, a heat exchanger and an indoor coil, and a refrigerant at the cold energy adjusting end flows back to the Peltier refrigerator after passing through an evaporator at the air conditioning end, the heat exchanger and the indoor coil; the inlet side of the indoor coil is provided with a first temperature sensor, and the outlet side of the indoor coil is provided with a second temperature sensor; the controller is used for realizing the temperature regulation method.
Further, configuring the room temperature sensor in each grid divided according to indoor space distribution parameters; the controller is used for realizing the temperature regulation method.
Further, the heat exchanger is a phase change heat exchanger; the controller is used for realizing the temperature regulation method.
After the technical scheme is adopted, compared with the background technology, the invention has the following advantages:
1. the invention provides a regulation and control system for combined air conditioning, peltier refrigeration and radiation refrigeration, which is not limited by weather, insufficient refrigeration and heating power or excessively high energy consumption and the like unlike the traditional single system, has a better application range, and can be widely applied to the building fields of large-scale commercial buildings, cold chain logistics, granary storage, machine rooms and the like;
2. The invention provides a matching regulation method aiming at a combined multi-terminal temperature regulation system, and the temperature of each node is monitored, so that the system can respectively improve energy conservation and economy under refrigeration and heating modes on the basis of ensuring comfort;
3. the invention optimizes the monitoring of the indoor average temperature, so that the temperature adjustment of the system is more accurate, the response is more timely, and the comfort is improved;
4. The invention can hook electricity price and time information, and can save energy by utilizing the phase change cold accumulator to store energy, balance power grid load, reduce the use cost of the system and improve economy.
Drawings
FIG. 1 is a schematic diagram of a temperature regulation system of the present invention;
FIG. 2 is a schematic diagram of a temperature regulation system according to the present invention;
FIG. 3 is a schematic flow chart of a temperature adjustment method according to the present invention;
FIG. 4 is a flow chart showing the temperature adjusting method of the present invention.
Reference numerals illustrate:
110. An evaporator; 120. a compressor; 130. a condenser; 140. a throttle valve;
210. A peltier cooler; 220. a heat exchanger; 221. a phase change regenerator; 230. an indoor coil;
310. A radiation refrigeration device.
Detailed Description
The present invention will be described in further detail with reference to the drawings and examples, in order to make the objects, technical solutions and advantages of the present invention more apparent. It should be understood that the specific embodiments described herein are for purposes of illustration only and are not intended to limit the scope of the invention. In addition, it should be noted that:
The terms "upper," "lower," "left," "right," "vertical," "horizontal," "inner," "outer," and the like are based on the orientation or positional relationship shown in the drawings, and are merely for convenience of description and to simplify the description, and do not denote or imply that the apparatus or elements of the present invention must have a particular orientation, and thus should not be construed as limiting the invention.
When an element is referred to as being "fixed to" or "disposed on" another element, it can be directly on the other element or be indirectly on the other element. When an element is referred to as being "connected to" another element, it can be directly connected to the other element or be indirectly connected to the other element.
Unless specifically stated or limited otherwise, the terms "mounted," "connected," and "coupled" are to be construed broadly, and may be, for example, fixedly connected, detachably connected, or integrally connected; can be mechanically or electrically connected; can be directly connected or indirectly connected through an intermediate medium, and can be communicated with the inside of two elements or the interaction relationship of the two elements. The specific meaning of the above terms in the invention will be understood by those skilled in the art according to the specific circumstances.
Example 1
Referring to fig. 1, a first aspect of the present invention discloses a temperature regulation system, which includes a cold energy regulation end, an air conditioning end, a radiation refrigeration device, a room temperature sensor (not shown in the figure), and a controller (not shown in the figure).
The air conditioning end comprises an evaporator 110, a compressor 120, a condenser 130 and a throttle valve 140, which are sequentially connected by refrigerant pipes to form a circulation loop. The cold energy adjusting end comprises a peltier cooler 210, a heat exchanger 220 and an indoor coil 230 which are sequentially connected by adopting a cold carrying pipe, and a refrigerant at the cold energy adjusting end flows back to the peltier cooler 210 after passing through the evaporator 110, the heat exchanger 220 and the indoor coil 230 to form a further circulation loop. The radiant refrigeration unit 310 exchanges heat with the heat exchanger 220. In this way, a combined system with the cold energy adjusting end, the air conditioning end and the radiation refrigerating device 310 as main constituent units is formed for realizing refrigeration or heating.
