CN115358156B - Adaptive indoor scene modeling and optimization analysis system - Google Patents

Adaptive indoor scene modeling and optimization analysis system Download PDF

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CN115358156B
CN115358156B CN202211278415.6A CN202211278415A CN115358156B CN 115358156 B CN115358156 B CN 115358156B CN 202211278415 A CN202211278415 A CN 202211278415A CN 115358156 B CN115358156 B CN 115358156B
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周乐
杜逢博
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Nanjing Yaoyu Vision Core Technology Co ltd
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Abstract

The invention discloses a self-adaptive indoor scene modeling and optimizing analysis system which comprises a detection sensing module, a data storage module, a control module, a detection analysis module, a self-adaptive module, a boundary analysis module, an indoor scene analysis module and an indoor scene adjusting module, wherein the detection sensing module detects each detection index of an indoor scene through a sensor and sends the obtained detection data to the data storage module, the detection data collected by the detection sensing module is analyzed by the self-adaptive module, the detection analysis module and the boundary analysis module through different mathematical models to obtain a boundary analysis result, the indoor scene analysis module establishes a constraint limiting condition of the indoor scene in combination with a boundary threshold value, and then establishes an analysis model of the indoor scene for modeling analysis, and the indoor scene adjusting module adjusts and controls an indoor scene mode, so that the accuracy of indoor scene analysis and intelligent control is improved, and the system meets the requirements of different scene modes of a user.

Description

Adaptive indoor scene modeling and optimization analysis system
Technical Field
The invention relates to the technical field of target detection, in particular to a self-adaptive indoor scene modeling and optimization analysis system.
Background
With the development of the internet of things and manual only technology, services experienced by users in different indoor scenes are more and more diversified, for example, the requirements of the users on comfort levels under different scene modes in the indoor scenes are met, in order to meet the requirements of the users on different indoor scenes, a perfect research technology exists in the prior art, for example, three-dimensional indoor scene analysis modeling research based on deep learning, identification and analysis of indoor objects and the like, but in the analysis and control processes of the indoor scenes, the indoor scenes are influenced by multiple factors such as mutual interference between different control signals in an indoor environment and joint influence of an outdoor scene on the indoor scenes, so that the analysis processes of the indoor scenes are influenced by multiple influence parameters, errors occur in the analysis processes of the indoor scene three-dimensional modeling, the analysis boundaries of the indoor scenes and the non-indoor scenes are fuzzy, in order to enable the indoor scenes to meet the requirements of the users under different indoor scenes, accurate intelligent management is performed on each mode in the indoor scenes, and the control level of the indoor scenes is improved, and a self-adaptive indoor scene analysis system is provided.
Disclosure of Invention
In view of the above situation, and in order to overcome the defects of the prior art, an object of the present invention is to provide a self-adaptive indoor scene modeling and optimization analysis system, in which a detection sensing module of the system analyzes detection data in a multidimensional space to obtain a detection analysis result, an adaptive module maps an analysis function in the multidimensional space to a three-dimensional space, a boundary analysis module analyzes the analysis function to obtain a boundary threshold, and an indoor scene analysis module performs scene analysis on an indoor scene in combination with the boundary threshold to obtain an indoor scene analysis result, thereby greatly improving the accuracy of indoor scene analysis and control.
The technical scheme includes that the self-adaptive indoor scene modeling and optimizing analysis system comprises a detection sensing module, a data storage module, a control module, a detection analysis module, a self-adaptive module, a boundary analysis module, an indoor scene analysis module and an indoor scene adjusting module, wherein the detection analysis module, the self-adaptive module and the boundary analysis module use different mathematical models to analyze detection data collected by the detection sensing module to obtain a boundary analysis result, the indoor scene analysis module uses the boundary analysis result and a three-dimensional analysis model of an indoor scene to analyze the indoor scene to obtain an indoor scene analysis result, the control module sends an adjusting instruction to the indoor scene adjusting module according to the indoor scene analysis result of the indoor scene analysis module, and the indoor scene adjusting module controls and adjusts a scene mode of the indoor scene according to the adjusting instruction;
the specific analysis process of the system is as follows:
(1) The detection sensing module detects detection indexes of an indoor scene and an outdoor scene through the sensor to obtain detection data, the detection data are sent to the data storage module, the data storage module stores the detection data in a classified mode, and the detection data comprise indoor scene detection data and outdoor scene detection data;
(2) The detection analysis module establishes a multi-dimensional data analysis model according to the acquired detection data, and analyzes the detection data through the multi-dimensional data analysis model to obtain a detection analysis result;
step one, a detection analysis module extracts the same detection indexes in an indoor scene and an outdoor scene and marks the detection indexes as
Figure 243586DEST_PATH_IMAGE001
,/>
