A communication terminal compatible with room intelligent control

Abstract

The application relates to the technical field of communication terminals, and discloses a communication terminal compatible with room intelligent control, which comprises a telephone terminal, a room control terminal and a room control system; the telephone terminal and the room control terminal perform information interaction through an SPI protocol; the room control terminal is connected with the room control system, and the room control system comprises a main control module; a collection unit is configured to adjust a room to be monitored according to initial environment parameters; a judgment and optimization unit is configured to judge and optimize the initial environment parameters according to wall performance characteristic values, so as to obtain optimized environment parameters; a judgment and adjustment unit is configured to determine an adjustment coefficient of the optimized environment parameters according to environment influence factors, and to obtain final environment parameters; and a storage unit is configured to store the environment influence factors. The application realizes the cooperative work of the telephone terminal, the room control terminal and the room control system, and has flexible information interaction capability.

Description

Technical Field

[0001] This invention relates to the field of communication terminal technology, and more specifically, to a communication terminal compatible with smart room control. Background Technology

[0002] Access terminals play a crucial role in smart home systems. Traditional communication terminals often have limited functionality, only capable of basic communication, which can no longer meet the modern family's pursuit of a smart and convenient lifestyle. Furthermore, these devices often fail to achieve intelligent and refined management of the home environment.

[0003] Therefore, it is necessary to design a communication terminal compatible with smart room control to solve the problems existing in the current technology. Summary of the Invention

[0004] In view of this, the present invention proposes a communication terminal compatible with smart room control, aiming to realize intelligent and refined management of the home environment.

[0005] This invention proposes a communication terminal compatible with smart room control, comprising:

[0006] The system comprises a telephone terminal, a room control terminal, and a room control system; the telephone terminal interacts with the room control terminal via the SPI protocol; the room control terminal is connected to the room control system, and the room control system includes a main control module; wherein the main control module includes a data acquisition unit, a judgment and optimization unit, a judgment and adjustment unit, and a storage unit;

[0007] The acquisition unit is configured to determine the room to be monitored, acquire room information and user preference information of the room to be monitored, determine the initial environmental parameters of the room to be monitored based on the room information and user preference information, and adjust the room to be monitored based on the initial environmental parameters; wherein, the environmental parameters include initial temperature and initial humidity;

[0008] The judgment and optimization unit is configured to collect wall performance data of the room to be monitored, extract features from the wall performance data to obtain wall performance feature values, and judge and optimize the initial environmental parameters based on the wall performance feature values ​​to obtain optimized environmental parameters.

[0009] The judgment and adjustment unit is configured to collect time information and meteorological information of the location of the room to be monitored, and analyze the time information and meteorological information. Based on the analysis results, it determines whether to adjust the optimized environmental parameters. If so, it collects user information inside the room to be monitored, calculates environmental impact factors based on user information and meteorological information, determines the adjustment coefficient of the optimized environmental parameters based on the environmental impact factors, and obtains the final environmental parameters.

[0010] The storage unit is configured to store the environmental impact factors.

[0011] Further, when determining the initial environmental parameters of the room to be monitored based on the room information and user preference information, and adjusting the room to be monitored based on the initial environmental parameters, the process includes:

[0012] The room information and user preference information are analyzed separately to obtain indoor light intensity and preference parameter values;

[0013] The indoor light intensity is compared with the indoor light intensity threshold, and the initial environmental parameters are determined based on the comparison result.

[0014] When the indoor light intensity is within the indoor light intensity threshold, the preferred parameter value is used as the initial environmental parameter of the room to be monitored, and the parameter is adjusted according to the preferred parameter value.

[0015] When the indoor light intensity is outside the indoor light intensity threshold, a compensation coefficient for the preference parameter value is determined based on the indoor light intensity, and the product of the preference parameter value and the compensation coefficient is used as the initial environmental parameter of the room to be monitored.

[0016] Further, when determining the compensation coefficient for the preference parameter value based on the indoor light intensity, the following steps are included:

[0017] The indoor light intensity is compared with the first indoor light intensity and the second indoor light intensity, and the compensation coefficient of the preference parameter value is determined based on the comparison result; wherein the first indoor light intensity is less than the second indoor light intensity;

[0018] A compensation coefficient range is defined, wherein the compensation coefficient range includes a first compensation coefficient, a second compensation coefficient, and a third compensation coefficient;

[0019] When the first condition is identified, the compensation coefficient is determined to be the first compensation coefficient;

[0020] When the second condition is identified, the compensation coefficient is determined to be the second compensation coefficient;

[0021] When the third condition is identified, the compensation coefficient is determined to be the third compensation coefficient;

[0022] Wherein, the first condition is that the indoor light intensity is less than or equal to the first indoor light intensity; the second condition is that the indoor light intensity is greater than the first indoor light intensity and less than the second indoor light intensity; and the third condition is that the indoor light intensity is greater than or equal to the second indoor light intensity.

[0023] Further, when determining and optimizing the initial environmental parameters based on the wall performance characteristic values ​​to obtain optimized environmental parameters, the process includes:

[0024] The room to be monitored is divided into several monitoring areas, and a unique identifier is generated for each monitoring area.

[0025] Wall performance data for each monitoring area are collected based on the unique identifier;

[0026] Feature extraction is performed on the wall performance data to obtain the wall performance feature value corresponding to each monitoring area;

[0027] Obtain the standard value of wall performance corresponding to the wall performance characteristic value;

[0028] The wall performance deviation is determined based on the wall performance characteristic values ​​and wall performance standard values;

[0029] Determine whether to optimize the initial environmental parameters based on the wall performance deviation.

[0030] If the wall performance deviation is greater than or equal to the wall performance deviation threshold, it is determined that the initial environmental parameters should be optimized.

