Control methods and systems for light-sensing goggles

Abstract

The present invention discloses a control method and system for light-sensing goggles, which construct application scenarios of light-sensing goggles based on ambient brightness, visual field influence characteristics and detection space; match corresponding lens optimization logic based on application scenarios of light-sensing goggles, working status of light-sensing goggles and current work of users. Furthermore, the color grade and light transmittance grade of light-sensing goggles are determined according to the fatigue state of eyes, the color of light-sensing goggles and application scenarios of light-sensing goggles; when the user wearing light-sensing goggles is working, the corresponding fill light logic is matched based on multiple visual field parameters, corresponding orientations and current work of the user, and the fill light position and fill light intensity of light-sensing goggles are controlled along the fill light logic, which is compatible with the regulation of color grade and light transmittance grade of light-sensing goggles, and adds fill light of light-sensing goggles, so as to realize intelligent control of light-sensing goggles in various application scenarios.

Description

Technical Field

[0001] The present invention relates to the technical field of light-sensing goggles, and in particular to a control method and system for light-sensing goggles. Background Art

[0002] With the development of science and technology, goggles are applied to people's lives and worn on the user's face. Goggles increase the safety of users during work. In the existing technology, the goggles are controlled along a single dimension and cannot perform multi-dimensional control on the application scenarios of the light-sensing goggles, the working status of the light-sensing goggles and the user's current work, which affects the intelligent control of the light-sensing goggles in various application scenarios. Summary of the invention

[0003] The purpose of the present invention is to overcome the shortcomings of the prior art. The present invention provides a control method and system for photosensitive goggles, which collect multiple environmental parameters according to the environmental detection of the location where the photosensitive goggles are located; construct a corresponding detection space based on the model of the photosensitive goggles, the detection range of the photosensitive goggles and the moving direction of the user; determine the environmental brightness and field of view impact characteristics according to multiple environmental parameters, and construct the application scenario of the photosensitive goggles based on the environmental brightness, field of view impact characteristics and the detection space; match the corresponding lens optimization logic based on the application scenario of the photosensitive goggles, the working status of the photosensitive goggles and the current work of the user, and trigger the dynamic optimization of the color of the photosensitive goggles based on the lens optimization logic, which is compatible with the overall consideration of the application scenario of the photosensitive goggles, the working status of the photosensitive goggles and the current work of the user, and realizes the multi-dimensional control of the application scenario of the photosensitive goggles, the working status of the photosensitive goggles and the current work of the user, ensures the adaptability of the lens optimization logic to the photosensitive goggles, and dynamically optimizes the color of the photosensitive goggles to adapt to various scenarios.

[0004] Furthermore, multiple parameters of the user's eyes are collected based on photosensitive goggles, the fatigue state of the eyes is determined based on the multiple parameters, and the color grade and light transmittance level of the photosensitive goggles are determined based on the fatigue state of the eyes, the color of the photosensitive goggles and the application scenarios of the photosensitive goggles; when the user wearing the photosensitive goggles is working, the space detected by the photosensitive goggles is collected, and multiple field of view parameters are defined according to the traversal of the space, and the corresponding fill light logic is matched based on the multiple field of view parameters, the corresponding directions and the user's current work, and the fill light position and fill light intensity of the photosensitive goggles are controlled along the fill light logic, which is compatible with the control of the color grade and light transmittance level of the photosensitive goggles, and the fill light of the photosensitive goggles is increased, thereby realizing multi-dimensional control of the photosensitive goggles and realizing intelligent control of the photosensitive goggles in various application scenarios.

[0005] The embodiment of the present invention provides a control method for light-sensing goggles, which is applied to the control scenario of light-sensing goggles; the light-sensing goggles include a light-sensing goggles lens and a light-sensing goggles frame, the light-sensing goggles lens is a photochromic lens, and is installed in the light-sensing goggles frame;

[0006] The control method of the light sensing goggles comprises:

[0007] Collecting multiple environmental parameters based on environmental detection of the location where the light sensing goggles are located;

[0008] Construct a corresponding detection space based on the model of the light-sensing goggles, the detection range of the light-sensing goggles, and the user's moving direction;

[0009] Determine the environmental brightness and visual field influence characteristics according to multiple environmental parameters, and build application scenarios of light sensing goggles based on the environmental brightness, visual field influence characteristics and detection space;

[0010] Match the corresponding lens optimization logic based on the application scenario of the light-sensing goggles, the working status of the light-sensing goggles and the user's current work, and trigger the dynamic optimization of the color of the light-sensing goggles based on the lens optimization logic;

[0011] Collecting multiple parameters of the user's eyes based on the light-sensing goggles, determining the eye fatigue state according to the multiple parameters, and determining the color level and light transmittance level of the light-sensing goggles according to the eye fatigue state, the color of the light-sensing goggles, and the application scenario of the light-sensing goggles;

[0012] When a user wearing light-sensing goggles is working, the space detected by the light-sensing goggles is collected, and multiple field of view parameters are defined based on the traversal of the space. The corresponding fill light logic is matched based on the multiple field of view parameters, the corresponding directions and the user's current work, and the fill light position and fill light intensity of the light-sensing goggles are controlled along the fill light logic.

[0013] Optionally, the collecting of multiple environmental parameters according to the environmental detection of the location where the light sensing goggles are located includes:

[0014] Collecting response signals of light-sensing goggles;

[0015] Determining the position of the light sensing goggles according to the analysis of the response signal;

[0016] Freeze the position of the light sensing goggles;

[0017] Matching a corresponding environment detection method according to the location of the light-sensing goggles and the range detected by the light-sensing goggles, and triggering environment detection of the location of the light-sensing goggles along the environment detection method;

[0018] Based on the environmental detection of the location where the light-sensing goggles are located, multiple environmental parameters are collected. The multiple environmental parameters are distributed in different locations and are reasonably distributed along the range detected by the light-sensing goggles.

[0019] Optionally, the constructing of a corresponding detection space based on the model of the light-sensing goggles, the detection range of the light-sensing goggles, and the moving direction of the user includes:

[0020] Collect the detection range of light sensing goggles;

[0021] Associate the model of the light sensing goggles, the detection range of the light sensing goggles, and the user's movement direction;

[0022] Defining a first spatial parameter based on a model of the light sensing goggles and a detection range of the light sensing goggles;

[0023] Defining a second spatial parameter based on the detection range of the light sensing goggles and the movement direction of the user;

[0024] Associating the second spatial parameter, the first spatial parameter, and a spatial learning model corresponding to the light sensing goggles;

[0025] A corresponding detection space is constructed according to the second space parameter, the first space parameter and the space learning model.

