AI eye protection lamp

Abstract

The invention provides an AI eye protection lamp which comprises an illumination module, a control module, a storage module, a camera module, a voice broadcast module, a voice acquisition module, a touch key and an AI module. The control module is connected with the illumination module, the storage module, the camera module, the voice broadcast module, the voice acquisition module, the touch key and the AI module. Wherein the control module is used for controlling the lighting module, the storage module, the camera module, the voice broadcast module, the AI module, the voice acquisition module and the touch key. According to the invention, the eyes of a user can naturally and harmoniously adapt to various illumination modes provided by the invention, so that the eyes can be relaxed, the functions of the eyes can be adjusted and even recovered, and the effect of naturally protecting the eyes can be achieved.

Description

Technical Field

[0001] The invention belongs to the technical field of lighting, and in particular relates to an AI eye protection lamp. Background Art

[0002] With the continuous development of social economy and the continuous improvement of people's living standards, electronic products have gradually entered people's lives. As a large number of electronic products enter people's field of vision, people will spend a lot of time watching the content on electronic products. During long-term viewing and use, the eyeball activity is at a short viewing distance for a long time. The narrow field of vision leads to unbalanced eye adjustment, the visual adjustment function is weakened due to the spasm of the extraocular muscles and ciliary muscles, and the eye axis grows to cause myopia, which makes people's vision gradually decline.

[0003] At the same time, since the imaging positions of different colors of light on the retina are different, the imaging of blue light falls on the front side of the retina. In order to ensure that the focus falls on the retina, the eyes will naturally open wider when looking at blue light, and the eye axis will change accordingly. At present, people often use electronic products or lighting devices for lighting. The spectrum emitted by electronic products and lighting devices is quite different from natural light. The amount of blue light spectrum in many lighting luminescence is high, and the spectrum curve of the blue light band fluctuates greatly and has poor stability. Especially when the human eye is reading or writing, it often "concentrates" or "stares" at the object being viewed. In this way, after long-term viewing, the eyes are fixed for a long time, and the eyes are easily fatigued, which causes great damage to people's vision, especially for teenagers whose eyes are still in the development stage. In particular, the harmful blue light band in the blue light band (400nm~500nm) is (430nm~455nm). Long-term exposure to harmful blue light in the band can cause myopia, cataracts, and macular degeneration and other eye diseases.

[0004] Therefore, it is urgent to develop a lamp that can relieve visual fatigue and has eye protection function. Summary of the invention

[0005] In view of the above problems, the present invention provides an AI eye protection lamp.

[0006] The AI ​​eye protection lamp provided by the present invention comprises: a lighting module, a control module, a storage module, a camera module, a voice broadcast module, a voice collection module, a touch button, an AI module,

[0007] The control module is connected to the lighting module, the storage module, the camera module, the voice broadcast module, the voice collection module, the touch button, and the AI ​​module;

[0008] in,

[0009] The lighting module is a multi-light source lighting module, including a full-color bionic white light source module with adjustable brightness and power, a red-orange light source module, a yellow light source module, and a green light source module;

[0010] The storage module is used to store information, including: basic information of the user of the AI ​​eye protection lamp, usage status information and commands of the user collected during debugging and use of the AI ​​eye protection lamp, and programs, parameters and generated data used by the control module when executing control functions;

[0011] The camera module is used to capture video of the user;

[0012] The voice broadcast module is used to perform voice prompts under the control of the control module, including: when debugging and using the AI ​​eye protection lamp, prompting the user to input the basic information by voice, prompting the lighting mode of the AI ​​eye protection lamp, and prompting the user to determine the brightness and power of each lighting mode;

[0013] The voice collection module is used to collect the user's voice information when debugging and using the AI ​​eye protection lamp under the control of the control module, including: the basic information input by the user's voice, the user's instructions for determining whether the brightness and power of each lighting mode are appropriate or adjusting the lighting brightness, the user's command for determining the lighting mode of the AI ​​eye protection lamp, and the command for turning on and off the light;

[0014] The touch button is used for the user to manually control the AI ​​eye protection lamp;

[0015] The AI ​​module is used to collect environmental information according to the IoT sensor, automatically formulate a brightness adjustment plan according to the environmental information, and convert the brightness adjustment plan into a brightness adjustment instruction to transmit to the control module;

[0016] The control module is used to control the lighting module, storage module, camera module, voice broadcast module, voice acquisition module, touch button, and AI module.

[0017] further,

[0018] The wavelength range of the effective red-orange light band provided by the red-orange light source module is 590 nanometers to 710 nanometers, the wavelength range of the effective yellow light band provided by the yellow light source module is 560 to 590 nanometers, and the wavelength range of the effective green light band provided by the green light source module is 490 to 560 nanometers;

[0019] The basic information of the user of the AI ​​eye protection lamp includes the user's working or studying time, the user's daytime rest time, and the user's nighttime sleep time;

[0020] The usage status information includes the average blink interval of the user in different time periods during the use of the AI ​​eye protection lamp every day, and the time period refers to the time period divided into the time period excluding the sleep time every day, and the average blink interval includes the average blink interval of the work or study in the current time period. w and the average inter-blink time during daytime rest t r , the daytime rest refers to the rest time other than the sleeping time;

[0021] The commands include: a light-on command, a light-off command, a command for selecting different lighting modes, and a command for determining light brightness or power;

[0022] The video is used by the control module to statistically extract the average blink interval time t of work or study w and the average inter-blink time during daytime rest t r .