[0031] Otherwise, it is determined that the initial environmental parameters will not be optimized.

[0032] Furthermore, when determining and optimizing the initial environmental parameters based on the wall performance characteristic values ​​to obtain optimized environmental parameters, the process further includes:

[0033] When it is determined that the initial environmental parameters should be optimized, the absolute value of the difference between the wall performance deviation and the wall performance deviation threshold is calculated and recorded as the absolute deviation.

[0034] The absolute offset is compared with the first absolute offset and the second absolute offset, and the optimization coefficient of the initial environmental parameters is determined based on the comparison result; wherein the first absolute offset is less than the second absolute offset;

[0035] When the absolute offset is less than or equal to the first absolute offset, the optimization coefficient is determined to be the first optimization coefficient;

[0036] When the absolute offset is greater than the first absolute offset and less than or equal to the second absolute offset, the optimization coefficient is determined to be the second optimization coefficient.

[0037] When the absolute offset is greater than the second absolute offset, the optimization coefficient is determined to be the third optimization coefficient;

[0038] The product of the optimization coefficient and the initial environmental parameter is used as the optimized environmental parameter.

[0039] Furthermore, when analyzing the time and meteorological information and determining whether to adjust the optimized environmental parameters based on the analysis results, the process includes:

[0040] The time information includes morning, forenoon, noon, evening, and night;

[0041] The meteorological information includes the current outdoor temperature and the current outdoor humidity;

[0042] When the time information is morning or evening, calculate the temperature difference between the current outdoor temperature and the optimized temperature, and compare the temperature difference with a temperature difference threshold. When the temperature difference is greater than the temperature difference threshold, it is determined that the optimized environmental parameters need to be adjusted.

[0043] When the time information is morning, noon, or night, calculate the humidity difference between the current outdoor humidity and the optimized humidity, and compare the humidity difference with a humidity difference threshold. When the humidity difference is greater than the humidity difference threshold, it is determined that the optimized environmental parameters need to be adjusted.

[0044] Furthermore, when calculating environmental impact factors based on user information and meteorological information, the following are included:

[0045] The user information includes the number of users and their activity status;

[0046] The environmental impact factor is calculated based on the number of users, their activity status, the current outdoor temperature, and the current outdoor humidity.

[0047] Furthermore, the environmental impact factor is obtained by the following formula:

[0048] ;

[0049] Where EIF represents the environmental impact factor; α, β, and γ represent weighting coefficients, and α+β+γ=1; U represents the number of users; ωi represents the impact index of the activity status of the i-th user; Ai represents the activity status coefficient of the i-th user; To represents the current outdoor temperature; Tp represents the optimized temperature; Ho represents the current outdoor humidity; and Hp represents the optimized humidity.

[0050] Further, when determining the adjustment coefficients for the optimized environmental parameters based on the environmental impact factors and obtaining the final environmental parameters, the process includes:

[0051] The environmental impact factors are compared with historical data, and the adjustment coefficients of the optimized environmental parameters are determined based on the comparison results.

[0052] When there is a historical environmental impact factor in the historical data that is the same as the environmental impact factor, the historical adjustment coefficient corresponding to the historical environmental impact factor is used as the adjustment coefficient of the optimized environmental parameter, and the product of the historical adjustment coefficient and the optimized environmental parameter is used as the final environmental parameter.

[0053] When there is no historical environmental impact factor in the historical data that is the same as the environmental impact factor, the similarity between the environmental impact factor and the historical data is calculated one by one, and the maximum similarity is extracted. The adjustment coefficient of the optimized environmental parameter is determined based on the maximum similarity, and the final environmental parameter is obtained.

[0054] Further, when determining the adjustment coefficients of the optimized environmental parameters based on the maximum similarity and obtaining the final environmental parameters, the process includes:

[0055] The maximum similarity is compared with the first maximum similarity and the second maximum similarity, and the adjustment coefficient of the optimized environment parameter is determined based on the comparison result; wherein the first maximum similarity is less than the second maximum similarity;

[0056] When the maximum similarity is less than or equal to the first maximum similarity, the adjustment coefficient is determined to be the first adjustment coefficient;

[0057] When the maximum similarity is greater than the first maximum similarity and less than the second maximum similarity, the adjustment coefficient is determined to be the second adjustment coefficient;

[0058] When the maximum similarity is greater than or equal to the second maximum similarity, the adjustment coefficient is determined to be the third adjustment coefficient;

[0059] The first adjustment coefficient, the second adjustment coefficient, and the third adjustment coefficient increase sequentially.

[0060] Compared with existing technologies, the advantages of this invention are as follows: The communication terminal compatible with intelligent room control provided by this invention enables collaborative work between the handset, room control unit, and room control system, possessing flexible information interaction capabilities. The various circuit and unit settings on the handset, such as ringing circuits, decoding circuits, and hands-free calling units, can meet diverse calling needs. Users can use the handset, hands-free function, or keypad for operation. The display module on the room control unit allows users to intuitively view room information, while the second Bluetooth module increases the device's connectivity and expandability. The main control module of the room control system has clearly defined functions for each unit. The acquisition unit can accurately determine initial environmental parameters based on room information and user preferences, and perform preliminary adjustments to the room environment to create a comfortable initial environment for the user. The judgment and optimization unit further optimizes environmental parameters by analyzing the wall performance characteristics, taking into account the impact of the walls on the room environment, making the environmental parameters more reasonable. The judgment and adjustment unit dynamically adjusts environmental parameters by combining time information, meteorological information, and user information, adapting to different time and weather conditions, as well as the user's real-time status, greatly improving the accuracy and intelligence of environmental adjustment. The storage unit stores environmental impact factors, providing data support for subsequent data analysis and system optimization. This helps the system continuously learn and improve to better meet user needs. Furthermore, the system platform, thermostat, relays, first Bluetooth module, and switch panel work together to control various room devices, such as temperature regulation and switch control, further enhancing the room's intelligent control level. This communication terminal provides users with a more comfortable, convenient, and intelligent room environment control experience, improving room utilization efficiency and comfort. It also demonstrates the application of advanced intelligent technology in the field of room control, possessing good market prospects and promotional value. Attached Figure Description

