Energy-saving air conditioner controller and control system thereof

Abstract

The application discloses an energy-saving air conditioner controller and a control system thereof, and belongs to the technical field of air conditioner controllers. In order to solve the problem that the existing air conditioner controller is inconvenient for continuously mixing air inside an air-conditioned room so that an air conditioner remote controller can monitor air quality, the structure of the existing air conditioner controller and the monitoring structure is usually fixedly connected, and it is inconvenient to disassemble, replace and maintain the two structures and to separately use the two structures; and after the two structures are separated, it is inconvenient to close the working problem of the monitoring structure. The application controls the opening of the air conditioner through a control assembly, air outside is sucked into a gas storage cavity through an air inlet cavity, an air monitoring assembly monitors the air quality in the gas storage cavity and transmits data to the control assembly, the control assembly displays the data, air continuously enters the gas storage cavity, the air enters a strip-shaped rubber bag, when the strip-shaped rubber bag is expanded to a limit state, the air in the gas storage cavity and the strip-shaped rubber bag is discharged, and when the control assembly controls the air conditioner to be closed, the air in the gas storage cavity and the strip-shaped rubber bag is also discharged.

Description

Technical Field

[0001] This invention relates to the field of air conditioner controller technology, specifically to an energy-saving air conditioner controller and its control system. Background Technology

[0002] An air conditioner controller is the assembly of components that control an air conditioner. An air conditioner remote control is a type of air conditioner controller, a device used to remotely control an air conditioner. It mainly consists of an integrated circuit board and buttons that generate different signals. The remote control primarily comprises a microprocessor chip that generates remote control signals, a crystal oscillator, an amplifying transistor, an infrared LED, and a keypad matrix. When an energy-saving air conditioner is turned on, its internal filter structure filters impurities from the air exchange. However, after prolonged use, the filtration effect of this internal structure gradually deteriorates, leading to a decrease in the air quality entering the air-conditioned room. This makes it difficult for the remote control to monitor air quality by continuously mixing the air inside the room, resulting in limited functionality. Furthermore, existing air conditioner controllers and monitoring structures are usually fixedly connected, making disassembly for replacement and repair, as well as independent use of both. It is also inconvenient to shut down the monitoring structure after separation.

[0003] To address the aforementioned issues, an energy-saving air conditioning controller and its control system are proposed. Summary of the Invention

[0004] The purpose of this invention is to provide an energy-saving air conditioner controller and its control system, which solves the problems in the prior art where existing air conditioner controllers are not convenient for monitoring air quality by continuously mixing the air inside the air-conditioned room, the existing air conditioner controller and monitoring structure are usually fixedly connected, which is inconvenient for disassembly for replacement and maintenance, and for the independent use of both, and it is not convenient to shut down the monitoring structure after the two are separated.

[0005] To achieve the above objectives, the present invention provides the following technical solution: an energy-saving air conditioner controller, comprising a control component, a monitoring component at one end of the control component, an air inlet cavity inside the monitoring component, and an air storage cavity inside the monitoring component, with a strip-shaped rubber bag at the upper end of the air storage cavity, and an air monitoring component on one side of the air storage cavity. The air monitoring component is used to monitor the air quality in the air storage cavity. The control component controls the air conditioner to turn on. The air inlet cavity draws outside air into the air storage cavity. The air monitoring component monitors the air quality inside the air storage cavity and transmits the data to the control component, which displays it. Air continuously enters the air storage cavity and enters the strip-shaped rubber bag. When the strip-shaped rubber bag expands to its limit, it discharges the air storage cavity and the air inside itself. When the control component controls the air conditioner to turn off, it also discharges the air from the air storage cavity and the strip-shaped rubber bag.

[0006] Furthermore, a pressure relief valve is provided at one end of the gas storage chamber, an upper cavity is provided at the upper end of the gas storage chamber, and the strip rubber bag is located inside the upper cavity. A lifting groove is provided at the upper end of the upper cavity. A connecting pipe is provided between the gas storage chamber and the strip rubber bag, and the connecting pipe is connected to the gas storage chamber and the upper cavity. The monitoring component is a component made of a cylindrical structure.

[0007] Furthermore, the lifting groove is connected to the upper cavity, and a lifting block is slidably installed inside the lifting groove. An electrical component is installed at the top of the lifting groove, and the electrical component is electrically connected to the pressure relief valve. The electrical component is located at the top of the lifting block.

