Smart home control system based on touch display screen

Abstract

The invention relates to the technical field of smart home, in particular to a smart home control system based on a touch display screen. Comprising a touch display screen, a pressure sensing analysis module, a region division module, a state analysis module and a light analysis module which are connected in sequence, the touch display screen is used for touching the finger pulp of a user to obtain pressure-sensitive capacitance data; the pressure sensing analysis module is used for acquiring pressure sensing capacitance data of the touch display screen and determining whether pressure sensing change exists in the touch display screen or not according to the pressure sensing capacitance data; the region division module is used for analyzing pressure-sensitive capacitance data and determining a central region and a deviation region of a finger pulp when pressure-sensitive change exists; the state analysis module is used for determining a sliding state according to the central area and the deviation area; and the light analysis module is used for predicting the possibility of light selection according to the sliding state, determining a final pointing area according to the possibility of light selection, and performing high-definition display on the final pointing area to prompt a user to perform selection.

Description

Technical Field

[0001] The present application relates to the field of smart home technology, and in particular to a smart home control system based on a touch display screen. Background Art

[0002] With the development of technologies such as the Internet of Things and artificial intelligence, smart home control systems have become more intelligent, easy to use and economical, which has promoted their popularity and development. Through intelligent control, users can create a more comfortable and pleasant living environment and improve the quality of life. Lighting adjustment is the most common function in smart home control systems. Through intelligent control, it can meet the actual needs of users and reduce unnecessary energy consumption.

[0003] However, there are some problems with using smart home control systems to control lighting, such as accuracy issues, which greatly affects the user experience. Being in an environment with inappropriate lighting for a long time will also have a certain impact on the user experience, such as poor comfort, dizziness, and lack of atmosphere. Summary of the invention

[0004] The present application provides a smart home control system based on a touch display screen to solve the above problems.

[0005] The present application provides a smart home control system based on a touch display screen, the system comprising a touch display screen, a pressure analysis module, a region division module, a state analysis module, and a lighting analysis module; The touch display screen, the pressure analysis module, the area division module, the state analysis module, and the light analysis module are connected in sequence; The touch screen is used to contact the fingertips of the user to obtain pressure-sensitive capacitance data; The pressure-sensing analysis module is used to obtain pressure-sensing capacitance data of the touch display screen, and determine whether there is a pressure-sensing change on the touch display screen according to the pressure-sensing capacitance data; The area division module is used to analyze the pressure-sensing capacitance data and determine the center area and the deviation area of ​​the fingertip when there is a pressure change; The state analysis module is used to determine the sliding state according to the central area and the deviation area; The light analysis module is used to predict the possibility of light selection according to the sliding state, and determine the final pointing area according to the possibility of light selection and highlight the final pointing area to prompt the user to make a selection.

[0006] Through this solution, through modules such as pressure analysis, area division, state analysis and lighting analysis, the focus area and deviation area of ​​the user's attention can be accurately determined according to the pressure and capacitance changes of the user's fingertips, and then accurate lighting adjustment suggestions can be provided. It can intelligently select suitable lighting according to the user's needs and time information to meet the user's actual needs while reducing unnecessary energy consumption. Through high-definition display, the user's visual perception and experience of lighting is improved, allowing users to more intuitively select and adjust lighting, thereby enhancing the user's experience. It can automatically adjust the display method according to the user's sliding direction, frequency, acceleration and other information to adapt to the needs and habits of different users. Through the touch display and stepless adjustment function, users can control the lighting more conveniently without complex operations and professional knowledge.

[0007] Optionally, when analyzing the pressure-sensing capacitance data to determine the center area and the deviation area of ​​the fingertip, the area division module is specifically used to: Obtaining a light start and stop record, and determining a touch operation record according to the light start and stop record; Analyze the touch operation record to determine historical capacitance data, analyze the historical capacitance data, determine a touch capacitance variation range according to the analysis result, and determine the center area of ​​the user according to the touch capacitance variation range; Based on the central area, analyzing the pressure-sensitive capacitance data, determining the central area and the real-time capacitance change range; The deviation area is determined according to the real-time capacitance variation range and the central area.

[0008] Through this solution, by collecting and recording the start and stop operations of all lights, and analyzing the user's touch operation records based on these records, the user's touch position and action can be accurately located, thereby determining the center area. Since the touch operation record is a short-term record, such as the touch operation history after the touch screen is turned on, it can adapt to different user habits and finger sizes. The analyzed center area is of different sizes. Through the analysis of the touch operation records, a series of historical capacitance data can be determined. According to the analysis results of the historical capacitance data, the touch capacitance change range can be adjusted in real time, thereby adjusting the determination of the center area in real time. Based on the center area and the current pressure-sensitive capacitance data, the deviation area can be further determined. The deviation area is based on the center area and the current pressure-sensitive capacitance data, and the real-time capacitance change range of the extension of the center area is further determined according to the area of ​​contact area change.

[0009] Optionally, when determining the sliding state according to the central area and the deviation area, the state analysis module is specifically used to: Determining the change end of the deviation area and the contact change of each change end according to the real-time capacitance change range; According to the contact change, determining the contact incremental change end and the change speed, and using the contact incremental change end as the sliding direction; The sliding direction and the changing speed are determined as the sliding state.

[0010] Through this solution, by analyzing the real-time capacitance change data, the change end of the deviation area and the contact change of each change end can be accurately determined, so as to achieve accurate positioning of the user's finger on the touch screen. By identifying and analyzing the trend and speed of the contact change, the sliding direction and change speed can be determined in real time to determine the real-time action of the user's finger on the touch screen. In this way, different functions can be bound to different sliding directions, including but not limited to: realizing the light color temperature adjustment by sliding up and down, the vertical color temperature adjustment bar pops up on the UI interface, and the light brightness adjustment by sliding left and right, and the horizontal brightness adjustment bar pops up on the UI interface.

[0011] Optionally, when the light analysis module predicts the possibility of light selection according to the sliding state, it is specifically used to: Obtaining a user portrait, and retrieving the user's lighting usage habits based on the user portrait; Acquire current time information, and filter the lighting usage habits according to the current time information to obtain currently applicable lighting; Determine the adjustment range according to the currently applicable light; Determine the real-time instantaneous speed according to the change speed, and determine the instantaneous acceleration at each change moment according to the real-time instantaneous speed; For the instantaneous acceleration at each changing moment, the instantaneous acceleration at any changing moment is subtracted from the instantaneous acceleration at the previous changing moment to obtain a number of acceleration changes; According to the plurality of acceleration changes, the sliding direction and the adjustment range, possible lighting selections are predicted.