[0026] Optionally, determining the ambient brightness and the visual field influence characteristics according to a plurality of environmental parameters, and constructing an application scenario of the light sensing goggles based on the ambient brightness, the visual field influence characteristics and the detection space, includes:

[0027] Collect multiple environmental parameters;

[0028] Construct multiple parameter combinations based on multiple environmental parameters, corresponding locations, and detection methods of light-sensing goggles;

[0029] Determine the environmental brightness and visual field influence characteristics based on the recognition of multiple parameter combinations;

[0030] Correlate ambient brightness, visual field impact characteristics, and detection space;

[0031] A first scene coefficient is defined according to the ambient brightness and the visual field influence characteristics, and a second scene coefficient is defined according to the ambient brightness and the detection space;

[0032] An application scenario of the light-sensing goggles is constructed based on the second scene coefficient, the first scene coefficient and the scene model.

[0033] Optionally, the lens optimization logic corresponding to the application scenario of the light-sensing goggles, the working state of the light-sensing goggles and the current work matching of the user, and triggering the dynamic optimization of the color of the light-sensing goggles based on the lens optimization logic, includes:

[0034] Application scenarios of freeze-frame light-sensing goggles;

[0035] Associating the application scenario of the light sensing goggles, the working status of the light sensing goggles and the current work of the user;

[0036] Trigger multiple interactions based on the application scenarios of the light-sensing goggles, the working status of the light-sensing goggles, and the user's current work, and match the corresponding lens optimization logic in the multiple interactions;

[0037] Trigger dynamic optimization of the color of light-sensitive goggle lenses based on lens optimization logic.

[0038] Optionally, the method of collecting multiple parameters of the user's eyes based on the light-sensing goggles, determining the eye fatigue state according to the multiple parameters, and determining the color level and light transmittance level of the light-sensing goggles according to the eye fatigue state, the color of the light-sensing goggles, and the application scenario of the light-sensing goggles includes:

[0039] When the light-sensing goggles are opposite to the eyes of the user, the position of the eyes of the user is collected based on the light-sensing goggles;

[0040] Collecting multiple parameters of the user's eyes according to the position of the user's eyes and the dynamic shooting of the light-sensing goggles;

[0041] The state of eye fatigue is determined based on multiple parameters and the position and shape of the eyeball.

[0042] Optionally, the method of collecting multiple parameters of the user's eyes based on the light-sensing goggles, determining the eye fatigue state according to the multiple parameters, and determining the color level and light transmittance level of the light-sensing goggles according to the eye fatigue state, the color of the light-sensing goggles, and the application scenario of the light-sensing goggles, further includes:

[0043] Correlate the state of eye fatigue, the color of the light-sensing goggles, and the application scenarios of light-sensing goggles;

[0044] Determine a first morphological parameter of the light-sensing goggles according to the fatigue state of the eyes and the color of the light-sensing goggles, and determine a second morphological parameter of the light-sensing goggles according to the fatigue state of the eyes and the application scenario of the light-sensing goggles;

[0045] The color grade of the light-sensitive goggles is determined according to the multi-dimensional control of the second morphological parameters and the first morphological parameters, and the corresponding light transmittance grade is matched according to the color grade of the light-sensitive goggles and the thickness of the light-sensitive goggles.

[0046] Optionally, when the user wearing the light-sensing goggles is working, the space detected by the light-sensing goggles is collected, a plurality of field of view parameters are defined according to the traversal of the space, a corresponding fill light logic is matched based on the plurality of field of view parameters, the corresponding orientation and the current work of the user, and the fill light position and fill light intensity of the light-sensing goggles are controlled along the fill light logic, including:

[0047] When the user wearing the light sensing goggles is working, the space detected by the light sensing goggles is collected;

[0048] Based on the positioning detection of the space and the shape of the space and the overall area of ​​the space, a corresponding traversal mode is matched according to the shape of the space and the overall area of ​​the space, and the traversal of the space is triggered based on the traversal mode;

[0049] A plurality of field of view parameters are defined according to the traversal of the space.

[0050] Optionally, when the user wearing the light-sensing goggles is working, the space detected by the light-sensing goggles is collected, a plurality of field of view parameters are defined according to the traversal of the space, a corresponding fill light logic is matched based on the plurality of field of view parameters, the corresponding orientation and the current work of the user, and the fill light position and fill light intensity of the light-sensing goggles are controlled along the fill light logic, further comprising:

[0051] Associating multiple field of view parameters, corresponding orientations, and the user's current work;

[0052] Matching corresponding fill light logic based on multiple field of view parameters, corresponding orientation and the user's current work;

[0053] The fill light position and fill light intensity of the light sensing goggles are controlled according to the fill light logic.

[0054] In addition, an embodiment of the present invention further provides a control system for light-sensing goggles, and the control system for light-sensing goggles includes:

[0055] A collection module, used for collecting multiple environmental parameters according to the environmental detection of the location where the light sensing goggles are located;

[0056] The detection space module is used to construct a corresponding detection space based on the model of the light sensing goggles, the detection range of the light sensing goggles and the movement direction of the user;

[0057] An application scenario module is used to determine the ambient brightness and visual field influence characteristics according to multiple environmental parameters, and to construct an application scenario of light sensing goggles based on the ambient brightness, visual field influence characteristics and detection space;

[0058] A color module is used to match the corresponding lens optimization logic based on the application scenario of the light-sensing goggles, the working status of the light-sensing goggles, and the current work of the user, and trigger the dynamic optimization of the color of the light-sensing goggles based on the lens optimization logic;

[0059] A lens module, for collecting multiple parameters of the user's eyes based on the light-sensing goggles, determining the eye fatigue state according to the multiple parameters, and determining the color level and light transmittance level of the light-sensing goggles according to the eye fatigue state, the color of the light-sensing goggles, and the application scenario of the light-sensing goggles;

[0060] The fill light module is used to collect the space detected by the light-sensing goggles when the user wearing the light-sensing goggles is working, define multiple field of view parameters according to the traversal of the space, match the corresponding fill light logic based on the multiple field of view parameters, the corresponding directions and the user's current work, and control the fill light position and fill light intensity of the light-sensing goggles along the fill light logic.

[0061] In an embodiment of the present invention, through the method in the embodiment of the present invention, multiple environmental parameters are collected according to the environmental detection of the location where the photosensitive goggles are located; a corresponding detection space is constructed based on the model of the photosensitive goggles, the detection range of the photosensitive goggles and the user's moving direction; the ambient brightness and the field of view impact characteristics are determined according to the multiple environmental parameters, and the application scenario of the photosensitive goggles is constructed based on the ambient brightness, the field of view impact characteristics and the detection space; the corresponding lens optimization logic is matched based on the application scenario of the photosensitive goggles, the working status of the photosensitive goggles and the current work of the user, and the dynamic optimization of the color of the photosensitive goggles is triggered based on the lens optimization logic, which is compatible with the overall consideration of the application scenario of the photosensitive goggles, the working status of the photosensitive goggles and the current work of the user, and realizes multi-dimensional control of the application scenario of the photosensitive goggles, the working status of the photosensitive goggles and the current work of the user, ensures the adaptability of the lens optimization logic to the photosensitive goggles, and dynamically optimizes the color of the photosensitive goggles to adapt to various scenarios.