A pumping means is provided in the inlet side of the indoor coil 230 to pump the refrigerant in the cold energy adjusting end; a flow rate sensor is provided in the inlet side of the indoor coil 230 to monitor the flow rate of the refrigerant; a first temperature sensor is provided on the inlet side of the indoor coil 230 to monitor the refrigerant temperature on the inlet side of the indoor coil 230. A fan is provided at the outlet side of the indoor coil 230 to exchange heat between the indoor coil 230 and air in the building to achieve temperature adjustment; a rotational speed sensor is also provided in the outlet side of the indoor coil 230 to monitor the rotational speed of the fan; a second temperature sensor is provided on the outlet side of the indoor coil 230 to monitor the outlet air temperature of the outlet side of the indoor coil 230.
The room temperature sensor is provided in the indoor space, and may be 1 or more. As a preferred embodiment, the room temperature sensors are plural, and are distributed in each grid divided by the indoor space distribution parameters.
Referring to fig. 2, in a preferred embodiment, the heat exchanger 220 uses a phase change heat exchanger 221 to store energy using a phase change material.
In a preferred embodiment, the power of the peltier cooler 210 is supplied by solar photovoltaic panels, which are located on the roof or outer wall of the building to convert solar energy into electrical energy for use by the peltier cooler 210 to further save energy consumption.
In a preferred embodiment, the surface of the radiant refrigeration unit 310 is provided with a non-uniform bellows structure to increase the area and efficiency of the external radiation. The conventional coating can only realize high radiation and high reflection, and the invention configures the surface coating of the radiation refrigeration device 310 as a thermal change material, an electric change material or a mechanical strain material so as to change the surface coating into low radiation and low reflection properties when heating is required.
The controller obtains a set temperature, an indoor average temperature, an outlet side temperature of the indoor coil 230, an inlet side temperature of the indoor coil 230, etc., and controls the start and stop of the air conditioning end and/or peltier cooler 210 and/or the radiant refrigeration device 310. The controller obtains a set flow rate of the indoor coil 230, an actual flow rate of the indoor coil 230, a set wind speed of the indoor coil 230, an actual wind speed of the indoor coil 230, and the like, and adjusts the working parameters of the cooling energy adjusting end.
The operation principle of the temperature adjustment system and its preferred embodiments will be further described in example 2, which is not repeated here.
Example 2
In a second aspect the invention discloses a temperature regulation method for realizing the temperature regulation of a building by means of a temperature regulation system as disclosed in example 1.
Referring to fig. 3, a temperature adjustment method includes:
configuring the temperature regulation system as described in embodiment 1;
configuring the temperature regulation mode of the controller into a refrigeration mode and a heating mode, and acquiring the current operation mode of the temperature regulation system;
Acquiring a set temperature T, an indoor average temperature T 1, an inlet side temperature T 21 of the indoor coil 230, an outlet side temperature T 22 of the indoor coil 230, a set flow velocity V and a cold carrying tube flow velocity V 2 of the indoor coil 230; setting the fan rotating speed S of the indoor coil 230 and the actual fan rotating speed S 2;
The air conditioner, the peltier cooler 210 and the radiation refrigeration device 310 are controlled to be turned on or off according to the first temperature difference T 31, the second temperature difference T 32, the inlet side flow velocity V 2 of the indoor coil 230 and the actual fan speed S 2.
