Wall-mounted air conditioner with separated temperature measuring and controlling assembly

Abstract

A wall-mounted air conditioner with a separated temperature measuring and temperature controlling assembly comprises an air conditioner external unit, an air conditioner internal unit, a remote controller and the temperature measuring and temperature controlling assembly separated from the air conditioner internal unit, and the temperature measuring and temperature controlling assembly can be installed on a socket board. The socket board with the temperature measurement and temperature control assembly can be adaptively inserted into the junction box at the position of the temperature actually sensed by a human body indoors, and the socket board with the temperature measurement and temperature control assembly is installed on the junction box at the position of the human body, so that the temperature measurement and temperature control assembly can detect the temperature of the surrounding environment close to the human body in real time; the temperature is used as feedback, the air conditioner is adaptively regulated and controlled, the socket board with the temperature measuring and controlling assembly can be adjusted according to the real-time position of a person, it is ensured that the whole air conditioner system can provide more accurate temperature regulation and control for the person indoors, and the energy consumption of the air conditioner is effectively reduced.

Description

Technical Field

[0001] The utility model relates to the technical field of air conditioning devices, and particularly relates to a wall-mounted air conditioner with a separated temperature measuring and controlling component. Background Art

[0002] An air conditioner, that is, an air regulator, refers to a device that adjusts and controls parameters such as the temperature, humidity, and ventilation flow rate of the air in a building or structure by artificial means. Among them, wall-mounted air conditioners are widely used because they are not restricted by the installation location and are more easily matched with indoor decorations. However, the existing wall-mounted air conditioners also have certain deficiencies. Generally, the indoor unit is installed at a relatively high position indoors, and the temperature measuring and controlling components such as the temperature sensor of the air conditioner are set on the indoor unit, which can detect the ambient temperature in the immediate vicinity of the indoor unit in real time and use this temperature feedback as the control of the air outlet temperature of the air conditioner. However, for other areas in the room, there is a certain temperature difference, and it is impossible to feedback and adaptively regulate according to the human body sensing temperature at the location where people are. This will undoubtedly increase the energy consumption of the air conditioner to a certain extent. Summary of the Invention

[0003] The purpose of the utility model is to provide a wall-mounted air conditioner with a separated temperature measuring and controlling component, wherein the temperature measuring and controlling component is separated from the indoor unit of the air conditioner and can be installed on a junction box at a position suitable for the human body sensing temperature indoors through a socket board, and feedback and adaptive regulation are carried out according to the temperature actually sensed by the human body, thus solving the problems in the prior art.

[0004] The technical solution adopted by the present utility model to solve its technical problems is as follows: A wall-mounted air conditioner with a separable temperature measurement and control component, which includes an outdoor unit of the air conditioner, an indoor unit of the air conditioner, and a remote control. It also includes a temperature measurement and control component separated from the indoor unit of the air conditioner, and a socket board adapted to the temperature measurement and control component. The temperature measurement and control component includes a housing. Inside the housing, there are a temperature sensor, a WiFi module, and a power module. The power module can provide electrical energy for the temperature sensor and the WiFi module. After the temperature sensor detects the temperature, it can transmit the signal to the indoor unit of the air conditioner through the WiFi module. On the outer side surface of the housing, there is a first magnet, and on the socket board, there is a second magnet that can be attracted to the first magnet. At the bottom of the socket board, there is a support plate, and the temperature measurement and control component is located above the support plate. Inside the temperature measurement and control component, there is also a charging circuit connected to the power module. On the housing, there is a jack, and inside the jack, there is a charging contact electrically connected to the charging circuit. On the side surface of the socket board close to the housing, there is a charging contact that cooperates with the charging contact. On the side surface of the socket board away from the housing, there is a power converter electrically connected to the charging contact. Jacks are provided at both sides of the socket board. A number of first heat dissipation grooves are provided on the socket board, and second heat dissipation grooves corresponding to the first heat dissipation grooves are provided on the housing. A detachable square box frame is provided on the socket board. The square box frame and the temperature measurement and control component are respectively located on both sides of the socket board. The power converter is located inside the square box frame. On the side of the square box frame away from the socket board, there is a convex edge bent inward, and adhesive layers are provided on the outer peripheral surface of the convex edge. A plastic buckle is installed on the socket board, and a card slot cooperating with the plastic buckle is provided on the square box frame. A vertically arranged guide groove is provided on the socket board, and two groups of sliders are installed in the guide groove in a matching manner. At one end of each slider close to the square box frame, there is a limiting support plate, and a limiting hole cooperating with the limiting support plate is provided on the inner wall of the square box frame. A spring is provided in the guide groove between the two groups of sliders, and the spring always has a tendency to separate the two groups of sliders and make the limiting support plate enter the limiting hole. A number of vertically arranged first columns are provided on the housing of the temperature measurement and control component, and second columns arranged in a staggered manner with the first columns are provided on the socket board. After the temperature measurement and control component is installed on the socket board, the first columns and the second columns are staggered with each other to form a limit, and a heat dissipation gap is left between adjacent first columns and second columns. In the central controller inside the temperature measurement and control component, there is a database, and this database can be set by pressing the buttons on the component itself or the mobile phone APP to divide the temperature of each day into n segments per week, so that the air conditioner operates according to the comfortable and energy-saving modes of people. The indoor unit of the air conditioner has a database, and this database can be set by the mobile phone APP to divide the temperature of each day into n segments per week, so that the air conditioner operates according to the comfortable and energy-saving modes of people.

