Light sensing control method and system for red dot sight

Abstract

The present invention discloses a light sensing control method and system for a red dot sight. The method defines a corresponding current parameter according to an electric energy parameter, and constructs a first energy supply mode based on the current parameter and a battery of the red dot sight; constructs a second energy supply mode of a solar panel to energy-consuming components of the red dot sight according to the power of the battery, the working mode of the red dot sight, and the energy-consuming components of the red dot sight; defines a division ratio of the current parameter according to the second energy supply mode, the energy consumption capacity of the energy-consuming components, and the first energy supply mode. The real-time illumination intensity is defined based on the sunlight parameter, and the illumination environment of the solar panel is defined based on the real-time illumination intensity and the real-time illumination area; triggers a dynamic change in the display brightness of the red dot sight according to the illumination environment of the solar panel and the display scene of the red dot sight at the current time, and dynamically adjusts the display brightness of the red dot sight, thereby improving the light sensing control effect of the red dot sight relative to sunlight.

Description

Technical Field

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

[0002] With the development of science and technology, red dot sights are applied to all aspects of society. In red dot sights, red dot sights are equipped with solar panels and locally powered by solar panels. At this time, solar panels mainly supply energy through the photoelectric effect, and cannot clearly determine the lighting environment of the solar panels during the energy supply process, which affects the light control effect of the red dot sight relative to sunlight. 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 light sensing control method and system for a red dot sight, which collects the energy supply path of the red dot sight, defines the energy supply part of the solar panel based on the energy supply path of the red dot sight; defines electric energy parameters and sunlight parameters based on real-time detection of the energy supply part of the solar panel; defines corresponding current parameters according to the electric energy parameters, and constructs a first energy supply mode based on the current parameters and the battery of the red dot sight to dynamically supply energy to the battery of the red dot sight; and dynamically supplies energy to the battery of the red dot sight according to the battery power, the red dot sight, and the energy supply path of the red dot sight. The working mode of the sight and the energy-consuming components of the red dot sight construct a second energy supply mode for the energy-consuming components of the red dot sight by the solar panel; the division ratio of the current parameters is defined according to the second energy supply mode, the energy consumption capacity of the energy-consuming components and the first energy supply mode, so as to introduce the second energy supply mode and the first energy supply mode, and the energy supply of the energy-consuming components and the energy supply of the battery are triggered according to the second energy supply mode and the first energy supply mode, thereby controlling the division ratio of the current parameters, ensuring the dynamic balance of the energy supply of the energy-consuming components and the energy supply of the battery, and adapting to various application scenarios.

[0004] The real-time light intensity is defined based on sunlight parameters, and the lighting environment of the solar panel is defined based on the real-time light intensity and the real-time lighting area; the dynamic change of the display brightness of the red dot sight is triggered according to the lighting environment of the solar panel and the display scene of the red dot sight at the current time. At this time, the display brightness of the red dot sight changes dynamically with the dynamic change of the display scene of the red dot sight, so as to clarify the lighting environment of the solar panel during the energy supply process, and dynamically adjust the display brightness of the red dot sight, so as to fully consider the solar energy supply and the display of the red dot sight, and improve the light control effect of the red dot sight relative to sunlight.

[0005] The embodiment of the present invention provides a light sensing control method for a red dot sight, which is applied to a light sensing control scenario of a red dot sight;

[0006] The light sensing control method of the red dot sight comprises:

[0007] Collect the energy supply path of the red dot sight, and define the energy supply part of the solar panel based on the energy supply path of the red dot sight; collect the phased energy supply system, and supply energy at different stages and positions based on the phased energy supply system, so as to control the maximum energy supply effect of the energy supply part of the solar panel as a whole;

[0008] Defining electric energy parameters and sunlight parameters based on real-time detection of the energy supply part of the solar panel, and dynamically balancing the electric energy parameters and sunlight parameters;

[0009] Defining corresponding current parameters according to the electric energy parameters, and constructing a first energy supply mode based on the current parameters and the battery of the red dot sight to dynamically supply energy to the battery of the red dot sight;

[0010] A second energy supply mode of the solar panel to the energy-consuming components of the red dot sight is established according to the power of the battery, the working mode of the red dot sight and the energy-consuming components of the red dot sight; a division ratio of the current parameter is defined according to the second energy supply mode, the energy consumption capacity of the energy-consuming components and the first energy supply mode;

[0011] Define the real-time light intensity based on sunlight parameters, and define the lighting environment of the solar panel based on the real-time light intensity and the real-time lighting area; collect various lighting systems, define the lighting forms of the red dot sight in various directions based on each lighting system, and trigger the environmental adaptation of the red dot sight based on the lighting forms in various directions;

[0012] The dynamic change of the display brightness of the red dot sight is triggered according to the lighting environment of the solar panel and the display scene of the red dot sight at the current time. At this time, the display brightness of the red dot sight changes dynamically with the dynamic change of the display scene of the red dot sight.

[0013] Optionally, the collecting of the energy supply path of the red dot sight, defining the energy supply part of the solar panel based on the energy supply path of the red dot sight; collecting the phased energy supply system, and performing energy supply at different stages and different positions based on the phased energy supply system to overall control the maximum energy supply effect of the energy supply part of the solar panel, includes:

[0014] Collect the location of the red dot sight, and trigger the traversal of the red dot sight according to the location of the red dot sight;

[0015] Defining a power supply path of the red dot sight based on the traversal of the red dot sight, and collecting the power supply path of the red dot sight;

[0016] Define multiple power supply marking points according to the power supply path of the red dot sight;

[0017] Defining a power supply set based on multiple power supply markers and power supply components associated with a red dot sight;

[0018] The energy supply part of the solar panel is defined according to the screening of the energy supply set. At this time, the energy supply part of the solar panel is fixed and graded. The corresponding energy supply level is defined based on the position of each component in the energy supply part and the efficiency of the component. A phased energy supply system is defined based on the energy supply level, the energy consumption level of each component in the energy supply part and the service life of each component in the corresponding energy supply part.

[0019] Optionally, the method of defining electric energy parameters and sunlight parameters based on real-time detection of the energy supply part of the solar panel and dynamically balancing the electric energy parameters and sunlight parameters includes:

[0020] Freeze the energy supply part of the solar panel;

[0021] Defining multiple energy supply spaces based on the energy supply part of the solar panels;

[0022] Defining detection modes according to the functions corresponding to the multiple energy supply spaces and the working modes of the solar panels;

[0023] triggering a real-time detection of the energy supply part of the solar panel based on the detection mode;

[0024] A parameter set is defined based on real-time detection of the energy supply part of the solar panel, and electric energy parameters and solar light parameters are defined based on the division of the parameter set. At this time, the electric energy parameters and solar light parameters are associated, and a corresponding matching coefficient is defined based on the matching of the electric energy parameters and the solar light parameters. A coefficient variation is defined based on a comparison between the matching coefficient and a preset matching coefficient threshold. A coefficient deviation level is defined based on the coefficient variation and the energy supply part of the solar panel, and corresponding regulation is triggered based on the coefficient deviation level to dynamically balance the electric energy parameters and the solar light parameters.