[0061] Various other advantages and benefits will become apparent to those skilled in the art upon reading the following detailed description of preferred embodiments. The accompanying drawings are for illustrative purposes only and are not intended to limit the invention. Furthermore, the same reference numerals denote the same parts throughout the drawings. In the drawings:

[0062] Figure 1 A structural block diagram of a communication terminal compatible with smart room control provided in an embodiment of the present invention;

[0063] Figure 2 This is a structural block diagram of the main control module of the communication terminal compatible with smart room control provided in an embodiment of the present invention. Detailed Implementation

[0064] Exemplary embodiments of the present disclosure will now be described in more detail with reference to the accompanying drawings. While exemplary embodiments of the present disclosure are shown in the drawings, it should be understood that the present disclosure may be implemented in various forms and should not be limited to the embodiments set forth herein. Rather, these embodiments are provided to enable a more thorough understanding of the present disclosure and to fully convey the scope of the disclosure to those skilled in the art. It should be noted that, unless otherwise specified, embodiments and features in the embodiments of the present invention can be combined with each other. The present invention will now be described in detail with reference to the accompanying drawings and embodiments.

[0065] See Figure 1-2 As shown in some embodiments of this application, this embodiment provides a communication terminal compatible with smart room control, including:

[0066] The system comprises a telephone terminal, a room control terminal, and a room control system; the telephone terminal interacts with the room control terminal via the SPI protocol; the room control terminal is connected to the room control system, and the room control system includes a main control module; wherein the main control module includes a data acquisition unit, a judgment and optimization unit, a judgment and adjustment unit, and a storage unit;

[0067] The acquisition unit is configured to determine the room to be monitored, acquire room information and user preference information of the room to be monitored, determine the initial environmental parameters of the room to be monitored based on the room information and user preference information, and adjust the room to be monitored based on the initial environmental parameters; wherein, the environmental parameters include initial temperature and initial humidity;

[0068] The judgment and optimization unit is configured to collect wall performance data of the room to be monitored, extract features from the wall performance data to obtain wall performance feature values, and judge and optimize the initial environmental parameters based on the wall performance feature values ​​to obtain optimized environmental parameters.

[0069] The judgment and adjustment unit is configured to collect time information and meteorological information of the location of the room to be monitored, and analyze the time information and meteorological information. Based on the analysis results, it determines whether to adjust the optimized environmental parameters. If so, it collects user information inside the room to be monitored, calculates environmental impact factors based on user information and meteorological information, determines the adjustment coefficient of the optimized environmental parameters based on the environmental impact factors, and obtains the final environmental parameters.

[0070] The storage unit is configured to store the environmental impact factors.

[0071] In this embodiment, the room control system further includes a system platform, a thermostat, a relay, a first Bluetooth module, and a switch panel. The switch panel is connected to the relay, and the system platform, thermostat, relay, first Bluetooth module, and switch panel are all connected to the main control module.

[0072] In this embodiment, the handset includes a ringing circuit, a decoding circuit, a hands-free calling unit, a switch control unit, a handset calling unit, a keypad, and a handset MCU; the ringing circuit, decoding circuit, hands-free calling unit, switch control unit, handset calling unit, and keypad are all connected to the handset MCU.

[0073] In this embodiment, the room control terminal includes a display module, a room control MCU, and a second Bluetooth module; the display module and the second Bluetooth module are connected to the room control MCU; the room control MCU and the phone MCU interact with each other via the SPI protocol, and the room control MCU and the phone MCU are connected via a keypad.

[0074] It is understood that the communication terminal compatible with smart room control provided in this embodiment enables collaborative work between the handset, room control unit, and room control system, possessing flexible information interaction capabilities. The handset's various circuit and unit settings, such as ringing circuits, decoding circuits, and hands-free calling units, can meet diverse calling needs. Users can use the handset, hands-free function, or keypad for operation. The room control unit's display module allows users to intuitively view room information, while the second Bluetooth module increases the device's connectivity and expandability. The main control module of the room control system has clearly defined functions for each unit. The acquisition unit can accurately determine initial environmental parameters based on room information and user preferences, and perform preliminary adjustments to the room environment to create a comfortable initial environment for the user. The judgment and optimization unit further optimizes environmental parameters by analyzing the wall performance characteristics, taking into account the wall's impact on the room environment, making the environmental parameters more reasonable. The judgment and adjustment unit dynamically adjusts environmental parameters based on time information, meteorological information, and user information, adapting to different time and weather conditions, as well as the user's real-time status, greatly improving the accuracy and intelligence of environmental adjustment. The storage unit stores environmental impact factors, providing data support for subsequent data analysis and system optimization. This helps the system continuously learn and improve to better meet user needs. Furthermore, the system platform, thermostat, relays, first Bluetooth module, and switch panel work together to control various room devices, such as temperature regulation and switch control, further enhancing the room's intelligent control level. This communication terminal provides users with a more comfortable, convenient, and intelligent room environment control experience, improving room utilization efficiency and comfort. It also demonstrates the application of advanced intelligent technology in the field of room control, possessing good market prospects and promotional value.

[0075] It is understandable that the phone's MCU, as the core control unit of the phone, is responsible for receiving user commands and coordinating the work of various functional modules. For example, when a user inputs a command via the keypad, the phone's MCU will respond immediately, parse the command content through the decoding circuit, and control the corresponding functional modules to perform operations based on the command content.