[0005] The positive effects of the present utility model are as follows: A wall-mounted air conditioner with a separable temperature measurement and control component according to the present utility model includes an outdoor unit of the air conditioner, an indoor unit of the air conditioner, a remote control, and a temperature measurement and control component that is separately arranged from the indoor unit of the air conditioner. The temperature measurement and control component can be installed on a socket board, and the socket board with the temperature measurement and control component can be adaptively inserted into a junction box at the position where the actual temperature felt by the indoor human body is located. Installing the socket board with the temperature measurement and control component on the junction box at the position where the person is located can enable the temperature measurement and control component to detect the temperature of the surrounding environment in the immediate vicinity of the person in real time, and use this temperature as feedback to adaptively adjust the air conditioner. Moreover, the socket board with the temperature measurement and control component can be adjusted according to the real-time position of the person, ensuring that the overall air conditioning system can provide more accurate temperature control for the people indoors and effectively reduce the energy consumption of the air conditioner. Description of the Drawings

[0006] Figure 1 is a schematic structural diagram of the present utility model;

[0007] Figure 2 is a schematic structural diagram of the temperature measurement and control component and the socket board;

[0008] Figure 3 is a schematic diagram of the internal structure of the temperature measurement and control component;

[0009] Figure 4 is a cross-sectional view of the cooperation between the temperature measurement and control component and the socket board;

[0010] Figure 5 is a schematic structural diagram of the installation of a square box frame on the socket board;

[0011] Figure 6 is a schematic structural diagram of the installation of a square box frame on the socket board by another disassembly and assembly method;

[0012] Figure 7 is Figure 6 the A-A cross-sectional view in

[0013] Figure 8 is a schematic diagram of the control operation interface of the mobile APP;

[0014] Figure 9 is a schematic diagram of the data setting interface for setting intelligent temperature sensing of the mobile APP;

[0015] Figure 10 is a schematic structural diagram of the staggered arrangement of columns between the temperature measurement and control component and the socket board;

[0016] Figure 11 is Figure 10 the state schematic diagram after the structure in Detailed Implementation Modes

[0017] A wall-mounted air conditioner with a separable temperature measurement and control component according to the present utility model is as follows Figure 1 and Figure 2 shown, including an outdoor unit 1 of the air conditioner, an indoor unit 2 of the air conditioner and a remote controller 3. The outdoor unit 1 of the air conditioner is installed outdoors, and the indoor unit 2 of the air conditioner is installed indoors, and the temperature can be controlled and adjusted through the remote controller 3.