[0012] Through this solution, possible lighting choices can be predicted based on the user's sliding status and real-time feedback, thereby providing personalized lighting recommendations to meet the user's personalized needs. Through the prediction of the acceleration change, the lighting can be adjusted quickly, and functions such as magnified display can be provided on the adjustment bar, allowing users to more accurately adjust the lighting effects they want, improving the convenience of operation; it can provide suitable lighting and corresponding adjustment ranges based on current time information and user usage habits, creating a comfortable and cozy lighting atmosphere and enhancing the user's comfort experience; it can analyze the user's lighting usage habits in real time and predict possible lighting choices, helping users to manage and control the lighting environment more efficiently.

[0013] Optionally, the smart home control system based on the touch display screen further includes an optimal lighting determination module, which is used to: Sending a calibration signal to the touch display screen and receiving a calibration selection from the user; Determining whether to calibrate immediately according to the calibration selection; If immediate calibration is determined, obtain the apartment design drawing to determine the distribution location of the lamps and the apartment layout; Obtaining a lamp model, and determining light divergence characteristics of each lamp according to the lamp model; Determine appropriate lighting at different times according to the distribution positions of the lamps, the distribution of apartment types and the light divergence characteristics of each lamp, display according to a preset display speed and receive the calibration decision of the user; determining the optimal lighting at each moment based on the calibration decision; The optimal lighting determination module is connected to the lighting analysis module, so that when the lighting analysis module screens the lighting usage habits according to the current time information and obtains the currently applicable lighting, it is used to: The best light at the current moment is determined according to the current time information, and the best light is used as the currently applicable light.

[0014] Through this solution, by waiting for the user's calibration selection and deciding whether to calibrate immediately based on the calibration selection, the efficiency of calibration can be improved, the calibration time can be shortened, and the response speed and efficiency can be improved. According to the obtained lamp distribution location, household distribution and the light divergence characteristics of each lamp, the appropriate light at different times can be determined and displayed according to the preset display speed, thereby providing users with personalized lighting experience, meeting the personalized needs of users, and improving the comfort and satisfaction of users. The best light determination module is connected to the light analysis module, so that when the light analysis module screens the light usage habits according to the current time information and obtains the currently applicable light, it can determine the best light at the current moment according to the current time information, and use the best light as the currently applicable light. The concept of intelligent management is integrated, and by connecting with the best light determination module, the lighting environment can be managed and controlled more intelligently, thereby improving the intelligence level of the home.

[0015] Optionally, when determining the best light at each moment according to the calibration decision, the best light determination module is specifically used to: Obtaining the lighting usage data of the user within a preset time period; Analyze the lighting usage data to determine lighting usage time and actual lighting data; Determining the user's sensitivity to light changes according to the actual light data; According to the light change sensitivity and the calibration decision, the optimal light for the light use time is adjusted to obtain the optimal light in actual use, so that the light analysis module determines the optimal light at the current moment according to the current time information and uses the optimal light as the currently applicable light, and is used to: According to the current time information, the best light actually in use at the current moment is determined, and the best light actually in use is used as the currently applicable light.

[0016] Through this solution, by acquiring and analyzing the user's lighting data, the user's lighting habits and lighting needs can be understood more accurately, so that the lighting can be adjusted more accurately and the control accuracy and efficiency can be improved. According to the user's sensitivity to lighting changes, the user can be provided with lighting that better meets their needs, realizing personalized lighting control. By adjusting and determining the best lighting at each moment in real time, the user can be provided with a more comfortable and personalized lighting experience, thereby improving user satisfaction. The whole process incorporates the concept of intelligent management. By connecting with the optimal lighting determination module, the lighting environment can be managed and controlled more intelligently, improving the intelligence level of the home.

[0017] Optionally, the smart home control system based on the touch display screen further includes a carousel adjustment module, which is used to: analyzing the calibration decisions and determining a decision time for each calibration decision; Determine the change time of each light brightness according to the preset display speed; Determining the user's light switching reaction degree according to the decision time and the change time; According to the light switching reaction degree, the preset display speed is adjusted to obtain the actual light carousel speed and display is performed according to the actual light carousel speed.

[0018] Through this solution, the carousel adjustment module can intelligently adjust the preset display speed according to the user's calibration decision, the change time of light brightness and color, the light switching reaction degree and other information, obtain the actual light carousel speed and display it, and realize intelligent management. By analyzing the user's light switching reaction degree, it can provide users with a light display effect that better meets their needs and realize a personalized experience. Displaying according to the actual light carousel speed can ensure the smoothness of the display and improve the user experience and satisfaction.

[0019] Optionally, the smart home control system based on the touch display screen further includes an audio analysis module for: Obtaining an audio control instruction from the user, analyzing the audio control instruction, and determining a lighting type; Performing a light color gamut range rotation according to the light type and the actual light rotation speed and receiving a color gamut decision; Determine the final display lighting according to the color gamut decision; The audio analysis module is also connected to the lighting analysis module, and is used to send the audio control instruction and the final display lighting to the lighting analysis module, so that the lighting analysis module adjusts the user portrait according to the audio control instruction and the final display lighting.

[0020] Through this solution, the audio analysis module can obtain and analyze the user's audio control instructions, thereby realizing intelligent control of the brightness and type of lights. Improve the intelligence level of the system and realize more accurate and flexible lighting control. By analyzing the user's audio control instructions and the degree of light switching response, users can be provided with lighting effects that better meet their needs. This helps to achieve a personalized experience and meet the needs of different users for light brightness and type. The audio analysis module can receive and process the user's audio control instructions in real time, thereby realizing real-time adjustment and change of lights. Improve the response speed and efficiency of the system, and provide users with a smoother and more convenient lighting experience.

[0021] Optionally, when acquiring the user portrait, the lighting analysis module is specifically used to: Acquiring the user's first lamp usage data; Analyze the initial lamp use data to determine the start and stop conditions of the lamps and the start and stop times of each lamp; According to the start and stop time of each lamp, determine the main lamp to be started at each moment and the accompanying lamp at each moment; A user portrait is generated based on the start and stop conditions of the lamps, the main lamps started at each moment, and the accompanying lamps at each moment.

[0022] Through this solution, by obtaining the user's first lighting data, analyzing the start and stop conditions of the lamps and the start and stop times of each lamp, it is possible to achieve refined control of the lamps and provide lighting effects that better meet the needs of the user. By generating user portraits based on the main lamp started at each moment and the accompanying lamps at each moment, it is possible to more accurately understand the user's lighting needs for different scenes and moments, thereby providing a more personalized and comfortable lighting experience. Based on the user portrait, it is possible to intelligently recommend lighting solutions and lamp configurations suitable for the user to form a comfortable lighting atmosphere, helping users to better use and enjoy the convenience and comfort brought by the smart home control system.