[0025] Optionally, defining a corresponding current parameter according to the electric energy parameter, and constructing a first energy supply mode based on the current parameter and a battery of the red dot sight to dynamically supply energy to the battery of the red dot sight, includes:

[0026] Rated power parameters;

[0027] Define corresponding current parameters based on electric energy parameters;

[0028] Related current parameters and batteries for red dot sights;

[0029] Defining a first energy supply path based on current parameters and a battery of the red dot sight;

[0030] Establishing a first energy supply mode according to the first energy supply path, the current parameter and the energy supply efficiency of the battery;

[0031] The dynamic energy supply of the battery of the red dot sight is triggered based on the first energy supply method. At this time, the energy supply part of the solar panel dynamically supplies energy to the battery of the red dot sight.

[0032] Optionally, the second energy supply mode of the solar panel to the energy-consuming components of the red dot sight is constructed according to the power of the battery, the working mode of the red dot sight, and the energy-consuming components of the red dot sight; and the division ratio of the current parameter is defined according to the second energy supply mode, the energy consumption capacity of the energy-consuming components, and the first energy supply mode, including:

[0033] Collect the battery power;

[0034] If the battery charge is higher than the preset charge threshold, the battery charge, the working mode of the red dot sight, and the energy-consuming components of the red dot sight are correlated;

[0035] A first energy supply coefficient is constructed according to the power of the battery and the working mode of the red dot sight, and a second energy supply coefficient is constructed according to the power of the battery and the energy-consuming components of the red dot sight;

[0036] Define a second energy supply method of the solar panel to the energy-consuming components of the red dot sight according to the second energy supply coefficient and the first energy supply coefficient;

[0037] Associating the second energy supply mode, the energy consumption capacity of the energy consuming component, and the first energy supply mode;

[0038] The division ratio of the current parameter is defined according to the second energy supply mode, the energy consumption capacity of the energy consumption component and the first energy supply mode.

[0039] Optionally, defining the real-time illumination intensity based on sunlight parameters, and defining the illumination environment of the solar panel based on the real-time illumination intensity and the real-time illumination area, includes:

[0040] Set the sunlight parameters;

[0041] Define real-time light intensity based on sunlight parameter screening;

[0042] Collect the real-time light intensity at each marked position, and build a light diagram based on the light intensity and the corresponding position.

[0043] Optionally, the method of defining the real-time illumination intensity based on sunlight parameters, defining the illumination environment of the solar panel based on the real-time illumination intensity and the real-time illumination area; collecting various illumination systems, defining the illumination forms of the red dot sight in various directions based on the various illumination systems, and triggering the environmental adaptation of the red dot sight based on the illumination forms in various directions, further includes:

[0044] Triggering positioning detection based on each marker position;

[0045] Defining a plurality of illumination regions according to the detected images of the respective marking positions;

[0046] Match corresponding illumination areas according to multiple illumination regions, and construct real-time illumination areas from the multiple illumination areas;

[0047] In the lighting diagram, the real-time light intensity and the real-time lighting area are associated, and the lighting environment of the solar panel is defined based on the real-time light intensity and the real-time lighting area. At this time, the lighting environment of the solar panel is frozen, and multiple sub-environments are divided based on the lighting environment of the solar panel. Corresponding environmental spaces are formed according to the multiple sub-environments, and each environmental space and the red dot sight are associated, and a lighting system is constructed for each environmental space and the red dot sight.

[0048] Optionally, the method triggers a dynamic change in the display brightness of the red dot sight according to the lighting environment of the solar panel and the display scene of the red dot sight at the current time, wherein the display brightness of the red dot sight changes dynamically with the dynamic change of the display scene of the red dot sight, including:

[0049] Freeze the lighting environment of the solar panel;

[0050] Match the current time based on the lighting environment of the solar panel;

[0051] The display scene of the red dot sight at the current time is matched based on the current time.

[0052] Optionally, the method triggers a dynamic change in the display brightness of the red dot sight according to the lighting environment of the solar panel and the display scene of the red dot sight at the current time, wherein the display brightness of the red dot sight changes dynamically with the dynamic change of the display scene of the red dot sight, further comprising:

[0053] Associate the lighting environment of the solar panel with the display scene of the red dot sight at the current time;

[0054] Define scene change parameters according to the lighting environment of the solar panel and the display scene of the red dot sight at the current time;

[0055] The corresponding scene change level is defined according to the scene change parameters, and the dynamic change of the display brightness of the red dot sight is triggered according to the scene change level, the lighting environment of the solar panel and the display scene of the red dot sight at the current time. At this time, the display brightness of the red dot sight changes dynamically with the dynamic change of the display scene of the red dot sight.

[0056] In addition, an embodiment of the present invention further provides a light sensing control system for a red dot sight, the light sensing control system for the red dot sight comprising:

[0057] The acquisition module is used to acquire the energy supply path of the red dot sight, and define the energy supply part of the solar panel based on the energy supply path of the red dot sight; acquire the phased energy supply system, and supply energy at different stages and positions based on the phased energy supply system, so as to control the maximum energy supply effect of the energy supply part of the solar panel as a whole;

[0058] A parameter module, used to define electric energy parameters and sunlight parameters based on real-time detection of the energy supply part of the solar panel, and dynamically balance the electric energy parameters and sunlight parameters;

[0059] A first energy supply module, used for defining corresponding current parameters according to the electric energy parameters, and constructing a first energy supply mode based on the current parameters and the battery of the red dot sight, so as to dynamically supply energy to the battery of the red dot sight;

[0060] The second energy supply module is used to construct a second energy supply mode for the energy-consuming components of the red dot sight by the solar panel according to the power of the battery, the working mode of the red dot sight and the energy-consuming components of the red dot sight; and define a division ratio of the current parameter according to the second energy supply mode, the energy consumption capacity of the energy-consuming components and the first energy supply mode;

[0061] The lighting environment module is used to define the real-time lighting intensity based on sunlight parameters, and to define the lighting environment of the solar panel based on the real-time lighting intensity and the real-time lighting area; collect various lighting systems, define the lighting forms of the red dot sight in various directions based on each lighting system, and trigger the environmental adaptation of the red dot sight based on the lighting forms in various directions;

[0062] The display brightness module is used to trigger the dynamic change of the display brightness of the red dot sight according to the lighting environment of the solar panel and the display scene of the red dot sight at the current time. At this time, the display brightness of the red dot sight changes dynamically with the dynamic change of the display scene of the red dot sight.