[0008] Furthermore, a filter screen is installed at one end of the air inlet chamber, an air inlet assembly is installed inside the air inlet chamber, and a one-way valve is installed at the other end of the air inlet chamber, and the one-way valve is connected to the air storage chamber.

[0009] Furthermore, the monitoring component has a fitting groove on the outside of the control component, and a pushing component is provided at the lower end of the inner wall of the fitting groove. A limiting groove is provided on the outer side of the lower end of the fitting groove, and two sets of limiting grooves are provided, with the two sets of limiting grooves connected to the fitting groove.

[0010] Furthermore, the inner walls on both sides of the fitting groove are provided with a first strip groove, the inside of the first strip groove is provided with a second strip groove, the limiting groove is connected to the first strip groove, the lower end of the fitting groove is provided with a lower arc groove, the lower arc groove is connected to the first strip groove, and a contact element is provided at the top of the second strip groove, and a set of the second strip groove is provided.

[0011] Furthermore, a heat dissipation plate is provided on the lower side of the end of the control component facing the monitoring component, and a T-shaped strip is provided on this end. The T-shaped strip is fitted into the first strip groove by two sets of limiting grooves.

[0012] Furthermore, the pushing component includes a pushing plate fitted inside two sets of first strip grooves. One end of the pushing plate is provided with an electrical block, which is fitted inside the second strip groove. The lower end of the pushing plate is provided with a folded barrier cloth, one end of which is connected to the lower end of the fitting groove. The lower end of the pushing plate is provided with an arc-shaped spring, and two sets of arc-shaped springs are provided. The positions of the two sets of arc-shaped springs are inside the lower arc-shaped groove, and one end of the two sets of arc-shaped springs is fixedly connected to the inner wall of the lower arc-shaped groove.

[0013] Furthermore, the monitoring component internally includes an activation module, a CPU module, and a WIFI module. Both the activation module and the WIFI module are electrically connected to the CPU module. The monitoring component is electrically connected to the control component through the WIFI module. The activation module is electrically connected to a timing drive module and a data transmission module. The timing drive module is electrically connected to an air quality monitoring module and an air intake module. The air intake module is electrically connected to an electrical contact module and a pressure relief module.

[0014] Another technical solution proposed by this invention: A control system for an energy-saving air conditioner controller, comprising the following steps:

[0015] S1: The control component turns on the air conditioner and activates the module. Through the timed drive module, the air intake component draws outside air into the air storage chamber. At this time, the air monitoring component monitors the air inside the air storage chamber and transmits the monitoring data to the control component through the data transmission module. The control component then displays the data.

[0016] S2: When the air conditioner is on for a long time, the air monitoring component monitors the air after multiple mixtures. When enough air is absorbed, the air enters the strip rubber bag through the connecting pipe, causing the strip rubber bag to expand and push the lifting block to rise, contact the electrical components, drive the pressure relief valve, and release the air in the air storage chamber and inside the strip rubber bag, so that the monitoring component can be reused.

[0017] S3: When the control component turns off the air conditioner, it will activate the module. After driving the pressure relief valve to release the air inside the air storage chamber and the strip rubber bag, it will turn off all functions of the monitoring component. At this point, all implementation steps are completed.

[0018] Compared with the prior art, the beneficial effects of the present invention are as follows:

[0019] 1. This invention provides an energy-saving air conditioner controller and its control system. The controller controls the air conditioner's operation via a control component. An air intake chamber draws outside air into an air storage chamber. An air monitoring component monitors the air quality inside the air storage chamber and transmits the data to the control component, which then displays it. Air continuously enters the air storage chamber and then into a strip-shaped rubber bag. When the rubber bag expands to its limit, it discharges the air from the air storage chamber and its own interior. When the control component controls the air conditioner to shut down, it also discharges the air from the air storage chamber and the rubber bag. This solves the problems of existing air conditioner controllers, which are inconvenient for continuously mixing the air inside the air-conditioned room to allow the air conditioner remote control to monitor air quality; existing air conditioner controllers and monitoring structures are usually fixedly connected, making disassembly, replacement, and maintenance inconvenient, as well as independent use of both; and the inconvenience of shutting down the monitoring structure after separation. Attached Figure Description

[0020] Figure 1 This is a schematic diagram of the overall structure of the present invention;

[0021] Figure 2 This is a side view of the monitoring component of the present invention.