[0023] Optionally, the smart home control system based on the touch display screen further includes a continuous monitoring module, and after predicting the possibility of light selection according to the plurality of acceleration changes, the sliding direction and the adjustment range, the continuous monitoring module is used to: S101. Obtaining capacitance change data after predicting possible lighting selection; S102. Analyze and predict the capacitance change after the light selection may occur, and determine whether there is a change in the sliding direction; S103. If it is determined that there is a change, the direction change range is determined based on the capacitance change analysis results; S104. Determine the user's ideal selection range according to the direction change range; S105. Obtain the frequency of change within a preset period; S106. According to the change frequency and the ideal selection range, determine the enlarged area and enlarge the enlarged area for display and adjust the sliding sensitivity according to the change frequency; After the zoomed-in area is zoomed in and displayed and the sliding sensitivity is adjusted according to the change frequency, the following steps are used to determine whether to continue zooming in: S201, acquiring and analyzing the capacitance change data after amplification to determine whether the sliding direction still changes after amplification; S202: If it is determined that the amplified sliding direction still changes, repeat steps S103 to S106 until the amplified capacitance change data is zero.

[0024] Through this solution, by acquiring and analyzing the capacitance change data, we can more accurately understand the user's operating force and sliding distance on the touch screen, so as to achieve more refined control of the light and provide a lighting effect that better meets the needs of the user. According to the user's operating habits and preferences, the lighting control and user experience can be continuously optimized to provide a more personalized and comfortable lighting experience. By analyzing the user's operating frequency and ideal selection range, the area that needs to be enlarged can be determined and enlarged for display, and the sliding sensitivity can be adjusted to help users better use and enjoy the convenience and comfort brought by the smart home control system. Through repeated adjustments and optimizations, the needs of users can be continuously met. BRIEF DESCRIPTION OF THE DRAWINGS

[0025] 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.

[0026] Figure 1 A schematic diagram of an application scenario provided for an embodiment of the present application; Figure 2 A schematic diagram of the structure of a smart home control system based on a touch display screen is provided in one embodiment of the present application. DETAILED DESCRIPTION

[0027] In order to make the purpose, technical scheme and advantages of the embodiments of the present application clearer, the technical scheme 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 creative work are within the scope of protection of this application.

[0028] In addition, the term "and / or" in this article is only a description of the association relationship of associated objects, indicating that there can be three relationships. For example, A and / or B can represent: A exists alone, A and B exist at the same time, and B exists alone. In addition, the character " / " in this article, unless otherwise specified, generally means that the associated objects before and after are in an "or" relationship.

[0029] The embodiments of the present application are further described in detail below in conjunction with the drawings in the specification.

[0030] Lighting adjustment is the most common function in smart home control systems. Through intelligent control, it can meet the actual needs of users and reduce unnecessary energy consumption. However, there are some problems in using smart home control systems to control lighting, such as accuracy issues, which greatly affects the user experience. Being in an environment with inappropriate lighting for a long time will also have a certain impact on the user experience, such as poor comfort, dizziness, and lack of atmosphere.

[0031] Based on this, the present application provides a smart home control system based on a touch screen, through which the user can interact directly with the system without complicated operation steps. The pressure analysis module can obtain the user's pressure change, further enhancing the interactivity of the user interface. When there is a pressure change, the area division module can analyze the pressure capacitance data to determine the center area and deviation area of ​​the user's fingertips. The precise recognition capability enables the system to better understand the user's operation and improve the accuracy and efficiency of the operation. The state analysis module can determine the sliding state based on the center area and the deviation area. The state analysis module enables the system to adapt to various user operations and provide a personalized interactive experience. The lighting analysis module can predict the possibility of lighting selection based on the sliding state, and determine the final pointing area based on the lighting selection and display the final pointing area in a high-definition manner to prompt the user to make a selection, which can attract the user's attention and improve the efficiency of interaction and user experience.

[0032] Figure 1A schematic diagram of an application scenario provided by the present application, when performing smart home lighting control adjustment. Specifically, the system provided by the present application is applied to any server, the server interacts with the touch screen, the touch screen is used to contact the user's fingertips to obtain pressure-sensitive capacitance data, and the server includes a pressure-sensitive analysis module, a region division module, a state analysis module, and a light analysis module. The pressure-sensitive analysis module is used to obtain the pressure-sensitive capacitance data of the touch screen, and determine whether the touch screen has a pressure change according to the pressure-sensitive capacitance data. When there is a pressure change, the region division module is used to analyze the pressure-sensitive capacitance data to determine the center area and the deviation area of ​​the fingertips. The state analysis module determines the sliding state according to the center area and the deviation area. The light analysis module predicts the possibility of light selection according to the sliding state, and determines the final pointing area according to the possibility of light selection and displays the final pointing area in a high-definition manner to prompt the user to make a selection. The interactivity of the user interface is enhanced, the accuracy and efficiency of the operation are improved, various user operations are adapted, and a personalized interactive experience is provided. The user can interact with the system directly through the touch screen without complicated operation steps. The pressure analysis module can obtain the user's pressure change, further enhancing the interactivity of the user interface. The accurate recognition capability enables the system to better understand the user's operation, thereby attracting the user's attention and improving the efficiency of interaction and user experience. The specific implementation method can refer to the following embodiments.

[0033] Figure 2 This is a schematic diagram of a smart home control system based on a touch screen provided in an embodiment of the present application. This embodiment can be applied to the server in the above scenario. Figure 2 As shown, the smart home control system 200 based on the touch display screen of this embodiment includes: a touch display screen 201, a pressure analysis module 202, an area division module 203, a state analysis module 204, and a light analysis module 205; The touch screen 201, the pressure analysis module 202, the area division module 203, the state analysis module 204, and the light analysis module 205 are connected in sequence; the touch screen 201 is used to contact the user's fingertips to obtain pressure capacitance data; the pressure analysis module 202 is used to obtain the pressure capacitance data of the touch screen, and determine whether there is a pressure change on the touch screen based on the pressure capacitance data; the area division module 203 is used to analyze the pressure capacitance data when there is a pressure change, and determine the center area and the deviation area of ​​the fingertips; the state analysis module 204 is used to determine the sliding state based on the center area and the deviation area; the light analysis module 205 is used to predict the possibility of light selection based on the sliding state, and determine the final pointing area based on the possibility of light selection and display the final pointing area in a high-definition manner to prompt the user to make a selection.

[0034] The touch display screen 201 may be a capacitive touch screen that can receive user touch operations, such as a tablet, a smart central control screen, a magic control switch, etc.