[0063] In an embodiment of the present invention, through the method in the embodiment of the present invention, the energy supply path of the red dot sight is collected, and the energy supply part of the solar panel is defined based on the energy supply path of the red dot sight; the electric energy parameters and sunlight parameters are defined based on the real-time detection of the energy supply part of the solar panel; the corresponding current parameters are defined according to the electric energy parameters, and the first energy supply mode is constructed based on the current parameters and the battery of the red dot sight to dynamically supply energy to the battery of the red dot sight; the second energy supply mode of the solar panel to the energy-consuming components of the red dot sight is constructed according to the battery power, the working mode of the red dot sight and the energy-consuming components of the red dot sight; the division ratio of the current parameters is defined according to the second energy supply mode, the energy consumption capacity of the energy-consuming components and the first energy supply mode, so as to introduce the second energy supply mode and the first energy supply mode, and trigger the energy supply of the energy-consuming components and the energy supply of the battery according to the second energy supply mode and the first energy supply mode, and then control the division ratio of the current parameters, ensure the dynamic balance of the energy supply of the energy-consuming components and the energy supply of the battery, and adapt to various application scenarios.

[0064] The real-time light intensity is defined based on sunlight parameters, and the lighting environment of the solar panel is defined based on the real-time light intensity and the real-time lighting area; the dynamic change of the display brightness of the red dot sight is triggered according to the lighting environment of the solar panel and the display scene of the red dot sight at the current time. At this time, the display brightness of the red dot sight changes dynamically with the dynamic change of the display scene of the red dot sight, so as to clarify the lighting environment of the solar panel during the energy supply process, and dynamically adjust the display brightness of the red dot sight, so as to fully consider the solar energy supply and the display of the red dot sight, and improve the light control effect of the red dot sight relative to sunlight. BRIEF DESCRIPTION OF THE DRAWINGS

[0065] 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.

[0066] Figure 1 is a flow chart of a light sensing control method of a red dot sight in an embodiment of the present invention;

[0067] Figure 2 is a flow chart of S11 in the light sensing control method of the red dot sight in the embodiment of the present invention;

[0068] Figure 3 is a flow chart of S12 in the light sensing control method of the red dot sight in the embodiment of the present invention;

[0069] Figure 4 is a flow chart of S13 in the light sensing control method of the red dot sight in the embodiment of the present invention;

[0070] Figure 5 is a flow chart of S14 in the light sensing control method of the red dot sight in the embodiment of the present invention;

[0071] Figure 6 is a flow chart of S15 in the light sensing control method of the red dot sight in the embodiment of the present invention;

[0072] Figure 7 is a flow chart of S16 in the light sensing control method of the red dot sight in the embodiment of the present invention;

[0073] Figure 8 Schematic diagram of the structure of the light sensing control system of the red dot sight in the embodiment of the present invention;

[0074] Fig. 9 The figure is a hardware diagram of an electronic device according to an exemplary embodiment. DETAILED DESCRIPTION

[0075] 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.

[0076] See also Figures 1 to 9 , a light sensing control method for a red dot sight, applied to a light sensing control scenario of a red dot sight; the light sensing control method for a red dot sight comprises:

[0077] Step S11: collecting the energy supply path of the red dot sight, and defining the energy supply part of the solar panel based on the energy supply path of the red dot sight; collecting the phased energy supply system, and performing energy supply at different stages and different positions based on the phased energy supply system, so as to control the maximum energy supply effect of the energy supply part of the solar panel as a whole;

[0078] Step S12: defining electric energy parameters and sunlight parameters based on real-time detection of the energy supply part of the solar panel, and dynamically balancing the electric energy parameters and sunlight parameters;

[0079] Step S13: defining corresponding current parameters according to the electric energy parameters, and constructing a first energy supply mode based on the current parameters and the battery of the red dot sight to dynamically supply energy to the battery of the red dot sight;

[0080] Step S14: constructing a second energy supply mode of the solar panel to the energy-consuming components of the red dot sight according to the power of the battery, the working mode of the red dot sight, and the energy-consuming components of the red dot sight; defining a division ratio of the current parameter according to the second energy supply mode, the energy consumption capacity of the energy-consuming components, and the first energy supply mode;

[0081] Step S15: defining the real-time illumination intensity based on the sunlight parameters, and defining the illumination environment of the solar panel based on the real-time illumination intensity and the real-time illumination area; collecting various illumination systems, defining the illumination forms of the red dot sight in various directions based on the various illumination systems, and triggering the environmental adaptation of the red dot sight based on the illumination forms in various directions;

[0082] Step S16: triggering the dynamic change of the display brightness of the red dot sight according to the lighting environment of the solar panel and the display scene of the red dot sight at the current time. At this time, the display brightness of the red dot sight changes dynamically with the dynamic change of the display scene of the red dot sight.

[0083] In an embodiment of the present invention, through the method in the embodiment of the present invention, the energy supply path of the red dot sight is collected, and the energy supply part of the solar panel is defined based on the energy supply path of the red dot sight; the electric energy parameters and sunlight parameters are defined based on the real-time detection of the energy supply part of the solar panel; the corresponding current parameters are defined according to the electric energy parameters, and the first energy supply mode is constructed based on the current parameters and the battery of the red dot sight to dynamically supply energy to the battery of the red dot sight; the second energy supply mode of the solar panel to the energy-consuming components of the red dot sight is constructed according to the battery power, the working mode of the red dot sight and the energy-consuming components of the red dot sight; the division ratio of the current parameters is defined according to the second energy supply mode, the energy consumption capacity of the energy-consuming components and the first energy supply mode, so as to introduce the second energy supply mode and the first energy supply mode, and trigger the energy supply of the energy-consuming components and the energy supply of the battery according to the second energy supply mode and the first energy supply mode, and then control the division ratio of the current parameters, ensure the dynamic balance of the energy supply of the energy-consuming components and the energy supply of the battery, and adapt to various application scenarios.

[0084] The real-time light intensity is defined based on sunlight parameters, and the lighting environment of the solar panel is defined based on the real-time light intensity and the real-time lighting area; the dynamic change of the display brightness of the red dot sight is triggered according to the lighting environment of the solar panel and the display scene of the red dot sight at the current time. At this time, the display brightness of the red dot sight changes dynamically with the dynamic change of the display scene of the red dot sight, so as to clarify the lighting environment of the solar panel during the energy supply process, and dynamically adjust the display brightness of the red dot sight, so as to fully consider the solar energy supply and the display of the red dot sight, and improve the light control effect of the red dot sight relative to sunlight.