[0018] In addition, it further includes a temperature measurement and control component 4 which is separately arranged from the indoor unit 2 of the air conditioner, and a socket board 5 which is adapted to the temperature measurement and control component 4. The socket board 5 with the temperature measurement and control component 4 can be adaptively inserted and installed on the junction box, and can provide the electric energy required for the component operation while being installed. The installation configuration of the junction box at the indoor position can be pre-designed during decoration and adaptively arranged according to the main areas where people work and move indoors. After the air conditioner is turned on, the socket board 5 with the temperature measurement and control component 4 is inserted and installed on the junction box at the position where people are located, and the temperature measurement and control component 4 can detect the ambient temperature near the position where people are located in real time, and use this temperature as feedback to enable the air conditioner to perform adaptive regulation, so that the air conditioner can perform more accurate and comfortable temperature regulation according to the position of people indoors.

[0019] As Figure 3 shown, the temperature measurement and control component 4 includes a housing 6, and a temperature sensor 7, a WiFi module 8 and a power module 9 are arranged in the housing 6. The power module 9 can provide electric energy for the temperature sensor 7 and the WiFi module 8. The temperature sensor 7 can detect the temperature of the surrounding environment, and can transmit the signal to the indoor unit 2 of the air conditioner through the WiFi module 8 after detecting the temperature, as the temperature feedback data for subsequent adjustment. The WiFi module 8 is not restricted by the installation position of the temperature measurement and control component 4, and can transmit the temperature data to the controller of the indoor unit 2 of the air conditioner at any position indoors.

[0020] To realize the cooperative installation between the temperature measurement and control component 4 and the socket board 5, a first magnet 10 is arranged on the outer side surface of the housing 6, a second magnet 11 which can be attracted to the first magnet 10 is arranged on the socket board 5, and a support plate 12 is arranged at the bottom of the socket board 5. The temperature measurement and control component 4 is located above the support plate 12 to achieve a necessary supporting effect. After the temperature measurement and control component 4 is placed above the support plate 12, the first magnet 10 can be attracted and fixed to the second magnet 11 to realize the cooperative installation of the temperature measurement and control component 4 on the socket board 5.

[0021] The power module 9 in the temperature measurement and control component 4 can provide the necessary electric energy for the internal components. The power module 9 can be an existing rechargeable battery pack, which can provide electric energy to maintain the operation when the temperature measurement and control component 4 is separated from the socket board 5, and can charge the battery pack when the temperature measurement and control component 4 is cooperatively installed on the junction box with the socket board 5.

[0022] To achieve the above functions, as Figure 4 shown, a charging circuit connected to the power supply module 9 is also provided inside the temperature measuring and controlling component 4. A jack is provided on the housing 6, and a charging contact piece 13 electrically connected to the charging circuit is provided inside the jack. A charging contact 14 cooperating with the charging contact piece 13 is provided on the side surface of the socket board 5 close to the housing 6. A power converter 15 electrically connected to the charging contact 14 is installed on the side surface of the socket board 5 away from the housing 6. The power converter 15 can be electrically connected to the circuit in the junction box through a power cord or a plug.

[0023] After the temperature measuring and controlling component 4 is cooperatively installed on the socket board 5, the charging contact 14 is connected to the charging contact piece 13. After the socket board 5 is installed on the junction box, power is supplied, and the power supply module 9 inside the temperature measuring and controlling component 4 is charged through the charging circuit. To facilitate the disassembly and assembly of the socket board 5 on the junction box, jacks 16 are provided at both sides of the socket board 5, which can cooperate with the screw holes in the junction box, and bolts are used to pass through the jacks 16 and be screwed into the screw holes to achieve fixed connection.

[0024] After the temperature measuring and controlling component 4 is installed on the socket board 5, the surface of the socket board 5 is in contact with the surface of the housing 6 of the temperature measuring and controlling component 4. To increase the effective heat dissipation between the contact surfaces and ensure the normal operation of each internal electrical component, a number of first heat dissipation grooves 17 are provided on the socket board 5, and second heat dissipation grooves 18 corresponding to the first heat dissipation grooves 17 are provided on the housing 6. The first heat dissipation grooves 17 and the second heat dissipation grooves 18 are interconnected to form effective heat dissipation.