[0076] Understandably, the room control MCU, as the core control unit of the room control system, receives commands from the phone, forwards them to the room control system, and monitors the room status in real time, displaying the information to the user through the display module. For example, when a user inputs a command to adjust the room temperature via the phone's keypad, the phone MCU parses the command and sends it to the room control MCU via the SPI protocol. Upon receiving the command, the room control MCU parses the command content according to a preset protocol and sends it to the main control module in the room control system via Bluetooth or a wired connection. The main control module then adjusts the room temperature via the thermostat according to the command. Simultaneously, the room control MCU displays the current room status information, such as the current temperature and humidity, to the user, allowing them to intuitively understand changes in the room environment.

[0077] Specifically, when the acquisition unit determines the initial environmental parameters of the room to be monitored based on the room information and user preference information, and adjusts the room to be monitored based on the initial environmental parameters, it includes:

[0078] The room information and user preference information are analyzed separately to obtain indoor light intensity and preference parameter values;

[0079] The indoor light intensity is compared with the indoor light intensity threshold, and the initial environmental parameters are determined based on the comparison result.

[0080] When the indoor light intensity is within the indoor light intensity threshold, the preferred parameter value is used as the initial environmental parameter of the room to be monitored, and the thermostat is adjusted according to the preferred parameter value.

[0081] When the indoor light intensity is outside the indoor light intensity threshold, a compensation coefficient for the preference parameter value is determined based on the indoor light intensity, and the product of the preference parameter value and the compensation coefficient is used as the initial environmental parameter of the room to be monitored.

[0082] Understandably, the indoor light intensity threshold is set based on general standards for indoor environmental comfort and extensive experimental data. When the indoor light intensity is moderate, i.e., within the set threshold range, the user's preferred parameters, such as desired temperature and humidity, are directly used as initial environmental parameters. The thermostat adjusts accordingly to meet the user's personalized needs. However, when the indoor light intensity exceeds this threshold, it may affect the user's comfort. For example, excessive light may make people feel hot, requiring a temperature reduction; insufficient light may make people feel cold, requiring a temperature increase. Therefore, in this embodiment, the acquisition unit determines a compensation coefficient based on the indoor light intensity. This coefficient reflects the degree of influence of light intensity on the user's preferred parameters. By multiplying the preferred parameter value by the compensation coefficient, the adjusted initial environmental parameters are obtained, ensuring that adjustments are made more closely to the user's needs based on the actual environment.

[0083] Specifically, when the acquisition unit determines the compensation coefficient of the preference parameter value based on the indoor light intensity, it includes:

[0084] The indoor light intensity is compared with the first indoor light intensity and the second indoor light intensity, and the compensation coefficient of the preference parameter value is determined based on the comparison result; wherein the first indoor light intensity is less than the second indoor light intensity;

[0085] A compensation coefficient range is defined, wherein the compensation coefficient range includes a first compensation coefficient, a second compensation coefficient, and a third compensation coefficient;

[0086] When the first condition is identified, the compensation coefficient is determined to be the first compensation coefficient;

[0087] When the second condition is identified, the compensation coefficient is determined to be the second compensation coefficient;

[0088] When the third condition is identified, the compensation coefficient is determined to be the third compensation coefficient;

[0089] Wherein, the first condition is that the indoor light intensity is less than or equal to the first indoor light intensity; the second condition is that the indoor light intensity is greater than the first indoor light intensity and less than the second indoor light intensity; and the third condition is that the indoor light intensity is greater than or equal to the second indoor light intensity.

[0090] It is understandable that the first compensation coefficient > the second compensation coefficient > the third compensation coefficient. This embodiment, by setting different compensation coefficients, can achieve fine-tuning of user preference parameters under different light intensities. For example, when the indoor light intensity is weak, i.e., meeting the first condition, the acquisition unit will determine a larger compensation coefficient, i.e., the first compensation coefficient. This coefficient can compensate for the cold feeling that may be caused by insufficient light, thereby guiding the thermostat to increase the temperature and ensure user comfort. Conversely, when the indoor light intensity is too strong, i.e., meeting the third condition, the acquisition unit will determine a smaller compensation coefficient, i.e., the third compensation coefficient. This coefficient can reflect the heat feeling that may be caused by excessive light, thereby guiding the thermostat to lower the temperature and prevent the user from feeling overheated. When the indoor light intensity is between the two, i.e., meeting the second condition, the acquisition unit will determine a moderate compensation coefficient, i.e., the second compensation coefficient, to achieve appropriate temperature adjustment. In this way, the communication terminal provided in this embodiment can more accurately adjust room environmental parameters according to the indoor light intensity.

[0091] Specifically, when determining and optimizing the initial environmental parameters based on the wall performance characteristic values ​​to obtain optimized environmental parameters, the process includes:

[0092] The room to be monitored is divided into several monitoring areas, and a unique identifier is generated for each monitoring area.

[0093] Wall performance data for each monitoring area are collected based on the unique identifier;

[0094] Feature extraction is performed on the wall performance data to obtain the wall performance feature value corresponding to each monitoring area;

[0095] Obtain the standard value of wall performance corresponding to the wall performance characteristic value;

[0096] The wall performance deviation is determined based on the wall performance characteristic values ​​and wall performance standard values;

[0097] Determine whether to optimize the initial environmental parameters based on the wall performance deviation.

[0098] If the wall performance deviation is greater than or equal to the wall performance deviation threshold, it is determined that the initial environmental parameters should be optimized.

[0099] Otherwise, it is determined that the initial environmental parameters will not be optimized.

[0100] In this embodiment, the wall performance characteristics include the wall's thermal insulation performance characteristics, heat insulation performance characteristics, and moisture-proof performance characteristics.