[0085] refer to Figure 2 In step S11, the energy supply path of the red dot sight is collected, and the energy supply part of the solar panel is defined based on the energy supply path of the red dot sight; the phased energy supply system is collected, and energy is supplied at different stages and different positions based on the phased energy supply system, so as to control the maximum energy supply effect of the energy supply part of the solar panel as a whole;

[0086] In the specific implementation process of the present invention, the specific steps may be:

[0087] S111: collecting the position of the red dot sight, and triggering the traversal of the red dot sight according to the position of the red dot sight;

[0088] S112: defining a power supply path of the red dot sight based on the traversal of the red dot sight, and collecting the power supply path of the red dot sight;

[0089] S113: defining a plurality of energy supply marking points according to an energy supply path of the red dot sight;

[0090] S114: defining an energy supply set based on multiple energy supply marking points and energy supply components associated with the red dot sight;

[0091] S115: Defining the energy supply part of the solar panel according to the screening of the energy supply set.

[0092] In an embodiment of the present application, the position of the red dot sight is collected, and the traversal of the red dot sight is triggered according to the position of the red dot sight, so as to facilitate the traversal of the red dot sight, thereby defining the energy supply path of the red dot sight based on the traversal of the red dot sight, collecting the energy supply path of the red dot sight, further controlling the energy supply path of the red dot sight, and ensuring the subsequent processing of the energy supply path of the red dot sight.

[0093] Therefore, multiple energy supply marking points are defined according to the energy supply path of the red dot sight, so that multiple energy supply marking points are introduced, so as to perform fixed-point detection according to the multiple energy supply marking points. At the same time, an energy supply set is defined based on the multiple energy supply marking points and the energy supply components associated with the red dot sight, and the energy supply set is frozen to facilitate further processing of the energy supply set, and then the energy supply part of the solar panel is defined according to the screening of the energy supply set, thereby ensuring the accuracy of the energy supply part of the solar panel.

[0094] At this time, the energy supply part of the solar panel is frozen, and the energy supply part of the solar panel is divided into levels. The corresponding energy supply level is defined based on the position of each component in the energy supply part and the efficiency of the component. A staged energy supply system is defined based on the energy supply level, the energy consumption level of each component in the energy supply part and the corresponding service life of each component in the energy supply part. The staged energy supply system is collected, and energy is supplied in different stages and positions based on the staged energy supply system, so as to control the maximum energy supply effect of the energy supply part of the solar panel as a whole.

[0095] refer to Figure 3 In step S12, electric energy parameters and sunlight parameters are defined based on real-time detection of the energy supply part of the solar panel, and the electric energy parameters and sunlight parameters are dynamically balanced;

[0096] In the specific implementation process of the present invention, the specific steps may be:

[0097] S121: freeze the energy supply part of the solar panel;

[0098] S122: defining a plurality of energy supply spaces based on the energy supply part of the solar panel;

[0099] S123: defining a detection mode according to the functions corresponding to the plurality of energy supply spaces and the working mode of the solar panels;

[0100] S124: triggering real-time detection of the energy supply part of the solar panel based on the detection mode;

[0101] S125: defining a parameter set according to the real-time detection of the energy supply part of the solar panel, and defining electric energy parameters and sunlight parameters according to the division of the parameter set.

[0102] In an embodiment of the present application, the energy supply part of the solar panel is fixed, and the energy supply part of the solar panel is controlled, so as to define multiple energy supply spaces based on the energy supply part of the solar panel, introduce multiple energy supply spaces, and then further process the multiple energy supply spaces.

[0103] At this time, the detection mode is defined according to the functions corresponding to the multiple energy supply spaces and the working modes of the solar panels, so as to be compatible with the overall consideration of the functions corresponding to the multiple energy supply spaces and the working modes of the solar panels, realize the multi-dimensional control of the functions corresponding to the multiple energy supply spaces and the working modes of the solar panels, and ensure the accuracy of the detection mode.

[0104] Therefore, the real-time detection of the power supply part of the solar panel is triggered based on the detection mode, which ensures the real-time detection of the power supply part of the solar panel. At the same time, a parameter set is defined according to the real-time detection of the power supply part of the solar panel, and the electric energy parameters and solar light parameters are defined according to the division of the parameter set. The electric energy parameters and solar light parameters are introduced, the subsequent processing of the electric energy parameters and solar light parameters is realized, and the overall consideration of the electric energy parameters and solar light parameters is compatible.

[0105] At this time, the electric energy parameters and the solar light parameters are associated, and the corresponding matching coefficient is defined based on the matching of the electric energy parameters and the solar light parameters. The coefficient change is defined based on the comparison between the matching coefficient and the preset matching coefficient threshold. The coefficient deviation level is defined according to the coefficient change and the energy supply part of the solar panel. The corresponding regulation is triggered based on the coefficient deviation level to dynamically balance the electric energy parameters and the solar light parameters.

[0106] refer to Figure 4 In step S13, a corresponding current parameter is defined according to the electric energy parameter, and a first energy supply mode is constructed based on the current parameter and the battery of the red dot sight to dynamically supply energy to the battery of the red dot sight;

[0107] In the specific implementation process of the present invention, the specific steps may be:

[0108] S131: rated power parameters;

[0109] S132: defining corresponding current parameters based on the electric energy parameters;

[0110] S133: Related current parameters and batteries for red dot sights;

[0111] S134: defining a first energy supply path based on the current parameter and a battery of the red dot sight;

[0112] S135: constructing a first energy supply mode according to the first energy supply path, the current parameter, and the energy supply efficiency of the battery;

[0113] S136: triggering the dynamic energy supply of the battery of the red dot sight based on the first energy supply method. At this time, the energy supply part of the solar panel dynamically supplies energy to the battery of the red dot sight.

[0114] In the embodiment of the present application, the electric energy parameters are frozen, and the electric energy parameters are further controlled, so that the corresponding current parameters are defined based on the electric energy parameters, so that the current parameters are introduced and further control of the current parameters is achieved.

[0115] At this time, the current parameters and the battery of the red dot sight are associated, and the current parameters and the battery of the red dot sight are processed as a whole, so as to define a first energy supply path based on the current parameters and the battery of the red dot sight, and the first energy supply path is controlled in multiple dimensions to ensure the accuracy of the first energy supply path.

[0116] Therefore, the first energy supply mode is constructed according to the first energy supply path, current parameters and energy supply efficiency of the battery, and the first energy supply path, current parameters and energy supply efficiency of the battery are fully considered. The first energy supply path, current parameters and energy supply efficiency of the battery are controlled as a whole to ensure the accuracy of the first energy supply mode. Furthermore, the dynamic energy supply of the battery of the red dot sight is triggered based on the first energy supply mode. At this time, the energy supply part of the solar panel dynamically supplies energy to the battery of the red dot sight, thereby realizing the energy supply to the battery and ensuring the charging of the battery of the red dot sight.