[0023] further,

[0024] The duration of the time period T is not less than 0.5 hours;

[0025] The duration of the non-inspection period is t f Satisfaction: 0.5 minutes ≤ t f ≤2 minutes;

[0026] The duration of the detection time period t t Satisfied: 2 minutes ≤ t t .

[0027] further,

[0028] The control module is used to control the lighting mode of the lighting module, and the lighting modes include: white light lighting mode, a first auxiliary working mode, namely a red light auxiliary working mode, a second auxiliary working mode, namely a yellow light auxiliary working mode, a third auxiliary working mode, namely a green light auxiliary working mode, a first auxiliary rest mode, namely a red light auxiliary rest mode, a second auxiliary rest mode, namely a yellow light auxiliary rest mode, a third auxiliary rest mode, namely a green light auxiliary rest mode, a first eye protection mode, namely a red light eye protection mode, a second eye protection mode, namely a yellow light eye protection mode, and a third eye protection mode, namely a green light eye protection mode.

[0029] further,

[0030] The white light illumination mode refers to illumination using a full-color bionic white light source module alone.

[0031] further,

[0032] The control module receives the brightness adjustment instruction, compares the brightness adjustment instruction with a preset brightness adjustment instruction, judges the validity of the brightness adjustment instruction according to the comparison result, and adjusts the brightness of the AI ​​eye protection lamp according to the judgment result, wherein:

[0033] When the brightness adjustment instruction is inconsistent with the preset brightness adjustment instruction, the control module determines that the brightness adjustment instruction is invalid, and the control module does not adjust the brightness of the AI ​​eye protection lamp;

[0034] When the brightness adjustment instruction is consistent with the preset brightness adjustment instruction, the control module determines that the brightness adjustment instruction is valid, the control module adjusts the brightness of the AI ​​eye protection lamp, and adjusts the brightness of the AI ​​eye protection lamp according to the brightness adjustment instruction.

[0035] further,

[0036] The first auxiliary working mode, the second auxiliary working mode, and the third auxiliary working mode respectively use the red-orange light source module, the yellow light source module, and the green light source module for auxiliary lighting during work or study, and any one of the red-orange light source module, the yellow light source module, and the green light source module is recorded as an auxiliary lighting module for work or study, and the corresponding auxiliary working modes all include the following light source adjustment steps:

[0037] S11, after the first working learning lighting time t s11 The luminous brightness of the full-color bionic white light source module is determined by L NW Down to L SW11 , L NW is the illumination brightness of the full-color bionic white light source module when the full-color bionic white light source module is used alone for static illumination, t s11 Satisfy 30 seconds ≤ t s11 =n s11 ·t wn , n s11 is an integer greater than 1, t wn is the average blinking time t of the work or study in the current period w At the same time, after the first working learning lighting time t s11 The brightness of the working or learning auxiliary lighting module increases from 0 to L S11 , L S11 =k s11 ·L MS , k s11 Starting duty factor for auxiliary lighting modules for work or study, 10% <k s11 ≤K s11 , K s11 is the starting working coefficient of the highest working or learning auxiliary lighting module, k s11and K s11 Set by the manufacturer or by the user, L MS Maximum lighting brightness for work or study auxiliary lighting module, L SW11 =(1-k s11 )·L NW or L SW11 =L NW -L S11 ;

[0038] S12, after the second working learning lighting time t s12 The luminous brightness of the full-color bionic white light source module is determined by L SW11 Down to L SW12 , t s12 Satisfy 30 seconds ≤ t s12 =n s12 ·t wn , n s12 is an integer greater than 1, and at the same time, after the second working period, the lighting time t s12 The luminous brightness of the working or learning auxiliary lighting module is determined by L S11 Up to L S12 , L S12 =k s12 ·L MS , k s12 k is the working coefficient of the auxiliary lighting module for work or study, s11 <k s12 ≤K s12 , K s12 is the maximum working or learning auxiliary lighting module working coefficient, k s12 and K s12 Factory set by the manufacturer or set by the user, k s12 and K s12 When set by the manufacturer, 2K s11 ≤K s12 ≤40%, L SW12 =(1-k s12 )·L NW or L SW12 =L NW -L S12 ;

[0039] S13, after the third working lighting time t s13 The luminous brightness of the full-color bionic white light source module is determined by L SW12 Up to L SW11 , t s13 Satisfy 30 seconds ≤ t s13 =n s13 ·t wn , n s13 is an integer greater than 1, and ns12 <n s13 At the same time, after the third working lighting time t s13 The luminous brightness of the working or learning auxiliary lighting module is determined by L S12 Down to L S11 ;

[0040] S14, the full-color bionic white light source module and the work or study auxiliary lighting module repeat the steps S12 to S13 to perform cyclic synchronous lighting, and the lighting time t L1 ≥15 minutes.