[0022] Figure 3 This is a three-dimensional structural diagram of the monitoring component of the present invention;

[0023] Figure 4This is a schematic diagram of the first and second strip groove structures of the present invention;

[0024] Figure 5 This is a schematic diagram of the control component structure of the present invention;

[0025] Figure 6 This is a schematic diagram of the pushing component structure of the present invention;

[0026] Figure 7 This is a schematic diagram of the system module structure of the present invention.

[0027] In the diagram: 1. Monitoring component; 11. Air inlet chamber; 111. Air inlet assembly; 112. Filter screen; 113. One-way valve; 12. Air monitoring component; 13. Air storage chamber; 131. Connecting pipe; 14. Upper chamber; 15. Strip rubber bag; 16. Lifting groove; 161. Lifting block; 162. Electrical component; 17. Pressure relief valve; 18. Fitting groove; 181. Limiting groove; 182. First strip groove; 183. Second strip groove; 184. 19. Lower arc groove; 191. Pushing component; 192. Pushing plate; 193. Folded barrier cloth; 194. Arc spring; 195. Electrical block; 2. Control component; 21. Heat dissipation plate; 22. T-shaped strip; 3. Activation module; 31. Timer drive module; 32. Data transmission module; 33. Air quality monitoring module; 34. Air intake module; 35. Electrical contact module; 36. Pressure relief module; 4. CPU module; 5. WIFI module. Implementation

[0028] The technical solutions of the embodiments of the present invention will be clearly and completely described below with reference to the accompanying drawings. Obviously, the described embodiments are only some embodiments of the present invention, and not all embodiments. Based on the embodiments of the present invention, all other embodiments obtained by those skilled in the art without creative effort are within the scope of protection of the present invention.

[0029] To address the technical issue that energy-efficient air conditioners, after being turned on, have internal filters that remove impurities from the air exchanged, but whose filtration efficiency gradually deteriorates over time, leading to poorer air quality in the air-conditioned room, and making it difficult for the air conditioner remote control to continuously monitor air quality through mixing with the room's air, thus limiting the functionality of the remote control, such as... Figures 1-2 and Figure 7 As shown, the following preferred technical solutions are provided:

[0030] An energy-saving air conditioner controller includes a control component 2, a monitoring component 1 at one end of the control component 2, an air inlet cavity 11 inside the monitoring component 1, and an air storage cavity 13 inside the monitoring component 1. A strip-shaped rubber bag 15 is provided at the upper end of the air storage cavity 13, and an air monitoring component 12 is provided on one side of the air storage cavity 13. The air monitoring component 12 is used to monitor the air quality of the air storage cavity 13. The control component 2 controls the air conditioner to turn on. The air inlet cavity 11 draws outside air into the air storage cavity 13. The air monitoring component 12 monitors the air quality inside the air storage cavity 13 and transmits the data to the control component 2, which displays it. Air continuously enters the air storage cavity 13 and enters the strip-shaped rubber bag 15. When the strip-shaped rubber bag 15 expands to its limit, it discharges the air storage cavity 13 and the air inside itself. When the control component 2 controls the air conditioner to turn off, it also discharges the air from the air storage cavity 13 and the strip-shaped rubber bag 15.

[0031] A pressure relief valve 17 is provided at one end of the air storage chamber 13. An upper cavity 14 is provided at the upper end of the air storage chamber 13, and the strip rubber bag 15 is located inside the upper cavity 14. A lifting groove 16 is provided at the upper end of the upper cavity 14. A connecting pipe 131 is provided between the air storage chamber 13 and the strip rubber bag 15, and the connecting pipe 131 is connected to the air storage chamber 13 and the upper cavity 14. The monitoring component 1 is a cylindrical structure. A filter screen 112 is provided at one end of the air inlet chamber 11, and an air inlet component 111 is provided inside the air inlet chamber 11. A one-way valve 113 is provided at the other end of the air inlet chamber 11. Furthermore, the one-way valve 113 is connected to the air storage chamber 13. The monitoring component 1 is internally equipped with an activation module 3, a CPU module 4, and a WIFI module 5. Both the activation module 3 and the WIFI module 5 are electrically connected to the CPU module 4. The monitoring component 1 is electrically connected to the control component 2 through the WIFI module 5. The activation module 3 is electrically connected to a timer drive module 31 and a data transmission module 32. The timer drive module 31 is electrically connected to an air quality monitoring module 33 and an air intake module 34. The air intake module 34 is electrically connected to an electrical contact module 35 and a pressure relief module 36.