[0062] Furthermore, multiple parameters of the user's eyes are collected based on photosensitive goggles, the fatigue state of the eyes is determined based on the multiple parameters, and the color grade and light transmittance level of the photosensitive goggles are determined based on the fatigue state of the eyes, the color of the photosensitive goggles and the application scenarios of the photosensitive goggles; when the user wearing the photosensitive goggles is working, the space detected by the photosensitive goggles is collected, and multiple field of view parameters are defined according to the traversal of the space, and the corresponding fill light logic is matched based on the multiple field of view parameters, the corresponding directions and the user's current work, and the fill light position and fill light intensity of the photosensitive goggles are controlled along the fill light logic, which is compatible with the control of the color grade and light transmittance level of the photosensitive goggles, and the fill light of the photosensitive goggles is increased, thereby realizing multi-dimensional control of the photosensitive goggles and realizing intelligent control of the photosensitive goggles in various application scenarios. BRIEF DESCRIPTION OF THE DRAWINGS

[0063] In order to more clearly illustrate the embodiments of the present invention or the technical solutions in the prior art, the drawings required for use in the embodiments or the description of the prior art will be briefly introduced below. Obviously, the drawings described below are only some embodiments of the present invention. For ordinary technicians in this field, other drawings can be obtained based on these drawings without paying creative work.

[0064] Figure 1 is a flow chart of a method for controlling light-sensing goggles in an embodiment of the present invention;

[0065] Figure 2 is a flow chart of S11 in the method for controlling light-sensing goggles in an embodiment of the present invention;

[0066] Figure 3 is a flow chart of S12 in the method for controlling light-sensing goggles in an embodiment of the present invention;

[0067] Figure 4 is a schematic flow chart of S13 in the method for controlling light-sensing goggles in an embodiment of the present invention;

[0068] Figure 5 is a flow chart of S14 in the method for controlling light-sensing goggles in an embodiment of the present invention;

[0069] Figure 6 is a flow chart of S15 in the method for controlling light-sensing goggles in an embodiment of the present invention;

[0070] Figure 7 is a schematic flow chart of S16 in the method for controlling light-sensing goggles in an embodiment of the present invention;

[0071] Figure 8 Schematic diagram of the structure of the control system of the light sensing goggles in the embodiment of the present invention;

[0072] Fig. 9 The figure is a hardware diagram of an electronic device according to an exemplary embodiment. DETAILED DESCRIPTION

[0073] The following will be combined with the drawings in the embodiments of the present invention to clearly and completely describe the technical solutions in the embodiments of the present invention. Obviously, the described embodiments are only part of the embodiments of the present invention, not all of the embodiments. Based on the embodiments of the present invention, all other embodiments obtained by ordinary technicians in this field without creative work are within the scope of protection of the present invention.

[0074] See also Figures 1 to 9 A control method for light-sensitive goggles is applied to the control scene of light-sensitive goggles; the light-sensitive goggles include light-sensitive goggles lenses and light-sensitive goggles frames, the light-sensitive goggles lenses are photochromic lenses, and are installed in the light-sensitive goggles frames; the control method for light-sensitive goggles includes:

[0075] Step S11: collecting multiple environmental parameters according to the environmental detection of the location where the light sensing goggles are located;

[0076] Step S12: constructing a corresponding detection space based on the model of the light-sensing goggles, the detection range of the light-sensing goggles, and the moving direction of the user;

[0077] Step S13: determining the ambient brightness and the visual field influence characteristics according to a plurality of environmental parameters, and constructing the application scenario of the light sensing goggles based on the ambient brightness, the visual field influence characteristics and the detection space;

[0078] Step S14: matching corresponding lens optimization logic based on the application scenario of the light-sensing goggles, the working state of the light-sensing goggles and the current work of the user, and triggering dynamic optimization of the color of the light-sensing goggles based on the lens optimization logic;

[0079] Step S15: collecting multiple parameters of the user's eyes based on the light-sensing goggles, determining the eye fatigue state according to the multiple parameters, and determining the color level and light transmittance level of the light-sensing goggles according to the eye fatigue state, the color of the light-sensing goggles, and the application scenario of the light-sensing goggles;

[0080] Step S16: When the user wearing the light-sensing goggles is working, the space detected by the light-sensing goggles is collected, and multiple field of view parameters are defined according to the traversal of the space. The corresponding fill light logic is matched based on the multiple field of view parameters, the corresponding directions and the user's current work, and the fill light position and fill light intensity of the light-sensing goggles are controlled along the fill light logic.

[0081] In an embodiment of the present invention, through the method in the embodiment of the present invention, multiple environmental parameters are collected according to the environmental detection of the location where the photosensitive goggles are located; a corresponding detection space is constructed based on the model of the photosensitive goggles, the detection range of the photosensitive goggles and the user's moving direction; the ambient brightness and the field of view impact characteristics are determined according to the multiple environmental parameters, and the application scenario of the photosensitive goggles is constructed based on the ambient brightness, the field of view impact characteristics and the detection space; the corresponding lens optimization logic is matched based on the application scenario of the photosensitive goggles, the working status of the photosensitive goggles and the current work of the user, and the dynamic optimization of the color of the photosensitive goggles is triggered based on the lens optimization logic, which is compatible with the overall consideration of the application scenario of the photosensitive goggles, the working status of the photosensitive goggles and the current work of the user, and realizes multi-dimensional control of the application scenario of the photosensitive goggles, the working status of the photosensitive goggles and the current work of the user, ensures the adaptability of the lens optimization logic to the photosensitive goggles, and dynamically optimizes the color of the photosensitive goggles to adapt to various scenarios.

[0082] Furthermore, multiple parameters of the user's eyes are collected based on photosensitive goggles, the fatigue state of the eyes is determined based on the multiple parameters, and the color grade and light transmittance level of the photosensitive goggles are determined based on the fatigue state of the eyes, the color of the photosensitive goggles and the application scenarios of the photosensitive goggles; when the user wearing the photosensitive goggles is working, the space detected by the photosensitive goggles is collected, and multiple field of view parameters are defined according to the traversal of the space, and the corresponding fill light logic is matched based on the multiple field of view parameters, the corresponding directions and the user's current work, and the fill light position and fill light intensity of the photosensitive goggles are controlled along the fill light logic, which is compatible with the control of the color grade and light transmittance level of the photosensitive goggles, and the fill light of the photosensitive goggles is increased, thereby realizing multi-dimensional control of the photosensitive goggles and realizing intelligent control of the photosensitive goggles in various application scenarios.