[0025] The above socket board 5 with the temperature measuring and controlling component 4 is cooperatively inserted into the junction box, but the junction box cannot be installed in some local areas indoors. For example, a whole wall is equipped with furniture such as wardrobes. To enable the socket board 5 with the temperature measuring and controlling component 4 to be cooperatively installed on the wardrobe or other furniture, as Figure 5 shown, a detachable square box frame 19 is provided on the socket board 5. The square box frame 19 and the temperature measuring and controlling component 4 are respectively located on both sides of the socket board 5, and the power converter 15 is located inside the square box frame 19.

[0026] A convex edge 20 bent inward is provided on the side of the square box frame 19 away from the socket board 5. Adhesive layers 21 are provided on the outer peripheral surface of the convex edge 20. The square box frame 19 can be installed on furniture such as wardrobes through the adhesive layers 21, and only a small hole needs to be opened on the wardrobe at the installation position to lead out the power cord. After the square box frame 19 is installed, the socket board 5 can be installed on the square box frame 19, realizing the positioning installation of the socket board 5 with the temperature measuring and controlling component 4 at non-junction box positions, facilitating the collection of real-time temperatures at multiple positions indoors according to the position of people, and performing accurate temperature feedback and adjustment.

[0027] Further, in order to realize the disassembly and assembly between the socket board 5 and the square box frame 19, a plastic buckle 22 is installed on the socket board 5, and a card slot 23 matching with the plastic buckle 22 is opened on the square box frame 19.

[0028] To facilitate the disassembly and assembly between the socket board 5 and the square box frame 19, the connection manner between the socket board 5 and the square box frame 19 can also be as Figure 6 and Figure 7 shown. A vertical guide groove 24 is opened on the socket board 5. Two groups of sliders 25 are fitted and installed in the guide groove 24. A limiting support plate 26 is provided at one end of each slider 25 close to the square box frame 19. A limiting hole 27 matching with the limiting support plate 26 is opened on the inner wall of the square box frame 19. A spring 28 is arranged in the guide groove 24 between the two groups of sliders 25. The spring 28 always has a tendency to separate the two groups of sliders 25 and make the limiting support plate 26 enter the limiting hole 27.

[0029] After the limiting support plate 26 enters the limiting hole 27, under the action of the elastic force of the spring 28, the limiting support plate 26 is tightened against the inner wall of the square box frame 19, and the limiting hole 27 realizes the movement limit of the limiting support plate 26, so as to realize the positioning installation of the socket board 5 relative to the square box frame 19. When disassembling, after removing the temperature measurement and control component 4 from the socket board 5, press the upper and lower two sliders 25 to move close to each other against the elastic force of the spring 28. After the limiting support plate 26 is separated from the limiting hole 27, there is no positioning interference between the limiting support plate 26 and the square box frame 19, and the socket board 5 can be taken out from the square box frame 19.

[0030] Further, as Figure 10 shown, a plurality of vertically arranged first columns 29 are provided on the housing 6 of the temperature measurement and control component 4. Second columns 30 arranged in a staggered manner with the first columns 29 are provided on the socket board 5. After the temperature measurement and control component 4 is installed on the socket board 5, the first columns 29 and the second columns 30 are staggered with each other to form a limit, and a heat dissipation gap is left between adjacent first columns 29 and second columns 30, so that the housing 6 of the temperature measurement and control component 4 and the socket board 5 are prevented from being in close contact with each other and effective heat dissipation is realized.

[0031] The arrangements of the first columns 29 and the second columns 30 avoid the first magnet 10, the second magnet 11, the charging contact piece 13 and the charging contact 14, and will not affect the normal attraction between the first magnet 10 and the second magnet 11, and the normal mating insertion and energization between the charging contact piece 13 and the charging contact 14.

[0032] The wall-mounted air conditioner with a separable temperature measurement and control component described in the present utility model has the functions of wisdom, energy saving and comfort.