[0117] refer to Figure 5 S14: constructing a second energy supply mode of the solar panel to the energy-consuming components of the red dot sight according to the power of the battery, the working mode of the red dot sight, and the energy-consuming components of the red dot sight; defining a division ratio of the current parameter according to the second energy supply mode, the energy consumption capacity of the energy-consuming components, and the first energy supply mode;

[0118] In the specific implementation process of the present invention, the specific steps may be:

[0119] S141: Collecting battery power;

[0120] S142: If the battery power is higher than the preset power threshold, the battery power, the working mode of the red dot sight, and the energy-consuming components of the red dot sight are correlated;

[0121] S143: constructing a first energy supply coefficient according to the power of the battery and the working mode of the red dot sight, and at the same time, constructing a second energy supply coefficient according to the power of the battery and the energy-consuming components of the red dot sight;

[0122] S144: defining a second energy supply method of the solar panel to the energy-consuming components of the red dot sight according to the second energy supply coefficient and the first energy supply coefficient;

[0123] S145: Associating the second energy supply mode, the energy consumption capacity of the energy consuming component, and the first energy supply mode;

[0124] S146: defining a division ratio of the current parameter according to the second energy supply mode, the energy consumption capacity of the energy consumption component, and the first energy supply mode.

[0125] In an embodiment of the present application, a power supply path of a red dot sight is collected, and a power supply part of a solar panel is defined based on the power supply path of the red dot sight; electric energy parameters and sunlight parameters are defined based on real-time detection of the power supply part of the solar panel; corresponding current parameters are defined according to the electric energy parameters, and a first power supply mode is constructed based on the current parameters and a battery of the red dot sight to dynamically power the battery of the red dot sight; a second power supply mode of the solar panel to the energy-consuming components of the red dot sight is constructed according to the battery power, the working mode of the red dot sight, and the energy-consuming components of the red dot sight; a division ratio of the current parameters is defined according to the second power supply mode, the energy consumption capacity of the energy-consuming components, and the first power supply mode, so as to introduce the second power supply mode and the first power supply mode, and trigger the energy supply of the energy-consuming components and the battery according to the second power supply mode and the first power supply mode, thereby controlling the division ratio of the current parameters, ensuring the dynamic balance of the energy supply of the energy-consuming components and the energy supply of the battery, and adapting to various application scenarios.

[0126] At this time, the battery power is collected and introduced, and the battery power is controlled. At this time, if the battery power is higher than the preset power threshold, the battery power, the working mode of the red dot sight, and the energy-consuming components of the red dot sight are associated, and the battery power, the working mode of the red dot sight, and the energy-consuming components of the red dot sight are further processed to ensure multi-dimensional control of the battery power, the working mode of the red dot sight, and the energy-consuming components of the red dot sight.

[0127] Therefore, a first energy supply coefficient is constructed according to the battery power and the working mode of the red dot sight, so as to perform in-depth interaction with the battery power and the working mode of the red dot sight, thereby making full use of the battery power and the working mode of the red dot sight, ensuring the first energy supply coefficient. At the same time, a second energy supply coefficient is constructed according to the battery power and the energy-consuming components of the red dot sight, so as to perform multi-dimensional control of the battery power and the energy-consuming components of the red dot sight, ensuring control of the second energy supply coefficient.

[0128] Furthermore, a second energy supply mode of the solar panel to the energy-consuming components of the red dot sight is defined according to the second energy supply coefficient and the first energy supply coefficient, so as to make full use of the second energy supply coefficient and the first energy supply coefficient, realize multi-dimensional control of the second energy supply coefficient and the first energy supply coefficient, ensure the second energy supply mode of the solar panel to the energy-consuming components of the red dot sight, perform online power supply for the energy-consuming components of the red dot sight, reduce the power supply pressure of the battery to the energy-consuming components, and realize the use of backup energy of the solar panel.

[0129] At the same time, the second energy supply mode, the energy consumption capacity of the energy-consuming components and the first energy supply mode are associated; the division ratio of the current parameters is defined according to the second energy supply mode, the energy consumption capacity of the energy-consuming components and the first energy supply mode, so as to facilitate compatibility with the second energy supply mode, the energy consumption capacity of the energy-consuming components and the first energy supply mode, realize simultaneous power supply to the battery and the energy-consuming components, and further realize synchronous power supply to the battery and the energy-consuming components, and present the power supply ratio of the solar panel to the battery and the energy-consuming components through the division ratio of the current parameters, so as to cope with different usage environments.

[0130] refer to Figure 6 S15: defining the real-time illumination intensity based on the sunlight parameters, defining the illumination environment of the solar panel based on the real-time illumination intensity and the real-time illumination area; collecting various illumination systems, defining the illumination forms of the red dot sight in various directions based on the various illumination systems, and triggering the environmental adaptation of the red dot sight based on the illumination forms in various directions;

[0131] In the specific implementation process of the present invention, the specific steps may be:

[0132] S151: freeze sunlight parameters;

[0133] S152: defining real-time illumination intensity based on screening of sunlight parameters;

[0134] S153: Collecting each marked position of the real-time light intensity, and constructing a light schematic diagram based on the light intensity and the corresponding position;

[0135] S154: triggering positioning detection based on each marked position;

[0136] S155: defining a plurality of illumination areas according to the detection images of the respective marking positions;

[0137] S156: Matching corresponding illumination areas according to the multiple illumination regions, and constructing a real-time illumination area from the multiple illumination areas;

[0138] S157: In the illumination schematic diagram, the real-time illumination intensity and the real-time illumination area are associated, and the illumination environment of the solar panel is defined according to the real-time illumination intensity and the real-time illumination area.

[0139] In the embodiments of the present application, sunlight parameters are fixed; real-time light intensity is defined based on the screening of sunlight parameters, the light intensity is controlled in real time, and the real-time light intensity is deeply processed, thereby making full use of the light intensity.

[0140] At this time, the real-time light intensity of each marked position is collected, and a light diagram is constructed based on the light intensity and the corresponding position, so as to introduce the light diagram and perform multi-dimensional control based on the light intensity and the corresponding position to ensure the accuracy of the light diagram.

[0141] Therefore, positioning detection is triggered based on each mark position to facilitate synchronous detection of each mark position. At the same time, multiple illumination areas are defined according to the detection image of each mark position. Multiple illumination areas are introduced, so as to match the corresponding illumination areas according to the multiple illumination areas, and the real-time illumination area is constructed from the multiple illumination areas, thereby ensuring the accuracy of the real-time illumination area and the dynamic change of the real-time illumination area.

