Intelligent air conditioner adjusting device
By combining the intelligent control module and the main control module, the system monitors and generates operation control signals in real time, solving the problems of large room temperature fluctuations and high energy consumption caused by the need for manual adjustment of the air conditioning system. This achieves intelligent and comfortable temperature adjustment and energy reduction for air conditioning.
Patent Information
- Authority / Receiving Office
- CN · China
- Patent Type
- Utility models(China)
- Current Assignee / Owner
- Filing Date
- 2025-04-17
- Publication Date
- 2026-04-03
AI Technical Summary
Existing air conditioning systems require manual temperature adjustment, resulting in large fluctuations in room temperature and high energy consumption, making it difficult to meet human comfort needs.
It adopts an intelligent control module and a main control module, connects to the air conditioning unit via Bluetooth signal, monitors the space temperature in real time and generates operation control signals to realize comfort adjustment and temperature adjustment, including comfort adjustment signals and temperature adjustment signals, and controls the temperature of the air conditioning unit with a preset fluctuation mode.
It achieves intelligent temperature regulation of the air conditioner, maintaining the room temperature within a comfortable range for the human body, reducing temperature fluctuations, and lowering energy consumption.
Smart Images
Figure CN224080369U_ABST
Abstract
Description
Technical Field
[0001] This application relates to the technical field of air conditioning regulation, and in particular to an intelligent air conditioning regulation device. Background Technology
[0002] With the development of the times and the progress of technology, people have higher and higher requirements for home comfort, especially for air conditioning systems, which require air conditioners to heat in winter or cool in summer quickly.
[0003] Current air conditioners require manual adjustment for cooling or heating. When the room temperature is high, manually lowering the air conditioner will cause it to continue cooling down once the room temperature drops. Conversely, when the room temperature is low, manually raising the air conditioner will cause it to continue heating up once the room temperature rises.
[0004] However, people often set the target temperature very low or very high when they first enter a room, hoping for quick cooling or heating. When the room temperature exceeds the range of human comfort, they have to manually lower or raise the temperature, which is inconvenient. In addition, continuously raising or lowering the air conditioner causes large fluctuations in room temperature and also results in unnecessary energy consumption. Summary of the Invention
[0005] In order to improve the adaptability of air conditioning temperature and make it more suitable for human body temperature perception, this application provides an intelligent air conditioning adjustment device.
[0006] This application provides an intelligent air conditioning control device, which adopts the following technical solution:
[0007] An intelligent air conditioning control device includes an intelligent control module and an intelligent main control module. The intelligent control module is connected to the air conditioning unit via Bluetooth signal to control the air conditioning unit to turn on or off. The intelligent control module is also used to acquire the ambient temperature of the air conditioning unit. The intelligent main control module is connected to the intelligent control module via Bluetooth signal to receive the ambient temperature, and generates a corresponding operation control signal based on the ambient temperature. The operation control signal includes a comfort adjustment signal and a temperature adjustment signal. Based on the comfort adjustment signal, the main control module controls the air conditioning unit to adjust the temperature in a preset fluctuation mode, and based on the temperature adjustment signal, the main control module controls the air conditioning unit to adjust the temperature.
[0008] By adopting the above technical solution, the intelligent main control module receives the space temperature obtained by the intelligent control module and generates a corresponding operation control signal based on the space temperature. In this way, the module controls the air conditioning unit to adjust the temperature in a preset fluctuation mode based on the comfort adjustment signal, and controls the air conditioning unit to adjust the temperature based on the temperature adjustment signal, so that the temperature of the air conditioning unit is within the comfortable temperature range for people. The room temperature is adjusted in real time to maintain a comfortable temperature for people, and the room temperature fluctuation is small during use, which can reduce energy consumption.
[0009] In one embodiment, the intelligent control module includes a temperature sensor and a first Bluetooth module. The temperature sensor is used to monitor the spatial temperature of a preset area in real time, and the first Bluetooth module is used to match signals with the intelligent main control module, write the spatial temperature monitored by the temperature sensor into a first Bluetooth signal, and send the first Bluetooth signal to the intelligent main control module.
