Air conditioning control method based on wireless control device

Abstract

The present application relates to the technical field of air-conditioning equipment control, and in particular to an air-conditioning control method based on a wireless control device. The technical solution of the present application includes: obtaining environmental information of air-conditioning equipment at corresponding locations through an information receiver, a control management device receiving a number of environmental information, and generating equipment adjustment information by comparing the information with the environmental information through a control database; obtaining real-time outdoor temperature information through an outdoor temperature monitoring component, generating temperature auxiliary adjustment information based on the outdoor temperature information, and generating temperature control information based on the temperature auxiliary adjustment information and the equipment adjustment information; and adjusting a number of air-conditioning equipment through the temperature control information. The technical effects of the present application include: making temperature adjustment more accurate and reasonable, and achieving seamless connection between the information receiver and the air-conditioning equipment, which not only simplifies wiring and reduces costs, but also improves flexibility and scalability.

Description

Technical Field

[0001] The present application relates to the technical field of air-conditioning equipment control, and in particular to an air-conditioning control method based on a wireless control device. Background Art

[0002] In existing air conditioning control systems, most air conditioners (such as wall-mounted air conditioners, ceiling-mounted air conditioners, cabinet air conditioners, and ducted air conditioners) can only be turned on or off or adjusted based on preset temperature values. This traditional control method lacks comprehensive consideration of environmental data, resulting in insufficient intelligence and refinement in air conditioning equipment adjustment. This is especially true in large workplaces such as hospitals and shopping malls, where temperature, humidity, and traffic density vary across different areas. A single temperature control strategy often fails to meet actual needs.

[0003] To address the above issues, existing technologies have begun to attempt to introduce wireless control devices, which collect environmental information generated by air-conditioning equipment through information receivers and transmit it to control and management devices for processing. However, these systems still remain at the basic temperature regulation level and lack sufficient flexibility and intelligence. They are unable to dynamically adjust the operating status of air-conditioning equipment according to actual environmental changes and traffic density. This not only affects the accuracy and efficiency of temperature control, but may also lead to energy waste and unnecessary energy consumption. Summary of the Invention

[0004] The present application provides an air conditioning control method based on a wireless control device to solve the problem that the existing technology has a single temperature control strategy and cannot dynamically adjust the operation of the air conditioning equipment according to actual environmental changes and crowd density.

[0005] The present application provides an air conditioning control method based on a wireless control device.

[0006] Acquire workplace environment data, and obtain a control database based on the workplace environment data;

[0007] Each air conditioning device is wirelessly connected to an information receiver;

[0008] Each information receiver obtains the environmental information of the air-conditioning equipment at the corresponding location. The control management device receives the environmental information, compares it with the environmental information through the control database, and generates equipment adjustment information.

[0009] Through the outdoor temperature monitoring component, real-time outdoor temperature information is obtained, and temperature auxiliary adjustment information is generated based on the outdoor temperature information. Based on the temperature auxiliary adjustment information and the equipment adjustment information, temperature control information is generated; and several air-conditioning equipment are adjusted through the temperature control information.

[0010] The above technical solution adopted in this application has the following advantages: it makes temperature adjustment more accurate and reasonable, and achieves seamless connection between the information receiver and the air-conditioning equipment, which not only simplifies wiring and reduces costs, but also improves flexibility and scalability. Through the operation of the outdoor temperature monitoring component, real-time capture and auxiliary adjustment of the outdoor temperature are achieved, so that the present invention can cope with complex and changeable environmental conditions.

[0011] Optionally, the workplace environment data includes: workplace layout information;

[0012] Divide the workplace into regions according to the layout information to obtain first region data and second region data;

[0013] Determine a plurality of first-area devices based on the first-area data; determine a plurality of second-area devices based on the second-area data;

[0014] The first area equipment includes: air conditioning equipment in the middle area of ​​the workplace;

[0015] Among them, the second area equipment is: air conditioning equipment for independent spaces in the workplace;

[0016] Obtaining a plurality of first control information according to the temperature control information and the first area data; obtaining a plurality of second control information according to the temperature control information and the second area data;

[0017] Through each piece of first control information, the corresponding first area device is adjusted; through a number of second control information, the corresponding second area device is adjusted.

[0018] The above technical solution adopted in this application has the following advantages: regional division of the workplace and personalized temperature control strategy are implemented to achieve precise control of the temperature in the workplace and improve the overall service quality of the workplace.