Figure 621609DEST_PATH_IMAGE002
The detection analysis module analyzes the indoor scene detection data and the outdoor detection data of each same detection index to obtain the influence vector (R) in the same environment>
Figure 864372DEST_PATH_IMAGE003
Under the influence of (4) a comparison value which detects a change in data->
Figure 260718DEST_PATH_IMAGE004
Wherein
Figure 930734DEST_PATH_IMAGE005
,/>
Figure 294588DEST_PATH_IMAGE006
And &>
Figure 75462DEST_PATH_IMAGE007
Respectively representing the same detection criterion and the same environmental influence vector->
Figure 591894DEST_PATH_IMAGE003
The influence change rate of the indoor scene detection data and the outdoor detection data under the action;
step two, the detection analysis module is based on the sameAn environmental impact vector
Figure 432811DEST_PATH_IMAGE003
And (3) a transformation matrix for analyzing the change of the ratio of the influence change rate and the detection data, wherein the transformation matrix is as follows:
Figure 519847DEST_PATH_IMAGE008
wherein the content of the first and second substances,
Figure 104412DEST_PATH_IMAGE002
represents the number of the detection indexes and is greater or less than>
Figure 475350DEST_PATH_IMAGE009
The number of changes in the detection data of the indicated detection index->
Figure 487169DEST_PATH_IMAGE010
For an element of the change matrix, the environmental impact vector is { (R) }>
Figure 565895DEST_PATH_IMAGE003
,/>
Figure 688572DEST_PATH_IMAGE011
The environmental influence vector is a description of a mixed influence, under the influence of which each detection criterion->
Figure 914017DEST_PATH_IMAGE012
Change value and change matrix of (4), environmental impact vector->
Figure 96737DEST_PATH_IMAGE003
Obey the functional change, the equation function is as follows:
Figure 673211DEST_PATH_IMAGE013
wherein
Figure 84732DEST_PATH_IMAGE014
For detecting a change in the indicator>
Figure 164684DEST_PATH_IMAGE003
Is a vector of the environmental impact, device for selecting or keeping>
Figure 783884DEST_PATH_IMAGE015
Is->
Figure 582076DEST_PATH_IMAGE016
Transposed of (5)>
Figure 561402DEST_PATH_IMAGE017
The ratio of the influence change rate of the corresponding index;
step three, the detection analysis module obtains the influence according to the environmental influence vector
Figure 230281DEST_PATH_IMAGE014
Establishing a corresponding functional relationship with the detection data to obtain->
Figure 285961DEST_PATH_IMAGE018
,/>
Figure 305870DEST_PATH_IMAGE019
,/>
Figure 590352DEST_PATH_IMAGE020
The detection transformation function is a function researched in a multidimensional space, and the detection analysis module sends a detection analysis result including the detection transformation function obtained by analysis to the self-adaptive module;
(3) The self-adaptive module establishes a three-dimensional analysis model according to the detection data to obtain a three-dimensional analysis function, and then the self-adaptive module establishes a three-dimensional analysis model according to the three-dimensional analysis function and the three-dimensional analysis function
Figure 379316DEST_PATH_IMAGE021
Establishing corresponding relation of detection transformation function of dimensional space in each analyzed point setFunctional device>
Figure 340319DEST_PATH_IMAGE022
The self-adaptive module is used for judging whether the functional is matched with the functional>
Figure 847524DEST_PATH_IMAGE022
Will->
Figure 919385DEST_PATH_IMAGE021
Mapping the detection transformation function of the dimensional space into the three-dimensional space for analysis to obtain a three-dimensional boundary analysis function, and sending the three-dimensional boundary analysis function to a boundary analysis module by the self-adaptive module;
(4) The boundary analysis module analyzes the moving boundary of the indoor scene and the outdoor scene through a three-dimensional boundary analysis function to obtain a boundary threshold, and the boundary analysis module establishes a control formula of boundary movement in a three-dimensional space by using the three-dimensional boundary analysis function, wherein the control formula specifically comprises the following steps:
Figure 343282DEST_PATH_IMAGE023
wherein
Figure 209607DEST_PATH_IMAGE024
Respectively, a movement value in different directions of the indoor scene, is evaluated>
Figure 204108DEST_PATH_IMAGE025
Represents a function of the speed of the movement>
Figure 814080DEST_PATH_IMAGE026
Represents an intensity function of the detection criterion, is present>
Figure 593949DEST_PATH_IMAGE027
A function of the number of detection indicators represented, based on the value of the detection indicator>
Figure 365596DEST_PATH_IMAGE025
、/>
Figure 378551DEST_PATH_IMAGE026
、/>
Figure 526636DEST_PATH_IMAGE027
Is found by a three-dimensional boundary analysis function>
Figure 410278DEST_PATH_IMAGE024
A transformation function in the direction->
Figure 133252DEST_PATH_IMAGE028
,/>
Figure 836766DEST_PATH_IMAGE029
Figure 788542DEST_PATH_IMAGE030
The boundary analysis module obtains the boundary threshold value of the indoor scene through the dynamic analysis of the boundary of the indoor scene and the outdoor scene obtained through the function analysis in different directions;
(5) The indoor scene analysis module analyzes the indoor scene through a three-dimensional analysis model established for the indoor scene to obtain an indoor scene analysis result, the indoor scene analysis module firstly selects a set parameter in the indoor scene analysis by using a boundary threshold value, and analyzes the change in each direction in the indoor scene according to a constraint limiting condition by using a constraint limiting condition in the established three-dimensional analysis model of the set parameter to obtain the indoor scene analysis result;
(6) And the control module sends an adjusting instruction to the indoor scene adjusting module according to the indoor scene analyzing result of the indoor scene analyzing module, and the indoor scene adjusting module adjusts and converts the scene model of the indoor scene after receiving the adjusting instruction so as to meet the experience requirement of the user.