[0101] In this embodiment, when obtaining the wall performance deviation, the average difference between the thermal insulation performance characteristic value and the thermal insulation performance standard value corresponding to all monitoring areas is first calculated and recorded as the average thermal insulation performance deviation value. Then, the average difference between the thermal insulation performance characteristic value and the thermal insulation performance standard value corresponding to all monitoring areas is calculated and recorded as the average thermal insulation performance deviation value. Next, the average difference between the moisture-proof performance characteristic value and the moisture-proof performance standard value corresponding to all monitoring areas is calculated and recorded as the average moisture-proof performance deviation value. Afterward, according to preset weights, the average thermal insulation performance deviation value, the average thermal insulation performance deviation value, and the average moisture-proof performance deviation value are weighted and summed to obtain the wall performance deviation.

[0102] Understandably, when the wall performance deviation is greater than or equal to the wall performance deviation threshold, it means that the actual performance of the wall deviates significantly from the standard performance, and this deviation may have a significant impact on the room's environmental parameters. In this case, the optimization unit will optimize the initial environmental parameters based on the wall performance characteristic values. For example, if the wall's thermal insulation performance is poor, the initial temperature setting may need to be appropriately increased to achieve the user's desired temperature; if the wall's heat insulation performance is poor, the initial temperature setting may need to be lowered in hot weather to offset the influx of external heat. If the wall performance deviation is less than the wall performance deviation threshold, it indicates that the wall performance basically meets the standard and has a small impact on the room's environmental parameters. In this case, it is not necessary to optimize the initial environmental parameters; maintaining the initial environmental parameters is sufficient.

[0103] Specifically, when determining and optimizing the initial environmental parameters based on the wall performance characteristic values ​​to obtain optimized environmental parameters, the process further includes:

[0104] When it is determined that the initial environmental parameters should be optimized, the absolute value of the difference between the wall performance deviation and the wall performance deviation threshold is calculated and recorded as the absolute deviation.

[0105] The absolute offset is compared with the first absolute offset and the second absolute offset, and the optimization coefficient of the initial environmental parameters is determined based on the comparison result; wherein the first absolute offset is less than the second absolute offset;

[0106] When the absolute offset is less than or equal to the first absolute offset, the optimization coefficient is determined to be the first optimization coefficient;

[0107] When the absolute offset is greater than the first absolute offset and less than or equal to the second absolute offset, the optimization coefficient is determined to be the second optimization coefficient.

[0108] When the absolute offset is greater than the second absolute offset, the optimization coefficient is determined to be the third optimization coefficient;

[0109] The product of the optimization coefficient and the initial environmental parameter is used as the optimized environmental parameter.

[0110] Understandably, the order of the first, second, and third optimization coefficients is: First optimization coefficient < Second optimization coefficient < Third optimization coefficient. When the absolute deviation is small, i.e., less than or equal to the first absolute deviation, it indicates that the deviation between the wall performance and the standard performance is relatively small, and the impact on the initial environmental parameters is also small. In this case, a smaller first optimization coefficient is used to adjust the initial environmental parameters to achieve fine-tuning and make the environmental parameters more in line with actual needs. When the absolute deviation is between the first and second absolute deviations, the deviation of the wall performance has increased, and a moderate second optimization coefficient needs to be used for adjustment to more effectively compensate for the impact of the wall performance deviation on the environmental parameters. When the absolute deviation is greater than the second absolute deviation, it indicates that the deviation between the wall performance and the standard performance is large, and the impact on the environmental parameters is significant. In this case, a larger third optimization coefficient is needed to make a larger adjustment to the initial environmental parameters to ensure that the room environment reaches the user's expected level of comfort. By determining the optimization coefficients based on the absolute offset, the communication terminal in this embodiment can more accurately optimize the initial environmental parameters according to the wall performance, further improving the intelligence and precision of room environment adjustment and providing users with a more comfortable living experience.

[0111] Specifically, when analyzing the time and meteorological information and determining whether to adjust the optimized environmental parameters based on the analysis results, the process includes:

[0112] The time information includes morning, forenoon, noon, evening, and night;

[0113] The meteorological information includes the current outdoor temperature and the current outdoor humidity;

[0114] When the time information is morning or evening, calculate the temperature difference between the current outdoor temperature and the optimized temperature, and compare the temperature difference with a temperature difference threshold. When the temperature difference is greater than the temperature difference threshold, it is determined that the optimized environmental parameters need to be adjusted.

[0115] When the time information is morning, noon, or night, calculate the humidity difference between the current outdoor humidity and the optimized humidity, and compare the humidity difference with a humidity difference threshold. When the humidity difference is greater than the humidity difference threshold, it is determined that the optimized environmental parameters need to be adjusted.

[0116] It is understood that morning, forenoon, noon, evening, and night correspond to 6:00-8:00, 8:00-12:00, 12:00-14:00, 18:00-22:00, and 22:00-6:00 the next day, respectively. This embodiment, by considering the time factor, enables intelligent adjustment of room environmental parameters. For example, in the morning or evening, due to the lower outdoor temperature, a large temperature difference with the optimized indoor temperature may cause the user to feel cold. In this case, the judgment unit will determine that the initial temperature needs to be adjusted to increase the indoor temperature and ensure user comfort. Similarly, in the forenoon, noon, or night, due to potentially higher outdoor humidity, a large humidity difference with the optimized indoor humidity may cause indoor dampness, affecting user comfort. In this case, the judgment unit will also determine that the optimized humidity needs to be adjusted to reduce indoor humidity and keep the room dry. In this way, the communication terminal provided in this embodiment can intelligently adjust room environmental parameters according to different time periods and outdoor environmental conditions, providing users with a more comfortable living environment.