[0035] The pressure-sensitive capacitance data may be specific data reflecting the pressure of the user's fingertips on the touch display screen, the capacitance change, and the capacitance generation range change.

[0036] The central area may be divided according to the position area of ​​the user's fingertips determined by the pressure-sensitive capacitance data, and may be an area where the fingertips and the touch display screen will not be separated during the sliding process.

[0037] The deviation area can be the position area of ​​the fingertip deviating from the central area determined according to the pressure sensing capacitance data when there is a pressure change. The deviation area surrounds the central area, such as the pressure change caused by pressing down on the left side of the fingertip and lifting up on the right side.

[0038] The sliding state may be the user's current operation state determined according to the user's sliding state and the selected light color, brightness, etc., such as sliding start, sliding acceleration, sliding deceleration, sliding end, etc.

[0039] The lighting selection may be a possible lighting selection predicted based on information such as the user's sliding status and the currently applicable lighting. The possible lighting selection refers to a range on the adjustment bar, such as cool tones, warm tones, color temperature 5000K~6500K, brightness 10%~20%, etc.

[0040] High-definition display can be a display method determined by information such as applicable lighting and adjustment range, which is used to enhance the user's visual perception and experience of lighting, such as enlarging the range of possible adjustment bars for lighting selection.

[0041] Specifically, when adjusting according to the user's sliding status and the selected light color, brightness, etc., the brightness and color of the existing lights can be adjusted infinitely. However, in the existing light adjustment, people cannot accurately select the ideal light brightness and color to complete the atmosphere matching of different lights in the room or to achieve lighting needs. This also makes the infinite adjustment function just a decoration. This rough light adjustment accuracy also reduces the user experience and increases the difficulty of adjustment.

[0042] The user touches the fingertips through the touch screen 201, and the pressure analysis module 202 obtains the pressure capacitance data and determines whether there is a pressure change. When there is a pressure change, the area division module 203 determines the center area and the deviation area of ​​the fingertips according to the pressure capacitance data. The state analysis module 204 determines the sliding state according to the center area and the deviation area. The lighting analysis module 205 predicts the possible lighting selection according to the judgment of the state analysis module, and determines the final pointing area according to the predicted lighting selection, and displays the area in a high-definition manner to prompt the user to make a selection.

[0043] Through this solution, through modules such as pressure analysis, area division, state analysis and lighting analysis, the focus area and deviation area of ​​the user's attention can be accurately determined according to the pressure and capacitance changes of the user's fingertips, and then accurate lighting adjustment suggestions can be provided. It can intelligently select suitable lighting according to the user's needs and time information to meet the user's actual needs while reducing unnecessary energy consumption. Through high-definition display, the user's visual perception and experience of lighting is improved, allowing users to more intuitively select and adjust lighting, thereby enhancing the user's experience. It can automatically adjust the display method according to the user's sliding direction, frequency, acceleration and other information to adapt to the needs and habits of different users. Through the touch display and stepless adjustment function, users can control the lighting more conveniently without complex operations and professional knowledge.

[0044] In some embodiments, the area division module 203 can obtain the light start and stop records, and determine the touch operation records based on the light start and stop records; analyze the touch operation records to determine the historical capacitance data, analyze the historical capacitance data, and determine the touch capacitance change range based on the analysis results, and determine the user's center area based on the touch capacitance change range; based on the center area, analyze the pressure-sensitive capacitance data to determine the center area and the real-time capacitance change range; determine the deviation area based on the real-time capacitance change range and the center area.

[0045] The light start and stop record may be data recording the start and stop operations of the light.

[0046] The touch operation record may be various touch operation events of the user on the touch display screen, such as clicking, sliding, etc.

[0047] The touch capacitance variation range may be a real-time variation range of capacitance variation caused by a user's touch operation on the touch display screen, and this range may be used to determine the contact area, action strength, and sliding direction of the user with the touch display screen.

[0048] Specifically, all light start and stop operations are collected and recorded, and these records are saved as light start and stop records. Based on these light start and stop records, the user's touch operation records are analyzed; the touch operation record is a short-term record, such as the touch operation history after the touch display screen is turned on this time, so as to ensure that the size of the center area that can be analyzed is different due to the touch habits and finger sizes of different users. By analyzing these touch operation records, a series of historical capacitance data can be determined. According to the analysis results of the historical capacitance data, the touch capacitance change range is determined. Based on the touch capacitance change range, the user's center area is further determined. Finally, the deviation area is based on the center area and the current pressure-sensitive capacitance data, and the real-time capacitance change range of the extension of the center area is further determined. The area where the contact area changes during the contact between the fingertips and the touch display screen is determined according to the extension of the center area according to the pressure-sensitive capacitance data.

[0049] Through this solution, by collecting and recording the start and stop operations of all lights, and analyzing the user's touch operation records based on these records, the user's touch position and action can be accurately located, thereby determining the center area. Since the touch operation record is a short-term record, such as the touch operation history after the touch screen is turned on, it can adapt to different user habits and finger sizes. The analyzed center area is of different sizes. Through the analysis of the touch operation records, a series of historical capacitance data can be determined. According to the analysis results of the historical capacitance data, the touch capacitance change range can be adjusted in real time, thereby adjusting the determination of the center area in real time. Based on the center area and the current pressure-sensitive capacitance data, the deviation area can be further determined. The deviation area is based on the center area and the current pressure-sensitive capacitance data, and the real-time capacitance change range of the extension of the center area is further determined according to the area of ​​contact area change.

[0050] In some embodiments, the state analysis module 204 can determine the change end of the deviation area and the contact change of each change end according to the real-time capacitance change range; determine the contact incremental change end and the change speed according to the contact change, and use the contact incremental change end as the sliding direction; and determine the sliding direction and change speed as the sliding state.

[0051] The change end of the deviation area may be a change in the area generated by the capacitance in the area covered by the deviation area on the touch display screen when the user performs a sliding operation.

[0052] The contact change may be a change in the contact state between the finger and the touch display screen during the user's sliding process, including an increase or decrease in the contact area.

[0053] The change speed may be the capacitance change speed of the change end of the deviation area during the user sliding process, which may reflect the speed of the user sliding.

[0054] The sliding direction may be the direction in which the user slides on the touch display screen, which may be left, right, upward or downward, etc.