[0019] Optionally, several air-conditioning devices are differentiated according to the layout information, and third area data is also obtained;

[0020] determining a plurality of third-area devices according to the third-area data;

[0021] Among them, the third area equipment includes: air conditioning equipment in the entrance and exit areas of the workplace;

[0022] Obtaining a plurality of gradient control information according to the temperature control information, the third region data, and the first region data;

[0023] The temperature of a number of third-zone devices is controlled through a number of gradient control information. For details, refer to the following formula:

[0024]

[0025] T base is: the temperature of the middle area of ​​the workplace (i.e. the temperature of the first area); T diff is: temperature difference, that is, the temperature difference between the entrance and exit and the middle area; d i is: the distance between the third zone equipment and the entrance and exit; d max is: the distance between the air conditioning equipment at the center of the workplace and the entrance and exit; T i = The temperature that the i-th air-conditioning device should set, that is, according to T i Determine the control value of the gradient control information.

[0026] The above technical solution adopted in this application has the following advantages: it not only avoids customers from feeling uncomfortable due to excessive temperature differences, but also helps shopping malls achieve more efficient energy utilization.

[0027] Optionally, based on the layout information, the plurality of second area devices are differentiated to obtain a plurality of general location devices and a plurality of special area devices;

[0028] The temperature control information also includes: some special control information;

[0029] Through some special control information, the temperature of equipment in some special areas is controlled.

[0030] The above technical solution adopted in this application has the following advantages: through detailed control, it can better meet the temperature comfort needs of different groups of people and improve the overall service quality of the workplace.

[0031] Optionally, a humidity sensor component is provided in the information receiver;

[0032] The actual humidity of each area of ​​the workplace is obtained in real time through a number of humidity sensing components, and correction information is generated based on the actual humidity;

[0033] Based on the correction information, instant correction information is generated, and several air-conditioning devices are controlled by the instant correction information to perform real-time temperature adjustment.

[0034] The above technical solution adopted in this application has the following advantages: it can automatically adjust the working state of the air-conditioning equipment in a high humidity environment to ensure the comfort of the workplace.

[0035] Optionally, the temperature in the workplace is continuously monitored by a number of temperature sensing components to obtain a number of real-time temperature information, which is then compared with a preset temperature threshold.

[0036] If at least one instantaneous temperature information is greater than a preset temperature threshold, an emergency message is generated. Through the emergency message, several air-conditioning devices are controlled to close their air outlets. In this way, when an emergency occurs, the air intake can be quickly cut off.

[0037] The above technical solution adopted in this application has the following advantages: it can quickly respond to and control the operation of air-conditioning equipment in emergency situations such as fire, thereby effectively preventing the spread and expansion of fire.

[0038] Optionally, a plurality of real-time images are acquired through a plurality of camera components, and the real-time images include position marks of corresponding camera components, and the edge computing device acquires the plurality of real-time images.

[0039] Determine a plurality of real-time crowd density data based on a plurality of real-time images, compare the plurality of real-time crowd density data with preset density data respectively, and generate immediate adjustment information if the real-time crowd density data is greater than the preset density data;

[0040] And according to the position mark, the corresponding camera component is determined to obtain the high-flow area data, and at least one high-heat area device is determined based on the high-flow area data. The temperature of the high-heat area device is adjusted through real-time adjustment information.

[0041] The above technical solution adopted in this application has the following advantages: it realizes real-time monitoring of the flow density in the workplace and intelligent adjustment of air-conditioning equipment. This method not only improves the accuracy of temperature control, but also greatly improves the comfort of the workplace and people's satisfaction.

[0042] Optionally, during operation, the information receiver is connected to the air-conditioning equipment at the corresponding position through an infrared connection component;

[0043] A communication antenna is provided in the wireless communication component, and the size of the communication antenna is set according to actual working requirements.

[0044] The above technical solution adopted in this application has the following advantages: it realizes efficient, flexible and secure communication between the information receiver and the air-conditioning equipment and the control and management device. BRIEF DESCRIPTION OF THE DRAWINGS

[0045] In order to more clearly illustrate the embodiments of the present application or the technical solutions in the prior art, a brief introduction will be given below to the drawings required for use in the embodiments or the description of the prior art. Obviously, the drawings described below are some embodiments of the present application. For ordinary technicians in this field, other drawings can be obtained based on these drawings without paying any creative labor.