[0083] refer to Figure 2 , in step S11, a plurality of environmental parameters are collected according to the environmental detection of the location where the light sensing goggles are located;

[0084] In the specific implementation process of the present invention, the specific steps may be:

[0085] S111: collecting response signals of light-sensing goggles;

[0086] S112: determining the position of the light sensing goggles according to the analysis of the response signal;

[0087] S113: freeze the position of the light sensing goggles;

[0088] S114: matching a corresponding environment detection method according to the location of the light-sensing goggles and the range detected by the light-sensing goggles, and triggering environment detection of the location of the light-sensing goggles according to the environment detection method;

[0089] S115: Based on the environmental detection of the location where the light-sensing goggles are located, a plurality of environmental parameters are collected. The plurality of environmental parameters are distributed at different locations and are reasonably distributed along the range detected by the light-sensing goggles.

[0090] In an embodiment of the present application, response signals of the photosensitive goggles are collected, and the response signals of the photosensitive goggles are controlled, so that the position of the photosensitive goggles is determined based on the analysis of the response signals, and the position of the photosensitive goggles is introduced, thereby achieving preliminary positioning of the position of the photosensitive goggles.

[0091] Furthermore, the position of the light-sensitive goggles is frozen, and the position of the light-sensitive goggles is controlled, so as to match the corresponding environmental detection method according to the position of the light-sensitive goggles and the range detected by the light-sensitive goggles, and trigger environmental detection of the position of the light-sensitive goggles along the environmental detection method, which is compatible with the overall consideration of the position of the light-sensitive goggles and the range detected by the light-sensitive goggles, realizes multi-dimensional control of the position of the light-sensitive goggles and the range detected by the light-sensitive goggles, and ensures the accuracy of environmental detection of the position of the light-sensitive goggles.

[0092] Therefore, multiple environmental parameters are collected based on the environmental detection of the location where the light-sensing goggles are located. The multiple environmental parameters are distributed in different locations and are reasonably distributed along the range detected by the light-sensing goggles, so as to facilitate further control of the multiple environmental parameters and achieve overall consideration of multiple environmental parameters.

[0093] refer to Figure 3 , in step S12, a corresponding detection space is constructed based on the model of the light-sensing goggles, the detection range of the light-sensing goggles, and the moving direction of the user;

[0094] In the specific implementation process of the present invention, the specific steps may be:

[0095] S121: Collect the detection range of light sensing goggles;

[0096] S122: Associating the model of the light sensing goggles, the detection range of the light sensing goggles, and the moving direction of the user;

[0097] S123: defining a first spatial parameter based on the model of the light sensing goggles and the detection range of the light sensing goggles;

[0098] S124: defining a second space parameter based on the detection range of the light sensing goggles and the moving direction of the user;

[0099] S125: Associating the second spatial parameter, the first spatial parameter, and a spatial learning model corresponding to the light sensing goggles;

[0100] S126: Construct a corresponding detection space according to the second space parameter, the first space parameter and the space learning model.

[0101] In an embodiment of the present application, the detection range of the photosensitive goggles is collected and introduced, and the detection range of the photosensitive goggles is controlled. At the same time, the model of the photosensitive goggles, the detection range of the photosensitive goggles and the user's movement direction are associated, thereby achieving multi-dimensional control of the model of the photosensitive goggles, the detection range of the photosensitive goggles and the user's movement direction, and ensuring the overall consideration of the model of the photosensitive goggles, the detection range of the photosensitive goggles and the user's movement direction.

[0102] Furthermore, the first spatial parameter is defined based on the model of the photosensitive goggles and the detection range of the photosensitive goggles, which is compatible with the overall consideration of the model of the photosensitive goggles and the detection range of the photosensitive goggles, realizes multi-dimensional control of the model of the photosensitive goggles and the detection range of the photosensitive goggles, and ensures the accuracy of the first spatial parameter.

[0103] At the same time, the second space parameters are defined based on the detection range of the light-sensing goggles and the user's moving direction, which is compatible with the overall consideration of the detection range of the light-sensing goggles and the user's moving direction, realizes multi-dimensional control of the detection range of the light-sensing goggles and the user's moving direction, and ensures the accuracy of the second space parameters.

[0104] Therefore, by associating the second spatial parameter, the first spatial parameter and the spatial learning model corresponding to the light-sensing goggles, multi-dimensional control of the second spatial parameter, the first spatial parameter and the spatial learning model corresponding to the light-sensing goggles is achieved, so that the corresponding detection space is constructed according to the second spatial parameter, the first spatial parameter and the spatial learning model, thereby ensuring the accuracy of the detection space.

[0105] refer to Figure 4 In step S13, in the floor cleaning space, the ambient brightness and the visual field influence characteristics are determined according to a plurality of environmental parameters, and the application scenario of the light sensing goggles is constructed based on the ambient brightness, the visual field influence characteristics and the detection space;

[0106] In the specific implementation process of the present invention, the specific steps may be:

[0107] S131: Collect multiple environmental parameters;

[0108] S132: constructing multiple parameter combinations based on multiple environmental parameters, corresponding positions, and detection methods of light sensing goggles;

[0109] S133: determining the ambient brightness and visual field influence characteristics according to the identification of the combination of multiple parameters;

[0110] S134: Correlation of ambient brightness, visual field influence characteristics, and detection space;

[0111] S135: defining a first scene coefficient according to the ambient brightness and the field of view influence characteristic, and defining a second scene coefficient according to the ambient brightness and the detection space;

[0112] S136: Construct an application scenario of the light-sensing goggles based on the second scene coefficient, the first scene coefficient and the scene model.

[0113] In an embodiment of the present application, multiple environmental parameters are collected and introduced, and overall control is performed on the multiple environmental parameters. At the same time, multiple parameter combinations are constructed based on the multiple environmental parameters, the corresponding positions, and the detection methods of the light-sensing goggles. Multiple environmental parameters, the corresponding positions, and the detection methods of the light-sensing goggles are introduced, thereby achieving multi-dimensional control of the multiple environmental parameters, the corresponding positions, and the detection methods of the light-sensing goggles, and ensuring the accuracy of the multiple parameter combinations.

[0114] Furthermore, the ambient brightness and field of view influence characteristics are determined based on the identification of multiple parameter combinations, multiple parameter combinations are introduced, and the multiple parameter combinations are managed in multiple dimensions. Multiple features are output based on the simultaneous identification of multiple parameter combinations, and the corresponding ambient brightness and field of view influence characteristics are screened from the multiple features, and the ambient brightness and field of view influence characteristics are introduced.

[0115] Therefore, the ambient brightness, field of view influencing characteristics and detection space are associated; the first scene coefficient is defined according to the ambient brightness and field of view influencing characteristics, and the second scene coefficient is defined according to the ambient brightness and detection space; the application scenario of the light-sensing goggles is constructed based on the second scene coefficient, the first scene coefficient and the scene model, which is compatible with the overall consideration of the second scene coefficient, the first scene coefficient and the scene model, and realizes multi-dimensional control of the second scene coefficient, the first scene coefficient and the scene model, thereby ensuring the accuracy of the application scenario of the light-sensing goggles.