Specifically, please refer to fig. 4, in the cooling mode:
Acquiring a set temperature T and an indoor average temperature T 1, and acquiring a first temperature difference value T 31,T31=T1 -T; acquiring a set temperature T and an outlet side temperature T 22 of the indoor coil 230; obtaining a second temperature difference T 32,T32=T-T22;
When T 31 is greater than a first set threshold value, T 41, executing a first operation state, and simultaneously starting an air conditioner end, the Peltier refrigerator 210 and the radiation refrigeration device 310 in the first operation state, and keeping operation for T time;
When T 31 is greater than the second set threshold, T 42, executing a second operation state, in which the refrigeration efficiency in the air-conditioner low-power operation state is not higher than that of the peltier cooler 210 in the low-power operation state, and at this time, the air-conditioner is kept closed, and the peltier cooler 210 and the radiation refrigeration device 310 are kept open, so as to save energy consumption and keep the operation time T;
When T 31 is greater than a third set threshold value, T 43, executing a third running state, keeping the air-conditioning end and the Peltier refrigerator 210 closed, keeping the radiation refrigerating device 310 open, and keeping the running for a time T;
The first set threshold T 41 is greater than the second set threshold T 42 and greater than the third set threshold T 43, so that whether each device participates in refrigeration can be flexibly adjusted through the difference between the set temperature T and the indoor average temperature T1, and the energy consumption required for temperature adjustment is reduced as much as possible on the premise of ensuring that the temperature adjustment time is acceptable. In one practical example, the first set threshold T 41 may be set to 8, the second set threshold T 42 to 6, and the third set threshold T 43 to 4.
In order to further reduce the temperature adjustment time, the present invention further provides a flow rate sensor at the inlet side of the indoor coil 230 to monitor the flow rate of the refrigerant in the indoor coil 230, and a rotation rate sensor at the outlet side of the indoor coil 230 to monitor the wind speed at the outlet side of the indoor coil 230, so as to adjust the execution state of the system according to the set flow rate V of the indoor coil 230, the actual flow rate V 2 of the indoor coil 230, the set fan rotation speed S of the indoor coil 230, and the actual fan rotation speed S 2 of the indoor coil 230.
When the system is in the first operation state, the actual flow velocity V2 of the indoor coil 230 keeps the maximum flow velocity operation state, the actual fan speed S 2 keeps the maximum rotation speed operation state, and the operation time is gradually reduced to the set flow velocity V, and the fan speed S of the indoor coil 230 is set;
When the system is in the second or third operating state, the actual flow rate V2 of the indoor coil 230 remains at the set flow rate V, the actual fan speed S 2 remains at the maximum speed operating state, and the fan speed S of the indoor coil 230 is gradually reduced as the operating time is followed.
When the system is in the first operating state, the second temperature difference T 32 is monitored, and when T 32 is greater than the fourth set threshold T 44, the temperature of the indoor coil 230 is too low, and the refrigerating capacity is excessive. In the first operation state, the refrigeration efficiency of the peltier cooler 210 in the high-power operation state is not as good as that of the air-conditioning end in the high-power operation state, at this time, the peltier cooler 210 is turned off preferentially, and the original refrigeration function of the peltier cooler 210 is replaced by the air-conditioning end, so as to save energy consumption.
When the system needs to start a heating mode, on one hand, the temperature difference is larger than that when the system needs to start a cooling mode (the proper temperature of a human body is generally 26 ℃, the human body usually has obvious uncomfortable feeling at 30 ℃, the system usually starts cooling, and for the heating mode, the system is usually started when the temperature is smaller than 10 ℃, and the temperature difference is usually obviously larger than that when the cooling mode is started); on the other hand, unlike the cold air in the cooling mode, the hot air floats up due to the small density, so that the user perceives the change of the room temperature in the heating mode to be weaker than the room temperature in the cooling mode; therefore, in the heating mode, the air conditioner, the peltier cooler 210 and the radiation cooling device 310 are turned on to reach the temperature suitable for the user's perception as soon as possible.