The boundary analysis module dynamically analyzes the characteristics of the dynamic boundaries of the indoor scene and the outdoor scene according to a control equation of boundary movement to obtain a boundary threshold of the indoor scene, and the actual number of detection index changes in the indoor scene and the actual number of detection index changes in the outdoor scene are compared with the boundary thresholdThe number of changes is respectively recorded as
Figure 57849DEST_PATH_IMAGE031
The boundary analysis module obtains a point set according to the analysis of the control equation of the boundary, then establishes an elliptic partial differential equation of the dynamic boundary according to the point set, and analyzes the extreme value of the elliptic differential equation by taking the point set as a value range, and then the boundary analysis module calculates according to the extreme value to obtain a boundary threshold value, wherein the equation is as follows:
Figure 922031DEST_PATH_IMAGE032
wherein the content of the first and second substances,
Figure 378420DEST_PATH_IMAGE033
is an elliptical function of the dynamic boundary characteristic->
Figure 133886DEST_PATH_IMAGE034
、/>
Figure 726542DEST_PATH_IMAGE035
、/>
Figure 542051DEST_PATH_IMAGE036
Is->
Figure 752582DEST_PATH_IMAGE024
Smooth function in direction as a function of the point cloud, <' >>
Figure 46160DEST_PATH_IMAGE037
Is an auxiliary variable, is>
Figure 758901DEST_PATH_IMAGE038
Is based on a time variation function>
Figure 745312DEST_PATH_IMAGE039
For the change rate of the corresponding characteristic of the dynamic boundary, the boundary analysis module solves an extreme value of the elliptic partial differential equation, and then obtains a boundary threshold value by analyzing the extreme value。
The indoor scene analysis module analyzes the indoor scene through a three-dimensional analysis model established for the indoor scene to obtain an indoor scene analysis result, the indoor scene analysis obtains a boundary threshold value according to an extreme value of a boundary, the indoor scene analysis module places a point-line plane on the space of the indoor scene into a geometric space for analysis and modeling, and then utilizes constraint limiting conditions to constrain modeling in the indoor scene,
Figure 661446DEST_PATH_IMAGE037
illustrating the integrated change in different directions in an indoor scene.
Due to the adoption of the technical scheme, compared with the prior art, the invention has the following advantages:
1. the detection analysis module analyzes detection data through the established multidimensional data analysis model to obtain a detection analysis result, firstly, corresponding influence change rates in an indoor scene and an outdoor scene in the detection data according to different detection indexes under the influence of different environmental influence vectors are analyzed according to the influence change rates to obtain a change matrix, finally, the detection analysis module obtains a detection transformation function according to the change value of the detection indexes and the detection data and sends the detection transformation function to the self-adaptive module, the detection analysis module analyzes the indoor scene as a whole, dynamic analysis is carried out on the boundary of the indoor scene and the non-indoor scene, and the influence of the boundary change on the indoor scene analysis when the indoor scene is changed is fully considered.
2. The self-adaptive module in the system utilizes the mapping relation between functions to obtain functional functions according to the detection and analysis results of the detection and analysis module, utilizes the functional functions to map the analysis functions of the multidimensional space into a three-dimensional space, and then carries out boundary analysis in the three-dimensional space by the boundary analysis module to obtain a boundary threshold.
3. When the indoor scene analysis module establishes an analysis model of the indoor scene, the constraint limiting conditions of the indoor scene are established according to the boundary threshold value, and modeling analysis is performed on the indoor scene, so that the accuracy of indoor scene analysis is improved, and the intelligent detection analysis of the indoor scene is enhanced.
Drawings
FIG. 1 is an overall block diagram of the system;
FIG. 2 is a calculation flow diagram;
FIG. 3 is a flow chart of the computation of the detection analysis module;
FIG. 4 is a flow chart of the calculation of the boundary analysis module.
Detailed Description
The foregoing and other aspects, features and advantages of the invention will be apparent from the following more particular description of embodiments of the invention, as illustrated in the accompanying drawings in which reference is made to figures 1 to 4. The structural contents mentioned in the following embodiments are all referred to the attached drawings of the specification.