[0142] Furthermore, in the lighting schematic diagram, the real-time light intensity and the real-time lighting area are associated, and the lighting environment of the solar panel is defined based on the real-time light intensity and the real-time lighting area, so as to facilitate multi-dimensional control through the real-time light intensity and the real-time lighting area, thereby realizing the control of the lighting environment of the solar panel and ensuring the accuracy of the lighting environment of the solar panel.

[0143] At this time, freeze the lighting environment of the solar panel, divide a plurality of sub-environments based on the lighting environment of the solar panel, form corresponding environmental spaces according to the plurality of sub-environments, associate each environmental space with the red dot sight, and build a lighting system for each environmental space and the red dot sight; collect each lighting system, define the lighting form of the red dot sight in each direction based on each lighting system, and trigger the environmental adaptation of the red dot sight based on the lighting form in each direction.

[0144] refer to Figure 7 , S16: triggering a dynamic change in the display brightness of the red dot sight according to the lighting environment of the solar panel and the display scene of the red dot sight at the current time. At this time, the display brightness of the red dot sight changes dynamically with the dynamic change of the display scene of the red dot sight;

[0145] In the specific implementation process of the present invention, the specific steps may be:

[0146] S161: freeze the lighting environment of the solar panel;

[0147] S162: Matching the corresponding current time based on the lighting environment of the solar panel;

[0148] S163: Matching a display scene of the red dot sight at the current time based on the current time;

[0149] S164: Associating the lighting environment of the solar panel and the display scene of the red dot sight at the current time; defining scene change parameters according to the lighting environment of the solar panel and the display scene of the red dot sight at the current time;

[0150] S165: Define the corresponding scene change level according to the scene change parameters, and trigger the dynamic change of the display brightness of the red dot sight according to the scene change level, the lighting environment of the solar panel and the display scene of the red dot sight at the current time. At this time, the display brightness of the red dot sight changes dynamically with the dynamic change of the display scene of the red dot sight.

[0151] In the specific implementation process of the present invention, the real-time light intensity is defined based on the sunlight parameters, and the lighting environment of the solar panel is defined based on the real-time light intensity and the real-time lighting area; the dynamic change of the display brightness of the red dot sight is triggered according to the lighting environment of the solar panel and the display scene of the red dot sight at the current time. At this time, the display brightness of the red dot sight changes dynamically with the dynamic change of the display scene of the red dot sight, so as to clarify the lighting environment of the solar panel during the power supply process, and dynamically adjust the display brightness of the red dot sight, so as to fully consider the solar energy supply and the display of the red dot sight, and improve the light control effect of the red dot sight relative to sunlight.

[0152] At this time, the lighting environment of the solar panel is frozen and controlled, so as to match the corresponding current time based on the lighting environment of the solar panel. The current time is introduced to control the display scene of the red dot sight according to the current time.

[0153] Therefore, based on the current time, the display scene of the red dot sight at the current time is matched, and the display scene of the red dot sight at the current time is further processed to facilitate the association of the lighting environment of the solar panel and the display scene of the red dot sight at the current time; the scene change parameters are defined according to the lighting environment of the solar panel and the display scene of the red dot sight at the current time, thereby ensuring the accuracy of the scene change parameters and realizing multi-dimensional control of the scene change parameters.

[0154] Furthermore, a corresponding scene change level is defined according to the scene change parameters, and a dynamic change of the display brightness of the red dot sight is triggered according to the scene change level, the lighting environment of the solar panel and the display scene of the red dot sight at the current time. At this time, the display brightness of the red dot sight changes dynamically with the dynamic change of the display scene of the red dot sight, so as to clarify the lighting environment of the solar panel during the power supply process and dynamically adjust the display brightness of the red dot sight, so as to fully consider the solar energy supply and the display of the red dot sight, and improve the light control effect of the red dot sight relative to sunlight.

[0155] In an embodiment of the present invention, through the method in the embodiment of the present invention, the energy supply path of the red dot sight is collected, and the energy supply part of the solar panel is defined based on the energy supply path of the red dot sight; the electric energy parameters and sunlight parameters are defined based on the real-time detection of the energy supply part of the solar panel; the corresponding current parameters are defined according to the electric energy parameters, and the first energy supply mode is constructed based on the current parameters and the battery of the red dot sight to dynamically supply energy to the battery of the red dot sight; the second energy supply mode of the solar panel to the energy-consuming components of the red dot sight is constructed according to the battery power, the working mode of the red dot sight and the energy-consuming components of the red dot sight; the division ratio of the current parameters is defined according to the second energy supply mode, the energy consumption capacity of the energy-consuming components and the first energy supply mode, so as to introduce the second energy supply mode and the first energy supply mode, and trigger the energy supply of the energy-consuming components and the energy supply of the battery according to the second energy supply mode and the first energy supply mode, and then control the division ratio of the current parameters, ensure the dynamic balance of the energy supply of the energy-consuming components and the energy supply of the battery, and adapt to various application scenarios.

[0156] The real-time light intensity is defined based on sunlight parameters, and the lighting environment of the solar panel is defined based on the real-time light intensity and the real-time lighting area; the dynamic change of the display brightness of the red dot sight is triggered according to the lighting environment of the solar panel and the display scene of the red dot sight at the current time. At this time, the display brightness of the red dot sight changes dynamically with the dynamic change of the display scene of the red dot sight, so as to clarify the lighting environment of the solar panel during the energy supply process, and dynamically adjust the display brightness of the red dot sight, so as to fully consider the solar energy supply and the display of the red dot sight, and improve the light control effect of the red dot sight relative to sunlight.

[0157] See also Figure 8 , Figure 8 It is a schematic diagram of the structural composition of the light sensing control system of the red dot sight in an embodiment of the present invention.

[0158] like Figure 8 As shown, a light sensing control system of a red dot sight, the light sensing control system of the red dot sight comprises:

[0159] The acquisition module 21 is used to acquire the energy supply path of the red dot sight, define the energy supply part of the solar panel based on the energy supply path of the red dot sight; acquire the phased energy supply system, and supply energy at different stages and different positions based on the phased energy supply system, so as to control the maximum energy supply effect of the energy supply part of the solar panel as a whole;

[0160] A parameter module 22, for defining electric energy parameters and sunlight parameters based on real-time detection of the energy supply part of the solar panel, and dynamically balancing the electric energy parameters and sunlight parameters;

[0161] A first energy supply module 23, used for defining corresponding current parameters according to the electric energy parameters, and constructing a first energy supply mode based on the current parameters and the battery of the red dot sight, so as to dynamically supply energy to the battery of the red dot sight;

[0162] The second energy supply module 24 is used to construct a second energy supply mode for the energy-consuming components of the red dot sight by the solar panel according to the power of the battery, the working mode of the red dot sight and the energy-consuming components of the red dot sight; and define a division ratio of the current parameter according to the second energy supply mode, the energy consumption capacity of the energy-consuming components and the first energy supply mode;

[0163] The lighting environment module 25 is used to define the real-time lighting intensity based on the sunlight parameters, and define the lighting environment of the solar panel based on the real-time lighting intensity and the real-time lighting area; collect various lighting systems, define the lighting forms of the red dot sight in various directions based on each lighting system, and trigger the environmental adaptation of the red dot sight based on the lighting forms in various directions;

[0164] The display brightness module 26 is used to trigger the dynamic change of the display brightness of the red dot sight according to the lighting environment of the solar panel and the display scene of the red dot sight at the current time. At this time, the display brightness of the red dot sight changes dynamically with the dynamic change of the display scene of the red dot sight.