[0046] Figure 1A schematic diagram of an application scenario provided in one embodiment of the present application;

[0047] Figure 2 A flowchart of an air conditioning control method based on a wireless control device provided in one embodiment of the present application; DETAILED DESCRIPTION

[0048] To make the purpose, technical solutions, and advantages of the embodiments of the present application clearer, the technical solutions in the embodiments of the present application will be clearly and completely described below in conjunction with the drawings in the embodiments of the present application. Obviously, the described embodiments are part of the embodiments of the present application, not all of the embodiments. Based on the embodiments in the present application, all other embodiments obtained by ordinary technicians in this field without making creative efforts are within the scope of protection of this application.

[0049] In addition, the term "and / or" in this document simply describes the association relationship between associated objects in the air conditioning control method based on a wireless control device, indicating that three possible relationships exist. For example, "A and / or B" can represent: A exists alone, A and B exist simultaneously, or B exists alone. Furthermore, the character " / " in this document, unless otherwise specified, generally indicates that the associated objects are in an "or" relationship in the air conditioning control method based on a wireless control device.

[0050] The embodiments of the present application are described in further detail below with reference to the accompanying drawings.

[0051] Figure 1 A schematic diagram of an application scenario of an air conditioning control method based on a wireless control device provided in this application.

[0052] When adjusting the air conditioning equipment, the method provided by this application is applied. This method is applicable to several air conditioning equipment, information receivers and control management devices;

[0053] Several air-conditioning devices are connected to the information receiver in communication; the information receiver is connected to the control and management device in communication;

[0054] The control and management device includes: a wireless collector, an outdoor temperature monitoring component, an edge computing device and a server; the information receiver is communicated with the wireless collector; the wireless collector is communicated with the edge computing device; the edge computing device is communicated with the temperature monitoring component; and the edge computing device is communicated with the server.

[0055] Figure 2 This is a flow chart of an air conditioning control method based on a wireless control device provided in one embodiment of the present application. Figure 2 As shown, the method includes:

[0056] S201. Acquire workplace environment data, and obtain a control database based on the workplace environment data.

[0057] Specifically, the environmental data of the workplace is first obtained. This data includes but is not limited to the layout, area, height, and temperature, humidity and other parameters of each area. Based on this data, the system builds a comprehensive control database, providing a scientific basis for subsequent temperature adjustment.

[0058] S202. Each information receiver obtains environmental information of the air-conditioning equipment at the corresponding location. The control management device receives the environmental information, compares it with the environmental information through the control database, and generates equipment adjustment information.

[0059] Specifically, after receiving the environmental information from the information receiver, the control management device compares and analyzes the information with the control database, and generates a series of equipment adjustment information for guiding each air-conditioning device to adjust the temperature.

[0060] S203. Obtain real-time outdoor temperature information through the outdoor temperature monitoring component, generate temperature auxiliary adjustment information based on the outdoor temperature information, generate temperature control information based on the temperature auxiliary adjustment information and the equipment adjustment information; and adjust several air-conditioning equipment based on the temperature control information.

[0061] Specifically, in order to further improve the accuracy of temperature regulation, the outdoor temperature monitoring component is used to capture outdoor temperature changes in real time, and based on this, temperature auxiliary adjustment information is generated. This information is combined with the equipment adjustment information to constitute the final temperature control information.

[0062] The solution provided by this embodiment not only takes into account the temperature information of the area where the air-conditioning equipment is located, but also fully combines multiple factors such as the overall layout, area, height and outdoor temperature of the workplace. This comprehensive consideration makes the temperature adjustment of the system more accurate and reasonable, and achieves a seamless connection between the information receiver and the air-conditioning equipment, which not only simplifies wiring and reduces costs, but also improves flexibility and scalability. Through the operation of the outdoor temperature monitoring component, real-time capture and auxiliary adjustment of the outdoor temperature are achieved, enabling the present invention to cope with complex and changeable environmental conditions.

[0063] In some embodiments, the workplace environment data includes: layout information of the workplace; dividing the workplace into areas based on the layout information to obtain first area data and second area data; determining a number of first area devices based on the first area data; determining a number of second area devices based on the second area data; wherein the first area device is: air-conditioning equipment in the middle area of ​​the workplace; wherein the second area device is: air-conditioning equipment in an independent space in the workplace; obtaining a number of first control information based on the temperature control information and the first area data; obtaining a number of second control information based on the temperature control information and the second area data; adjusting the corresponding first area device through each first control information; and adjusting the corresponding second area device through a number of second control information.