With the continuous development of electronic technology, more and more intelligent electronic products are applied in indoor scenes, and the sensory requirements of people on the indoor scenes in life are larger and larger, for example, intelligent electric appliances, intelligent robots, intelligent lamps and intelligent curtains in intelligent homes, in an intelligent home environment, the indoor scenes are affected by all the intelligent home electric appliances, such as illumination of bedrooms, and the indoor illumination is affected by common indoor and outdoor influence factors, the self-adaptive indoor scene modeling and optimization analysis system comprises a detection sensing module, a data storage module, a control module, a detection analysis module, a self-adaptive module, a boundary analysis module, an indoor scene analysis module and an indoor scene adjusting module, wherein the detection analysis module, the self-adaptive module and the boundary analysis module analyze detection data collected by the detection sensing module by using different mathematical models to obtain a boundary analysis result, the indoor scene analysis module analyzes the indoor scenes by using the boundary analysis result and a three-dimensional analysis model of the indoor scenes to obtain an indoor scene analysis result, and the control module controls the indoor scene adjustment module according to the indoor scene analysis result and the indoor scene adjustment mode;
the specific analysis process of the system is as follows:
(1) The detection sensing module detects detection indexes of an indoor scene and an outdoor scene through the sensor to obtain detection data, the detection data are sent to the data storage module, the data storage module stores the detection data in a classified mode, the detection data comprise indoor scene detection data and outdoor scene detection data, a scene where an external environment corresponding to the indoor scene is located is called as an outdoor scene, in the process of analyzing the indoor scene, boundary analysis of the indoor scene is a key of data analysis, and movement of the boundary of the indoor scene and the outdoor scene is influenced by common influence factors, so that when modeling analysis is conducted on the indoor scene, influence of outdoor scene change needs to be considered;
(2) The detection analysis module establishes a multi-dimensional data analysis model according to the acquired detection data, and analyzes the detection data through the multi-dimensional data analysis model to obtain a detection analysis result;
step one, a detection analysis module extracts the same detection indexes in an indoor scene and an outdoor scene and marks the detection indexes as
Figure 24294DEST_PATH_IMAGE001
,/>
Figure 591542DEST_PATH_IMAGE040
The detection analysis module analyzes the indoor scene detection data and the outdoor detection data of each same detection index to obtain the same environment influence vector ^ based on>
Figure 748854DEST_PATH_IMAGE003
Under the influence of (4) detecting a ratio of a change in data->
Figure 650820DEST_PATH_IMAGE004
Wherein
Figure 286200DEST_PATH_IMAGE041
,/>
Figure 973534DEST_PATH_IMAGE006
And &>
Figure 301747DEST_PATH_IMAGE007
Respectively representing the same detection criterion and the same environmental impact vector>
Figure 192473DEST_PATH_IMAGE003
The influence change rate of indoor scene detection data and outdoor detection data under action is obtained by analyzing according to environment influence variables and detection data;
step two, the detection analysis module carries out detection analysis according to the same environmental influence vector
Figure 631545DEST_PATH_IMAGE003
And (3) a transformation matrix for analyzing the change of the ratio of the influence change rate and the detection data, wherein the transformation matrix is as follows:
Figure 438964DEST_PATH_IMAGE042
wherein the content of the first and second substances,
Figure 672499DEST_PATH_IMAGE002
represents the number of the detection indexes and is greater or less than>
Figure 299790DEST_PATH_IMAGE009
The number of changes in the detection data of the indicated detection index->
Figure 526241DEST_PATH_IMAGE010
For an element of the change matrix, is>
Figure 188166DEST_PATH_IMAGE010
Indicating that the environmental influence vector is on the ^ th->
Figure 858182DEST_PATH_IMAGE021
The influence degree value of each detection index and the environmental influence vector are->
Figure 972768DEST_PATH_IMAGE003
,/>
Figure 238796DEST_PATH_IMAGE011
The environmental influence vector is a description of a mixed influence, under the influence of which each detection criterion->
Figure 755228DEST_PATH_IMAGE012
Change value and change matrix of (4), environmental impact vector->
Figure 596145DEST_PATH_IMAGE003
Obey to the function change, the equation function is as follows:
Figure 198027DEST_PATH_IMAGE043
wherein
Figure 31860DEST_PATH_IMAGE014
For detecting a change in the criterion>
Figure 137219DEST_PATH_IMAGE003
In order to be the vector of the environmental influence, device for selecting or keeping>
Figure 149038DEST_PATH_IMAGE015
Is->
Figure 972637DEST_PATH_IMAGE016
Is transferred and is taken out>
Figure 360893DEST_PATH_IMAGE017
The ratio of the influence change rate of the corresponding index;
step three, the detection analysis module obtains the influence according to the environmental influence vector
Figure 337071DEST_PATH_IMAGE014
Establishing a corresponding functional relationship with the detection data to obtain->
Figure 519790DEST_PATH_IMAGE018