[0041] further,

[0042] The first auxiliary rest mode, the second auxiliary rest mode, and the third auxiliary rest mode respectively use the red-orange light source module, the yellow light source module, and the green light source module to perform auxiliary lighting for the user when resting. Any one of the red-orange light source module, the yellow light source module, and the green light source module is recorded as a rest auxiliary lighting module, and the corresponding auxiliary rest modes all include the following light source adjustment steps:

[0043] S21, after the first rest lighting time t s21 The luminous brightness of the full-color bionic white light source module is determined by L NW Down to L SW21 , t s21 Satisfy t s11 <t s21 =n s21 ·t rn , n s21 is an integer greater than 1, t rn is the average blink interval time t of the daytime rest in the current period r At the same time, after the first rest lighting time t s21 The brightness of the rest auxiliary lighting module increases from 0 to L S21 , L S21 =k s21 ·L MR , k s21 The starting working coefficient of the rest auxiliary lighting module is 10% <k s21 ≤K s21 , K s21 is the starting working coefficient of the highest rest auxiliary lighting module, k s21 and K s21 Set by the manufacturer or by the user, L MR The maximum brightness of the rest auxiliary lighting module, L SW21 =(1-k s21 )·L NW or L SW21 =LNW -L S21 ;

[0044] S22, after the second rest lighting time t s22 The luminous brightness of the full-color bionic white light source module is determined by L SW21 Down to L SW22 , t s22 Satisfy 30 seconds ≤ t s22 =n s22 ·t wr , n s22 is an integer greater than 1, and at the same time, after the second rest lighting time t s22 The luminous brightness of the rest auxiliary lighting module is determined by L S21 Up to L S22 , L S22 =k s22 ·L MR , k s22 is the working coefficient of the rest auxiliary lighting module, k s21 <k s22 ≤K s22 , K s22 is the maximum rest auxiliary lighting module working coefficient, k s22 and K s22 Factory set by the manufacturer or set by the user, k s22 and K s22 When set by the manufacturer, 2K s21 ≤K s22 ≤70%, L SW22 =(1-k s22 )·L NW or L SW22 =L NW -L S22 ;

[0045] S23, after the third rest lighting time t s23 The luminous brightness of the full-color bionic white light source module is determined by L SW22 Up to L SW21 , t s23 Satisfy 30 seconds ≤ t s23 =n s23 ·t wr , n s23 is an integer greater than 1, and n s22 <n s23 At the same time, after the third rest lighting time t s23 The luminous brightness of the rest auxiliary lighting module is determined by L S22 Down to L S21 ;

[0046] S24, the full-color bionic white light source module and the rest auxiliary lighting module repeat the steps S22 to S23 to perform cyclic synchronous lighting, and the lighting time t L2 ≥15 minutes.

[0047] further,

[0048] The first eye protection mode, the second eye protection mode, and the third eye protection mode respectively use the red-orange light source module, the yellow light source module, and the green light source module to perform eye care lighting for the user, and any one of the red-orange light source module, the yellow light source module, and the green light source module is recorded as an eye protection lighting module, and the corresponding eye protection modes all include the following light source adjustment steps:

[0049] S31, after the first eye protection lighting time t s31 The luminous brightness of the full-color bionic white light source module is determined by L NW Down to L SW21 , t s31 Satisfy t s11 <t s31 =n s31 ·t wr , n s31 is an integer greater than 1, and at the same time, after the first eye protection lighting time t s31 The luminous brightness of the eye protection lighting module increases from 0 to L S31 , L S31 =k s31 ·L MR , k s31 The starting working coefficient of the eye protection lighting module is 30% <k s31 ≤K s31 , K s31 is the starting working coefficient of the highest eye protection lighting module, k s31 and K s31 Set by the manufacturer or by the user, L MR is the maximum lighting brightness of the eye protection lighting module, L SW31 =(1-k s31 )·L NW or L SW31 =L NW -L S31 ;

[0050] S32, after the second eye protection lighting time t s32 The luminous brightness of the full-color bionic white light source module is determined by L SW31 Down to L SW32 , t s32 Satisfy 30 seconds ≤ t s32 =n s32 ·t wr , n s32is an integer greater than 1, and at the same time, after the second eye protection lighting time t s32 The luminous brightness of the eye protection lighting module is determined by L S31 Up to L S32 , L S32 =k s32 ·L MR , k s32 is the working coefficient of the eye protection lighting module, k s31 <k s32 ≤K s22 , K s32 is the maximum eye protection lighting module working coefficient, k s32 and K s32 Factory set by the manufacturer or set by the user, k s32 and K s32 When set by the manufacturer, 2K s31 ≤K s32 ≤100%, L SW32 =(1-k s32 )·L NW or L SW32 =L NW -L S32 ;

[0051] S33, after the third eye protection lighting time t s33 The luminous brightness of the full-color bionic white light source module is determined by L SW32 Up to L SW31 , t s33 Satisfy 30 seconds ≤ t s33 =n s33 ·t wr , n s33 is an integer greater than 1, and n s32 <n s33 At the same time, after the third eye protection lighting time t s33 The luminous brightness of the eye protection lighting module is determined by L S32 Down to L S31 ;

[0052] S34, the full-color bionic white light source module and the eye protection lighting module repeat the steps S32 to S33 to perform cyclic synchronous lighting, and the lighting time t L3 ≥15 minutes.

[0053] further,

[0054] The control module is also used to control the use mode of the AI ​​eye protection lamp, including a user-defined mode and a setting mode. The setting mode includes the following light source operation steps:

[0055] SS1. After turning on the light, the AI ​​eye protection lamp works in the white light lighting mode;

[0056] SS2, after entering the user's work or study time, after a preset first time t w1 , the AI ​​eye protection lamp is changed to the auxiliary working mode. After entering the auxiliary working mode, the AI ​​eye protection lamp rotates at least two of the three auxiliary working modes, wherein the first auxiliary working mode is mandatory, t w1 ≥15 minutes, or t w1 satisfy is the first small amount set in advance, t w5 The average blinking interval of the user in the last five minutes, wherein, in the interval between the operation of two adjacent auxiliary working modes, the AI ​​eye protection lamp is restored to work in the white light illumination mode for at least 5 minutes;