[0010] In one embodiment, the intelligent control module further includes a battery module for powering the temperature sensor and the Bluetooth module.
[0011] In one embodiment, the intelligent main control module includes a second Bluetooth module, which performs signal matching with the first Bluetooth module to receive the first Bluetooth signal and extracts data from the first Bluetooth signal to obtain the corresponding space temperature.
[0012] In one embodiment, the intelligent main control module further includes a processor and an infrared transmitting module. The processor is signal-connected to the second Bluetooth module to receive the space temperature and generate a corresponding operation control signal based on the space temperature and a preset temperature. The infrared transmitting module is signal-connected to the processor to receive the operation control signal and control the air conditioning unit based on the operation control signal.
[0013] In one embodiment, the preset temperature includes a first state temperature and a second state temperature, and the processor includes a first comparison module and a second comparison module; the first comparison module is used to compare the space temperature with the first state temperature, and if the space temperature is greater than the first state temperature, a cooling start signal is generated; the second comparison module is used to compare the space temperature with the second state temperature, and if the space temperature is less than the second state temperature, a heating start signal is generated.
[0014] In one embodiment, the preset temperature includes a first cooling temperature and a second cooling temperature, the temperature adjustment signal includes a first cooling signal, the comfort adjustment signal includes a second cooling signal, the operation control signal includes a first cooling signal and a second cooling signal, and the processor further includes a third comparison module and a cooling processing module. The third comparison module is used to receive the cooling start signal, compare the space temperature with the first cooling temperature to generate the first cooling signal, obtain the second cooling signal based on the first cooling signal and the second cooling temperature, and control the infrared transmitting module based on the first cooling signal or the second cooling signal.
[0015] By adopting the above technical solution, the third comparison module compares the space temperature with the first cooling temperature to generate the first cooling signal, and obtains the second cooling signal based on the first cooling signal and the second cooling temperature. Based on the first cooling signal or the second cooling signal, the infrared transmitting module is controlled to adaptively adjust the air conditioner temperature according to the outside temperature in hotter seasons, so that the air conditioner is at a comfortable temperature for people, improving people's comfort. When the air conditioner temperature is at a comfortable temperature, the air conditioner will have smaller temperature fluctuations and reduce energy consumption.
[0016] In one embodiment, the preset temperature includes a first heating temperature and a second heating temperature, the temperature adjustment signal includes a first heating signal, the comfort adjustment signal includes a second heating signal, and the processor further includes a fourth comparison module and a heating processing module. The fourth comparison module is used to receive the heating start signal, compare the space temperature with the first heating temperature to generate the first heating signal, obtain the second heating signal based on the first heating signal and the second heating temperature, and control the infrared transmitting module based on the first heating signal or the second heating signal.
[0017] By adopting the above technical solution, the fourth comparison module compares the space temperature with the first heating temperature to generate the first heating signal, and obtains the second heating signal based on the first heating signal and the second heating temperature. Based on the first heating signal or the second heating signal, the infrared transmitting module is controlled. In colder seasons, the air conditioner temperature can be adaptively adjusted according to the outside temperature to keep the air conditioner at a comfortable temperature, thereby improving people's comfort. When the air conditioner temperature is at a comfortable temperature, the air conditioner will have smaller temperature fluctuations, thus reducing energy consumption.
[0018] In summary, this application includes at least one of the following beneficial technical effects:
[0019] 1. The intelligent main control module receives the space temperature obtained by the intelligent control module and generates a corresponding operation control signal based on the space temperature. It then controls the air conditioning unit to adjust the temperature in a preset fluctuation mode based on the comfort adjustment signal, and controls the air conditioning unit to adjust the temperature based on the temperature adjustment signal, so that the temperature of the air conditioning unit is within the comfortable temperature range for people. It adjusts the room temperature in real time to keep it at a comfortable temperature for people, and the room temperature fluctuates less during use, which can reduce energy consumption.