,/>
Figure 830686DEST_PATH_IMAGE019
,/>
Figure 757054DEST_PATH_IMAGE020
,/>
Figure 92132DEST_PATH_IMAGE018
The detection transformation function is a function researched in a multidimensional space, and the detection analysis module sends a detection analysis result including the detection transformation function obtained by analysis to the self-adaptive module;
(3) The self-adaptive module establishes a three-dimensional analysis model according to the detection data to obtain a three-dimensional analysis function, and then the self-adaptive module establishes a three-dimensional analysis model according to the three-dimensional analysis function and the three-dimensional analysis function
Figure 711332DEST_PATH_IMAGE021
The corresponding relation of the detection transformation function of the dimension space in each analyzed point set establishes a functional->
Figure 509524DEST_PATH_IMAGE022
The adaptive module is used for judging whether the functional is in the normal state or not>
Figure 974003DEST_PATH_IMAGE022
Will->
Figure 924773DEST_PATH_IMAGE021
Mapping the detection transformation function of the dimensional space into the three-dimensional space for analysis to obtain a three-dimensional boundary analysis function, and using a self-adaptive module to perform analysisThe three-dimensional boundary analysis function is sent to a boundary analysis module, the adaptive analysis process carried out by the adaptive module is to analyze an adaptive model established after the indoor scene and the outdoor scene are jointly analyzed by the detection analysis module, and the adaptive process comprises the adaptation of the outdoor scene and the indoor scene;
(4) The boundary analysis module analyzes the moving boundary of the indoor scene and the outdoor scene through a three-dimensional boundary analysis function to obtain a boundary threshold, and the boundary analysis module establishes a control formula of boundary movement in a three-dimensional space by using the three-dimensional boundary analysis function, wherein the control formula specifically comprises the following steps:
Figure 449295DEST_PATH_IMAGE023
wherein
Figure 469204DEST_PATH_IMAGE024
Respectively, a movement value in different directions of the indoor scene, is evaluated>
Figure 2953DEST_PATH_IMAGE025
Represents a function of the speed of the movement>
Figure 57497DEST_PATH_IMAGE026
Representing an intensity function of a detection index>
Figure 736609DEST_PATH_IMAGE027
A function of the number of detection indicators represented, based on the value of the detection indicator>
Figure 509393DEST_PATH_IMAGE025
、/>
Figure 581254DEST_PATH_IMAGE026
、/>
Figure 490304DEST_PATH_IMAGE027
Is found by a three-dimensional boundary analysis function>
Figure 372941DEST_PATH_IMAGE024
A transformation function in the direction->
Figure 101862DEST_PATH_IMAGE028
,/>
Figure 977414DEST_PATH_IMAGE029
Figure 6550DEST_PATH_IMAGE030
The boundary analysis module obtains the boundary threshold value of the indoor scene through the dynamic analysis of the boundary of the indoor scene and the outdoor scene obtained through the function analysis in different directions;
(5) The indoor scene analysis module analyzes the indoor scene by using a slam algorithm to obtain a key frame filtering of an indoor scene image and then performs image bilateral filtering, wherein the indoor scene analysis module firstly uses a boundary threshold to select a set parameter in indoor scene analysis, uses a constraint limiting condition in a three-dimensional analysis model established by the set parameter, and analyzes changes in each direction in the indoor scene according to the constraint limiting condition to obtain an indoor scene analysis result, in the prior art, a method for analyzing the indoor scene by using a three-dimensional modeling and deep learning algorithm is common, the indoor scene analysis module analyzes and models the indoor scene in a three-dimensional space according to a point-line plane of the indoor scene, the parameters in each direction in the three-dimensional model are influenced by the boundary threshold, besides a method for analyzing the indoor scene by establishing the three-dimensional model, the indoor scene analysis module also analyzes the indoor scene by using the image analysis method, the indoor scene analysis module obtains a key frame filtering of the indoor scene image by using the slam algorithm, and performs image bilateral filtering, and the filtering formula is as follows:
Figure 43776DEST_PATH_IMAGE044
wherein the content of the first and second substances,
Figure 40420DEST_PATH_IMAGE045
represents the coordinates of the pixel currently requiring filtering>
Figure 454084DEST_PATH_IMAGE046
A pixel value representing a coordinate, < > or >>
Figure 72147DEST_PATH_IMAGE047
Represents a filtered pixel value, <' > based on a pixel value in a pixel that has been filtered>
Figure 280275DEST_PATH_IMAGE048
Represents->
Figure 100DEST_PATH_IMAGE049
Nearby neighborhood, <' > or>
Figure 951875DEST_PATH_IMAGE050
The indoor scene analysis module is used for fusing and reconstructing point clouds and determining the point cloud number after judging the point clouds after image filtering;
(6) And the control module sends an adjusting instruction to the indoor scene adjusting module according to the indoor scene analyzing result of the indoor scene analyzing module, and the indoor scene adjusting module adjusts and converts the scene model of the indoor scene after receiving the adjusting instruction so as to meet the experience requirement of the user.