[0055] Specifically, by analyzing these real-time capacitance change data, the change end of the deviation area and the contact change at each change end can be determined; by identifying and analyzing the trend and speed of the contact change, the contact incremental change end can be determined and used as the sliding direction; in layman's terms, when a finger slides on the touch display screen, the area of ​​the capacitance covered by the deviation area will change. For example, when sliding to the left, the left part of the fingertip presses down, and its contact area with the touch display increases. The right part of the fingertip will be slightly lifted, and its contact area with the touch display decreases. Therefore, the area of ​​capacitance generated on the left side of the deviation area will increase, and the area of ​​capacitance generated on the right side of the deviation area will decrease. Match the sliding direction with the preset sliding state and use the sliding direction as part of the sliding state; match the change speed with the preset sliding state and use the change speed as part of the sliding state; the duration and intensity of the sliding state can be determined based on the change speed.

[0056] Through this solution, by analyzing the real-time capacitance change data, the change end of the deviation area and the contact change of each change end can be accurately determined, so as to achieve accurate positioning of the user's finger on the touch screen. By identifying and analyzing the trend and speed of the contact change, the sliding direction and change speed can be determined in real time to determine the real-time action of the user's finger on the touch screen. In this way, different functions can be bound to different sliding directions, including but not limited to: realizing the light color temperature adjustment by sliding up and down, the vertical color temperature adjustment bar pops up on the UI interface, and the light brightness adjustment by sliding left and right, and the horizontal brightness adjustment bar pops up on the UI interface.

[0057] In some embodiments, the lighting analysis module 205 can obtain a user portrait, and based on the user portrait, retrieve the user's lighting usage habits; obtain current time information, and based on the current time information, filter the lighting usage habits to obtain currently applicable lighting; determine an adjustment range based on currently applicable lighting; determine the real-time instantaneous speed based on the change speed, and determine the instantaneous acceleration at each change moment based on the real-time instantaneous speed; for the instantaneous acceleration at each change moment, subtract the instantaneous acceleration at any change moment from the instantaneous acceleration at the previous change moment to obtain a number of acceleration changes; predict possible lighting selections based on a number of acceleration changes, sliding directions, and adjustment ranges.

[0058] The currently applicable lighting may be lighting suitable for use at the current time, which is usually determined based on the user's behavior and needs and current time information.

[0059] The adjustment range may be a range within which the user can adjust the light, such as a brightness adjustment range, a color temperature adjustment range, etc.

[0060] The real-time instantaneous speed can be the speed of finger sliding changes, which can reflect the speed of changes in the brightness, color temperature, etc. of the light.

[0061] The instantaneous acceleration may be the acceleration during the finger sliding process, which may reflect whether the current sliding is accelerating or decelerating, and may reflect the possible trend prediction of the user's light selection.

[0062] Specifically, it is necessary to first collect and analyze the user's relevant information, and retrieve the user's previous lighting usage habits based on the obtained user portrait. Obtain the current time information to determine the appropriate lighting and the corresponding adjustment range. For example, the brightness of the light does not need to be at its highest in the evening; based on the current time information, filter the user's lighting usage habits to obtain the currently applicable lighting. For example, in the evening of a weekday, after returning home, the user needs to turn on the light and adjust it to a comfortable and cozy lighting atmosphere to relax the body and mind. Based on the selected light, the corresponding adjustment range can be determined, such as the brightness adjustment range. Based on the change speed, the real-time instantaneous speed can be determined, and based on the real-time instantaneous speed, the instantaneous acceleration at each change moment can be calculated. For the instantaneous acceleration at each change moment, the possible choice of lighting can be predicted. For example, if the acceleration increases, the current area can be quickly skipped on the adjustment bar, thereby quickly reaching the position on the adjustment bar that the user wants on the UI interface; if the acceleration decreases, it means that the user has found the position on the adjustment bar where he wants to adjust the light, and the adjustment bar within the current range can be enlarged and displayed on the adjustment bar, so that the user can more accurately adjust the lighting effect he wants on the UI interface.

[0063] Through this solution, possible lighting choices can be predicted based on the user's sliding status and real-time feedback, thereby providing personalized lighting recommendations to meet the user's personalized needs. Through the prediction of the acceleration change, the lighting can be adjusted quickly, and functions such as magnified display can be provided on the adjustment bar, allowing users to more accurately adjust the lighting effects they want, improving the convenience of operation; it can provide suitable lighting and corresponding adjustment ranges based on current time information and user usage habits, creating a comfortable and cozy lighting atmosphere and enhancing the user's comfort experience; it can analyze the user's lighting usage habits in real time and predict possible lighting choices, helping users to manage and control the lighting environment more efficiently.

[0064] In some embodiments, the smart home control system 200 based on the touch screen also includes an optimal lighting determination module 206, which is used to send a calibration signal to the touch screen and receive a user's calibration selection; determine whether to calibrate immediately based on the calibration selection; if it is determined to calibrate immediately, obtain the apartment design drawing to determine the distribution position of lamps and the apartment distribution; obtain the lamp model, and determine the light divergence characteristics of each lamp based on the lamp model; determine the appropriate lighting at different times based on the lamp distribution position, apartment distribution and the light divergence characteristics of each lamp, display it according to a preset display speed and receive the user's calibration decision; determine the optimal lighting at each time based on the calibration decision; the optimal lighting determination module 206 is connected to the lighting analysis module 205, so that when the lighting analysis module 205 screens the lighting usage habits based on the current time information and obtains the currently applicable lighting, it is used to: determine the optimal lighting at the current time based on the current time information, and use the optimal lighting as the currently applicable lighting.

[0065] Immediate calibration can be to perform a calibration operation immediately, usually after the user selects calibration, the corresponding calibration steps and operations are performed immediately.

[0066] The light divergence characteristic can be the degree of divergence of the light emitted by the lamp, that is, the range and direction of light diffusion. Different lamps may have different light divergence characteristics, such as scattering type, focusing type, etc.

[0067] The calibration decision may be the result of the user's calibration operation in the system, such as determining whether to calibrate immediately, selecting a calibration method, etc.

[0068] Specifically, a calibration signal is sent to the touch screen 201, and the user's calibration selection is waited for. The user can choose whether to perform an immediate calibration. According to the user's calibration selection, it is determined whether to perform the calibration immediately. If so, the apartment design drawing is obtained, and the lamp distribution position and apartment distribution are determined. The lamp model is obtained, and the light divergence characteristics of each lamp are determined according to the lamp model. According to the obtained lamp distribution position, apartment distribution and light divergence characteristics of each lamp, the appropriate lights at different times are determined; the display can be displayed according to the preset display speed, and a personalized lighting experience is provided for the user, the user's calibration decision is received, and the best light at each moment is determined according to the calibration decision. The best light determination module 206 is connected to the light analysis module 205, so that when the light analysis module screens the light usage habits according to the current time information and obtains the currently applicable light, it can determine the best light at the current moment according to the current time information, and use the best light as the currently applicable light.