[0020] 2. The fourth comparison module compares the space temperature with the first heating temperature to generate the first heating signal, and obtains a second heating signal based on the first heating signal and the second heating temperature. Based on the first heating signal or the second heating signal, the module controls the infrared transmitting module to adaptively adjust the air conditioner temperature according to the outside temperature in colder seasons, so that the air conditioner is at a comfortable temperature for people, thereby improving people's comfort. When the air conditioner temperature is at a comfortable temperature, the air conditioner experiences less temperature fluctuation, thus reducing energy consumption. Attached Figure Description
[0021] Figure 1 This is a schematic diagram of the installation of the intelligent air conditioning control device provided in the embodiments of this application;
[0022] Figure 2 This is a schematic diagram of the structure of the intelligent air conditioning control device provided in the embodiments of this application;
[0023] Figure 3 This is a schematic diagram of the structure of the first comparison module and the second comparison module provided in the embodiments of this application;
[0024] Figure 4 This is a schematic diagram of the structure of the third comparison module and the refrigeration processing module provided in the embodiments of this application;
[0025] Figure 5 This is a schematic diagram of the structure of the fourth comparison module and the heat treatment module provided in the embodiments of this application.
[0026] Explanation of reference numerals in the attached diagram: 10, Intelligent control module; 11, Temperature sensor; 12, First Bluetooth module; 13, Battery module; 20, Intelligent main control module; 21, Second Bluetooth module; 22, Processor; 221, First comparison module; 222, Second comparison module; 223, Third comparison module; 224, Refrigeration module; 225, Fourth comparison module; 226, Heating module; 23, Infrared transmission module. Detailed Implementation
[0027] To better understand the purpose, technical solutions, and advantages of this application, it has been described and illustrated below with reference to the accompanying drawings and embodiments. However, those skilled in the art should understand that this application can be implemented without these details. In some cases, to avoid obscuring various aspects of this application due to unnecessary description, well-known methods, processes, systems, components, and / or circuits already described at a higher level will not be elaborated upon. It will be apparent to those skilled in the art that various modifications can be made to the embodiments disclosed in this application, and the general principles defined in this application can be applied to other embodiments and application scenarios without departing from the principles and scope of this application. Therefore, this application is not limited to the illustrated embodiments, but conforms to the broadest scope consistent with the scope of protection claimed in this application.
[0028] This application discloses an intelligent air conditioning control device.
[0029] like Figure 1 and Figure 2 As shown, the intelligent air conditioning control device includes an intelligent control module 10 and an intelligent main control module 20. The intelligent control module 10 is connected to the air conditioning unit via Bluetooth to control the air conditioning unit to turn on or off. The intelligent control module 10 is also used to acquire the ambient temperature of the air conditioning unit. The intelligent main control module 20 is connected to the intelligent control module 10 via Bluetooth to receive the ambient temperature, and generates corresponding operation control signals based on the ambient temperature. The operation control signals include comfort adjustment signals and temperature adjustment signals. Based on the comfort adjustment signals, the main control module controls the air conditioning unit to adjust the temperature according to a preset fluctuation mode, and based on the temperature adjustment signals, the main control module controls the air conditioning unit to adjust the temperature.
[0030] Figure 1 In this context, 'a' represents the front view of the installation. Figure 1 In the diagram, 'b' represents the installation structure. The preset area is a designated indoor area, which is generally an area with frequent human activity. The intelligent control module 10 is installed in the designated indoor area, and the socket of the intelligent main control module 20 is installed near the air conditioner. The plug of the air conditioner unit is plugged into the socket of the intelligent main control module 20.
[0031] It's important to note that the comfort adjustment signal indicates that the air conditioning unit is at a comfortable temperature for the human body. At this temperature, the air conditioning unit is controlled to adjust the temperature with small fluctuations to reduce power consumption. The temperature adjustment signal, on the other hand, indicates that the air conditioning unit is controlled to raise or lower the temperature, requiring a rapid increase or decrease in temperature.
[0032] Combination Figure 2The intelligent control module 10 includes a temperature sensor 11, a first Bluetooth module 12, a battery module 13, a main unit, and control buttons. The temperature sensor 11 is used to monitor the spatial temperature of a preset area in real time. The first Bluetooth module 12 is used to match signals with the intelligent main control module 20, writing the spatial temperature monitored by the temperature sensor 11 into a first Bluetooth signal and sending the first Bluetooth signal to the intelligent main control module 20. The intelligent control module 10 also includes a battery module 13, which powers the temperature sensor 11 and the Bluetooth module.