The boundary analysis module dynamically analyzes the characteristics of the dynamic boundaries of the indoor scene and the outdoor scene according to a control equation of boundary movement to obtain a boundary threshold value of the indoor scene, and records the actual number and the change number of the detection index changes in the indoor scene as
Figure 690024DEST_PATH_IMAGE031
The boundary analysis module obtains a point set according to the analysis of the control equation of the boundary, then establishes an elliptic partial differential equation of the dynamic boundary according to the point set, analyzes the extreme value of the elliptic differential equation by taking the point set as a value domain, and then calculates according to the extreme value to obtain a boundary threshold value, wherein the equation is as follows:
Figure 334632DEST_PATH_IMAGE051
wherein, the first and the second end of the pipe are connected with each other,
Figure 791021DEST_PATH_IMAGE033
is an elliptical function of the dynamic boundary characteristic->
Figure 795755DEST_PATH_IMAGE034
、/>
Figure 388411DEST_PATH_IMAGE035
、/>
Figure 203920DEST_PATH_IMAGE036
Is->
Figure 147605DEST_PATH_IMAGE024
Smooth function in direction as a function of the point cloud, <' >>
Figure 191916DEST_PATH_IMAGE037
Is an auxiliary variable, is>
Figure 904657DEST_PATH_IMAGE038
Is based on a time variation function>
Figure 891067DEST_PATH_IMAGE039
And solving an extreme value of the elliptic partial differential equation by the boundary analysis module for the change rate of the corresponding characteristic of the dynamic boundary, and analyzing by using the extreme value to obtain a boundary threshold value.
The indoor scene analysis module analyzes the indoor scene through a three-dimensional analysis model established for the indoor scene to obtain an indoor scene analysis result, the indoor scene analysis obtains a boundary threshold value according to an extreme value of a boundary, the indoor scene analysis module places a point-line plane on the space of the indoor scene into a geometric space for analysis and modeling, and then utilizes constraint limiting conditions to constrain modeling in the indoor scene,
Figure 322049DEST_PATH_IMAGE037
showing the integrated change in different directions in an indoor scene.
The indoor scene adjusting module controls and adjusts the scene mode of the indoor scene according to the adjusting instruction sent by the control module, and the indoor scene adjusting module adjusts different detection indexes of different indoor scenes according to the indoor scene analysis result of the indoor scene analysis module.
The detection sensing module comprises an image sensor, a temperature sensor, a light sensor and an IMU sensor, the detection sensing module carries out data acquisition on detection indexes in an indoor scene and an outdoor scene, the acquired detection data are sent to the data storage module, when the detection indexes in the indoor scene and the outdoor scene are influenced by environmental influence factors, the detection data of the indoor scene change, the control module sends a data calling instruction to the data storage module, and the detection data are analyzed by the analysis module.
When the system is used in particular, the system mainly comprises a detection induction module, a data storage module, a control module, a detection analysis module, an adaptive module, a boundary analysis module, an indoor scene analysis module and an indoor scene adjustment module, wherein the detection induction module detects each detection index of an indoor scene and an outdoor scene through a sensor to obtain detection data and sends the detection data to the data storage module, the detection analysis module firstly obtains corresponding influence change rates in the indoor scene and the outdoor scene according to a multi-dimensional data analysis model established by the detection data of different detection indexes under the influence of different environmental influence vectors, then analyzes according to the influence change rates to obtain a change matrix, finally the detection analysis module obtains a detection transformation function according to the change values of the detection indexes and the detection data and sends the detection transformation function to the adaptive module, the adaptive module obtains a functional function by utilizing the mapping relation between the functions, maps the analysis function of the multi-dimensional space into a three-dimensional space by utilizing the functional function, then performs boundary analysis in the three-dimensional space to obtain a boundary analysis result, controls the indoor scene to obtain an indoor scene regulation result by mapping the indoor scene threshold analysis module according to the indoor scene analysis result and the indoor scene regulation result, and the indoor scene regulation result by utilizing the functional function after the boundary analysis module performs boundary analysis result to obtain a boundary analysis result, and a boundary regulation result, and a control command to control the indoor scene regulation result, and the indoor scene analysis module is used for carrying out indoor scene modeling analysis, so that the accuracy of indoor scene analysis and intelligent control is improved, and the system meets the requirements of users in different scene modes.
While the present invention has been described in further detail with reference to specific embodiments thereof, it should not be construed that the present invention is limited thereto; for those skilled in the art to which the present invention pertains and related technologies, the extension, operation method and data replacement should fall within the protection scope of the present invention based on the technical solution of the present invention.