[0116] refer to Figure 5 , S14: matching the corresponding lens optimization logic based on the application scenario of the light-sensing goggles, the working state of the light-sensing goggles and the current work of the user, and triggering the dynamic optimization of the color of the light-sensing goggles based on the lens optimization logic;

[0117] In the specific implementation process of the present invention, the specific steps may be:

[0118] S141: Application scenarios of freeze-frame light-sensing goggles;

[0119] S142: Associating the application scenario of the light sensing goggles, the working status of the light sensing goggles, and the current work of the user;

[0120] S143: triggering multiple interactions according to the application scenario of the light-sensing goggles, the working state of the light-sensing goggles, and the current work of the user, and matching corresponding lens optimization logic in the multiple interactions;

[0121] S144: Triggering dynamic optimization of the color of the light-sensing goggle lens based on the lens optimization logic.

[0122] In an embodiment of the present application, multiple environmental parameters are collected according to the environmental detection of the location where the photosensitive goggles are located; a corresponding detection space is constructed based on the model of the photosensitive goggles, the detection range of the photosensitive goggles and the user's movement direction; the ambient brightness and the field of view impact characteristics are determined according to the multiple environmental parameters, and the application scenario of the photosensitive goggles is constructed based on the ambient brightness, the field of view impact characteristics and the detection space; the corresponding lens optimization logic is matched based on the application scenario of the photosensitive goggles, the working status of the photosensitive goggles and the current work of the user, and the dynamic optimization of the color of the photosensitive goggles is triggered based on the lens optimization logic, which is compatible with the overall consideration of the application scenario of the photosensitive goggles, the working status of the photosensitive goggles and the current work of the user, and realizes multi-dimensional control of the application scenario of the photosensitive goggles, the working status of the photosensitive goggles and the current work of the user, ensures the adaptability of the lens optimization logic to the photosensitive goggles, and dynamically optimizes the color of the photosensitive goggles to adapt to various scenarios.

[0123] At this time, the application scenario of the light-sensing goggles is frozen, and the application scenario of the light-sensing goggles is controlled, so as to process the application scenario of the light-sensing goggles. At the same time, the application scenario of the light-sensing goggles, the working status of the light-sensing goggles and the current work of the user are associated; multiple interactions are triggered according to the application scenario of the light-sensing goggles, the working status of the light-sensing goggles and the current work of the user, and the corresponding lens optimization logic is matched in the multiple interactions, which is compatible with the multi-dimensional control of the application scenario of the light-sensing goggles, the working status of the light-sensing goggles and the current work of the user, thereby ensuring the accuracy of the lens optimization logic, thereby triggering the dynamic optimization of the color of the light-sensing goggles based on the lens optimization logic.

[0124] refer to Figure 6 S15: collecting multiple parameters of the user's eyes based on the light-sensing goggles, determining the eye fatigue state according to the multiple parameters, and determining the color level and light transmittance level of the light-sensing goggles according to the eye fatigue state, the color of the light-sensing goggles, and the application scenario of the light-sensing goggles;

[0125] In the specific implementation process of the present invention, the specific steps may be:

[0126] S151: When the light-sensing goggles are opposite to the eyes of the user, the position of the eyes of the user is collected based on the light-sensing goggles;

[0127] S152: collecting multiple parameters of the user's eyes according to the position of the user's eyes and the dynamic shooting of the light-sensing goggles;

[0128] S153: determining the eye fatigue state according to the plurality of parameters and the position and shape of the eyeball;

[0129] S154: Correlate the eye fatigue status, the color of the light sensing goggles, and the application scenarios of the light sensing goggles;

[0130] S155: determining a first morphological parameter of the light-sensing goggles according to the fatigue state of the eyes and the color of the light-sensing goggles, and determining a second morphological parameter of the light-sensing goggles according to the fatigue state of the eyes and the application scenario of the light-sensing goggles;

[0131] S156: Determine the color grade of the light-sensitive goggles according to the multi-dimensional control of the second morphological parameters and the first morphological parameters, and match the corresponding light transmittance grade according to the color grade of the light-sensitive goggles and the thickness of the light-sensitive goggles.

[0132] In an embodiment of the present application, when the photosensitive goggles are opposite to the user's eyes, the position of the user's eyes is collected based on the photosensitive goggles, and eye detection is introduced. At the same time, multiple parameters of the user's eyes are collected according to the position of the user's eyes and the dynamic shooting of the photosensitive goggles, and multi-dimensional control is performed on the multiple parameters of the user's eyes, and then the fatigue state of the eyes is determined according to the multiple parameters and the position and shape of the eyeball, which is compatible with the overall consideration of multiple parameters and the position and shape of the eyeball, realizes multi-dimensional control of multiple parameters and the position and shape of the eyeball, and ensures the accuracy of the fatigue state of the eyes.

[0133] At this time, the fatigue state of the eyes, the color of the light-sensitive goggles, and the application scenarios of the light-sensitive goggles are correlated, and multi-dimensional control is carried out according to the fatigue state of the eyes, the color of the light-sensitive goggles, and the application scenarios of the light-sensitive goggles.

[0134] At the same time, the first morphological parameters of the photosensitive goggles are determined according to the fatigue state of the eyes and the color of the photosensitive goggles, and the second morphological parameters of the photosensitive goggles are determined according to the fatigue state of the eyes and the application scenario of the photosensitive goggles, so as to introduce the first morphological parameters and the second morphological parameters and realize multiple interactions of the first morphological parameters and the second morphological parameters.

[0135] Therefore, the color grade of the photosensitive goggles is determined according to the multi-dimensional control of the second morphological parameters and the first morphological parameters, the multi-dimensional control of the first morphological parameters and the second morphological parameters is introduced, and the accuracy of the color grade of the lenses is guaranteed. The color grade of the lenses is further controlled so as to match the corresponding light transmittance grade according to the color grade of the photosensitive goggles and the thickness of the photosensitive goggles. The overall control of the color grade and light transmittance grade of the photosensitive goggles is compatible, and the multi-dimensional intelligent management and control of the photosensitive goggles is realized.

[0136] refer to Figure 7 S16: When the user wearing the light sensing goggles is working, the space detected by the light sensing goggles is collected, a plurality of field of view parameters are defined according to the traversal of the space, a corresponding fill light logic is matched based on the plurality of field of view parameters, the corresponding orientation and the current work of the user, and the fill light position and fill light intensity of the light sensing goggles are controlled according to the fill light logic;

[0137] In the specific implementation process of the present invention, the specific steps may be:

[0138] S161: When the user wearing the light sensing goggles is working, collecting the space detected by the light sensing goggles;

[0139] S162: Based on the positioning detection of the space and the shape of the space and the overall area of ​​the space, matching a corresponding traversal mode according to the shape of the space and the overall area of ​​the space, and triggering the traversal of the space based on the traversal mode;

[0140] S163: defining a plurality of field of view parameters according to the traversal of the space;

[0141] S164: Associating multiple field of view parameters, corresponding directions, and the user's current task;

[0142] S165: matching corresponding fill light logic based on multiple field of view parameters, corresponding orientations, and the user's current work;

[0143] S166: Controlling the fill light position and fill light intensity of the light sensing goggles according to the fill light logic.