In order to save energy in the heating mode and prevent the heating mode from being turned on by mistake, please refer to fig. 4, when the system is in the heating mode: acquiring an inlet side temperature T 21 of the indoor coil 230 and an outlet side temperature T 22 of the indoor coil 230; obtaining a third temperature difference T 33,T33=T22-T21; setting a fifth set threshold T 55, when the outlet temperature is greater than the inlet temperature in T 33＞T55, which indicates that the heating amount is excessive or heating may not be needed, at this time, closing the air-conditioning end (because the air-conditioning end saves energy when the heating demand is large, the air-conditioning end is not as economical as the peltier cooler 210 when the heating demand is small, so the air-conditioning end is preferentially closed), and keeping the peltier cooler 210 and the radiation refrigeration device 310 on for heating; when T 33 is still greater than T 55 after the air conditioner is turned off for a preset period of time (e.g., 1-3 minutes), the Peltier refrigerator 210 is turned off; after the peltier cooler 210 is turned off for a preset period (e.g., 1-3 minutes), the radiant refrigeration device 310 adjusts the infrared radiation emissivity of the surface coating according to T 33 (at this time, since the peltier cooler 210 is already turned off, there may be a situation of insufficient heating, and therefore, the radiant refrigeration device 310 adjusts the emissivity according to the value of T33 to adapt to the heating requirement), when T 33 is still greater than T 55 after the radiant refrigeration device 310 adjusts the emissivity for the preset period (e.g., 1-5 minutes), it indicates that heating is not needed, and the heating mode is turned on by mistake, and at this time, the heating mode is turned off.
In a preferred embodiment, heat exchanger 220 is configured as a phase change heat exchanger 221; in the heating mode, when T 33 is greater than a fifth set threshold T 55 (which is greater than 0), the phase-change heat exchanger 221 is heated in preference to the radiant refrigeration unit 310 to further conserve energy.
In a preferred embodiment, heat exchanger 220 is configured as a phase change heat exchanger 221; when the indoor coil 230 is closed and the electricity price is in the valley phase, one or more of an air conditioner end, the peltier cooler 210 and the radiation refrigerating device 310 can be started to realize the cold accumulation of the phase change cold accumulator; and when the indoor coil 230 is opened and the electricity price is in the peak phase, the phase change regenerator is firstly opened to release cold. The invention can hook electricity price and time information, and can save energy by utilizing the phase change cold accumulator to store energy, balance power grid load, reduce the use cost of the system and improve economy.
In order to further improve the accuracy of regulation, the invention also improves the method for acquiring the indoor average temperature, and specifically, the method comprises the following steps:
acquiring indoor space distribution parameters and performing grid division on the indoor space; configuring room temperature sensors on each grid;
acquiring indoor average temperature T1 based on grid temperature, grid position and grid user number information;
The indoor average temperature T1 is ；
Wherein P 11...P1n is a user weight coefficient of each grid, X 11...X1n is a temperature weight coefficient of each grid, T 11...T1n is a detected temperature of each grid, and n is the number of grids.
The user weighting coefficient is 1-1.3, and the user weighting coefficient is positively correlated with the number of grid users; when the number of grid users is 0, the user weighting coefficient is 1, and the more the number of grid users is, the higher the user weighting coefficient is. In one embodiment of a specific application, the user weighting factor is 1.1 when the number of grid people is in the interval 1-3; when the number of the grid persons is in the 3-5 interval, the user weighting coefficient is 1.2; but when the number of grid persons is greater than 5, the user weighting coefficient is 1.3.
The temperature weighting coefficient is between 0.8 and 1.2, and is positively correlated with the distance of the grid from the air outlet position of the indoor coil 230, i.e., the farther the grid is from the air outlet position of the indoor coil 230, the higher the temperature weighting coefficient is set, and in one specific embodiment, the temperature weighting coefficient is 0.8 when the grid distance is within 1 meter; when the grid distance is in the range of 1-2m, the temperature weighting coefficient is 0.9; when the grid distance is in the range of 2-3m, the temperature weighting coefficient is 1; when the grid distance is in the range of 3-4m, the temperature weighting coefficient is 1.1; when the grid distance is greater than 5m, the temperature weighting coefficient is 1.2.
The present invention is not limited to the above-mentioned embodiments, and any changes or substitutions that can be easily understood by those skilled in the art within the technical scope of the present invention are intended to be included in the scope of the present invention. Therefore, the protection scope of the present invention should be subject to the protection scope of the claims.