[0165] 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.

[0166] 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).

[0167] 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.

[0168] 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 .

[0169] 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.

[0170] 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.

[0171] 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.

[0172] In particular, the red dot sight of the present invention can be a sight for firearms.

[0173] 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, and includes a number of instructions to enable a computing device (which can be a personal computer, a server, a terminal device, or a network device, etc.) to execute the method according to the implementation of the present disclosure.

[0174] Those skilled in the art can understand that all or part 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.

[0175] In addition, the light sensing control method and system for the red dot sight provided in the embodiment of the present invention are introduced in detail above. Specific examples are used herein to illustrate the principle and implementation mode 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. At the same time, for those skilled in the art, according to the idea of ​​the present invention, there will be changes in the specific implementation mode and application scope. In summary, the content of this specification should not be understood as a limitation on the present invention.

Claims

1. A light sensing control method for a red dot sight, characterized in that: Applied to light sensing control scenarios of red dot sights; The light sensing control method of the red dot sight comprises: Collect the energy supply path of the red dot sight, and define the energy supply part of the solar panel based on the energy supply path of the red dot sight; collect the phased energy supply system, and supply energy at different stages and positions based on the phased energy supply system, so as to control the maximum energy supply effect of the energy supply part of the solar panel as a whole; Defining electric energy parameters and sunlight parameters based on real-time detection of the energy supply part of the solar panel, and dynamically balancing the electric energy parameters and sunlight parameters; Defining corresponding current parameters according to the electric energy parameters, and constructing a first energy supply mode based on the current parameters and the battery of the red dot sight to dynamically supply energy to the battery of the red dot sight; A second energy supply mode of the solar panel to the energy-consuming components of the red dot sight is established according to the power of the battery, the working mode of the red dot sight and the energy-consuming components of the red dot sight; a division ratio of the current parameter is defined according to the second energy supply mode, the energy consumption capacity of the energy-consuming components and the first energy supply mode; Define the real-time light intensity based on sunlight parameters, and define the lighting environment of the solar panel based on the real-time light intensity and the real-time lighting area; collect various lighting systems, define the lighting forms of the red dot sight in various directions based on each lighting system, and trigger the environmental adaptation of the red dot sight based on the lighting forms in various directions; The display brightness of the red dot sight is dynamically changed according to the lighting environment of the solar panel and the display scene of the red dot sight at the current time. At this time, the display brightness of the red dot sight changes dynamically with the dynamic change of the display scene of the red dot sight; The method of defining electric energy parameters and solar light parameters based on real-time detection of the energy supply part of the solar panel includes: freezing the energy supply part of the solar panel; defining multiple energy supply spaces based on the energy supply part of the solar panel; defining a detection mode according to the functions corresponding to the multiple energy supply spaces and the working mode of the solar panel; triggering real-time detection of the energy supply part of the solar panel based on the detection mode; defining a parameter set according to the real-time detection of the energy supply part of the solar panel, and defining electric energy parameters and solar light parameters according to the division of the parameter set, at this time, associating the electric energy parameters and solar light parameters, defining corresponding matching coefficients based on the matching of the electric energy parameters and the solar light parameters, defining a coefficient variation based on the comparison between the matching coefficient and a preset matching coefficient threshold, defining a coefficient deviation level according to the coefficient variation and the energy supply part of the solar panel, triggering corresponding regulation based on the coefficient deviation level, so as to dynamically balance the electric energy parameters and the solar light parameters; The method of defining corresponding current parameters according to electric energy parameters and constructing a first energy supply mode based on the current parameters and the battery of the red dot sight to dynamically supply energy to the battery of the red dot sight includes: freezing the electric energy parameters; defining corresponding current parameters based on the electric energy parameters; associating the current parameters and the battery of the red dot sight; defining a first energy supply path based on the current parameters and the battery of the red dot sight; constructing a first energy supply mode according to the first energy supply path, the current parameters and the energy supply efficiency of the battery; triggering the dynamic energy supply of the battery of the red dot sight based on the first energy supply mode, at which time, the energy supply part of the solar panel dynamically supplies energy to the battery of the red dot sight.

2. The light sensing control method of the red dot sight according to claim 1, characterized in that: The collecting the energy supply path of the red dot sight and defining the energy supply part of the solar panel based on the energy supply path of the red dot sight include: Collect the location of the red dot sight, and trigger the traversal of the red dot sight according to the location of the red dot sight; Defining a power supply path of the red dot sight based on the traversal of the red dot sight, and collecting the power supply path of the red dot sight; Define multiple power supply marking points according to the power supply path of the red dot sight; Defining a power supply set based on multiple power supply markers and power supply components associated with a red dot sight; The energy supply part of the solar panel is defined according to the screening of the energy supply set. At this time, the energy supply part of the solar panel is fixed and graded. The corresponding energy supply level is defined based on the position of each component in the energy supply part and the efficiency of the component. A phased energy supply system is defined based on the energy supply level, the energy consumption level of each component in the energy supply part and the service life of each component in the corresponding energy supply part.

3. The light sensing control method of the red dot sight according to claim 1, characterized in that: The second energy supply mode of the solar panel to the energy-consuming components of the red dot sight is constructed according to the power of the battery, the working mode of the red dot sight and the energy-consuming components of the red dot sight; Defining a division ratio of the current parameter according to the second energy supply mode, the energy consumption capacity of the energy consumption component and the first energy supply mode includes: Collect the battery power; If the battery charge is higher than the preset charge threshold, the battery charge, the working mode of the red dot sight, and the energy-consuming components of the red dot sight are correlated; A first energy supply coefficient is constructed according to the power of the battery and the working mode of the red dot sight, and a second energy supply coefficient is constructed according to the power of the battery and the energy-consuming components of the red dot sight; Define a second energy supply method of the solar panel to the energy-consuming components of the red dot sight according to the second energy supply coefficient and the first energy supply coefficient; Associating the second energy supply mode, the energy consumption capacity of the energy consuming component, and the first energy supply mode; The division ratio of the current parameter is defined according to the second energy supply mode, the energy consumption capacity of the energy consumption component and the first energy supply mode.