[0033] It should be noted that the monitoring interval for real-time monitoring of the space temperature in the preset area can be set. In order to quickly adjust the indoor air conditioning, this application can be set to monitor the space temperature once every 1 minute. In order to save energy consumption, when the space temperature is in the comfortable range, the monitoring interval can be increased, and it can be set to monitor the space temperature once every 5 minutes.
[0034] The intelligent main control module also includes a second Bluetooth module 21, which matches the first Bluetooth module 12 to receive a first Bluetooth signal and extracts data from the first Bluetooth signal to obtain the corresponding space temperature. The intelligent main control module 20 also includes a processor 22 and an infrared transmitting module 23. The processor 22 is signal-connected to the second Bluetooth module 21 to receive the space temperature and generates a corresponding operation control signal based on the space temperature and a preset temperature. The infrared transmitting module 23 is signal-connected to the processor 22 to receive the operation control signal and control the air conditioning unit based on the operation control signal.
[0035] It should be noted that data extraction is performed on the first Bluetooth signal to obtain the corresponding space temperature. Specifically, the signal is extracted from the first Bluetooth signal to obtain the corresponding space temperature. The Bluetooth protocol is used for signal extraction, which will not be elaborated on in this application.
[0036] Reference Figure 3 The preset temperatures include a first state temperature and a second state temperature. The processor 22 includes a first comparison module 221 and a second comparison module 222. The first comparison module 221 compares the space temperature with the first state temperature. If the space temperature is greater than the first state temperature, a cooling start signal X2 is generated. The second comparison module 222 compares the space temperature with the second state temperature. If the space temperature is less than the second state temperature, a heating start signal X3 is generated.
[0037] Specifically, the first comparison module 221 includes a resistor R1, a sliding rheostat RP1, and a comparator N1. The negative input terminal of comparator N1 is connected to one end of the sliding rheostat RP1 to receive a first preset signal, and the other end of the sliding rheostat RP1 is connected to the power supply VCC. One end of resistor R1 is grounded, and the other end is connected to the connection point between the sliding rheostat RP1 and the negative input terminal of comparator N1. The positive input terminal of comparator N1 is connected to the temperature sensor 11 to receive the space temperature signal X1. Comparator N1 compares the space temperature signal X1 with the first preset signal to output a cooling start signal X2. Here, the space temperature signal X1 is a signal generated based on the space temperature.
[0038] The second comparison module 222 includes a resistor R2, a sliding rheostat RP2, and a comparator N2. The positive input terminal of comparator N2 is connected to one end of the sliding rheostat RP2 to receive a second preset signal, and the other end of the sliding rheostat RP2 is connected to the power supply VCC. One end of resistor R2 is grounded, and the other end is connected to the connection point between the sliding rheostat RP2 and the positive input terminal of comparator N2. The negative input terminal of comparator N2 is connected to the temperature sensor 11 to receive the space temperature signal X1. Comparator N2 compares the space temperature signal X1 with the second preset signal to output a heating start signal X3.
[0039] It should be noted that the ambient temperature signal X1 is generated based on the ambient temperature. When the ambient temperature signal X1 is greater than the first preset signal, the cooling start signal X2 is at a high level. When the ambient temperature signal X1 is less than the second preset signal, the heating start signal X3 is at a high level. The first preset signal represents the lowest ambient temperature at which the air conditioner is in cooling mode, while the second preset signal represents the highest ambient temperature at which the air conditioner is in heating mode.
[0040] The preset temperature includes a first cooling temperature and a second cooling temperature. The temperature adjustment signal includes a first cooling signal, and the comfort adjustment signal includes a second cooling signal. The processor 22 also includes a third comparison module 223 and a cooling processing module 224. The third comparison module 223 is used to receive the cooling start signal, compare the space temperature with the first cooling temperature to generate the first cooling signal, and obtain the second cooling signal based on the first cooling signal and the second cooling temperature. It also controls the infrared transmission module 23 based on the first cooling signal or the second cooling signal.