Claims (9)
1. A temperature adjustment method, comprising:
And (3) configuring a temperature regulation system: the temperature regulation system is configured to comprise a cold energy regulation end, an air conditioning end, a radiation refrigerating device, a room temperature sensor and a controller, wherein the cold energy regulation end comprises a Peltier refrigerator, a heat exchanger and an indoor coil, and a refrigerant configuring the cold energy regulation end flows back to the Peltier refrigerator after passing through an evaporator of the air conditioning end, the heat exchanger and the indoor coil; the indoor coil is configured to be provided with a first temperature sensor at the inlet side and a second temperature sensor at the outlet side;
Configuring a temperature regulation mode of the controller to be a refrigeration mode and a heating mode;
In the cooling mode: acquiring a set temperature T, acquiring an indoor average temperature T 1, setting a first set threshold T 41, a second set threshold T 42 and a third set threshold T 43, and enabling T 41＞T42＞T43 to be the same; calculating a first temperature difference value T 31,T31=T1 -T, and executing a first running state when T 31＞T41 is carried out, wherein the air conditioner end, the Peltier refrigerator and the radiation refrigerating device are simultaneously started in the first running state; when T 41≥T31＞T42 is carried out, executing a second running state, keeping the air conditioner end closed in the second running state, and keeping the Peltier refrigerator and the radiation refrigerating device open; when T 42≥T31＞T43 is carried out, a third running state is carried out, the air conditioner end and the Peltier refrigerator are kept closed, and the radiation refrigeration device is kept open; acquiring the temperature T 22 of the outlet side of the indoor coil in the first running state, calculating a second temperature difference value T 32,T32=T-T22, and closing the Peltier refrigerator when T 32 is larger than a fourth set threshold value T 44;
In the heating mode: starting the air conditioner end, the Peltier refrigerator and the radiation refrigerating device; the method comprises the steps of obtaining an inlet side temperature T 21 of an indoor coil and an outlet side temperature T 22 of the indoor coil, obtaining a third temperature difference value T 33,T33=T22-T21, setting a fifth set threshold value T 55, closing an air conditioner end when T 33＞T55 is carried out, closing the Peltier refrigerator when T 33 is still larger than T 55 after the preset time period of closing the air conditioner end is closed, adjusting the infrared radiation emissivity of a surface coating according to T 33 after the preset time period of a radiation refrigerating device, and closing the heating mode when T 33 is still larger than T 55 after the preset time period of the emissivity of the radiation refrigerating device is adjusted.
2. The temperature adjustment method according to claim 1, characterized by further comprising:
A flow rate sensor is arranged at the inlet side of the indoor coil pipe, and a rotating speed sensor is arranged at the outlet side of the indoor coil pipe;
Acquiring a set flow velocity V of the indoor coil, an actual flow velocity V 2 of the indoor coil, a set fan rotating speed S of the indoor coil and an actual fan rotating speed S 2 of the indoor coil;
When the indoor coil is in the first running state, the actual flow velocity V2 of the indoor coil keeps the maximum flow velocity running state, the actual fan rotating speed S 2 keeps the maximum rotating speed running state, and the running time is gradually reduced to the set flow velocity V, and the fan rotating speed S of the indoor coil is set;
When the indoor coil is in the second running state or the third running state, the actual flow velocity V2 of the indoor coil is kept in the set flow velocity V, the actual fan rotating speed S 2 is kept in the maximum rotating speed running state, and the fan rotating speed S of the indoor coil is gradually reduced along with the running time.
3. The temperature adjustment method according to claim 1, characterized by further comprising:
acquiring indoor space distribution parameters and performing grid division on the indoor space; configuring the room temperature sensor in each grid;
acquiring the indoor average temperature T1 based on grid temperature, grid position and grid user number information;
The indoor average temperature T1 is ；
Wherein P 11...P1n is the user weight coefficient of each grid, X 11...X1n is the temperature weight coefficient of each grid, T 11...T1n is the detection temperature of each grid, and n is the grid number;
the user weighting coefficient is 1-1.3, and when the number of grid users is 0, the user weighting coefficient is 1, and the user weighting coefficient is positively related to the number of grid users;
The temperature weighting coefficient is 0.8-1.2, and the temperature weighting coefficient is positively correlated with the distance between the grid and the air outlet position of the indoor coil.