4. The light sensing control method of the red dot sight according to claim 3, characterized in that: The method defines the real-time illumination intensity based on sunlight parameters, defines the illumination environment of the solar panel based on the real-time illumination intensity and the real-time illumination area; collects various illumination systems, defines the illumination forms of the red dot sight in various directions based on various illumination systems, and triggers the environmental adaptation of the red dot sight based on the illumination forms in various directions, including: Set the sunlight parameters; Define real-time light intensity based on sunlight parameter screening; Collect the real-time light intensity at each marked position, and build a light diagram based on the light intensity and the corresponding position.

5. The light sensing control method of the red dot sight according to claim 4, characterized in that: The method defines the real-time illumination intensity based on sunlight parameters, defines the illumination environment of the solar panel based on the real-time illumination intensity and the real-time illumination area; collects various illumination systems, defines the illumination forms of the red dot sight in various directions based on various illumination systems, and triggers the environmental adaptation of the red dot sight based on the illumination forms in various directions, and also includes: Triggering positioning detection based on each marker position; Defining a plurality of illumination regions according to the detected images of the respective marking positions; Match corresponding illumination areas according to multiple illumination regions, and construct real-time illumination areas from the multiple illumination areas; In the lighting diagram, the real-time light intensity and the real-time lighting area are associated, and the lighting environment of the solar panel is defined based on the real-time light intensity and the real-time lighting area. At this time, the lighting environment of the solar panel is frozen, and multiple sub-environments are divided based on the lighting environment of the solar panel. Corresponding environmental spaces are formed according to the multiple sub-environments, and each environmental space and the red dot sight are associated, and a lighting system is constructed for each environmental space and the red dot sight.

6. The light sensing control method of the red dot sight according to claim 5, characterized in that: The method triggers the dynamic change of the display brightness of the red dot sight according to the lighting environment of the solar panel and the display scene of the red dot sight at the current time, wherein the display brightness of the red dot sight changes dynamically with the dynamic change of the display scene of the red dot sight, including: Freeze the lighting environment of the solar panel; Match the current time based on the lighting environment of the solar panel; The display scene of the red dot sight at the current time is matched based on the current time.

7. The light sensing control method of the red dot sight according to claim 6, characterized in that: The method triggers the dynamic change of the display brightness of the red dot sight according to the lighting environment of the solar panel and the display scene of the red dot sight at the current time, wherein the display brightness of the red dot sight changes dynamically with the dynamic change of the display scene of the red dot sight, and further includes: Associating the lighting environment of the solar panel and the display scene of the red dot sight at the current time; defining scene change parameters according to the lighting environment of the solar panel and the display scene of the red dot sight at the current time; The corresponding scene change level is defined according to the scene change parameters, and the dynamic change of the display brightness of the red dot sight is triggered according to the scene change level, the lighting environment of the solar panel and the display scene of the red dot sight at the current time. At this time, the display brightness of the red dot sight changes dynamically with the dynamic change of the display scene of the red dot sight.

8. A light sensing control system for a red dot sight, characterized in that: The light sensing control system of the red dot sight is applied to the light sensing control method of the red dot sight as claimed in any one of claims 1 to 7, and the light sensing control system of the red dot sight comprises: The acquisition module is used to acquire the energy supply path of the red dot sight, and define the energy supply part of the solar panel based on the energy supply path of the red dot sight; acquire the phased energy supply system, and supply energy at different stages and positions based on the phased energy supply system, so as to control the maximum energy supply effect of the energy supply part of the solar panel as a whole; A parameter module, used to define electric energy parameters and sunlight parameters based on real-time detection of the energy supply part of the solar panel, and dynamically balance the electric energy parameters and sunlight parameters; A first energy supply module, used for defining corresponding current parameters according to the electric energy parameters, and constructing a first energy supply mode based on the current parameters and the battery of the red dot sight, so as to dynamically supply energy to the battery of the red dot sight; The second energy supply module is used to construct a second energy supply mode for the energy-consuming components of the red dot sight by the solar panel according to the power of the battery, the working mode of the red dot sight and the energy-consuming components of the red dot sight; and define a division ratio of the current parameter according to the second energy supply mode, the energy consumption capacity of the energy-consuming components and the first energy supply mode; The lighting environment module is used to define the real-time lighting intensity based on sunlight parameters, and to define the lighting environment of the solar panel based on the real-time lighting intensity and the real-time lighting area; collect various lighting systems, define the lighting forms of the red dot sight in various directions based on each lighting system, and trigger the environmental adaptation of the red dot sight based on the lighting forms in various directions; A display brightness module is used to trigger the dynamic change of the display brightness of the red dot sight according to the lighting environment of the solar panel and the display scene of the red dot sight at the current time. At this time, the display brightness of the red dot sight changes dynamically with the dynamic change of the display scene of the red dot sight; The method of defining electric energy parameters and solar light parameters based on real-time detection of the energy supply part of the solar panel includes: freezing the energy supply part of the solar panel; defining multiple energy supply spaces based on the energy supply part of the solar panel; defining a detection mode according to the functions corresponding to the multiple energy supply spaces and the working mode of the solar panel; triggering real-time detection of the energy supply part of the solar panel based on the detection mode; defining a parameter set according to the real-time detection of the energy supply part of the solar panel, and defining electric energy parameters and solar light parameters according to the division of the parameter set, at this time, associating the electric energy parameters and solar light parameters, defining corresponding matching coefficients based on the matching of the electric energy parameters and the solar light parameters, defining a coefficient variation based on the comparison between the matching coefficient and a preset matching coefficient threshold, defining a coefficient deviation level according to the coefficient variation and the energy supply part of the solar panel, triggering corresponding regulation based on the coefficient deviation level, so as to dynamically balance the electric energy parameters and the solar light parameters; The method of defining corresponding current parameters according to electric energy parameters and constructing a first energy supply mode based on the current parameters and the battery of the red dot sight to dynamically supply energy to the battery of the red dot sight includes: freezing the electric energy parameters; defining corresponding current parameters based on the electric energy parameters; associating the current parameters and the battery of the red dot sight; defining a first energy supply path based on the current parameters and the battery of the red dot sight; constructing a first energy supply mode according to the first energy supply path, the current parameters and the energy supply efficiency of the battery; triggering the dynamic energy supply of the battery of the red dot sight based on the first energy supply mode, at which time, the energy supply part of the solar panel dynamically supplies energy to the battery of the red dot sight.

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