[0057] SS3, after entering the user's daytime rest time, after a preset second time t r1 , the AI ​​eye protection lamp is changed to the auxiliary rest mode. After entering the auxiliary rest mode, the AI ​​eye protection lamp rotates to run at least two of the three auxiliary rest modes, wherein the first auxiliary rest mode is mandatory, and the last auxiliary rest mode running on the day is the second auxiliary rest mode or the third auxiliary rest mode, t r1 ≥15 minutes, or t r1 satisfy is the second smallest amount set in advance, t r5 The average blinking interval of the user in the last five minutes, wherein, in the interval between the operation of two adjacent auxiliary working modes, the AI ​​eye protection lamp is restored to work in the white light illumination mode for at least 5 minutes;

[0058] SS4. The user determines to run the eye protection mode. After entering the eye protection mode, the AI ​​eye protection lamp rotates to run at least two of the three eye protection modes, among which the first eye protection mode is required; in the interval between the operation of two adjacent eye protection modes, the AI ​​eye protection lamp is restored to work in the white light illumination mode for at least 5 minutes.

[0059] The AI ​​eye protection lamp provided by the present invention can be operated in different lighting modes. Under the lighting conditions of white light sources, the human eye has strong adaptability and is in a naturally relaxed state, which can reduce eye fatigue. In the auxiliary work mode and the auxiliary rest mode, it is respectively beneficial for users to adjust their eyes when working, studying, and resting, and further reduce eye fatigue. Among them, in the auxiliary work mode, the brightness change amplitude of the work or study auxiliary lighting module is smaller than the brightness change amplitude of the rest auxiliary lighting module to avoid affecting the work or study of the user. In the eye protection mode, the eye protection lighting module is improved to give full play to the eye protection function of the AI ​​eye protection lamp. At the same time, the present invention avoids obvious stimulation to the user's eyes when non-white light sources intervene in lighting from two aspects. On the one hand, through steps S11, S21 and S31, after appropriate adaptation time, the eyes begin to adapt to the intervention of non-white light sources. On the other hand, by setting a reasonable lighting time used for one cycle of each cycle lighting in steps S14, S24 and S34, the eyes adapt to the cyclic lighting of non-white light sources. Furthermore, the cyclic lighting periodically adjusts the size of the through hole on the basis of controlling the change of the eye axis with red and orange light, reducing visual damage with yellow light, and maintaining the natural vision of the eyes with green light, thereby periodically adjusting the contraction of the pupillary sphincter and pupillary dilator muscle, which is beneficial to further relieve eye fatigue and play an eye protection function. It is particularly important that the setting of the adaptation time and lighting time in the present invention is based on the average blinking interval time t during work or study. w and the average inter-blink time during daytime rest t r The actual timing unit is used for timing, so that the settings of the adaptation time and the lighting time are more in line with the physiological characteristics and biological clock of the human eye, thereby allowing the user's eyes to naturally and harmoniously adapt to the various lighting modes mentioned in the present invention, which is conducive to eye relaxation, adjustment and even restoration of eye function, and plays a natural eye protection effect.

[0060] Other features and advantages of the present invention will be described in the following description, and partly become apparent from the description, or understood by practicing the present invention. The purpose and other advantages of the present invention can be realized and obtained by the structures pointed out in the description, claims and drawings. BRIEF DESCRIPTION OF THE DRAWINGS

[0061] 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 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.

[0062] Figure 1 A circuit structure block diagram of an AI eye protection lamp according to an embodiment of the present invention is shown. DETAILED DESCRIPTION

[0063] In order to make the purpose, technical solution and advantages of the embodiments of the present invention clearer, the technical solution in the embodiments of the present invention will be clearly and completely described below in conjunction with the drawings in the embodiments of the present invention. Obviously, the described embodiments are 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.

[0064] Unless otherwise defined, all technical and scientific terms used herein have the same meaning as commonly understood by technicians in the technical field to which this application belongs; the terms used in the specification of the application herein are only for the purpose of describing specific embodiments and are not intended to limit this application; the terms "including" and "having" in the specification and claims of this application and the above-mentioned figure descriptions and any variations thereof are intended to cover non-exclusive inclusions. The terms "first", "second", "third", etc. in the specification and claims of this application or the above-mentioned figures are used to distinguish different objects, not to describe a specific order or a primary and secondary relationship. "Multiple" appearing in this application refers to more than two (including two).

[0065] Reference to "embodiments" herein means that a particular feature, structure, or characteristic described in conjunction with the embodiments may be included in at least one embodiment of the present application. The appearance of the phrase in various locations in the specification does not necessarily refer to the same embodiment, nor is it an independent or alternative embodiment that is mutually exclusive with other embodiments. It is explicitly and implicitly understood by those skilled in the art that the embodiments described herein may be combined with other embodiments.

[0066] Figure 1 This is a circuit diagram of the AI ​​eye protection lamp provided by the present invention. Figure 1 The AI ​​eye protection lamp includes a lighting module, a control module, a storage module, a camera module, a voice broadcast module, a voice collection module, a touch button, and an AI module.

[0067] The control module is connected to the lighting module, the storage module, the camera module, the voice broadcast module, the voice collection module, the touch button, and the AI ​​module.