Claims (5)

1. A self-adaptive indoor scene optimization analysis system is characterized by comprising a detection induction module, a data storage module, a control module, a detection analysis module, a self-adaptive module, a boundary analysis module, an indoor scene analysis module and an indoor scene adjustment module, wherein the detection analysis module, the self-adaptive module and the boundary analysis module use different mathematical models to analyze detection data collected by the detection induction module to obtain a boundary analysis result, the indoor scene analysis module further uses the boundary analysis result and a three-dimensional analysis model of an indoor scene to analyze the indoor scene to obtain an indoor scene analysis result, the control module sends an adjustment instruction to the indoor scene adjustment module according to the indoor scene analysis result of the indoor scene analysis module, and the indoor scene adjustment module controls and adjusts a scene mode of the indoor scene according to the adjustment instruction;
the specific analysis process of the system is as follows:
(1) The detection sensing module detects detection indexes of an indoor scene and an outdoor scene through the sensor to obtain detection data, the detection data are sent to the data storage module, the data storage module stores the detection data in a classified mode, and the detection data comprise indoor scene detection data and outdoor scene detection data;
(2) The detection analysis module establishes a multi-dimensional data analysis model according to the acquired detection data, and analyzes the detection data through the multi-dimensional data analysis model to obtain a detection analysis result;
step one, a detection analysis module extracts the same detection indexes in an indoor scene and an outdoor scene and marks the detection indexes as
Figure 996084DEST_PATH_IMAGE001
,
Figure 123440DEST_PATH_IMAGE002
The detection analysis module analyzes the indoor scene detection data and the outdoor detection data of each same detection index to obtain the same environmental influence vector
Figure 820000DEST_PATH_IMAGE003
Under the influence of (2) detecting the ratio of the change in the data
Figure 291171DEST_PATH_IMAGE004
Wherein
Figure 999364DEST_PATH_IMAGE005
Figure 205610DEST_PATH_IMAGE006
And
Figure 264833DEST_PATH_IMAGE007
respectively representing the same environment of the same detection indexInfluence vector
Figure 900214DEST_PATH_IMAGE003
The influence change rate of the indoor scene detection data and the outdoor detection data under the action;
step two, the detection analysis module is used for detecting the influence vector according to the same environment
Figure 728493DEST_PATH_IMAGE003
And (3) a transformation matrix for analyzing the change of the ratio of the influence change rate and the detection data, wherein the transformation matrix is as follows:
Figure 463230DEST_PATH_IMAGE008
wherein the content of the first and second substances,
Figure 242705DEST_PATH_IMAGE009
the number of the detection indexes is shown,
Figure 947356DEST_PATH_IMAGE010
the number of changes in the detection data of the indicated detection index,
Figure 630141DEST_PATH_IMAGE011
to change the elements of the matrix, the environmental impact vector is
Figure 270201DEST_PATH_IMAGE003
,
Figure 163071DEST_PATH_IMAGE012
The environmental influence vector is a description of a mixed influence factor, and each detection index is influenced by the environmental influence vector
Figure 15620DEST_PATH_IMAGE013
Change value and change matrix of (2), environmental influence vector
Figure 677546DEST_PATH_IMAGE003
Obey to the function change, the equation function is as follows:
Figure 989972DEST_PATH_IMAGE014
wherein
Figure 979925DEST_PATH_IMAGE015
In order to detect the change value of the index,
Figure 760799DEST_PATH_IMAGE003
in order to be the vector of the environmental influence,
Figure 152597DEST_PATH_IMAGE016
is composed of
Figure 727935DEST_PATH_IMAGE017
The transpose of (a) is performed,
Figure 329818DEST_PATH_IMAGE018
the ratio of the influence change rate of the corresponding index;
step three, the detection analysis module obtains the influence according to the environmental influence vector
Figure 789749DEST_PATH_IMAGE015
Establishing corresponding function relation with the detection data to obtain
Figure 160687DEST_PATH_IMAGE019
Figure 280828DEST_PATH_IMAGE020
,
Figure 104427DEST_PATH_IMAGE021
Figure 227104DEST_PATH_IMAGE019
The detection transformation function is a function researched in a multidimensional space, and the detection analysis module sends a detection analysis result including the detection transformation function obtained by analysis to the self-adaptive module;
(3) The self-adaptive module establishes a three-dimensional analysis model according to the detection data to obtain a three-dimensional analysis function, and then the self-adaptive module establishes a three-dimensional analysis model according to the three-dimensional analysis function and the three-dimensional analysis function
Figure 327915DEST_PATH_IMAGE022
Establishing functional by using correspondence relation of detection transformation function of dimensional space in each analyzed point set
Figure 510635DEST_PATH_IMAGE023
Adaptive module passes pair functional
Figure 696897DEST_PATH_IMAGE023
Will be analyzed
Figure 623265DEST_PATH_IMAGE022
Mapping the detection transformation function of the dimensional space into the three-dimensional space for analysis to obtain a three-dimensional boundary analysis function, and sending the three-dimensional boundary analysis function to a boundary analysis module by the self-adaptive module;
(4) The boundary analysis module analyzes the moving boundary of the indoor scene and the outdoor scene through a three-dimensional boundary analysis function to obtain a boundary threshold, and the boundary analysis module establishes a control formula of boundary movement in a three-dimensional space by using the three-dimensional boundary analysis function, wherein the control formula specifically comprises the following steps:
Figure 578582DEST_PATH_IMAGE024
wherein
Figure 932203DEST_PATH_IMAGE025
Respectively representing indoor scenes in different directionsThe value of the shift of (a) is,
Figure 730395DEST_PATH_IMAGE026
represented is a function of the speed of the movement,
Figure 571705DEST_PATH_IMAGE027
represented is a function of the intensity of the detected index,
Figure 771743DEST_PATH_IMAGE028
a function of the number of detection indicators represented,
Figure 171631DEST_PATH_IMAGE026
Figure 191540DEST_PATH_IMAGE027
Figure 600655DEST_PATH_IMAGE028
is obtained by a three-dimensional boundary analysis function
Figure 389620DEST_PATH_IMAGE025
The transformation function in the direction of the direction,
Figure 85043DEST_PATH_IMAGE029
Figure 733193DEST_PATH_IMAGE030
Figure 805055DEST_PATH_IMAGE031
the boundary analysis module obtains the boundary threshold value of the indoor scene through the dynamic analysis of the boundary of the indoor scene and the outdoor scene obtained through the function analysis in different directions;
(5) The indoor scene analysis module analyzes the indoor scene through a three-dimensional analysis model established for the indoor scene to obtain an indoor scene analysis result, the indoor scene analysis module firstly selects a set parameter in the indoor scene analysis by using a boundary threshold value, and analyzes the change in each direction in the indoor scene according to a constraint limiting condition by using a constraint limiting condition in the established three-dimensional analysis model of the set parameter to obtain the indoor scene analysis result;
(6) And the control module sends an adjusting instruction to the indoor scene adjusting module according to the indoor scene analyzing result of the indoor scene analyzing module, and the indoor scene adjusting module adjusts and converts the scene model of the indoor scene after receiving the adjusting instruction so as to meet the experience requirement of the user.