[0069] Through this solution, by waiting for the user's calibration selection and deciding whether to calibrate immediately based on the calibration selection, the efficiency of calibration can be improved, the calibration time can be shortened, and the response speed and efficiency can be improved. According to the obtained lamp distribution location, household distribution and the light divergence characteristics of each lamp, the appropriate light at different times can be determined and displayed according to the preset display speed, thereby providing users with personalized lighting experience, meeting the personalized needs of users, and improving the comfort and satisfaction of users. The best light determination module is connected to the light analysis module, so that when the light analysis module screens the light usage habits according to the current time information and obtains the currently applicable light, it can determine the best light at the current moment according to the current time information, and use the best light as the currently applicable light. The concept of intelligent management is integrated, and by connecting with the best light determination module, the lighting environment can be managed and controlled more intelligently, thereby improving the intelligence level of the home.

[0070] In some embodiments, the optimal lighting determination module 206 can obtain the lighting usage data of the user within a preset time period; analyze the lighting usage data to determine the lighting usage time and the actual lighting data; determine the user's sensitivity to lighting changes based on the actual lighting data; adjust the optimal lighting for the lighting usage time based on the lighting change sensitivity and calibration decisions to obtain the optimal lighting in actual use, so that the lighting analysis module 205 can determine the optimal lighting at the current moment based on the current time information, and use the optimal lighting as the currently applicable lighting. It is used to: determine the best lighting actually in use at the current moment based on the current time information, and use the best lighting actually in use as the currently applicable lighting.

[0071] The actual lighting data may be lighting data generated by the user in actual use, including but not limited to data such as the intensity, color, and usage time of the lighting.

[0072] Light change sensitivity can be the user's reaction and adaptation to different light intensities, that is, the user's sensitivity to light.

[0073] The best lighting in actual use may be the best lighting in actual use that is adjusted and determined in real time based on the user's historical lighting usage data, sensitivity, and current time information.

[0074] Specifically, the user's lighting data within a preset time period is obtained, including lighting usage time, actual lighting intensity, color and other data. These data are the basis for subsequent analysis. The obtained lighting usage data is analyzed to determine the user's lighting usage time and actual lighting data, such as average lighting usage time, lighting usage habits in different time periods, actual lighting data, etc. Based on the actual lighting data, the user's sensitivity to lighting changes, that is, the user's reaction and adaptation to different lighting intensities, is analyzed. Based on the sensitivity to lighting changes and calibration decisions, the optimal lighting for lighting time is adjusted. This involves optimizing the lighting in different time periods based on the user's sensitivity to different light intensities; the optimal lighting determination module will determine the optimal lighting in actual use at the current moment based on the current time information, combined with the user's historical lighting usage data and sensitivity, and use the optimal light as the currently applicable light; Due to the deviation in the display of light color and brightness at the factory, and the deviation in light color and brightness with use; different brands and different lighting products have different color temperature, brightness and light color adjustments, and the final effect may be different when mixed; small space, wall and home color tones, etc., which affect naked eye observation, etc., so it is necessary to determine the best light in actual use based on the actual human eye light judgment state.

[0075] Through this solution, by acquiring and analyzing the user's lighting data, the user's lighting habits and lighting needs can be understood more accurately, so that the lighting can be adjusted more accurately and the control accuracy and efficiency can be improved. According to the user's sensitivity to lighting changes, the user can be provided with lighting that better meets their needs, realizing personalized lighting control. By adjusting and determining the best lighting at each moment in real time, the user can be provided with a more comfortable and personalized lighting experience, thereby improving user satisfaction. The whole process incorporates the concept of intelligent management. By connecting with the optimal lighting determination module, the lighting environment can be managed and controlled more intelligently, improving the intelligence level of the home.

[0076] Due to the display deviation of light color and brightness at the factory, the deviation of light color and brightness with use, and the different color temperature, brightness and color adjustment of different brands and lighting products, the calibration decision of the best light determination module can determine the best light in actual use at each moment, thereby ensuring the best lighting experience for users in actual use; by comprehensively considering multiple factors, such as small space, wall and home color, etc., the best light for the current environment can be more accurately judged, thereby improving the accuracy and efficiency of lighting control. The whole process incorporates the concept of intelligent management. By connecting with the best light determination module, the lighting environment can be managed and controlled more intelligently, improving the intelligence level of the home.

[0077] In some embodiments, the touch screen-based smart home control system 200 also includes a carousel adjustment module 207, which is used to analyze calibration decisions and determine the decision time of each calibration decision; determine the change time of each light brightness according to a preset display speed; determine the user's light switching reaction degree according to the decision time and the change time; adjust the preset display speed according to the light switching reaction degree, obtain the actual light carousel speed and display according to the actual light carousel speed.

[0078] The calibration decision can be the user's calibration operation on the smart home control system, such as calibration time, calibration method, etc.

[0079] The preset display speed may be a preset display speed when displaying light changes, that is, a speed at which light brightness or color changes.

[0080] The light switching reaction degree may be the user's reaction and adaptation time to different light switching.

[0081] Specifically, the user's calibration decisions are analyzed, such as whether the user has selected immediate calibration, the calibration method selected by the user, etc. These decisions will determine the decision time of each calibration decision. Taking into account the sensitivity of different users to light brightness, the speed of light brightness change is adjusted, and the change time of each light brightness is determined according to the preset display speed, so as to obtain a display effect that better meets user needs. According to the decision time and change time, the user's light switching reaction degree is analyzed, that is, the user's reaction and adaptation degree to different light switches. Display is performed according to the actual light carousel speed. In this process, the carousel adjustment module 207 will adjust the preset display speed according to the user's light switching reaction degree to ensure the smoothness of the display and the satisfaction of the user experience.

[0082] Through this solution, the carousel adjustment module can intelligently adjust the preset display speed according to the user's calibration decision, the change time of light brightness and color, the light switching reaction degree and other information, obtain the actual light carousel speed and display it, and realize intelligent management. By analyzing the user's light switching reaction degree, it can provide users with a light display effect that better meets their needs and realize a personalized experience. Displaying according to the actual light carousel speed can ensure the smoothness of the display and improve the user experience and satisfaction.

[0083] In some embodiments, the smart home control system 200 based on the touch display screen also includes an audio analysis module 208, which is used to obtain the user's audio control instructions, analyze the audio control instructions, and determine the lighting type; according to the lighting type and the actual lighting rotation speed, the lighting color gamut range is rotated and the color gamut decision is received; according to the color gamut decision, the final display lighting is determined; the audio analysis module 208 is also connected to the lighting analysis module 205, and is used to send the audio control instructions and the final display lighting to the lighting analysis module, so that the lighting analysis module adjusts the user portrait according to the audio control instructions and the final display lighting.