[0117] Specifically, when the processing unit calculates environmental impact factors based on user information and meteorological information, it includes:

[0118] The user information includes the number of users and their activity status;

[0119] The environmental impact factor is calculated based on the number of users, their activity status, the current outdoor temperature, and the current outdoor humidity.

[0120] Specifically, the environmental impact factor is obtained by the following formula:

[0121] ;

[0122] Where EIF represents the environmental impact factor; α, β, and γ represent weighting coefficients, and α+β+γ=1; U represents the number of users; ωi represents the impact index of the activity status of the i-th user; Ai represents the activity status coefficient of the i-th user; To represents the current outdoor temperature; Tp represents the optimized temperature; Ho represents the current outdoor humidity; and Hp represents the optimized humidity.

[0123] It is understood that user activity states include sitting, light activity, moderate activity, or heavy activity, with corresponding activity state coefficients A preferably set to 0.3, 0.5, 0.7, and 0.9, respectively. The Environmental Impact Factor (EIF) is an indicator that comprehensively considers the impact of user numbers, user activity states, and differences in indoor and outdoor temperature and humidity on the room environment. By introducing weighting coefficients α, β, and γ, this embodiment can weight the impact of different influencing factors on user comfort, thereby obtaining a more accurate EIF value. For example, in densely populated and frequently active rooms, the number of users and their activity states may have a more significant impact on the environment. In this case, the value of the weighting coefficient α can be adjusted to increase the proportion of user information and activity states in the EIF, thus more accurately reflecting the impact of these factors on the room environment. Simultaneously, by calculating the difference between the current outdoor temperature and the optimized temperature, and the difference between the current outdoor humidity and the optimized humidity, and incorporating them into the calculation of the EIF, this embodiment can achieve timely response to changes in the indoor and outdoor environment, thereby adjusting room environmental parameters according to actual needs.

[0124] Specifically, when determining the adjustment coefficients for the optimized environmental parameters based on the environmental impact factors and obtaining the final environmental parameters, the process includes:

[0125] The environmental impact factors are compared with historical data, and the adjustment coefficients of the optimized environmental parameters are determined based on the comparison results.

[0126] When there is a historical environmental impact factor in the historical data that is the same as the environmental impact factor, the historical adjustment coefficient corresponding to the historical environmental impact factor is used as the adjustment coefficient of the optimized environmental parameter, and the product of the historical adjustment coefficient and the optimized environmental parameter is used as the final environmental parameter.

[0127] When there is no historical environmental impact factor in the historical data that is the same as the environmental impact factor, the similarity between the environmental impact factor and the historical data is calculated one by one, and the maximum similarity is extracted. The adjustment coefficient of the optimized environmental parameter is determined based on the maximum similarity, and the final environmental parameter is obtained.

[0128] Understandably, historical data includes historical environmental impact factors and their corresponding historical adjustment coefficients. By comparing this historical data with the current environmental impact factors, the processing unit can find the historical record closest to the current situation, and thus use its adjustment coefficient to quickly adjust the optimized environmental parameters. When encountering new or more unique environmental impact factors, the processing unit can calculate similarity to find the historical record closest to the current situation and determine the adjustment coefficient accordingly to ensure the accuracy and rationality of the adjustment results. In this way, the communication terminal provided in this embodiment can fully utilize historical data and experience to achieve intelligent and precise adjustment of room environmental parameters.

[0129] Understandably, similarity is preferably obtained through Euclidean distance. By calculating similarity, the processing unit can find the historical records that are closest to the current environmental influencing factors, and thus use their adjustment coefficients to ensure that the adjustment of environmental parameters is both fast and accurate.

[0130] Specifically, when the processing unit determines the adjustment coefficient of the optimized environment parameters based on the maximum similarity and obtains the final environment parameters, it includes:

[0131] The maximum similarity is compared with the first maximum similarity and the second maximum similarity, and the adjustment coefficient of the optimized environment parameter is determined based on the comparison result; wherein the first maximum similarity is less than the second maximum similarity;

[0132] When the maximum similarity is less than or equal to the first maximum similarity, the adjustment coefficient is determined to be the first adjustment coefficient;

[0133] When the maximum similarity is greater than the first maximum similarity and less than the second maximum similarity, the adjustment coefficient is determined to be the second adjustment coefficient;

[0134] When the maximum similarity is greater than or equal to the second maximum similarity, the adjustment coefficient is determined to be the third adjustment coefficient;

[0135] The first adjustment coefficient, the second adjustment coefficient, and the third adjustment coefficient increase sequentially.

[0136] It is understandable that the first, second, and third adjustment coefficients correspond to different adjustment ranges. When the maximum similarity is low, i.e., less than or equal to the first maximum similarity, it indicates that the current environmental impact factor differs significantly from historical records. In this case, a more conservative adjustment strategy is needed to avoid discomfort caused by over-adjustment; therefore, the adjustment coefficient is determined to be a smaller first adjustment coefficient. When the maximum similarity is high but has not yet reached the second maximum similarity, it indicates that the current environmental impact factor is close to some historical records, but still has differences. In this case, a moderate adjustment strategy can be adopted to achieve a moderate adjustment of the optimized environmental parameters; therefore, the adjustment coefficient is determined to be a moderate second adjustment coefficient. Finally, when the maximum similarity is very high, i.e., greater than or equal to the second maximum similarity, it indicates that the current environmental impact factor is almost identical to a certain historical record. In this case, the adjustment coefficient corresponding to that historical record can be directly referenced to achieve a fast and accurate adjustment of the optimized environmental parameters; therefore, the adjustment coefficient is determined to be a larger third adjustment coefficient. In this way, the communication terminal provided in this embodiment can intelligently determine the adjustment coefficient according to different similarity situations, thereby ensuring that the adjustment of room environmental parameters is both accurate and efficient.