[0064] Specifically, the layout information of the workplace is obtained, which describes in detail the structure, spatial distribution and functional characteristics of each area of ​​the workplace. Based on this information, the workplace is divided into two main areas: the first area and the second area.

[0065] The first zone mainly includes the central area of ​​the workplace, which is usually a place with concentrated human activities and high mobility (such as the central lobby of a shopping mall and the corridors of a hospital). Based on the data of the first zone, several first zone devices are identified, namely the air-conditioning equipment located in these central areas. Subsequently, based on the temperature control information and the first zone data, several first control information for the first zone devices are generated. These control information is intended to ensure that the temperature in the central area is maintained within an appropriate and relatively stable range to meet the comfort needs of most people.

[0066] The second area mainly includes independent spaces in the workplace (such as various stores in a shopping mall, various wards in a hospital, etc.). These areas usually have relatively independent spatial structures and functional requirements. Based on the data of the second area, a number of second area devices are determined, that is, air-conditioning equipment located in these independent spaces. Similar to the first area, a number of second control information for the second area devices is generated based on the temperature control information and the second area data. However, unlike the first area, the control information of the second area may focus more on meeting the temperature requirements in a specific space, such as keeping the temperature in the ward suitable for patient recovery.

[0067] In actual applications, each first control information is used to adjust the corresponding first area equipment, and the second control information is used to adjust the corresponding second area equipment. This personalized temperature adjustment strategy not only improves the energy efficiency and utilization rate of air-conditioning equipment, but also further enhances the overall comfort and satisfaction of the workplace.

[0068] For example, in a large shopping mall, the air conditioning system in the central hall can be set to a lower temperature to cope with the heat generated by the large number of people, while the air conditioning system in each store can be set to a relatively higher temperature to maintain the quality of the merchandise display and the customer shopping experience. This method can effectively control and optimize the temperature of the entire mall.

[0069] Through the solution provided in this embodiment, the workplace is divided into areas and a personalized temperature control strategy is implemented, thereby achieving precise control of the temperature in the workplace and improving the overall service quality of the workplace.

[0070] In some embodiments, multiple air conditioning devices are distinguished based on the layout information, and third zone data is obtained. Based on the third zone data, multiple third zone devices are determined. The third zone devices are air conditioning devices in the entrance and exit zones of the workplace. Based on the temperature control information, the third zone data, and the first zone data, multiple gradient control information is obtained. Temperature control is performed on the multiple third zone devices using the multiple gradient control information, as specifically described in the following formula:

[0071]

[0072] T base is: the temperature of the middle area of ​​the workplace (i.e. the temperature of the first area); T diff is: temperature difference, that is, the temperature difference between the entrance and exit and the middle area; d i is: the distance between the third zone equipment and the entrance and exit; d max is: the distance between the air conditioning equipment at the center of the workplace and the entrance and exit; T i = The temperature that the i-th air-conditioning device should set, that is, according to T i Determine the control value of the gradient control information.

[0073] Specifically, based on the workplace layout information, the air conditioning equipment is further subdivided into third-zone equipment. These equipment are mainly located in the entrance and exit areas of the workplace. The third-zone data is obtained by measuring the distance between these areas and the central area (i.e., the first area).

[0074] Subsequently, based on the temperature control information, the third region data, and the first region data, several gradient control information are calculated. These control information are intended to ensure that the temperature of the entrance and exit areas can smoothly transition to the temperature of the middle area, thereby avoiding discomfort caused by excessive temperature differences. For specific reference, the following formula is used:

[0075]

[0076] T baseis: the temperature of the middle area of ​​the workplace (i.e. the temperature of the first area); T diff is: temperature difference, that is, the temperature difference between the entrance and exit and the middle area; d i is: the distance between the third zone equipment and the entrance and exit; d max is: the distance between the air conditioning equipment at the center of the workplace and the entrance and exit; T i = The temperature that the i-th air-conditioning device should set, that is, according to T i Determining a control value of gradient control information;

[0077] In actual applications, the temperature of the equipment in the third area is controlled based on the calculated gradient control information. This strategy makes the temperature near the entrance and exit closer to the external ambient temperature, and as the distance increases, the temperature gradually increases to the temperature of the middle area. This smooth temperature transition not only improves human comfort, but also helps save energy and reduce consumption.