4. The temperature adjustment method according to claim 1, characterized by further comprising:
Configuring the heat exchanger as a phase change heat exchanger;
In the heating mode, when T 33 is greater than a fifth set threshold T 55, the phase change heat exchanger is heated in preference to the radiant refrigeration unit.
5. The temperature adjustment method according to claim 1, characterized by further comprising:
Configuring the heat exchanger as a phase change heat exchanger;
When the indoor coil is closed and the electricity price is in the valley phase, one or more of an air conditioner end, a Peltier refrigerator and a radiation refrigerating device are started to realize cold accumulation of the phase change cold accumulator;
when the indoor coil is opened and the electricity price is in a peak stage, the phase change cold accumulator is firstly opened to release cold.
6. The temperature adjustment method according to claim 1, characterized by further comprising: and configuring a solar photovoltaic power supply board for the Peltier refrigerator, wherein the solar photovoltaic power supply board is arranged on a roof or an outer wall of a building.
7. A temperature regulation system characterized by:
the device comprises a cold energy adjusting end, an air conditioning end, a radiation refrigerating device, a room temperature sensor and a controller;
The cold energy adjusting end comprises a Peltier refrigerator, a heat exchanger and an indoor coil, and a refrigerant at the cold energy adjusting end flows back to the Peltier refrigerator after passing through an evaporator at the air conditioning end, the heat exchanger and the indoor coil; the inlet side of the indoor coil is provided with a first temperature sensor, and the outlet side of the indoor coil is provided with a second temperature sensor;
the controller is configured to implement the temperature adjustment method of claim 1.
8. The temperature regulation system of claim 7, wherein:
configuring the room temperature sensor in each grid divided according to indoor space distribution parameters;
the controller is configured to implement the temperature adjustment method according to claim 3.
9. The temperature regulation system of claim 7, wherein:
the heat exchanger is a phase change heat exchanger;
The controller is configured to implement the temperature adjustment method according to claim 4 or 5.
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Citations (5)
| Publication number | Priority date | Publication date | Assignee | Title |
|---|---|---|---|---|
| JP4052351B1 (en) * | 2007-03-08 | 2008-02-27 | 三上 征宏 | Heat storage device and air conditioner |
| JP2010038472A (en) * | 2008-08-06 | 2010-02-18 | Takenaka Komuten Co Ltd | Ventilation type radiation air conditioning system |
| CN106594931A (en) * | 2016-12-20 | 2017-04-26 | 深圳达实智能股份有限公司 | Cold accumulation and discharge temperature setting method and device for cold radiation air conditioner system |
| CN108061365A (en) * | 2017-12-06 | 2018-05-22 | 广东美的制冷设备有限公司 | Control method, radiation air-conditioner device and the storage medium of radiation air-conditioner device |
| CN110608495A (en) * | 2019-11-06 | 2019-12-24 | 江苏科技大学 | Multi-adjustment-mode integrated air conditioning system and working method thereof |
-
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- 2024-04-23 CN CN202410492979.2A patent/CN118089162A/en active Pending
Patent Citations (5)
| Publication number | Priority date | Publication date | Assignee | Title |
|---|---|---|---|---|
| JP4052351B1 (en) * | 2007-03-08 | 2008-02-27 | 三上 征宏 | Heat storage device and air conditioner |
| JP2010038472A (en) * | 2008-08-06 | 2010-02-18 | Takenaka Komuten Co Ltd | Ventilation type radiation air conditioning system |
| CN106594931A (en) * | 2016-12-20 | 2017-04-26 | 深圳达实智能股份有限公司 | Cold accumulation and discharge temperature setting method and device for cold radiation air conditioner system |
| CN108061365A (en) * | 2017-12-06 | 2018-05-22 | 广东美的制冷设备有限公司 | Control method, radiation air-conditioner device and the storage medium of radiation air-conditioner device |
| CN110608495A (en) * | 2019-11-06 | 2019-12-24 | 江苏科技大学 | Multi-adjustment-mode integrated air conditioning system and working method thereof |
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