[0033] With the development of China's economy and the improvement of people's living standards, air conditioners have become essential equipment for most families to prevent heatstroke and cool down. With the popularization of air conditioners, the varieties and forms of air conditioners on the market are also increasing. From the earliest window air conditioners to the later wall-mounted split air conditioners, multi-split air conditioners, and expensive household central air conditioners, the development of air conditioner technology is also changing rapidly. The variety of air conditioners is so numerous that consumers are dazzled. However, since air conditioners are not original technologies in China but imported products, people's understanding of air conditioners still has many limitations.

[0034] However, in any case, an air conditioner is just a device for cooling and adjusting the building environment in a building. How the air conditioner interacts with the building environment to create a healthy and comfortable building environment is what people really need. However, since the wall-mounted split air conditioner came out last century, especially after its control form changed from a wall-mounted controller to a remote control, while bringing relatively more convenience to people, it has also brought troubles to countless people. The biggest trouble that air conditioners bring to users is air conditioner disease, among which frozen shoulder is the most typical. The so-called frozen shoulder is a kind of periarthritis of the shoulder that people around the age of fifty get. According to relevant data statistics, the proportion of people over 50 years old in China who get periarthritis of the shoulder has approached 20%.

[0035] The reason is that the temperature control technology of the temperature sensor of the wall-mounted air conditioner and the temperature sensed by the human body indoors has not been well solved. Generally speaking, the temperature sensor of the wall-mounted air conditioner is located inside the indoor unit, and the height of the indoor unit is generally about 260 cm from the ground, while the area where the human body senses temperature is generally about 130 - 150 cm (the position of a person's shoulders and upper arms). Moreover, the temperature sensor of the wall-mounted split air conditioner is near the air outlet of the indoor unit of the air conditioner, and the thermal field environment around it is very complex. Therefore, the temperature sensing and control of the air conditioner are far from the body's sense of comfort, which also causes an increase in air conditioner energy consumption. Therefore, how to make the air conditioner meet people's requirements for the comfort of the building environment in a user-friendly way has become a major problem in the air conditioner industry. Although many manufacturers have conducted a lot of research on the comfort and energy conservation of air conditioners, including using complex algorithms, big data, fuzzy control theory, etc., because they only research from the indoor unit of the air conditioner itself and do not combine the overall building environment and the characteristics of the human body's temperature sensing area, the results are very limited. This design is based on the characteristics of the human body's temperature sensing and combines the laws and characteristics of heat transfer, heat storage, and building thermal inertia in residential buildings, so that the air conditioner meets the requirements of energy conservation, health, and intelligent comfort.

[0036] The temperature measurement and control component 4 can be installed at a height of 130 - 150 cm from the ground. This height is the area where the human body can truly sense the temperature and humidity and is not affected by the cold air blown out by the indoor unit. The temperature and humidity of the air conditioner can be set according to people's requirements. When the temperature around the temperature measurement and control component 4 is higher than the set temperature, its WIFI communication module communicates with the indoor unit of the air conditioner, and the air conditioner starts to cool. When the temperature of the temperature measurement and control component 4 is lower than the set temperature, the air conditioner shuts down.

[0037] In addition, the controller in the indoor unit 2 of the air conditioner can be equipped with an intelligent temperature control model. This model can be programmed and set through the mobile phone APP according to weather conditions and people's living and working characteristics. The setting can be carried out according to people's work and rest patterns, divided into six time periods for each day of the week. The setting method is shown in the attached table.

[0038] For example, on weekdays, people go out to work at 8 o'clock and return home at 18 o'clock. Therefore, from 8 o'clock to 17 o'clock, the temperature can be set at 30 degrees. From 17 o'clock to 22 o'clock, it is set at 25 - 26 degrees. Due to the thermal inertia of the building, the room temperature can only drop after the air conditioner has been running for some time. Therefore, the air conditioner is turned on at 17 o'clock, and when people return home at 18 o'clock, the room temperature has dropped to the temperature people need. This can truly enable the air conditioner to meet people's needs for the environment, which can not only save energy but also make people feel comfortable in the room.