[0084] The color gamut decision can be made by selecting a suitable color gamut range for display from a variety of color gamut options based on user needs.

[0085] Specifically, the user's audio control instructions are obtained. These instructions may include adjusting the light brightness, selecting the light type, etc. The audio analysis module will analyze these instructions and determine the corresponding light type. According to the preset display speed, the change time of each light brightness is determined, and according to the decision time and change time, the user's light switching reaction degree is analyzed to obtain a color gamut decision that meets the user's needs. According to the received audio control instructions and the final display light, the user portrait is adjusted to provide a lighting effect that better meets the user's needs.

[0086] Through this solution, the audio analysis module can obtain and analyze the user's audio control instructions, thereby realizing intelligent control of the brightness and type of lights. Improve the intelligence level of the system and realize more accurate and flexible lighting control. By analyzing the user's audio control instructions and the degree of light switching response, users can be provided with lighting effects that better meet their needs. This helps to achieve a personalized experience and meet the needs of different users for light brightness and type. The audio analysis module can receive and process the user's audio control instructions in real time, thereby realizing real-time adjustment and change of lights. Improve the response speed and efficiency of the system, and provide users with a smoother and more convenient lighting experience.

[0087] In some embodiments, the lighting analysis module 205 can also obtain the user's initial lighting usage data; analyze the initial lighting usage data to determine the start and stop status of the lamps and the start and stop times of each lamp; determine the main lamp started at each moment and the accompanying lamp at each moment based on the start and stop times of each lamp; generate a user portrait based on the start and stop status of the lamps, the main lamp started at each moment and the accompanying lamp at each moment.

[0088] The start and stop time can be the time point when the lamp is turned on and off.

[0089] The companion lamp can be a lamp that is turned on or off together with the main lamp at a specific moment.

[0090] Specifically, the lighting analysis module 205 will obtain the user's initial lighting data, including the user's switch operation on the lamp, the adjustment of brightness and color, etc. These data can be used to analyze the user's lighting habits and preferences. The lighting analysis module will analyze the start and stop conditions of the lamps and the start and stop times of each lamp based on the acquired initial lighting data, such as the analysis and recording of user operations to determine the frequency of use and time distribution of the lamps. The cooperation and collaboration between lamps are analyzed to provide a lighting effect that better meets the user's needs. The lighting analysis module 205 will generate a user portrait based on the start and stop conditions of the lamps, the main lamp started at each moment, and the accompanying lamps at each moment. The user portrait can be used to further understand the user's lighting needs and preferences.

[0091] Through this solution, by obtaining the user's first lighting data, analyzing the start and stop conditions of the lamps and the start and stop times of each lamp, it is possible to achieve refined control of the lamps and provide lighting effects that better meet the needs of the user. By generating user portraits based on the main lamp started at each moment and the accompanying lamps at each moment, it is possible to more accurately understand the user's lighting needs for different scenes and moments, thereby providing a more personalized and comfortable lighting experience. Based on the user portrait, it is possible to intelligently recommend lighting solutions and lamp configurations suitable for the user to form a comfortable lighting atmosphere, helping users to better use and enjoy the convenience and comfort brought by the smart home control system.

[0092] In some embodiments, the smart home control system 200 based on the touch screen further includes a continuous monitoring module 209. After predicting the possibility of light selection according to a number of acceleration changes, sliding directions and adjustment ranges, the continuous monitoring module 209 is used to: S101. obtain capacitance change data after predicting the possibility of light selection; S102. analyze the capacitance change after predicting the possibility of light selection to determine whether there is a change in the sliding direction; S103. if it is determined that there is a change, determine the direction change range according to the capacitance change analysis result; S104. determine the user's ideal selection according to the direction change range. Select range; S105. Obtain the change frequency within the preset time period; S106. Determine the amplified area according to the change frequency and the ideal selection range, and enlarge the amplified area and display it, and adjust the sliding sensitivity according to the change frequency; After the amplified area is enlarged and displayed and the sliding sensitivity is adjusted according to the change frequency, the following steps are taken to determine whether to continue to enlarge: S201, obtain and analyze the capacitance change data after amplification, and determine whether the sliding direction still changes after amplification; S202, if it is determined that the sliding direction still changes after amplification, repeat steps S103 to S106 until the capacitance change data after amplification is 0.

[0093] Specifically, when the user makes a sliding adjustment, the user may make fine adjustments within a certain selection range to meet their needs. During the adjustment process, the user will slide back and forth around the target. The more times the user repeats, the more accurate the sliding selection the user needs. Therefore, the capacitance change data after the predicted light selection is obtained. The capacitance change data can reflect the user's operation force and sliding distance on the touch screen. By analyzing the capacitance change data, it can be determined whether the user's sliding direction has changed. If it is determined that there is a change, the range of change in the user's sliding direction can be determined based on the analysis results of the capacitance change. According to the range of change in the user's sliding direction, the user's ideal selection range can be determined, and the change frequency within the preset time period can be obtained: according to the user's operation frequency and the ideal selection range, the area that needs to be enlarged can be determined, and the area can be enlarged and displayed. At the same time, the sliding sensitivity is adjusted according to the operation frequency.

[0094] After the zoomed-in area is enlarged and displayed and the sliding sensitivity is adjusted according to the change frequency, the following steps are taken to determine whether to continue zooming in: Obtain and analyze the capacitance change data after zooming in: By analyzing the capacitance change data after zooming in, it can be determined whether the sliding direction of the user in the zoomed-in area still changes. If the sliding direction of the user in the zoomed-in area still changes, the system will repeat the above process until the capacitance change data after zooming in is close to zero, that is, the sliding direction of the user in the area no longer changes.

[0095] Through this solution, by acquiring and analyzing the capacitance change data, we can more accurately understand the user's operating force and sliding distance on the touch screen, so as to achieve more refined control of the light and provide a lighting effect that better meets the needs of the user. According to the user's operating habits and preferences, the lighting control and user experience can be continuously optimized to provide a more personalized and comfortable lighting experience. By analyzing the user's operating frequency and ideal selection range, the area that needs to be enlarged can be determined and enlarged for display, and the sliding sensitivity can be adjusted to help users better use and enjoy the convenience and comfort brought by the smart home control system. Through repeated adjustments and optimizations, the needs of users can be continuously met.