[0032] Specifically, after the control component 2 turns on the air conditioner, the indoor temperature and air quality will change. Simultaneously with the control component 2's activation, module 3 is activated, driving the air intake module 34 via the timer drive module 31 to operate on a timer basis. This causes the air intake component 111 to draw outside air into the air storage chamber 13 through the one-way valve 113. At this time, the air monitoring component 12 monitors the air inside the air storage chamber 13 and transmits the monitoring data to the control component 2 via the data transmission module 32 for display. If the air conditioner is on for a sufficient period, multiple sets of air will be drawn into the air storage chamber 13. The air monitoring component 12 monitors the mixed air, and when enough air is absorbed, the air flows through... Air enters the strip rubber bag 15 through the connecting pipe 131, causing the strip rubber bag 15 to expand and press tightly against the inner wall of the upper cavity 14. The continued entry of air will cause the strip rubber bag 15 to expand again, causing the strip rubber bag 15 to push the lifting block 161 to rise and contact the electrical component 162. At this time, the air pressure inside the monitoring component 1 is large enough. After the lifting block 161 contacts the electrical component 162, it will drive the pressure relief valve 17 to release the air inside the air storage chamber 13 and the strip rubber bag 15, allowing the monitoring component 1 to be reused. When the control component 2 turns off the air conditioner, it will cause the activation module 3 to work. After driving the pressure relief valve 17 to release the air inside the air storage chamber 13 and the strip rubber bag 15, all functions of the monitoring component 1 will be turned off.

[0033] To address the technical problems arising from the fact that existing air conditioning controllers and monitoring systems are typically fixedly connected, making disassembly for replacement and maintenance inconvenient, and that separate use of both is difficult, and that shutting down the monitoring system after separation is also problematic, such as... Figures 3-6 As shown, the following preferred technical solutions are provided:

[0034] The lifting groove 16 is connected to the upper cavity 14. A lifting block 161 is slidably arranged inside the lifting groove 16. An electrical component 162 is arranged at the top of the lifting groove 16. The electrical component 162 is electrically connected to the pressure relief valve 17. The electrical component 162 is located at the top of the lifting block 161. The monitoring component 1 has a fitting groove 18 on the outside of the control component 2. A pushing component 19 is arranged at the lower end of the inner wall of the fitting groove 18. The lower outer side of the fitting groove 18... A limiting groove 181 is provided, and two sets of limiting grooves 181 are provided. The two sets of limiting grooves 181 are connected to the fitting groove 18. A first strip groove 182 is formed on both inner walls of the fitting groove 18. A second strip groove 183 is formed inside the first strip groove 182. The limiting groove 181 is connected to the first strip groove 182. A lower arc groove 184 is formed at the lower end of the fitting groove 18. The lower arc groove 184 is connected to the first strip groove 182. The second strip groove 183 is connected to the first strip groove 182. A contact element is provided at the top of the groove 183. A set of the second strip groove 183 is provided. A heat dissipation plate 21 is provided on the lower side of the end of the control component 2 facing the monitoring component 1, and a T-shaped strip 22 is provided on this end. The T-shaped strip 22 is embedded in the first strip groove 182 through two sets of limiting grooves 181. The pushing component 19 includes a pushing plate 191 embedded in the two sets of the first strip groove 182. An electrical block 194 is provided at one end of the pushing plate 191, and the electrical block 194 is embedded in the second strip groove 183. A folded barrier cloth 192 is provided at the lower end of the pushing plate 191, and one end of the folded barrier cloth 192 is connected to the lower end of the fitting groove 18. An arc spring 193 is provided at the lower end of the pushing plate 191, and two sets of arc springs 193 are provided. The positions of the two sets of arc springs 193 are inside the lower arc groove 184, and one end of the two sets of arc springs 193 is fixedly connected to the inner wall of the lower arc groove 184.

[0035] Specifically, the control component 2 is fitted into the two sets of limiting grooves 181 via a T-shaped strip 22. As the control component 2 moves towards the monitoring component 1 again, the T-shaped strip 22 will fit into the two sets of first strip grooves 182. At this time, the push plate 191 is at the lower end of the T-shaped strip 22. With the two sets of arc springs 193 changing from the compressed state to the uncompressed state, the push plate 191 and the control component 2 are pushed up until the T-shaped strip 22 is at the top of the first strip groove 182. At this time, the folded barrier cloth 192 is unfolded to protect the two sets of arc springs. 193. At this time, the monitoring component 1 and the control component 2 are placed on a flat object. The control component 2 is tilted and the heat dissipation plate 21 is facing down. The heat dissipation plate 21 does not contact the flat object, which can provide better heat dissipation. After the monitoring component 1 and the control component 2 are separated, under the elastic force of the two sets of arc springs 193, the push plate 191 is pushed up to the top of the first strip groove 182. At this time, the electrical block 194 will contact the contact element at the top of the first strip groove 182, thereby driving the activation module 3 to turn off all functions of the monitoring component 1.