[0078] The solution provided by this embodiment not only prevents customers from feeling uncomfortable due to large temperature differences, but also helps shopping malls achieve more efficient energy utilization.

[0079] In some embodiments, based on the layout information, several second area devices are distinguished to obtain several general place devices and several special area devices; the temperature control information also includes: several special control information; the temperature of several special area devices is controlled through the several special control information.

[0080] Specifically, based on the layout of the workplace, the second zone equipment is divided into several general location equipment and several special area equipment. The special area equipment is mainly located in areas where special personnel such as young children and the elderly often move around, and these areas have more specific requirements for temperature control.

[0081] To meet these special needs, several special control information are added to the temperature control information. These special control information are formulated based on the physiological characteristics of special personnel and their needs for temperature comfort. For example, considering that young children and the elderly are more sensitive to temperature changes, the temperature of these special areas may be set to be more moderate to avoid discomfort caused by sudden temperature changes.

[0082] In practical applications, temperature control is implemented for equipment in specific areas through special control information. These equipment automatically adjusts to the set temperature to ensure that the temperature in these areas is always maintained within a suitable range. This setting not only improves the comfort of special personnel in these areas but also helps prevent health problems caused by temperature fluctuations.

[0083] For example, in a hospital's pediatric ward, air conditioning equipment can be set to a milder temperature to accommodate children's sensitivity to temperature changes. Similarly, similar temperature control strategies can be adopted in the children's toy area and the elderly products area of ​​a shopping mall to ensure that the temperature in these areas is appropriate and comfortable.

[0084] The solution provided in this embodiment can better meet the temperature comfort needs of different groups of people through detailed control, and improve the overall service quality of the workplace.

[0085] In some embodiments, a humidity sensing component is provided in the information receiver; the actual humidity of each area of ​​the workplace is obtained in real time through a number of humidity sensing components, and correction information is generated based on the actual humidity; instant correction information is generated based on the correction information, and a number of air-conditioning devices are controlled through the instant correction information to perform real-time temperature adjustment.

[0086] Specifically, when the system starts operating, each receiver not only receives temperature information from the air conditioning equipment, but also obtains real-time humidity data for the area through the humidity sensor component. This data is then sent to the control and management device, which compares and analyzes the actual humidity with the preset humidity threshold.

[0087] If the humidity in a particular area exceeds a preset threshold, the system identifies the area as potentially hotter and more muggy due to high humidity, necessitating temperature correction. Based on this assessment, the system generates appropriate correction information based on the actual humidity information provided by the humidity sensor. This information is then further processed into real-time correction information, which is used to directly control the relevant air conditioning equipment for real-time temperature adjustments.

[0088] The solution provided in this embodiment can automatically adjust the operating status of air conditioning equipment in high-humidity environments to ensure workplace comfort. This humidity sensing and real-time temperature correction function is particularly important during periods of high humidity, such as the rainy season, and can significantly improve the comfort experience of workers.

[0089] In some embodiments, the temperature in the workplace is continuously monitored by several temperature sensing components to obtain several real-time temperature information, which are compared with preset temperature thresholds respectively. If at least one real-time temperature information is greater than the preset temperature threshold, an emergency message is generated. Through the emergency message, several air-conditioning devices are controlled to close the air outlets. In this way, when an emergency occurs, the air intake can be quickly cut off.

[0090] Specifically, in practical applications, to ensure workplace safety, especially in the event of an emergency such as a fire, it is necessary to quickly respond to and control the operation of the air conditioning equipment. To this end, this embodiment adds a temperature sensor component to the information receiver to achieve real-time monitoring of the temperature in the workplace.

[0091] Each receiver is equipped with a temperature sensor that continuously and accurately monitors the immediate temperature of the area in which it is located. The system compares this immediate temperature information with preset temperature thresholds, which are set based on workplace conditions and fire safety requirements to ensure that abnormally high temperature areas can be quickly identified in an emergency.

[0092] When the system detects that the real-time temperature information of one or more areas exceeds the preset temperature threshold, the emergency response mechanism will be triggered immediately. At this time, the system will generate an emergency message and quickly transmit it to the relevant air-conditioning equipment through the control management device. The air-conditioning equipment that receives the emergency message will immediately execute the instruction to close the air outlet, thereby cutting off the air intake and preventing the fire from spreading due to ventilation.

[0093] The solution provided in this embodiment can quickly respond to and control the operation of air-conditioning equipment in emergency situations such as fire, thereby effectively preventing the spread and expansion of the fire. This not only improves workplace safety, but also protects the lives and property of personnel.