[0144] In the specific implementation process of the present invention, multiple parameters of the user's eyes are collected based on the photosensitive goggles, the fatigue state of the eyes is determined according to the multiple parameters, and the color grade and light transmittance level of the photosensitive goggles are determined according to the fatigue state of the eyes, the color of the photosensitive goggles and the application scenarios of the photosensitive goggles; when the user wearing the photosensitive goggles is working, the space detected by the photosensitive goggles is collected, and multiple field of view parameters are defined according to the traversal of the space, and the corresponding fill light logic is matched based on the multiple field of view parameters, the corresponding orientation and the current work of the user, and the fill light position and fill light intensity of the photosensitive goggles are controlled along the fill light logic, which is compatible with the regulation of the color grade and light transmittance level of the photosensitive goggles, and the fill light of the photosensitive goggles is increased, thereby realizing multi-dimensional regulation of the photosensitive goggles and realizing intelligent control of the photosensitive goggles in various application scenarios.

[0145] At this time, when the user wearing the light-sensing goggles is working, the space detected by the light-sensing goggles is collected and introduced, and the space detected by the light-sensing goggles is controlled, so as to detect the shape of the space and the overall area of ​​the space based on the positioning of the space, match the corresponding traversal mode according to the shape of the space and the overall area of ​​the space, and trigger the traversal of the space based on the traversal mode, thereby realizing the traversal of the space, so as to further control the space.

[0146] Therefore, multiple field of view parameters are defined according to the traversal of the space; multiple field of view parameters, corresponding directions and the user's current work are associated; corresponding fill light logic is matched based on multiple field of view parameters, corresponding directions and the user's current work; the fill light position and fill light intensity of the light-sensitive goggles are controlled along the fill light logic, which is compatible with the control of the color level and transmittance level of the light-sensitive goggles, and the fill light of the light-sensitive goggles is increased, thereby realizing multi-dimensional control of the light-sensitive goggles and realizing intelligent control of the light-sensitive goggles in various application scenarios.

[0147] In another embodiment of the present invention, the structure of the light-sensing goggles is described. The light-sensing goggles are mainly composed of the device body light-sensing goggles and the light source control boxes on both sides. The main components of the device body light-sensing goggles are light-sensing goggles and light-sensing goggles frames. The light-sensing goggles use photochromic lenses, which automatically change the color of the lenses according to the light and intelligently adjust the light transmittance to make the human eye adapt to the changing light and dark environment during the day and night, reducing visual fatigue. The light-sensing goggles frame has a contour shape design that can be stuck on myopic glasses, and can also be worn by myopic workers.

[0148] The upper end of the light-sensing goggles frame is the battery installation position, and the battery upper cover has a built-in battery to provide power for the device. Both sides of the light-sensing goggles frame are provided with frame side panels for fixing the light source control boxes connected to the two sides of the light-sensing goggles.

[0149] The light source control box is mainly composed of a light source control box and a light source control box, the light source control box is embedded in the light source control box, and then fixed by a screw combination.

[0150] The light source control boxes at both ends of the light sensing goggles are fixedly connected to the frame side panels on both sides of the light sensing goggles through bolts. At the same time, a buffer sheet is arranged between the frame side panel and the side wall of the light source control box, which has a buffering effect during the installation process.

[0151] The back of the light-sensing goggles is designed with an elastic band that is ergonomic and fits the head when worn. Regardless of the size of the head circumference, the tightness can be adjusted.

[0152] A circuit board is arranged inside the light source control box, on which there are two groups of lamp beads, and the light sources of the lamp beads can be switched on and off by means of a gear switch.

[0153] At the same time, the light source control box reserves a convex lens installation hole, and the convex lens is installed on the light source control box. Since the convex lens and the lamp bead are at the same horizontal height, the light source imaging principle is formed. The lamp bead emits parallel light at the focal position, which can illuminate farther. When the lamp bead is not in the focal position, the irradiation area is larger but the irradiation distance is short. When the bulb is in the focal position, it emits parallel light, which can illuminate farther. When the bulb is not in the focal position, the irradiation area is larger but the irradiation distance is short.

[0154] In an embodiment of the present invention, through the method in the embodiment of the present invention, multiple environmental parameters are collected according to the environmental detection of the location where the photosensitive goggles are located; a corresponding detection space is constructed based on the model of the photosensitive goggles, the detection range of the photosensitive goggles and the user's moving direction; the ambient brightness and the field of view impact characteristics are determined according to the multiple environmental parameters, and the application scenario of the photosensitive goggles is constructed based on the ambient brightness, the field of view impact characteristics and the detection space; the corresponding lens optimization logic is matched based on the application scenario of the photosensitive goggles, the working status of the photosensitive goggles and the current work of the user, and the dynamic optimization of the color of the photosensitive goggles is triggered based on the lens optimization logic, which is compatible with the overall consideration of the application scenario of the photosensitive goggles, the working status of the photosensitive goggles and the current work of the user, and realizes multi-dimensional control of the application scenario of the photosensitive goggles, the working status of the photosensitive goggles and the current work of the user, ensures the adaptability of the lens optimization logic to the photosensitive goggles, and dynamically optimizes the color of the photosensitive goggles to adapt to various scenarios.

[0155] Furthermore, multiple parameters of the user's eyes are collected based on photosensitive goggles, the fatigue state of the eyes is determined based on the multiple parameters, and the color grade and light transmittance level of the photosensitive goggles are determined based on the fatigue state of the eyes, the color of the photosensitive goggles and the application scenarios of the photosensitive goggles; when the user wearing the photosensitive goggles is working, the space detected by the photosensitive goggles is collected, and multiple field of view parameters are defined according to the traversal of the space, and the corresponding fill light logic is matched based on the multiple field of view parameters, the corresponding directions and the user's current work, and the fill light position and fill light intensity of the photosensitive goggles are controlled along the fill light logic, which is compatible with the control of the color grade and light transmittance level of the photosensitive goggles, and the fill light of the photosensitive goggles is increased, thereby realizing multi-dimensional control of the photosensitive goggles and realizing intelligent control of the photosensitive goggles in various application scenarios.

[0156] See also Figure 8 , Figure 8 Schematic diagram of the structure of the control system of the light sensing goggles in the embodiment of the present invention.