[0068] The lighting module, such as a light emitting diode (LED) lighting module, is a multi-light source lighting module, including a full-color bionic white light source module, a red-orange light source module, a yellow light source module, and a green light source module. The brightness, power and other parameters of the above-mentioned light source modules are adjustable. The white light provided by the full-color bionic white light source module is highly similar to natural light, so that the eye lighting environment is more similar to the natural lighting environment. Under the lighting conditions of the full-color bionic white light source, the human eye is more adaptable and is in a naturally relaxed state, which will improve eye fatigue. The wavelength range of the effective band of red-orange light provided by the red-orange light source module is 590nm (nanometers) to 710nm. The red-orange light can promote the acceleration of fundus blood flow, thereby promoting the proliferation or thickening of the choroid. The proliferation or thickening of the choroid can control the excessive growth or reversal of the myopic eye axis, thereby controlling the growth or reversal of the eye axis. The wavelength range of the yellow light effective band provided by the yellow light source module is 560-590nm. The yellow light has a longer wavelength and less stimulation to the eyes, which helps to relieve eye fatigue. Working or studying in a yellow light environment for a long time can reduce the risk of visual impairment. In addition, yellow light also helps to maintain the stability of the biological clock and is conducive to sleep quality. The wavelength range of the green light effective band provided by the green light source module is 490-560nm. The imaging of green light just falls on the retina. When the human eye looks at green objects, it is a very natural and relaxed state. Compared with blue light, green light can adjust the body's biological clock and help people better adapt to changes in the natural environment, thereby promoting sleep. Green light also helps to balance neurotransmitters in the brain, such as serotonin and dopamine. These substances are closely related to emotional regulation, which helps to relieve negative emotions such as anxiety and depression. In addition, green light can stimulate neuronal activity in the brain and promote the formation and strengthening of synaptic connections, thereby helping to improve memory and cognitive function.

[0069] The storage module is used to store information, including: basic information of the user of the AI ​​eye protection lamp (abbreviated as the user, i.e., the user), the user's usage status information collected during debugging and use of the AI ​​eye protection lamp, commands, programs used by the control module to perform control functions, parameters and generated data.

[0070] The basic information includes the user's work or study time, the user's daytime rest time, and the user's nighttime sleep time. The basic information can be input or confirmed by the user during debugging or use. The usage information includes the average blink interval time counted in different time periods during the user's use of the AI ​​eye protection lamp every day. The time period refers to the time excluding sleep time (nighttime sleep time and nap) divided into several time periods every day. The preferred time period is not less than 0.5 hours, such as one hour for one time period. The average blink interval time includes the average blink interval time t for work or study in the current time period. w and the average inter-blink time during daytime rest tr , where daytime rest refers to rest time other than sleep time. The average blink interval time t w In any time period T, when the user is working or studying, the number of blinks of the user is tested in a second time period (recorded as a detection time period) such as 3 minutes every first time period (recorded as a non-detection time period) such as 1 minute (min). The detection results of all users working or studying in the time period T are statistically averaged to obtain the user's blink interval (i.e., the interval between two adjacent blinks). The duration of the non-detection time period is preferably t f Satisfy: 0.5min≤t f ≤2min, preferably the duration of the detection period t t Satisfy: 2min≤t t Similarly, the average blink interval during daytime rest is t r In time period T, the user's blinking times are tested every other non-test time period during daytime rest, and the user's blinking interval is obtained by statistically averaging all the test results during daytime rest in time period T. The human body has different blinking intervals in different time periods. The present invention uses t w and t r It is an important parameter for realizing the eye protection function of the present invention.

[0071] The commands include: a light-on command, a light-off command, a command for selecting different lighting modes, and a command for determining light brightness or power.

[0072] The camera module is used to capture a video of the user, so that the control module can extract the average blink interval time t of the user at work or study in each period from the video. w and the average inter-blink time during daytime rest t r And other information.

[0073] The voice broadcast module has the function of providing voice prompts under the control of the control module, including: prompting the user to input basic information by voice when debugging and using the AI ​​eye protection lamp, prompting the lighting mode of the AI ​​eye protection lamp, and prompting the user to determine the brightness, power and other parameters of each AI eye protection lamp lighting mode.

[0074] The voice collection module has the function of performing voice collection under the control of the control module. When debugging and using the AI ​​eye protection lamp, the voice information collected from the user includes: basic information of the user's voice input, instructions for the user to determine whether the brightness and power of each AI eye protection lamp lighting mode are appropriate or to adjust the lighting brightness, commands for the user to determine the lighting mode of the AI ​​eye protection lamp, light on and light off commands and other information.

[0075] The touch buttons are used for users to manually control the AI ​​eye protection lamp, including: controlling the light on and off, controlling the input of basic user information, controlling the brightness and power of each AI eye protection lamp lighting mode or adjusting the lighting brightness, controlling the selection of the AI ​​eye protection lamp lighting mode, etc.

[0076] The AI ​​module is used to collect environmental information based on the IoT sensor, automatically formulate a brightness adjustment plan based on the environmental information, and convert the brightness adjustment plan into a brightness adjustment instruction and transmit it to the control module. Sensors installed around the AI ​​eye protection lamp or integrated on the lamp body (such as photosensors, human infrared sensors, etc.) are responsible for collecting environmental information, such as the current ambient light intensity, personnel activities, etc. Receive the data collected by the sensor, use machine learning or deep learning algorithms to analyze these data, and automatically formulate a reasonable brightness adjustment plan. This plan may include parameters such as target brightness value and brightness adjustment rate. Convert the formulated brightness adjustment plan into a specific brightness adjustment instruction. This instruction is usually one or more digital signals, representing the target brightness value or the brightness change.