[0041] Reference Figure 4Specifically, the third comparison module 223 includes a resistor R3, a sliding rheostat RP3, and a comparator N3. The negative input terminal of comparator N3 is connected to one end of the sliding rheostat RP3 to receive the first state signal X2, and the other end of the sliding rheostat RP3 is connected to the power supply VCC. One end of resistor R3 is grounded, and the other end is connected to the connection point between the sliding rheostat RP3 and the negative input terminal of comparator N3. The positive input terminal of comparator N3 is connected to the temperature sensor 11 to receive the space temperature signal X1. When comparator N3 receives the first state signal X2, it compares the space temperature signal X1 with the first cooling temperature to output a first cooling signal X4. When the space temperature signal X1 is greater than the first cooling temperature, the first cooling signal X4 is high; when the space temperature signal X1 is not greater than the first cooling temperature, the first cooling signal X4 is low.
[0042] The refrigeration module 224 includes a transistor Q1. The base of transistor Q1 is electrically connected to the output of comparator N3, thereby enabling transistor Q1 to receive a high level of the first refrigeration signal X4. When the first refrigeration signal X4 is high, the collector of transistor Q1 and the power supply circuit of infrared transmitting module 23 need to be connected, and the emitter of transistor Q1 is grounded, thereby enabling infrared transmitting module 23 to control the air conditioner unit to continue to perform cooling operation.
[0043] The refrigeration module 224 also includes a transistor Q2, a resistor R7, a variable resistor RP4, a comparator N4, and another transistor Q3. The base of transistor Q2 is electrically connected to the output of comparator N3, enabling transistor Q2 to receive a low-level first refrigeration signal X4. The emitter of transistor Q2 is connected to the power supply terminal of comparator N4, and the other power supply terminal of comparator N4 is grounded. The negative input terminal of comparator N4 is connected to one end of variable resistor RP4 to receive a second refrigeration temperature, and the other end of variable resistor RP4 is connected to power supply VCC. One end of resistor R7 is grounded, and the other end is connected to the connection point between variable resistor RP4 and the negative input terminal of comparator N4. The positive input terminal of comparator N4 is connected to temperature sensor 11 to receive the space temperature signal X1.
[0044] When transistor Q2 receives and turns on the first cooling signal X4, it energizes comparator N4, causing comparator N4 to compare the space temperature signal X1 with the second cooling temperature and output the second cooling signal X5. When the space temperature signal X1 is greater than the second cooling temperature, the second cooling signal X5 is at a high level, thereby causing the infrared transmitting module 23 to control the air conditioning unit to operate according to a preset fluctuation mode. When the space temperature signal X1 is not greater than the second cooling temperature, the infrared transmitting module 23 needs to control the air conditioning unit to perform a heating operation, causing the air conditioning unit to raise the temperature to between the first and second cooling temperatures. Here, the first and second cooling temperatures are the most comfortable temperatures for humans and can be preset. In this embodiment, the first cooling temperature is set to 23 degrees Celsius, the second cooling temperature is set to 26 degrees Celsius, and the preset fluctuation mode is to fluctuate between 25 degrees Celsius.
[0045] The preset temperature includes a first heating temperature and a second heating temperature. The temperature adjustment signal includes a first heating signal, and the comfort adjustment signal includes a second heating signal. The processor 22 also includes a fourth comparison module 225 and a heating processing module 226. The fourth comparison module 225 is used to receive the heating start signal, compare the space temperature with the first heating temperature to generate a first heating signal, and obtain a second heating signal based on the first heating signal and the second heating temperature. It controls the infrared transmitting module 23 based on the first heating signal or the second heating signal.
[0046] Reference Figure 5 Specifically, the fourth comparison module 225 includes a resistor R9, a sliding rheostat RP5, and a comparator N5. The positive input terminal of comparator N5 is connected to one end of the sliding rheostat RP5 to receive the second state signal X3, and the other end of the sliding rheostat RP5 is connected to the power supply VCC. One end of resistor R9 is grounded, and the other end is connected to the connection point between the sliding rheostat RP5 and the positive input terminal of comparator N5. The negative input terminal of comparator N5 is connected to the temperature sensor 11 to receive the space temperature signal X1. When comparator N5 receives the second state signal X3, it compares the space temperature signal X1 with the first heating temperature to output a first heating signal X6. When the space temperature signal X1 is greater than the first heating temperature, the first heating signal X6 is high; when the space temperature signal X1 is not greater than the first heating temperature, the first heating signal X6 is low.