[0157] like Figure 8 As shown, a control system of light-sensing goggles, the control system of the light-sensing goggles comprises:

[0158] A collection module 21, used to collect multiple environmental parameters according to the environmental detection of the location where the light sensing goggles are located;

[0159] The detection space module 22 is used to construct a corresponding detection space based on the model of the light sensing goggles, the detection range of the light sensing goggles and the moving direction of the user;

[0160] An application scenario module 23 is used to determine the ambient brightness and the visual field influence characteristics according to a plurality of environmental parameters, and to construct an application scenario of the light sensing goggles based on the ambient brightness, the visual field influence characteristics and the detection space;

[0161] The color module 24 is used to match the corresponding lens optimization logic based on the application scenario of the light-sensing goggles, the working state of the light-sensing goggles and the current work of the user, and trigger the dynamic optimization of the color of the light-sensing goggles based on the lens optimization logic;

[0162] The lens module 25 is used to collect multiple parameters of the user's eyes based on the light-sensing goggles, determine the eye fatigue state according to the multiple parameters, and determine the color level and light transmittance level of the light-sensing goggles according to the eye fatigue state, the color of the light-sensing goggles and the application scenario of the light-sensing goggles;

[0163] The fill light module 26 is used to collect the space detected by the light-sensing goggles when the user wearing the light-sensing goggles is working, define multiple field of view parameters according to the traversal of the space, match the corresponding fill light logic based on the multiple field of view parameters, the corresponding directions and the user's current work, and control the fill light position and fill light intensity of the light-sensing goggles along the fill light logic.

[0164] See also Fig. 9 , refer to the following Fig. 9 The electronic device 40 according to this embodiment of the present invention will be described. Fig. 9 The electronic device 40 shown is only an example and should not bring any limitation to the functions and scope of use of the embodiments of the present invention.

[0165] like Fig. 9 As shown, the electronic device 40 is in the form of a general computing device. The components of the electronic device 40 may include but are not limited to: at least one processing unit 41, at least one storage unit 42, and a bus 43 connecting different system components (including the storage unit 42 and the processing unit 41).

[0166] The storage unit stores program codes, which can be executed by the processing unit 41, so that the processing unit 41 executes the steps according to various exemplary embodiments of the present invention described in the above “Embodiment Method” section of this specification.

[0167] The storage unit 42 may include a readable medium in the form of a volatile storage unit, such as a random access memory unit (RAM) 421 and / or a cache memory unit 422 , and may further include a read-only memory unit (ROM) 423 .

[0168] The storage unit 42 may also include a program / utility 424 having a set (at least one) of program modules 425, such program modules 425 including but not limited to: an operating system, one or more application programs, other program modules, and program data, each of which or some combination may include an implementation of a network environment.

[0169] Bus 43 may represent one or more of several types of bus structures, including a memory unit bus or memory unit controller, a peripheral bus, an accelerated graphics port, a processing unit, or a local bus using any of a variety of bus architectures.

[0170] The electronic device 40 may also communicate with one or more external devices (e.g., keyboards, pointing devices, Bluetooth devices, etc.), one or more devices that enable a user to interact with the electronic device 40, and / or any device that enables the electronic device 40 to communicate with one or more other computing devices (e.g., routers, modems, etc.). Such communication may be performed via an input / output (I / O) interface 44. Furthermore, the electronic device 40 may also communicate with one or more networks (e.g., a local area network (LAN), a wide area network (WAN), and / or a public network, such as the Internet) via a network adapter 45. Fig. 9 As shown, the network adapter 45 communicates with other modules of the electronic device 40 via the bus 43. It should be understood that although Fig. 9 Not shown, other hardware and / or software modules may be used in conjunction with the electronic device 40, including but not limited to: microcode, device drivers, redundant processing units, external disk drive arrays, RAID systems, tape drives, and data backup planning systems.

[0171] Through the description of the above implementation, it is easy for those skilled in the art to understand that the example implementation described here can be implemented by software, or by software combined with necessary hardware. Therefore, the technical solution according to the implementation of the present disclosure can be embodied in the form of a software product, which can be stored in a non-volatile storage medium (which can be a CD-ROM, a USB flash drive, a mobile hard disk, etc.) or on a network, including several instructions to enable a computing device (which can be a personal computer, a server, a multi-parameter sensor device, or a network device, etc.) to execute the method according to the implementation of the present disclosure.

[0172] Those skilled in the art can understand that all or some of the steps in the various methods of the above embodiments can be completed by instructing related hardware through a program, and the program can be stored in a computer-readable storage medium, and the storage medium can include: a read-only memory (ROM), a random access memory (RAM), a disk or an optical disk, etc. In addition, it stores computer program instructions, and when the computer program instructions are executed by a computer, the computer executes the above method.

[0173] In addition, the control method and system of the light-sensing goggles provided in the embodiments of the present invention are introduced in detail above. Specific examples are used herein to illustrate the principles and implementation methods of the present invention. The description of the above embodiments is only used to help understand the method of the present invention and its core idea. For those skilled in the art, according to the idea of ​​the present invention, there will be changes in the specific implementation methods and application scope. In summary, the content of this specification should not be understood as a limitation on the present invention.

Claims

1. A method for controlling light-sensing goggles, characterized in that: The control scenario is applied to light-sensing goggles; the light-sensing goggles include light-sensing goggles lenses and light-sensing goggles frames, the light-sensing goggles lenses are photochromic lenses, and are installed in the light-sensing goggles frames; The control method of the light sensing goggles comprises: Collecting multiple environmental parameters based on environmental detection of the location where the light sensing goggles are located; Construct a corresponding detection space based on the model of the light-sensing goggles, the detection range of the light-sensing goggles, and the user's moving direction; Determine the environmental brightness and visual field influence characteristics according to multiple environmental parameters, and build application scenarios of light sensing goggles based on the environmental brightness, visual field influence characteristics and detection space; Match the corresponding lens optimization logic based on the application scenario of the light-sensing goggles, the working status of the light-sensing goggles and the user's current work, and trigger the dynamic optimization of the color of the light-sensing goggles based on the lens optimization logic; Collecting multiple parameters of the user's eyes based on the light-sensing goggles, determining the eye fatigue state according to the multiple parameters, and determining the color level and light transmittance level of the light-sensing goggles according to the eye fatigue state, the color of the light-sensing goggles, and the application scenario of the light-sensing goggles; When a user wearing light-sensing goggles is working, the space detected by the light-sensing goggles is collected, and multiple field of view parameters are defined based on the traversal of the space. The corresponding fill light logic is matched based on the multiple field of view parameters, the corresponding directions and the user's current work, and the fill light position and fill light intensity of the light-sensing goggles are controlled along the fill light logic.

2. The control method of light sensing goggles according to claim 1, characterized in that: The method of collecting multiple environmental parameters based on the environmental detection of the location where the light sensing goggles are located includes: Collecting response signals of light-sensing goggles; Determining the position of the light sensing goggles according to the analysis of the response signal; Freeze the position of the light sensing goggles; Matching a corresponding environment detection method according to the location of the light-sensing goggles and the range detected by the light-sensing goggles, and triggering environment detection of the location of the light-sensing goggles along the environment detection method; Based on the environmental detection of the location where the light-sensing goggles are located, multiple environmental parameters are collected. The multiple environmental parameters are distributed in different locations and are reasonably distributed along the range detected by the light-sensing goggles.