[0137] Those skilled in the art will understand that embodiments of this application can be provided as methods, systems, or computer program goods. Therefore, this application can take the form of a completely hardware embodiment, a completely software embodiment, or an embodiment combining software and hardware aspects. Furthermore, this application can take the form of a computer program goods embodied on one or more computer-usable storage media (including, but not limited to, disk storage, CD-ROM, optical storage, etc.) containing computer-usable program code.

[0138] This application is described with reference to flowchart illustrations and / or block diagrams of methods, apparatus (systems), and computer program goods according to embodiments of this application. It will be understood that each block of the flowchart illustrations and / or block diagrams, and combinations of blocks in the flowchart illustrations and / or block diagrams, can be implemented by computer program instructions. These computer program instructions can be provided to a processor of a general-purpose computer, special-purpose computer, embedded processor, or other programmable data processing apparatus to produce a machine, such that the instructions, which execute via the processor of the computer or other programmable data processing apparatus, generate instructions for implementing the flowchart... Figure 1 One or more processes and / or boxes Figure 1 A device that provides the functions specified in one or more boxes.

[0139] These computer program instructions may also be stored in a computer-readable storage medium that can direct a computer or other programmable data processing device to function in a particular manner, such that the instructions stored in the computer-readable storage medium produce an article of manufacture including instruction means, which are implemented in a process Figure 1 One or more processes and / or boxes Figure 1 The function specified in one or more boxes.

[0140] These computer program instructions may also be loaded onto a computer or other programmable data processing equipment to cause a series of operational steps to be performed on the computer or other programmable equipment to produce a computer-implemented process, thereby providing instructions that execute on the computer or other programmable equipment for implementing the process. Figure 1 One or more processes and / or boxes Figure 1 The steps of the function specified in one or more boxes.

[0141] Finally, it should be noted that the above embodiments are only used to illustrate the technical solutions of the present invention and not to limit it. Although the present invention has been described in detail with reference to the above embodiments, those skilled in the art should understand that modifications or equivalent substitutions can still be made to the specific implementation of the present invention. Any modifications or equivalent substitutions that do not depart from the spirit and scope of the present invention should be covered within the scope of protection of the claims of the present invention.

Claims

1. A communication terminal compatible with smart room control, characterized in that, include: The system comprises a telephone terminal, a room control terminal, and a room control system; the telephone terminal interacts with the room control terminal via the SPI protocol; the room control terminal is connected to the room control system, and the room control system includes a main control module; wherein the main control module includes a data acquisition unit, a judgment and optimization unit, a judgment and adjustment unit, and a storage unit; The acquisition unit is configured to determine the room to be monitored, acquire room information and user preference information of the room to be monitored, determine the initial environmental parameters of the room to be monitored based on the room information and user preference information, and adjust the room to be monitored based on the initial environmental parameters; wherein, the environmental parameters include initial temperature and initial humidity; The judgment and optimization unit is configured to collect wall performance data of the room to be monitored, extract features from the wall performance data to obtain wall performance feature values, and judge and optimize the initial environmental parameters based on the wall performance feature values ​​to obtain optimized environmental parameters. The judgment and adjustment unit is configured to collect time information and meteorological information of the location of the room to be monitored, and analyze the time information and meteorological information. Based on the analysis results, it determines whether to adjust the optimized environmental parameters. If so, it collects user information inside the room to be monitored, calculates environmental impact factors based on user information and meteorological information, determines the adjustment coefficient of the optimized environmental parameters based on the environmental impact factors, and obtains the final environmental parameters. The storage unit is configured to store the environmental impact factors; When determining and optimizing the initial environmental parameters based on the wall performance characteristic values, the optimized environmental parameters include: The room to be monitored is divided into several monitoring areas, and a unique identifier is generated for each monitoring area. Wall performance data for each monitoring area are collected based on the unique identifier; Feature extraction is performed on the wall performance data to obtain the wall performance feature value corresponding to each monitoring area; Obtain the standard value of wall performance corresponding to the wall performance characteristic value; The wall performance deviation is determined based on the wall performance characteristic values ​​and wall performance standard values; When obtaining the wall performance deviation, firstly, the average difference between the thermal insulation performance characteristic value and the thermal insulation performance standard value corresponding to all monitoring areas is calculated and recorded as the average thermal insulation performance deviation value; then, the average difference between the thermal insulation performance characteristic value and the thermal insulation performance standard value corresponding to all monitoring areas is calculated and recorded as the average thermal insulation performance deviation value; next, the average difference between the moisture-proof performance characteristic value and the moisture-proof performance standard value corresponding to all monitoring areas is calculated and recorded as the average moisture-proof performance deviation value. According to the preset weights, the average thermal insulation performance deviation value, the average thermal insulation performance deviation value, and the average moisture-proof performance deviation value are weighted and summed to obtain the wall performance deviation value. Determine whether to optimize the initial environmental parameters based on the wall performance deviation. If the wall performance deviation is greater than or equal to the wall performance deviation threshold, it is determined that the initial environmental parameters should be optimized. Otherwise, it is determined that the initial environmental parameters will not be optimized.

2. The communication terminal compatible with intelligent room control according to claim 1, characterized in that, When determining the initial environmental parameters of the room to be monitored based on the room information and user preference information, and adjusting the room to be monitored based on the initial environmental parameters, the process includes: The room information and user preference information are analyzed separately to obtain indoor light intensity and preference parameter values; The indoor light intensity is compared with the indoor light intensity threshold, and the initial environmental parameters are determined based on the comparison result. When the indoor light intensity is within the indoor light intensity threshold, the preferred parameter value is used as the initial environmental parameter of the room to be monitored, and the parameter is adjusted according to the preferred parameter value. When the indoor light intensity is outside the indoor light intensity threshold, a compensation coefficient for the preference parameter value is determined based on the indoor light intensity, and the product of the preference parameter value and the compensation coefficient is used as the initial environmental parameter of the room to be monitored.