[0077] The control module receives the brightness adjustment instruction, compares the brightness adjustment instruction with a preset brightness adjustment instruction, judges the validity of the brightness adjustment instruction according to the comparison result, and adjusts the brightness of the AI ​​eye protection lamp according to the judgment result, wherein:

[0078] When the brightness adjustment instruction is inconsistent with the preset brightness adjustment instruction, the control module determines that the brightness adjustment instruction is invalid, and the control module does not adjust the brightness of the AI ​​eye protection lamp;

[0079] When the brightness adjustment instruction is consistent with the preset brightness adjustment instruction, the control module determines that the brightness adjustment instruction is valid, the control module adjusts the brightness of the AI ​​eye protection lamp, and adjusts the brightness of the AI ​​eye protection lamp according to the brightness adjustment instruction.

[0080] The AI ​​module and the control module transmit brightness adjustment instructions through a communication protocol (such as Wi-Fi, Bluetooth, Zigbee, etc.). Receive the brightness adjustment instruction from the AI ​​module and prepare for the next step of validity judgment. The control module stores a preset brightness adjustment instruction library, which is pre-set according to user preferences, the working mode of the eye protection lamp (such as reading mode, rest mode, etc.) and safety standards. The control module compares the received brightness adjustment instruction with the instructions in the preset brightness adjustment instruction library. The comparison may involve multiple aspects such as the value, format, and priority of the instruction. If the received brightness adjustment instruction is completely consistent with the preset instruction or meets the preset rules (such as within the allowable error range), it is determined to be valid; otherwise, it is determined to be invalid. For the brightness adjustment instruction determined to be valid, the control module converts the instruction into a signal that the eye protection lamp can understand (such as a PWM signal), and adjusts the brightness of the eye protection lamp through the drive circuit. For the brightness adjustment instruction determined to be invalid, the control module can choose to ignore the instruction, or send a feedback signal to the AI ​​module to request a new brightness adjustment plan. The actual brightness changes of the eye protection lamp can be fed back to the AI ​​module through the sensor. The AI ​​module can further optimize the brightness adjustment plan based on the feedback results to ensure that the eye protection lamp always provides appropriate lighting.

[0081] The control module is used to control the above modules and touch buttons to realize the lighting function of the AI ​​eye protection lamp. Among them, the control module can control the lighting module to work in different lighting modes, and the lighting modes include: white light lighting mode, the first auxiliary working mode (i.e., red light auxiliary working mode), the second auxiliary working mode (i.e., yellow light auxiliary working mode), the third auxiliary working mode (i.e., green light auxiliary working mode), the first auxiliary rest mode (i.e., red light auxiliary rest mode), the second auxiliary rest mode (i.e., yellow light auxiliary rest mode), the third auxiliary rest mode (i.e., green light auxiliary rest mode), the first eye protection mode (i.e., red light eye protection mode), the second eye protection mode (i.e., yellow light eye protection mode), and the third eye protection mode (i.e., green light eye protection mode).

[0082] The white light lighting mode refers to the use of a full-color bionic white light source module alone for lighting. The brightness or power during lighting is determined by the user when debugging and using the AI ​​eye protection lamp. During the lighting process, the color temperature of the full-color bionic white light source module remains static or the color temperature changes dynamically.

[0083] The first auxiliary working mode, the second auxiliary working mode, and the third auxiliary working mode respectively use a red-orange light source module, a yellow light source module, and a green light source module for auxiliary lighting during work or study, and any one of the red-orange light source module, the yellow light source module, and the green light source module is recorded as a work or study auxiliary lighting module. The corresponding auxiliary working modes (i.e., the modes corresponding to the work or study auxiliary lighting modules in the first auxiliary working mode, the second auxiliary working mode, and the third auxiliary working mode) all include the following light source adjustment steps:

[0084] S11, after the first working learning lighting time t s11 The luminous brightness of the full-color bionic white light source module is determined by L NW Down to L SW11 , L NW is the illumination brightness of the full-color bionic white light source module when the full-color bionic white light source module is used alone for static illumination, t s11 Satisfy 30s(seconds)≤t s11 =n s11 ·t wn , n s11 is an integer greater than 1, such as 8, t wn is the average blinking time t of work or study in the current period w At the same time, after the first working learning lighting time t s11 The brightness of the auxiliary lighting module for work or study increases from 0 to L S11 , L S11 =k s11 ·L MS , k s11 Starting duty factor for auxiliary lighting modules for work or study, 10% <k s11 ≤K s11 , K s11 is the starting working coefficient of the highest working or learning auxiliary lighting module, k s11 and K s11 Factory set by the manufacturer, such as K s11 Can be set to 20%, L MS Maximum lighting brightness for work or study. SW11 =(1-k s11 )·L NW or L SW11 =L NW -L S11 . k s11 and K s11 It can also be set by the user.

[0085] S12, after the second working learning lighting time t s12 The luminous brightness of the full-color bionic white light source module is determined by L SW11 Down to LSW12 , t s12 Satisfy 30s≤t s12 =n s12 ·t wn , n s12 is an integer greater than 1, such as 9. At the same time, after the second working period, the lighting time t s12 The brightness of the auxiliary lighting module for work or study is determined by L S11 Up to L S12 , L S12 =k s12 ·L MS , k s12 k is the working coefficient of the auxiliary lighting module for work or study, s11 <k s12 ≤K s12 , K s12 is the maximum working or learning auxiliary lighting module working coefficient, k s12 and K s12 Factory set by the manufacturer, preferably 2K s11 ≤K s12 ≤40%, such as K s12 is 40%. SW12 =(1-k s12 )·L NW or L SW12 =L NW -L S12 . k s12 and K s12 It can also be set by the user.