[0036] To further explain the above embodiments, the present invention also provides an implementation scheme, a control system for an energy-saving air conditioner controller, comprising the following steps:

[0037] Step 1: Control component 2 turns on the air conditioner and enables module 3 to function. Through timed drive module 31, the air intake component 111 draws outside air into the air storage chamber 13. At this time, the air monitoring component 12 monitors the air inside the air storage chamber 13 and transmits the monitoring data to control component 2 through data transmission module 32 for display.

[0038] Step 2: When the air conditioner is on for a long enough time, the air monitoring component 12 monitors the air after multiple mixtures. When enough air is absorbed, the air enters the strip rubber bag 15 through the connecting pipe 131, causing the strip rubber bag 15 to expand and push the lifting block 161 to rise, contact the electrical component 162, drive the pressure relief valve 17, and release the air in the air storage chamber 13 and the strip rubber bag 15, so that the monitoring component 1 can be reused.

[0039] Step 3: When the control component 2 turns off the air conditioner, it will activate the module 3. After the pressure relief valve 17 drives the air in the air storage chamber 13 and the strip rubber bag 15 to be discharged, all functions of the monitoring component 1 will be turned off. At this point, all implementation steps are completed.

[0040] It should be noted that, in this document, relational terms such as "first" and "second" are used only to distinguish one entity or operation from another, and do not necessarily require or imply any such actual relationship or order between these entities or operations. Furthermore, the terms "comprising," "including," or any other variations thereof are intended to cover non-exclusive inclusion, such that a process, method, article, or apparatus that comprises a list of elements includes not only those elements but also other elements not expressly listed, or elements inherent to such process, method, article, or apparatus.

[0041] Although embodiments of the invention have been shown and described, it will be understood by those skilled in the art that various changes, modifications, substitutions and alterations can be made to these embodiments without departing from the principles and spirit of the invention, the scope of which is defined by the appended claims and their equivalents.

Claims

1. An energy saving air conditioner controller comprising a control assembly (2) characterized in that: One end of the control assembly (2) is provided with a monitoring assembly (1), one end of the monitoring assembly (1) is internally provided with an air inlet cavity (11), the inside of the monitoring assembly (1) is also provided with a gas storage cavity (13), the upper end of the gas storage cavity (13) is provided with a strip-shaped rubber bag (15), one side of the gas storage cavity (13) is provided with a monitoring air assembly (12), the monitoring air assembly (12) is used for monitoring the air quality of the gas storage cavity (13), the control assembly (2) controls the opening of the air conditioner, the air inlet cavity (11) inhales the outside air into the inside of the gas storage cavity (13), the monitoring air assembly (12) monitors the air quality inside the gas storage cavity (13) and transmits the data to the control assembly (2), which is displayed by the control assembly (2), the inside of the gas storage cavity (13) continuously enters the air, the air enters the inside of the strip-shaped rubber bag (15), when the strip-shaped rubber bag (15) expands to the limit state, the air in the gas storage cavity (13) and itself is discharged, when the control assembly (2) controls the air conditioner to be closed, the air in the gas storage cavity (13) and the strip-shaped rubber bag (15) is also discharged.

2. The energy efficient air conditioner controller of claim 1, wherein: One end of the gas storage cavity (13) is provided with a pressure relief valve (17), the upper end of the gas storage cavity (13) is provided with an upper cavity (14), and the strip-shaped rubber bag (15) is located inside the upper cavity (14), the upper end of the upper cavity (14) is provided with a lifting groove (16), the gas storage cavity (13) and the strip-shaped rubber bag (15) are provided with a communication pipe (131), and the communication pipe (131) is communicated with the gas storage cavity (13) and the upper cavity (14), the monitoring assembly (1) is a member made of a cylindrical structure.

3. The energy efficient air conditioner controller of claim 2, wherein: The lifting groove (16) is communicated with the upper cavity (14), the lifting groove (16) is slidably provided with a lifting block (161), the top end of the lifting groove (16) is provided with an electrical element (162), the electrical element (162) is electrically connected with the pressure relief valve (17), and the electrical element (162) is located at the upper end of the lifting block (161).