[0047] The heating module 226 includes a transistor Q4. The base of transistor Q4 is electrically connected to the output of comparator N5, thereby enabling transistor Q4 to receive a high level of the first heating signal X6. When the first heating signal X6 is high, the collector of transistor Q4 needs to be connected to the power supply circuit of infrared transmitting module 23, and the emitter of transistor Q4 is grounded, thereby enabling infrared transmitting module 23 to control the air conditioning unit to continue heating.
[0048] The heating module 226 also includes a transistor Q5, a resistor R13, a variable resistor RP6, a comparator N6, and a transistor Q6. The base of transistor Q5 is electrically connected to the output of comparator N5, enabling transistor Q5 to receive a low-level first heating signal X6. The emitter of transistor Q5 is connected to the power supply terminal of comparator N6, and the other power supply terminal of comparator N6 is grounded. The positive input terminal of comparator N6 is connected to one end of variable resistor RP6 to receive a second heating temperature, and the other end of variable resistor RP6 is connected to power supply VCC. One end of resistor R13 is grounded, and the other end is connected to the connection point between variable resistor RP6 and the positive input terminal of comparator N6. The negative input terminal of comparator N6 is connected to temperature sensor 11 to receive the space temperature signal X1.
[0049] When transistor Q5 receives a low-level first heating signal X6, it energizes comparator N6, causing comparator N6 to compare the ambient temperature signal X1 with the second heating temperature and output a second heating signal X7. When the ambient temperature signal X1 is greater than the second heating temperature, the second heating signal X7 is high, which in turn causes the infrared transmitting module 23 to control the air conditioning unit to operate according to a preset fluctuation mode. When the ambient temperature signal X1 is not greater than the second heating temperature, the infrared transmitting module 23 needs to control the air conditioning unit to perform a cooling operation, causing the air conditioning unit to lower the temperature to between the first and second heating temperatures. Here, the first heating temperature to the second heating temperature is the most comfortable temperature for humans and can be preset. In this embodiment, the first heating temperature is set to 20 degrees Celsius, the second heating temperature is set to 24 degrees Celsius, and the preset fluctuation mode is to fluctuate between 2 degrees Celsius and 23 degrees Celsius.
[0050] The implementation principle is as follows:
[0051] First, the intelligent control module acquires the ambient temperature of the air conditioning unit. The processor 22 includes a first comparison module 221 and a second comparison module 222. The first comparison module 221 compares the ambient temperature with a first state temperature. If the ambient temperature is greater than the first state temperature, a cooling start signal is generated. The second comparison module 222 compares the ambient temperature with a second state temperature. If the ambient temperature is less than the second state temperature, a heating start signal is generated.
[0052] Next, when transistor Q2 receives and turns on the first cooling signal X4, it energizes comparator N4, causing comparator N4 to compare the space temperature signal X1 with the second cooling temperature and output a second cooling signal X5. When the space temperature signal X1 is greater than the second cooling temperature, the second cooling signal X5 is high, which in turn causes the infrared transmitting module to control the air conditioning unit to operate according to a preset fluctuation mode. When the space temperature signal X1 is not greater than the second cooling temperature, the infrared transmitting module 23 needs to control the air conditioning unit to perform a heating operation.
[0053] When transistor Q5 receives the low-level first heating signal X6, it energizes comparator N6, causing comparator N6 to compare the ambient temperature signal X1 with the second heating temperature and output a second heating signal X7. When the ambient temperature signal X1 is greater than the second heating temperature, the second heating signal X7 is high, which in turn causes the infrared transmitting module to control the air conditioning unit to operate according to a preset fluctuation mode. When the ambient temperature signal X1 is not greater than the second heating temperature, the infrared transmitting module 23 needs to control the air conditioning unit to perform a cooling operation.