[0086] S13, after the third working lighting time t s13 The luminous brightness of the full-color bionic white light source module is determined by L SW12 Up to L SW11 , t s13 Satisfy 30s≤t s13 =n s13 ·t wn , n s13 is an integer greater than 1, preferably n s12 <n s13 , such as n s13 Can be 10. At the same time, after the third working lighting time t s13 The brightness of the auxiliary lighting module for work or study is determined by L S12 Down to L S11 .

[0087] S14, the full-color bionic white light source module and the work or study auxiliary lighting module repeat the steps S12 to S13 to perform cyclic synchronous lighting, and the lighting time t L1 ≥15 minutes.

[0088] Similarly, the first auxiliary rest mode, the second auxiliary rest mode, and the third auxiliary rest mode respectively use a red-orange light source module, a yellow light source module, and a green light source module for auxiliary lighting when the user is resting. Any module among the red-orange light source module, the yellow light source module, and the green light source module is recorded as a rest auxiliary lighting module, and the corresponding auxiliary rest mode (i.e., the mode corresponding to the rest auxiliary lighting module in the first auxiliary rest mode, the second auxiliary rest mode, and the third auxiliary rest mode) includes the following light source adjustment steps:

[0089] S21, after the first rest lighting time t s21 The luminous brightness of the full-color bionic white light source module is determined by L NW Down to L SW21 , t s21 Satisfy t s11 <t s21 =n s21 ·t rn , n s21 is an integer greater than 1, such as 8, t rn is the average blink interval during the daytime rest period t r At the same time, after the first rest lighting time t s21 , the brightness of the rest auxiliary lighting module increases from 0 to L S21 , L S21 =k s21 ·L MR , k s21 The starting working coefficient of the rest auxiliary lighting module is 10% <k s21 ≤K s21 , K s21 is the starting working coefficient of the highest rest auxiliary lighting module, k s21 and K s21 Factory set by the manufacturer, such as K s21 35%, L MR It is the maximum brightness of the rest auxiliary lighting module. SW21 =(1-k s21 )·L NW or L SW21 =L NW -L S21 . k s21 and K s21 It can also be set by the user.

[0090] S22, after the second rest lighting time t s22 The luminous brightness of the full-color bionic white light source module is determined by L SW21 Down to L SW22 , t s22 Satisfy 30s≤t s22 =ns22 ·t wr , n s22 is an integer greater than 1, such as 10. At the same time, after the second rest lighting time t s22 The brightness of the rest auxiliary lighting module is determined by L S21 Up to L S22 , L S22 =k s22 ·L MR , k s22 is the working coefficient of the rest auxiliary lighting module, k s21 <k s22 ≤K s22 , K s22 is the maximum rest auxiliary lighting module working coefficient, k s22 and K s22 Factory set by the manufacturer, preferably 2K s21 ≤K s22 ≤70%, such as K s22 70%. SW22 =(1-k s22 )·L NW or L SW22 =L NW -L S22 . k s22 and K s22 It can also be set by the user.

[0091] S23, after the third rest lighting time t s23 The luminous brightness of the full-color bionic white light source module is determined by L SW22 Up to L SW21 , t s23 Satisfy 30s≤t s23 =n s23 ·t wr , n s23 is an integer greater than 1, preferably n s22 <n s23 , such as n s23 At the same time, after the third rest lighting time t s23 The brightness of the rest auxiliary lighting module is determined by L S22 Down to L S21 .

[0092] S24, the full-color bionic white light source module and the rest auxiliary lighting module repeat the steps S22 to S23 to perform cyclic synchronous lighting, and the lighting time t L2 ≥15 minutes.

[0093] The first eye protection mode, the second eye protection mode, and the third eye protection mode respectively use a red-orange light source module, a yellow light source module, and a green light source module to perform eye care lighting for the user. Any of the red-orange light source module, the yellow light source module, and the green light source module is referred to as an eye protection lighting module. The corresponding eye protection modes (i.e., the modes corresponding to the eye protection lighting modules in the first eye protection mode, the second eye protection mode, and the third eye protection mode) all include the following light source adjustment steps:

[0094] S31, after the first eye protection lighting time t s31 The luminous brightness of the full-color bionic white light source module is determined by L NW Down to L SW21 , t s31 Satisfy t s11 <t s31 =n s31 ·t wr , n s31 is an integer greater than 1, such as 8. At the same time, after the first eye protection lighting time t s31 , the brightness of the eye protection lighting module increases from 0 to L S31 , L S31 =k s31 ·L MR , k s31 The starting working coefficient of the eye protection lighting module is 30% <k s31 ≤K s31 , K s31 is the starting working coefficient of the highest eye protection lighting module, k s31 and K s31 Factory set by the manufacturer, such as K s31 50%, L MR It is the maximum brightness of the eye protection lighting module. SW31 =(1-k s31 )·L NW or L SW31 =L NW -L S31 . k s31 and K s31 It can also be set by the user.

[0095] S32, after the second eye protection lighting time t s32 The luminous brightness of the full-color bionic white light source module is determined by L SW31 Down to L SW32 , t s32 Satisfy 30s≤t s32 =n s32 ·t wr , n s32 is an integer greater than 1, such as 10. At the same time, after the second eye protection lighting time t s32The luminous brightness of the eye protection lighting module is determined by L S31 Up to L S32 , L S32 =k s32 ·L MR , k s32 is the working coefficient of the eye protection lighting module, k s31 <k s32 ≤K s22 , K s32 is the maximum eye protection lighting module working coefficient, k s32 and K s32 Factory set by the manufacturer, preferably 2K s31 ≤K s32 ≤100%, such as K s32 is 100%. SW32 =(1-k s32 )·L NW or L SW32 =L NW -L S32 . k s32 and K s32 It can also be set by the user.