3. The control method of light sensing goggles according to claim 2, characterized in that: The method of constructing a corresponding detection space based on the model of the light-sensing goggles, the detection range of the light-sensing goggles, and the moving direction of the user includes: Collect the detection range of light sensing goggles; Associate the model of the light sensing goggles, the detection range of the light sensing goggles, and the user's movement direction; Defining a first spatial parameter based on the model of the light sensing goggles and the detection range of the light sensing goggles; Defining a second spatial parameter based on the detection range of the light sensing goggles and the movement direction of the user; Associating the second spatial parameter, the first spatial parameter, and a spatial learning model corresponding to the light sensing goggles; A corresponding detection space is constructed according to the second space parameter, the first space parameter and the space learning model.

4. The control method of light sensing goggles according to claim 3, characterized in that: The method of determining the ambient brightness and the visual field influence characteristics according to multiple environmental parameters, and constructing the application scenario of the light sensing goggles based on the ambient brightness, the visual field influence characteristics and the detection space, includes: Collect multiple environmental parameters; Construct multiple parameter combinations based on multiple environmental parameters, corresponding locations, and detection methods of light-sensing goggles; Determine the environmental brightness and visual field influence characteristics based on the recognition of multiple parameter combinations; Correlate ambient brightness, visual field impact characteristics, and detection space; A first scene coefficient is defined according to the ambient brightness and the visual field influence characteristics, and a second scene coefficient is defined according to the ambient brightness and the detection space; An application scenario of the light-sensing goggles is constructed based on the second scene coefficient, the first scene coefficient and the scene model.

5. The control method of light sensing goggles according to claim 4, characterized in that: The lens optimization logic corresponding to the application scenario of the light-sensing goggles, the working state of the light-sensing goggles and the current work of the user is matched, and the dynamic optimization of the color of the light-sensing goggles is triggered based on the lens optimization logic, including: Application scenarios of freeze-frame light-sensing goggles; Associating the application scenario of the light sensing goggles, the working status of the light sensing goggles and the current work of the user; Trigger multiple interactions based on the application scenarios of the light-sensing goggles, the working status of the light-sensing goggles, and the user's current work, and match the corresponding lens optimization logic in the multiple interactions; Trigger dynamic optimization of the color of light-sensitive goggle lenses based on lens optimization logic.

6. The control method of light sensing goggles according to claim 5, characterized in that: The method collects multiple parameters of the user's eyes based on the light-sensing goggles, determines the eye fatigue state according to the multiple parameters, and determines the color level and light transmittance level of the light-sensing goggles according to the eye fatigue state, the color of the light-sensing goggles, and the application scenario of the light-sensing goggles, including: When the light-sensing goggles are opposite to the eyes of the user, the position of the eyes of the user is collected based on the light-sensing goggles; Collecting multiple parameters of the user's eyes according to the position of the user's eyes and the dynamic shooting of the light-sensing goggles; The state of eye fatigue is determined based on multiple parameters and the position and shape of the eyeball.

7. The control method of light sensing goggles according to claim 6, characterized in that: The method collects multiple parameters of the user's eyes based on the light-sensing goggles, determines the eye fatigue state according to the multiple parameters, and determines the color level and light transmittance level of the light-sensing goggles according to the eye fatigue state, the color of the light-sensing goggles, and the application scenario of the light-sensing goggles, and also includes: Correlate the state of eye fatigue, the color of the light-sensing goggles, and the application scenarios of light-sensing goggles; Determine a first morphological parameter of the light-sensing goggles according to the fatigue state of the eyes and the color of the light-sensing goggles, and determine a second morphological parameter of the light-sensing goggles according to the fatigue state of the eyes and the application scenario of the light-sensing goggles; The color grade of the light-sensitive goggles is determined according to the multi-dimensional control of the second morphological parameters and the first morphological parameters, and the corresponding light transmittance grade is matched according to the color grade of the light-sensitive goggles and the thickness of the light-sensitive goggles.

8. The control method of light sensing goggles according to claim 7, characterized in that: When the user wearing the light-sensing goggles is working, the space detected by the light-sensing goggles is collected, a plurality of field of view parameters are defined according to the traversal of the space, a corresponding fill light logic is matched based on the plurality of field of view parameters, the corresponding orientation and the current work of the user, and the fill light position and fill light intensity of the light-sensing goggles are controlled along the fill light logic, including: When the user wearing the light sensing goggles is working, the space detected by the light sensing goggles is collected; Based on the positioning detection of the space and the shape of the space and the overall area of ​​the space, a corresponding traversal mode is matched according to the shape of the space and the overall area of ​​the space, and the traversal of the space is triggered based on the traversal mode; A plurality of field of view parameters are defined according to the traversal of the space.

9. The control method of light sensing goggles according to claim 8, characterized in that: When the user wearing the light sensing goggles is working, the space detected by the light sensing goggles is collected, a plurality of field of view parameters are defined according to the traversal of the space, a corresponding fill light logic is matched based on the plurality of field of view parameters, the corresponding orientation and the current work of the user, and the fill light position and fill light intensity of the light sensing goggles are controlled along the fill light logic, and the method further includes: Associating multiple field of view parameters, corresponding orientations, and the user's current work; Matching corresponding fill light logic based on multiple field of view parameters, corresponding orientation and the user's current work; The fill light position and fill light intensity of the light sensing goggles are controlled according to the fill light logic.

10. A control system for light-sensing goggles, characterized in that: The control system of the light-sensing goggles is applied to the control method of the light-sensing goggles as described in any one of claims 1 to 9, and the control system of the light-sensing goggles includes: A collection module, used for collecting multiple environmental parameters according to the environmental detection of the location where the light sensing goggles are located; The detection space module is used to construct a corresponding detection space based on the model of the light sensing goggles, the detection range of the light sensing goggles and the movement direction of the user; An application scenario module is used to determine the ambient brightness and visual field influence characteristics according to multiple environmental parameters, and to construct an application scenario of light sensing goggles based on the ambient brightness, visual field influence characteristics and detection space; A color module is used to match the corresponding lens optimization logic based on the application scenario of the light-sensing goggles, the working status of the light-sensing goggles, and the current work of the user, and trigger the dynamic optimization of the color of the light-sensing goggles based on the lens optimization logic; A lens module, for collecting multiple parameters of the user's eyes based on the light-sensing goggles, determining the eye fatigue state according to the multiple parameters, and determining the color level and light transmittance level of the light-sensing goggles according to the eye fatigue state, the color of the light-sensing goggles, and the application scenario of the light-sensing goggles; The fill light module is used to collect the space detected by the light-sensing goggles when the user wearing the light-sensing goggles is working, define multiple field of view parameters according to the traversal of the space, match the corresponding fill light logic based on the multiple field of view parameters, the corresponding directions and the user's current work, and control the fill light position and fill light intensity of the light-sensing goggles along the fill light logic.

Images