[0094] In some embodiments, a number of real-time images are acquired through a number of camera components, and the real-time images include position marks of corresponding camera components. The edge computing device acquires the number of real-time images, determines a number of real-time crowd density data based on the number of real-time images, and compares the real-time crowd density data with the preset density data respectively. If the real-time crowd density data is greater than the preset density data, immediate adjustment information is generated; and the corresponding camera component is determined according to the position mark to obtain high crowd flow area data. According to the high crowd flow area data, at least one high-heat area device is determined, and the temperature of the high-heat area device is adjusted through the immediate adjustment information.

[0095] Specifically, the system acquires real-time images through several camera components deployed in the workplace. These camera components are responsible for not only capturing the images in the workplace, but also embedding the location markers of the corresponding camera components in the real-time images to facilitate subsequent data processing and regional positioning.

[0096] The edge computing device receives real-time images from each camera component. By analyzing these images, the edge computing device can determine the crowd density in each area and calculate the real-time crowd density data accordingly.

[0097] Next, the edge computing device compares the calculated real-time crowd density data with the preset density data. The preset density data is set in advance based on the actual situation and comfort requirements of the workplace. If the real-time crowd density data is greater than the preset density data, it means that the crowd density in the current area is too high, which will cause people to feel higher temperatures.

[0098] In this case, the edge computing device will generate real-time adjustment information, which includes the air conditioning equipment that needs to be adjusted and the corresponding adjustment parameters. In order to more accurately locate the air conditioning equipment that needs to be adjusted, the edge computing device will also determine the high-traffic area data based on the position mark of the camera component. This data indicates which areas of the air conditioning equipment need special attention.

[0099] Finally, based on the high-traffic area data, the edge computing device can identify at least one high-heat area device. These devices are located in areas with high traffic density and therefore require temperature adjustment. By sending instant adjustment information to these devices, the system can achieve instant adjustment of their operating temperature, thereby ensuring that the temperature in the workplace always remains within a comfortable range.

[0100] The solution provided in this embodiment realizes real-time monitoring of the crowd density in the workplace and intelligent adjustment of the air-conditioning equipment. This method not only improves the accuracy of temperature control, but also greatly enhances the comfort level and people's satisfaction in the workplace.

[0101] In some embodiments, during operation of the information receiver, it communicates with the air-conditioning equipment at the corresponding position through an infrared connection component; a communication antenna is provided in the wireless communication component, and the size of the communication antenna is set according to actual working needs.

[0102] Specifically, the information receiver is not only responsible for receiving environmental information from the air-conditioning equipment, but also undertakes the task of communicating with the air-conditioning equipment and other control components. In order to achieve more flexible and efficient communication, the information receiver of this embodiment has built-in infrared connection components and wireless communication components;

[0103] The introduction of infrared connection components eliminates the need for wired connections when communicating with air conditioners, greatly improving the flexibility and deployability of the system. This wireless connection not only reduces the hassle and cost of wiring, but also allows the receiver to more easily adapt to various complex working environments. In addition, compared with wireless communication technologies such as WiFi or Bluetooth, infrared connection has lower power consumption and higher security because it does not rely on wireless networks, thus avoiding potential network security risks.

[0104] In addition to the infrared connection component, the information receiver is also equipped with a wireless communication component, which has a communication antenna inside. The size of the communication antenna can be flexibly adjusted according to actual work needs to ensure that the information receiver can stably communicate with remote control and management devices (such as wireless collectors). This design not only improves the communication efficiency of the system, but also enables the information receiver to perform reliable data transmission over a wider area.

[0105] Through the solution provided in this embodiment, by introducing infrared connection components and wireless communication components (including communication antennas), efficient, flexible and secure communication is achieved between the information receiver and the air-conditioning equipment and the control and management device. This design improves the overall performance and reliability of the equipment.

[0106] The device of this embodiment can be used to execute the method of any of the above embodiments. Its implementation principles and technical effects are similar and will not be described in detail here.