4. The energy efficient air conditioner controller of claim 1, wherein: One end of the air inlet cavity (11) is provided with a filter screen (112), the air inlet cavity (11) is provided with an air inlet assembly (111), the other end of the air inlet cavity (11) is provided with a one-way valve (113), and the one-way valve (113) is communicated with the gas storage cavity (13).

5. The energy efficient air conditioner controller of claim 1, wherein: The outside of the monitoring assembly (1) is provided with a fitting groove (18) facing the control assembly (2), and the inner wall of the fitting groove (18) is provided with a pushing assembly (19) at the lower end, the outer side of the lower end of the fitting groove (18) is provided with a limiting groove (181), and the limiting groove (181) is provided with two groups, and the limiting groove (181) of the two groups is communicated with the fitting groove (18).

6. The energy efficient air conditioner controller of claim 5, wherein: The inner walls of the two sides of the fitting groove (18) are provided with a first strip-shaped groove (182), the inside of the first strip-shaped groove (182) is provided with a second strip-shaped groove (183), the limiting groove (181) is communicated with the first strip-shaped groove (182), the lower end of the fitting groove (18) is provided with a lower arc-shaped groove (184), the lower arc-shaped groove (184) is communicated with the first strip-shaped groove (182), the top end of the second strip-shaped groove (183) is provided with a contact element, and the second strip-shaped groove (183) is provided with a group.

7. The energy efficient air conditioner controller of claim 6, wherein: The control assembly (2) is provided with a heat dissipation hole plate (21) on the lower side of one end thereof facing the monitoring assembly (1), and the one end is provided with a T-shaped strip (22) which is embedded in a first strip-shaped groove (182) through two sets of limiting grooves (181).

8. The energy efficient air conditioner controller of claim 6, wherein: The pushing assembly (19) comprises a pushing plate (191) embedded in the two sets of first strip-shaped grooves (182), one end of the pushing plate (191) is provided with an electrical block (194) which is embedded in a second strip-shaped groove (183), the lower end of the pushing plate (191) is provided with a folded blocking cloth (192) which is connected to the lower end inside the embedded groove (18) at one end, the lower end of the pushing plate (191) is provided with an arc-shaped spring (193), and the arc-shaped spring (193) is provided in two sets, the positions of the two sets of arc-shaped springs (193) are in the lower arc-shaped grooves (184), and one end of the two sets of arc-shaped springs (193) is fixedly connected to the inner wall of the lower arc-shaped grooves (184).

9. The energy efficient air conditioner controller of claim 8, wherein: The monitoring assembly (1) is provided with an enabling module (3), a CPU module (4) and a WIFI module (5) inside, the enabling module (3) and the WIFI module (5) are electrically connected with the CPU module (4), the monitoring assembly (1) is electrically connected with the control assembly (2) through the WIFI module (5), the enabling module (3) is electrically connected with a timing driving module (31) and a data transmission module (32), the timing driving module (31) is electrically connected with an air quality monitoring module (33) and an air inlet module (34), and the air inlet module (34) is electrically connected with an electrical contact module (35) and a pressure relief module (36).

10. A control system for an energy efficient air conditioner controller as claimed in any one of claims 1 to 9, wherein: The steps include: S1: the control assembly (2) opens the air conditioner, the enabling module (3) works, the air inlet assembly (111) sucks the air outside into the air storage cavity (13) through the timing driving module (31), at this time the monitoring air assembly (12) monitors the air inside the air storage cavity (13), the monitoring data is transmitted to the control assembly (2) through the data transmission module (32), and the control assembly (2) displays; S2: when the air conditioner is turned on for a long time, the monitoring air assembly (12) monitors the mixed air, when the air absorbs enough, the air enters the strip-shaped rubber bag (15) through the communication pipe (131), so that the strip-shaped rubber bag (15) expands and drives the lifting block (161) to rise, contacts the electrical element (162), drives the pressure relief valve (17), releases the air inside the air storage cavity (13) and the strip-shaped rubber bag (15), and allows the monitoring assembly (1) to be reused; S3: when the control assembly (2) closes the air conditioner, the enabling module (3) works, after the air in the air storage cavity (13) and the strip-shaped rubber bag (15) is discharged by the driven pressure relief valve (17), all functions of the monitoring assembly (1) are closed, and thus all implementation steps are completed.

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