[0054] The above are all preferred embodiments of this application, and are not intended to limit the scope of protection of this application. Therefore, all equivalent changes made in accordance with the structure, shape and principle of this application should be covered within the scope of protection of this application.
Claims
1. An intelligent air conditioning regulating device, characterized in that, The application relates to an intelligent air conditioner control system, which comprises an intelligent control module (10) and an intelligent main control module (20), wherein the intelligent control module (10) is connected with a main machine of an air conditioner through a Bluetooth signal to control the main machine to be turned on or turned off, and the intelligent control module (10) is used for acquiring the space temperature of the main machine of the air conditioner; the intelligent main control module (20) is connected with the intelligent control module (10) through a Bluetooth signal to receive the space temperature, generate corresponding operation control signals according to the space temperature, and control the main machine of the air conditioner to be adjusted in a preset fluctuation mode according to the comfort adjustment signal and a temperature adjustment signal, and control the main machine of the air conditioner to be adjusted according to the temperature adjustment signal.
2. The smart air conditioning conditioning device of claim 1, wherein, The intelligent control module (10) comprises a temperature sensor (11) and a first Bluetooth module (12), the temperature sensor (11) is used for monitoring the space temperature of a preset area in real time, and the first Bluetooth module (12) is used for signal matching with the intelligent main control module (20), writing the space temperature monitored by the temperature sensor (11) into a first Bluetooth signal and sending the first Bluetooth signal to the intelligent main control module (20).
3. The smart air conditioning conditioning device of claim 2, wherein, The intelligent control module (10) further comprises a battery module (13), and the battery module (13) is used for supplying power to the temperature sensor (11) and the Bluetooth module.
4. The smart air conditioning conditioning device of claim 2, wherein, The intelligent main control module (20) comprises a second Bluetooth module (21), the second Bluetooth module (21) is used for signal matching with the first Bluetooth module (12) to receive the first Bluetooth signal, and data extraction is performed on the first Bluetooth signal to acquire the corresponding space temperature.
5. The smart air conditioning conditioning device of claim 4, wherein, The intelligent main control module (20) further comprises a processor (22) and an infrared sending module (23), the processor (22) is connected with the second Bluetooth module (21) to receive the space temperature, generate corresponding operation control signals according to the space temperature and a preset temperature, and the infrared sending module (23) is connected with the processor (22) to receive the operation control signals and control the main machine of the air conditioner based on the operation control signals.
6. The smart air conditioning conditioning device of claim 5, wherein, The preset temperature comprises a first state temperature and a second state temperature, the processor (22) comprises a first comparison module (221) and a second comparison module (222), the first comparison module (221) is used for comparing the space temperature with the first state temperature, and a refrigeration starting signal is generated if the space temperature is greater than the first state temperature, and the second comparison module (222) is used for comparing the space temperature with the second state temperature, and a heating starting signal is generated if the space temperature is less than the second state temperature.
7. The smart air conditioning conditioning device of claim 6, wherein, The preset temperature includes a first refrigeration temperature and a second refrigeration temperature, the temperature adjustment signal includes a first refrigeration signal, the comfort adjustment signal includes a second refrigeration signal, the operation control signal includes the first refrigeration signal and the second refrigeration signal, the processor (22) further includes a third comparison module (223) and a refrigeration processing module (224), the third comparison module (223) is used for receiving the refrigeration start signal, comparing the space temperature with the first refrigeration temperature to generate the first refrigeration signal, and obtaining the second refrigeration signal according to the first refrigeration signal and the second refrigeration temperature, and controlling the infrared sending module (23) according to the first refrigeration signal or the second refrigeration signal.
8. The smart air conditioning conditioning device of claim 7, wherein, The preset temperature includes a first heating temperature and a second heating temperature, the temperature adjustment signal includes a first heating signal, the comfort adjustment signal includes a second heating signal, the processor (22) further includes a fourth comparison module (225) and a heating processing module (226), the fourth comparison module (225) is used for receiving the heating start signal, comparing the space temperature with the first heating temperature to generate the first heating signal, and obtaining the second heating signal according to the first heating signal and the second heating temperature, and controlling the infrared sending module (23) according to the first heating signal or the second heating signal.