[0039] There is a database in the controller of the indoor unit 2 of the air conditioner. The temperature can be set for six time periods of each day of the week through the mobile phone APP using WIF communication.

[0040] In addition, the controller in the temperature measurement and control component 4 can also be equipped with an intelligent temperature control model. This model can be programmed and set through its own setting buttons or the mobile phone APP according to weather conditions and people's living and working characteristics. The setting can be carried out according to people's work and rest patterns, divided into six time periods for each day of the week.

[0041] For example, on weekdays, people go out to work at 8 o'clock and return home at 18 o'clock. Therefore, from 8 o'clock to 17 o'clock, the temperature can be set at 30 degrees. From 17 o'clock to 22 o'clock, it is set at 25 - 26 degrees. Due to the thermal inertia of the building, the room temperature can only drop after the air conditioner has been running for some time. Therefore, the air conditioner is turned on at 17 o'clock, and when people return home at 18 o'clock, the room temperature has dropped to the temperature people need. This can not only save energy but also make people feel comfortable in the room.

[0042] There is an intelligent / manual switching button on the remote controller 3. When people do not need to run according to the original program, they can select the manual mode. In the manual mode, the room temperature can be set by using the temperature adjustment keys of the temperature measurement and control component 4 or the temperature adjustment keys on the remote controller. For example, when the temperature is set at 25 degrees, when the room temperature is higher than 25 + 0.5 degrees, the temperature measurement and control component 4 notifies the air conditioner to turn on through the WiFi module 8. When the room temperature is lower than 25 - 0.5 degrees, the temperature measurement and control component 4 notifies the air conditioner to turn off through the WiFi module 8.

[0043] In the controller of the temperature measurement and control component 4, there is a database. The temperature can be set for 6 time periods of each day of a week through the setting buttons on it. It can also be set through the mobile phone APP via WIFI communication.

[0044] There can also be a database in the controller of the indoor unit 2 of the air conditioner. The temperature can be set for 6 time periods of each day of a week through the setting buttons on it. It can also be set through the mobile phone APP via WIFI communication.

[0045] There are intelligent mode and manual mode selections on the mobile phone APP. When the intelligent mode is selected, the database of the controller can be set or adjusted. When the manual mode is selected, operations such as turning on, turning off, cooling, heating, ventilation, dehumidification, and air volume of the air conditioner can be performed. When people are away from home, they can view the status of the air conditioner through the mobile phone APP. If they forget to turn off the air conditioner when going out, they can remotely control the operation of the air conditioner through the mobile phone APP.

[0046] There are also intelligent mode and manual mode selections on the remote controller 3. When the intelligent mode is selected, the controller in the temperature measurement and control component 4 controls the operation of the air conditioner according to the set mode in the database. When the manual mode is selected, there are temperature increase / decrease, cooling, heating, electric auxiliary, ventilation, dehumidification, cleaning, air volume adjustment, and swing buttons on the remote controller. After selecting the corresponding button, the remote controller communicates with the controller through its far-infrared control module. After receiving these instructions, the control center then communicates with the indoor unit of the air conditioner through its far-infrared control module to control the operation of the air conditioner.

[0047] The remote controller 3 can communicate with the controllers in the indoor unit 2 and the temperature measurement and control component 4 in far-infrared mode or WIFI mode. When using far-infrared mode communication, corresponding far-infrared modules need to be added or reduced in the controllers of the indoor unit 2 and the temperature measurement and control component 4.

[0048] The technical solution of the present utility model is not limited within the scope of the embodiments described in the present utility model. The technical content not described in detail in the present utility model is well-known technology.