Claims

1. A smart home control system based on a touch screen, characterized in that: Including touch display screen, pressure analysis module, area division module, state analysis module, and lighting analysis module; The touch display screen, the pressure analysis module, the area division module, the state analysis module, and the light analysis module are connected in sequence; The touch screen is used to contact the fingertips of the user to obtain pressure-sensitive capacitance data; The pressure-sensing analysis module is used to obtain pressure-sensing capacitance data of the touch display screen, and determine whether there is a pressure-sensing change on the touch display screen according to the pressure-sensing capacitance data; The area division module is used to analyze the pressure-sensing capacitance data and determine the center area and the deviation area of ​​the fingertip when there is a pressure change; The state analysis module is used to determine the sliding state according to the central area and the deviation area; The light analysis module is used to predict the possibility of light selection according to the sliding state, and determine the final pointing area according to the possibility of light selection and highlight the final pointing area to prompt the user to make a selection.

2. The system according to claim 1, characterized in that When analyzing the pressure-sensing capacitance data to determine the center area and the deviation area of ​​the fingertip, the area division module is specifically used to: Obtaining a light start and stop record, and determining a touch operation record according to the light start and stop record; Analyze the touch operation record to determine historical capacitance data, analyze the historical capacitance data, determine a touch capacitance variation range according to the analysis result, and determine the center area of ​​the user according to the touch capacitance variation range; Based on the central area, analyzing the pressure-sensitive capacitance data, determining the central area and the real-time capacitance change range; The deviation area is determined according to the real-time capacitance variation range and the central area.

3. The system according to claim 2, characterized in that When determining the sliding state according to the central area and the deviation area, the state analysis module is specifically used to: Determining the change end of the deviation area and the contact change of each change end according to the real-time capacitance change range; According to the contact change, determining the contact incremental change end and the change speed, and using the contact incremental change end as the sliding direction; The sliding direction and the changing speed are determined as the sliding state.

4. The system according to claim 3, characterized in that When the light analysis module predicts the possibility of light selection according to the sliding state, it is specifically used to: Obtaining a user portrait, and retrieving the user's lighting usage habits based on the user portrait; Acquire current time information, and filter the lighting usage habits according to the current time information to obtain currently applicable lighting; Determine the adjustment range according to the currently applicable light; Determine the real-time instantaneous speed according to the change speed, and determine the instantaneous acceleration at each change moment according to the real-time instantaneous speed; For the instantaneous acceleration at each changing moment, the instantaneous acceleration at any changing moment is subtracted from the instantaneous acceleration at the previous changing moment to obtain a number of acceleration changes; According to the plurality of acceleration changes, the sliding direction and the adjustment range, possible lighting selections are predicted.

5. The system according to claim 4, characterized in that The smart home control system based on the touch display screen also includes an optimal lighting determination module, which is used to: Sending a calibration signal to the touch display screen and receiving a calibration selection from the user; Determining whether to calibrate immediately according to the calibration selection; If immediate calibration is determined, obtain the apartment design drawing to determine the distribution location of the lamps and the apartment layout; Obtaining a lamp model, and determining light divergence characteristics of each lamp according to the lamp model; Determine appropriate lighting at different times according to the distribution positions of the lamps, the distribution of apartment types and the light divergence characteristics of each lamp, display according to a preset display speed and receive the calibration decision of the user; determining the optimal lighting at each moment based on the calibration decision; The optimal lighting determination module is connected to the lighting analysis module, so that when the lighting analysis module screens the lighting usage habits according to the current time information and obtains the currently applicable lighting, it is used to: The best light at the current moment is determined according to the current time information, and the best light is used as the currently applicable light.

6. The system according to claim 5, characterized in that When the optimal light determination module determines the optimal light at each moment according to the calibration decision, it is specifically used to: Obtaining the lighting usage data of the user within a preset time period; Analyze the lighting usage data to determine lighting usage time and actual lighting data; Determining the user's sensitivity to light changes according to the actual light data; According to the light change sensitivity and the calibration decision, the optimal light for the light use time is adjusted to obtain the optimal light in actual use, so that the light analysis module determines the optimal light at the current moment according to the current time information and uses the optimal light as the currently applicable light, and is used to: According to the current time information, the best light actually in use at the current moment is determined, and the best light actually in use is used as the currently applicable light.

7. The system according to claim 5, characterized in that The smart home control system based on the touch display screen also includes a carousel adjustment module, which is used to: analyzing the calibration decisions and determining a decision time for each calibration decision; Determine the change time of each light brightness according to the preset display speed; Determining the user's light switching reaction degree according to the decision time and the change time; According to the degree of light switching reaction, the preset display speed is adjusted to obtain the actual light carousel speed and display is performed according to the actual light carousel speed.

8. The system according to claim 7, characterized in that The smart home control system based on the touch display screen also includes an audio analysis module for: Obtaining an audio control instruction from the user, analyzing the audio control instruction, and determining a lighting type; Performing a light color gamut range rotation according to the light type and the actual light rotation speed and receiving a color gamut decision; Determine the final display lighting according to the color gamut decision; The audio analysis module is also connected to the lighting analysis module, and is used to send the audio control instruction and the final display lighting to the lighting analysis module, so that the lighting analysis module adjusts the user portrait according to the audio control instruction and the final display lighting.

9. The system according to claim 4, characterized in that When acquiring a user portrait, the lighting analysis module is specifically used to: Acquiring the user's first lamp usage data; Analyze the initial lamp use data to determine the start and stop conditions of the lamps and the start and stop times of each lamp; According to the start and stop time of each lamp, determine the main lamp to be started at each moment and the accompanying lamp at each moment; A user portrait is generated based on the start and stop conditions of the lamps, the main lamps started at each moment, and the accompanying lamps at each moment.

10. The system according to claim 4, characterized in that The smart home control system based on the touch display screen further includes a continuous monitoring module. After predicting the possibility of light selection according to the several acceleration changes, the sliding direction and the adjustment range, the continuous monitoring module is used to: S101. Obtaining capacitance change data after predicting possible lighting selection; S102. Analyze and predict the capacitance change after the light selection may occur, and determine whether there is a change in the sliding direction; S103. If it is determined that there is a change, the direction change range is determined based on the capacitance change analysis results; S104. Determine the user's ideal selection range according to the direction change range; S105. Obtain the frequency of change within a preset period; S106. According to the change frequency and the ideal selection range, determine the enlarged area and enlarge the enlarged area for display and adjust the sliding sensitivity according to the change frequency; After the zoomed-in area is zoomed in and displayed and the sliding sensitivity is adjusted according to the change frequency, the following steps are adopted to determine whether to continue zooming in: S201, acquiring and analyzing the capacitance change data after amplification to determine whether the sliding direction still changes after amplification; S202: If it is determined that the amplified sliding direction still changes, repeat steps S103 to S106 until the amplified capacitance change data is zero.

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