Claims

1. An air conditioning control method based on a wireless control device, characterized in that: The air conditioning control method is applied to several air conditioning devices, information receivers, outdoor temperature monitoring components, and a control management device. The control management device includes: a wireless collector, an edge computing device, and a server. The method includes: obtaining workplace environmental data, and obtaining a control database based on the workplace environmental data; Each of the air conditioning devices is wirelessly connected to an information receiver; Each of the information receivers obtains environmental information of the air-conditioning equipment at a corresponding location, and the control management device receives a plurality of the environmental information, compares the environmental information with the plurality of the environmental information through the control database, and generates equipment adjustment information; Acquiring real-time outdoor temperature information through the outdoor temperature monitoring component, generating auxiliary temperature adjustment information based on the outdoor temperature information, generating temperature control information based on the auxiliary temperature adjustment information and the device adjustment information; and regulating the plurality of air-conditioning devices using the temperature control information; The workplace environment data includes: workplace layout information; Dividing the workplace into regions according to the layout information to obtain first region data and second region data; Determine a plurality of first-area devices based on the first-area data; determine a plurality of second-area devices based on the second-area data; Wherein, the first area equipment is: the air conditioning equipment in the middle area of ​​the workplace; Wherein, the second area equipment is: the air conditioning equipment of the independent space in the workplace; obtaining a plurality of first control information according to the temperature control information and the first area data; obtaining a plurality of second control information according to the temperature control information and the second area data; Using each piece of the first control information, adjust the corresponding device in the first area; using a plurality of pieces of the second control information, adjust the corresponding device in the second area; According to the layout information, the plurality of air-conditioning devices are distinguished and third area data is obtained; determining a plurality of third-area devices according to the third-area data; Wherein, the third area equipment is: the air conditioning equipment in the entrance area and exit area of ​​the workplace; obtaining a plurality of gradient control information according to the temperature control information, the third region data, and the first region data; The temperature of the devices in the third region is controlled by the gradient control information, specifically referring to the following formula: T base is: the temperature of the first area of ​​the workplace; T diff is: temperature difference, that is, the temperature difference between the entrance and exit and the middle area; d i is: the distance between the third area equipment and the entrance and exit; d max T is the distance between the air conditioning equipment at the center of the workplace and the entrance and exit; i = The temperature that the i-th air-conditioning device should set, that is, according to T i A control value of the gradient control information is determined.

2. The method according to claim 1, characterized in that The method further comprises: According to the layout information, the plurality of second area devices are distinguished to obtain a plurality of general location devices and a plurality of special area devices; The temperature control information also includes: some special control information; The temperature of the equipment in the special areas is controlled by using the special control information.

3. The method according to claim 1, characterized in that Acquiring environmental information of the air-conditioning equipment at corresponding locations through the plurality of information receivers, the control and management device receiving the plurality of environmental information and generating a plurality of adjustment information based on the plurality of environmental information, the method further comprising: The information receiver is provided with a humidity sensing component; Acquiring, in real time, actual humidity in each area of ​​the workplace through the plurality of humidity sensing components, and generating correction information based on the actual humidity; According to the correction information, real-time correction information is generated, and the real-time correction information is used to control the plurality of air-conditioning devices to perform real-time temperature adjustment.

4. The method according to claim 1, wherein The information receiver is provided with a temperature sensing component, and the method further comprises: The temperature in the workplace is continuously monitored by a plurality of temperature sensing components to obtain a plurality of real-time temperature information, and the plurality of real-time temperature information is respectively compared with a preset temperature threshold. If at least one of the instantaneous temperature information is greater than the preset temperature threshold, an emergency message is generated. Through the emergency message, several air-conditioning devices are controlled so that the air outlets of the several air-conditioning devices are closed. In this way, when an emergency occurs, the air intake can be quickly cut off.

5. The method according to claim 1, characterized in that The edge computing device is connected to a plurality of camera components, and the method further includes: A plurality of real-time images are acquired by the plurality of camera components, and the real-time images include position marks corresponding to the camera components, and the edge computing device acquires the plurality of real-time images. determining a plurality of real-time crowd density data based on the plurality of real-time images, comparing the plurality of real-time crowd density data with preset density data respectively, and generating immediate adjustment information if the real-time crowd density data is greater than the preset density data; The corresponding camera component is determined according to the position mark to obtain high-traffic area data, and at least one high-heat area device is determined according to the high-traffic area data. The temperature of the high-heat area device is adjusted through the real-time adjustment information.

6. The method according to claim 1, characterized in that The information receiver is provided with a wireless communication component and an infrared connection component, and the method further comprises: During operation of the information receiver, the information receiver is connected to the air-conditioning device at the corresponding position through the infrared connection component; The wireless communication component is provided with a communication antenna, and the size of the communication antenna is set according to actual working requirements.

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