3. The communication terminal compatible with intelligent room control according to claim 2, characterized in that, When determining the compensation coefficient for the preference parameter value based on the indoor light intensity, the following are included: The indoor light intensity is compared with the first indoor light intensity and the second indoor light intensity, and the compensation coefficient of the preference parameter value is determined based on the comparison result; wherein the first indoor light intensity is less than the second indoor light intensity; A compensation coefficient range is defined, wherein the compensation coefficient range includes a first compensation coefficient, a second compensation coefficient, and a third compensation coefficient; When the first condition is identified, the compensation coefficient is determined to be the first compensation coefficient; When the second condition is identified, the compensation coefficient is determined to be the second compensation coefficient; When the third condition is identified, the compensation coefficient is determined to be the third compensation coefficient; Wherein, the first condition is that the indoor light intensity is less than or equal to the first indoor light intensity; the second condition is that the indoor light intensity is greater than the first indoor light intensity and less than the second indoor light intensity; and the third condition is that the indoor light intensity is greater than or equal to the second indoor light intensity.

4. The communication terminal compatible with intelligent room control according to claim 1, characterized in that, When determining and optimizing the initial environmental parameters based on the wall performance characteristic values, and obtaining the optimized environmental parameters, the process further includes: When it is determined that the initial environmental parameters should be optimized, the absolute value of the difference between the wall performance deviation and the wall performance deviation threshold is calculated and recorded as the absolute deviation. The absolute offset is compared with the first absolute offset and the second absolute offset, and the optimization coefficient of the initial environmental parameters is determined based on the comparison result; wherein the first absolute offset is less than the second absolute offset; When the absolute offset is less than or equal to the first absolute offset, the optimization coefficient is determined to be the first optimization coefficient; When the absolute offset is greater than the first absolute offset and less than or equal to the second absolute offset, the optimization coefficient is determined to be the second optimization coefficient. When the absolute offset is greater than the second absolute offset, the optimization coefficient is determined to be the third optimization coefficient; The product of the optimization coefficient and the initial environmental parameter is used as the optimized environmental parameter.

5. The communication terminal compatible with intelligent room control according to claim 4, characterized in that, When analyzing the time and meteorological information, and determining whether to adjust the optimized environmental parameters based on the analysis results, the process includes: The time information includes morning, forenoon, noon, evening, and night; The meteorological information includes the current outdoor temperature and the current outdoor humidity; When the time information is morning or evening, calculate the temperature difference between the current outdoor temperature and the optimized temperature, and compare the temperature difference with a temperature difference threshold. When the temperature difference is greater than the temperature difference threshold, it is determined that the optimized environmental parameters need to be adjusted. When the time information is morning, noon, or night, the humidity difference between the current outdoor humidity and the optimized humidity is calculated, and the humidity difference is compared with a humidity difference threshold. When the humidity difference is greater than the humidity difference threshold, it is determined that the optimized environmental parameters need to be adjusted.

6. The communication terminal compatible with intelligent room control according to claim 1, characterized in that, When calculating environmental impact factors based on user information and meteorological information, the following are included: The user information includes the number of users and their activity status; The environmental impact factor is calculated based on the number of users, their activity status, the current outdoor temperature, and the current outdoor humidity.

7. The communication terminal compatible with intelligent room control according to claim 6, characterized in that, The environmental impact factors are obtained using the following formula: ； Where EIF represents the environmental impact factor; α, β, and γ represent weighting coefficients, and α+β+γ=1; U represents the number of users; ωi represents the impact index of the activity status of the i-th user; Ai represents the activity status coefficient of the i-th user; To represents the current outdoor temperature; Tp represents the optimized temperature; Ho represents the current outdoor humidity; and Hp represents the optimized humidity.

8. The communication terminal compatible with intelligent room control according to claim 7, characterized in that, When determining the adjustment coefficients for the optimized environmental parameters based on the environmental impact factors and obtaining the final environmental parameters, the process includes: The environmental impact factors are compared with historical data, and the adjustment coefficients of the optimized environmental parameters are determined based on the comparison results. When there is a historical environmental impact factor in the historical data that is the same as the environmental impact factor, the historical adjustment coefficient corresponding to the historical environmental impact factor is used as the adjustment coefficient of the optimized environmental parameter, and the product of the historical adjustment coefficient and the optimized environmental parameter is used as the final environmental parameter. When there is no historical environmental impact factor in the historical data that is the same as the environmental impact factor, the similarity between the environmental impact factor and the historical data is calculated one by one, and the maximum similarity is extracted. The adjustment coefficient of the optimized environmental parameter is determined based on the maximum similarity, and the final environmental parameter is obtained.

9. The communication terminal compatible with intelligent room control according to claim 8, characterized in that, When determining the adjustment coefficients of the optimized environmental parameters based on the maximum similarity and obtaining the final environmental parameters, the process includes: The maximum similarity is compared with the first maximum similarity and the second maximum similarity, and the adjustment coefficient of the optimized environment parameter is determined based on the comparison result; wherein, the first maximum similarity is less than the second maximum similarity; When the maximum similarity is less than or equal to the first maximum similarity, the adjustment coefficient is determined to be the first adjustment coefficient; When the maximum similarity is greater than the first maximum similarity and less than the second maximum similarity, the adjustment coefficient is determined to be the second adjustment coefficient; When the maximum similarity is greater than or equal to the second maximum similarity, the adjustment coefficient is determined to be the third adjustment coefficient; The first adjustment coefficient, the second adjustment coefficient, and the third adjustment coefficient increase sequentially.

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