2. The adaptive indoor scene optimization analysis system of claim 1,
the boundary analysis module dynamically analyzes the characteristics of the dynamic boundaries of the indoor scene and the outdoor scene according to a control equation of boundary movement to obtain a boundary threshold value of the indoor scene, and records the actual number and the change number of the detection index changes in the indoor scene as
Figure 822427DEST_PATH_IMAGE032
The boundary analysis module obtains a point set according to the analysis of the control equation of the boundary, then establishes an elliptic partial differential equation of the dynamic boundary according to the point set, analyzes the extreme value of the elliptic differential equation by taking the point set as a value domain, and then calculates according to the extreme value to obtain a boundary threshold value, wherein the equation is as follows:
Figure 688752DEST_PATH_IMAGE033
wherein, the first and the second end of the pipe are connected with each other,
Figure 683253DEST_PATH_IMAGE034
is an elliptical function of the dynamic boundary characteristics,
Figure 434171DEST_PATH_IMAGE035
Figure 463307DEST_PATH_IMAGE036
Figure 110320DEST_PATH_IMAGE037
is composed of
Figure 857696DEST_PATH_IMAGE025
A smooth function of the point cloud variation in direction,
Figure 146726DEST_PATH_IMAGE038
as an auxiliary variable, the number of variables,
Figure 30369DEST_PATH_IMAGE039
as a function of the change in time,
Figure 972917DEST_PATH_IMAGE040
and solving an extreme value of the elliptic partial differential equation by the boundary analysis module for the change rate of the corresponding characteristic of the dynamic boundary, and analyzing by using the extreme value to obtain a boundary threshold value.
3. The adaptive indoor scene optimization analysis system of claim 1, wherein the indoor scene analysis module analyzes the indoor scene through a three-dimensional analysis model established for the indoor scene to obtain an indoor scene analysis result, the indoor scene analysis obtains a boundary threshold according to an extreme value of a boundary, the indoor scene analysis module places a point-line plane on a space of the indoor scene into a geometric space for analysis and modeling, and then utilizes constraint constraints to constrain modeling in the indoor scene,
Figure 307122DEST_PATH_IMAGE041
illustrating the integrated change in different directions in an indoor scene.
4. The adaptive indoor scene optimization analysis system according to claim 1, wherein the indoor scene adjusting module controls and adjusts the scene mode of the indoor scene according to the adjusting instruction sent by the control module, and the indoor scene adjusting module adjusts different detection indexes of different indoor scenes according to the indoor scene analysis result of the indoor scene analysis module.
5. The adaptive indoor scene optimization analysis system according to claim 1, wherein the detection sensing module comprises a temperature sensor, a light sensor and a gravity sensor, the detection sensing module collects data of detection indexes in the indoor scene and the outdoor scene and sends the collected detection data to the data storage module, when the detection indexes in the indoor scene and the outdoor scene are influenced by environmental influence factors, the detection data of the indoor scene change, the control module sends a data calling instruction to the data storage module, and the analysis module analyzes the detection data.
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Publication number Priority date Publication date Assignee Title
CN106910242A (en) * 2017-01-23 2017-06-30 中国科学院自动化研究所 The method and system of indoor full scene three-dimensional reconstruction are carried out based on depth camera
CN114549739A (en) * 2022-01-12 2022-05-27 江阴小象互动游戏有限公司 Control system and method based on three-dimensional data model
CN114662594A (en) * 2022-03-25 2022-06-24 浙江省通信产业服务有限公司 Target feature recognition analysis system

Patent Citations (3)

* Cited by examiner, † Cited by third party
Publication number Priority date Publication date Assignee Title
CN106910242A (en) * 2017-01-23 2017-06-30 中国科学院自动化研究所 The method and system of indoor full scene three-dimensional reconstruction are carried out based on depth camera
CN114549739A (en) * 2022-01-12 2022-05-27 江阴小象互动游戏有限公司 Control system and method based on three-dimensional data model
CN114662594A (en) * 2022-03-25 2022-06-24 浙江省通信产业服务有限公司 Target feature recognition analysis system

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