Claims

1. A wall-mounted air conditioner with a separable temperature measuring and controlling component, comprising an outdoor unit (1) of the air conditioner, an indoor unit (2) of the air conditioner and a remote controller (3), characterized in that: It further includes a temperature measurement and control component (4) separated from the indoor unit (2) of the air conditioner, and a socket board (5) adapted to the temperature measurement and control component (4). The temperature measurement and control component (4) includes a housing (6). Inside the housing (6), there are a temperature sensor (7), a WiFi module (8), and a power supply module (9). The power supply module (9) can supply electrical energy to the temperature sensor (7) and the WiFi module (8). After the temperature sensor (7) detects the temperature, it can transmit the signal to the indoor unit (2) of the air conditioner through the WiFi module (8). On the outer side surface of the housing (6), there is a first magnet (10). On the socket board (5), there is a second magnet (11) that can be attracted to the first magnet (10). At the bottom of the socket board (5), there is a support plate (12). The temperature measurement and control component (4) is located above the support plate (12). Inside the temperature measurement and control component (4), there is also a charging circuit connected to the power supply module (9). On the housing (6), there is a jack, and inside the jack, there is a charging contact piece (13) electrically connected to the charging circuit. On the side surface of the socket board (5) close to the housing (6), there is a charging contact (14) that cooperates with the charging contact piece (13). On the side surface of the socket board (5) far from the housing (6), there is a power converter (15) electrically connected to the charging contact (14). On both sides of the socket board (5), there are jacks (16).

2. The wall-mounted air conditioner with a detachable temperature measuring and controlling component according to claim 1, characterized in that: On the socket board (5), there are a number of first heat dissipation grooves (17) opened, and on the housing (6), there are second heat dissipation grooves (18) corresponding to the first heat dissipation grooves (17).

3. The wall-mounted air conditioner with a detachable temperature measuring and controlling component according to claim 1, characterized in that: On the socket board (5), there is a detachable square box frame (19). The square box frame (19) and the temperature measurement and control component (4) are respectively located on both sides of the socket board (5). The power converter (15) is located inside the square box frame (19). On the side of the square box frame (19) far from the socket board (5), there is a convex edge (20) bent inward, and on the outer peripheral surface of the convex edge (20), there is an adhesive layer (21).

4. The wall-mounted air conditioner with a separable temperature measuring and controlling component according to claim 3, characterized in that: On the socket board (5), there is a plastic buckle (22) installed, and on the square box frame (19), there is a slot (23) that cooperates with the plastic buckle (22).

5. The wall-mounted air conditioner with a separable temperature measuring and controlling component according to claim 3, characterized in that: On the socket board (5), there is a vertically arranged guide groove (24). Inside the guide groove (24), two groups of sliders (25) are cooperatively installed. At one end of each slider (25) close to the square box frame (19), there is a limiting support plate (26). On the inner wall of the square box frame (19), there is a limiting hole (27) that cooperates with the limiting support plate (26). Inside the guide groove (24) between the two groups of sliders (25), there is a spring (28), and the spring (28) always has a tendency to separate the two groups of sliders (25) and make the limiting support plate (26) enter the limiting hole (27).

6. The wall-mounted air conditioner with a detachable temperature measuring and controlling component according to claim 1, characterized in that: On the housing (6) of the temperature measuring and controlling component (4), a number of first vertical columns (29) are provided. On the socket board (5), second vertical columns (30) are provided which are arranged staggeredly with the first vertical columns (29). After the temperature measuring and controlling component (4) is installed on the socket board (5), the first vertical columns (29) and the second vertical columns (30) are staggered with each other to form a limit, and a heat dissipation gap is left between adjacent first vertical columns (29) and second vertical columns (30).

7. The wall-mounted air conditioner with a detachable temperature measuring and controlling component according to claim 1, wherein: In the central controller inside the temperature measuring and controlling component (4), a database is provided. This database can be set by the buttons of this component itself or the mobile phone APP to divide the temperature of each day into n segments per week, so that the air conditioner operates according to the comfortable and energy-saving modes of people.

8. The wall-mounted air conditioner with a detachable temperature measuring and controlling component according to claim 1, characterized in that: In the indoor unit (2) of the air conditioner, a database is provided. This database can be set by the mobile phone APP to divide the temperature of each day into n segments per week, so that the air conditioner operates according to the comfortable and energy-saving modes of people.

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