[0096] S33, after the third eye protection lighting time t s33 The luminous brightness of the full-color bionic white light source module is determined by L SW32 Up to L SW31 , t s33 Satisfy 30s≤t s33 =n s33 ·t wr , n s33 is an integer greater than 1, preferably n s32 <n s33 , such as n s33 It can be 12. At the same time, after the third eye protection lighting time t s33 The luminous brightness of the eye protection lighting module is determined by L S32 Down to L S31 .

[0097] S34, the full-color bionic white light source module and the eye protection lighting module repeat the steps S32 to S33 to perform cyclic synchronous lighting, and the lighting time t L3 ≥15 minutes.

[0098] The control module is also used to control the use mode of the AI ​​eye protection lamp, including user-defined mode and setting mode. The user-defined mode means that the user can independently determine when to use the lighting mode and the lighting duration by voice or / and button control when using the AI ​​eye protection lamp. The setting mode is to set when to use the lighting mode and the lighting duration at the factory. After turning on the light, the AI ​​eye protection lamp automatically operates according to the setting mode. The setting mode includes the following light source operation steps:

[0099] SS1. After turning on the light, the AI ​​eye protection lamp works in white light lighting mode.

[0100] SS2, after entering the user's work or study time, after the preset first time t w1 , the AI ​​eye protection lamp is changed to the auxiliary working mode. After entering the auxiliary working mode, the AI ​​eye protection lamp will alternately run at least two of the three auxiliary working modes mentioned above, among which the first auxiliary working mode is mandatory. w1 ≥15 minutes, or t w1 The average blinking interval of the user in the last five minutes t w5 Close to the average blinking time t of working or studying in the current period w ,Right now The first small amount is preset. In the interval between the two adjacent auxiliary working modes, the AI ​​eye protection lamp is restored to work in the white light illumination mode for at least 5 minutes.

[0101] SS3, after entering the user's daytime rest time, after a preset second time t r1 , the AI ​​eye protection lamp is changed to the auxiliary rest mode. After entering the auxiliary rest mode, the AI ​​eye protection lamp will alternately run at least two of the three auxiliary rest modes mentioned above, among which the first auxiliary rest mode is mandatory, and the last auxiliary rest mode running on that day is the second auxiliary rest mode or the third auxiliary rest mode. r1 ≥15 minutes, or t r1 The average blinking interval of the user in the last five minutes t r5 Close to the average blink interval t during daytime rest in the current period r ,Right now The second minimum amount is preset. In the interval between the two adjacent auxiliary working modes, the AI ​​eye protection lamp is restored to work in the white light illumination mode for at least 5 minutes.

[0102] SS4. The user determines the appropriate eye protection mode. After entering the eye protection mode, the AI ​​eye protection lamp rotates at least two of the three eye protection modes mentioned above, among which the first eye protection mode is required. In the interval between the operation of two adjacent eye protection modes, the AI ​​eye protection lamp is restored to work in the white light illumination mode for at least 5 minutes.

[0103] The AI ​​eye protection lamp provided by the present invention can specifically be a table lamp, a wall lamp, a ceiling lamp, a floor lamp, a downlight, etc.

[0104] The AI ​​eye protection lamp of the present invention can be operated in different lighting modes. Under the lighting conditions of white light source, human eyes have strong adaptability and are in a naturally relaxed state, which can reduce eye fatigue. In the auxiliary work mode and the auxiliary rest mode, it is respectively beneficial for users to adjust their eyes when working, studying, and resting, and further reduce eye fatigue. Among them, in the auxiliary work mode, the brightness change amplitude of the work or study auxiliary lighting module is smaller than the brightness change amplitude of the rest auxiliary lighting module to avoid affecting the work or study of the user. In the eye protection mode, the eye protection lighting module is improved to give full play to the eye protection function of the AI ​​eye protection lamp. At the same time, the present invention avoids obvious stimulation to the user's eyes when non-white light sources intervene in lighting from two aspects. On the one hand, through steps S11, S21 and S31, after appropriate adaptation time, the eyes begin to adapt to the intervention of non-white light sources. On the other hand, by setting a reasonable lighting time used for one cycle of each cycle lighting in steps S14, S24 and S34, the eyes adapt to the cyclic lighting of non-white light sources. Furthermore, the cyclic lighting periodically adjusts the size of the through hole on the basis of controlling the change of the eye axis with red and orange light, reducing visual damage with yellow light, and maintaining the natural vision of the eyes with green light, thereby periodically adjusting the contraction of the pupillary sphincter and pupillary dilator muscle, which is beneficial to further relieve eye fatigue and play an eye protection function. It is particularly important that the setting of the adaptation time and lighting time in the present invention is based on the average blinking interval time t during work or study. w and the average inter-blink time during daytime rest t r The actual timing unit is used for timing, so that the settings of the adaptation time and the lighting time are more in line with the physiological characteristics and biological clock of the human eye, thereby allowing the user's eyes to naturally and harmoniously adapt to the various lighting modes mentioned in the present invention, which is conducive to eye relaxation, adjustment and even restoration of eye function, and plays a natural eye protection effect.

[0105] Although the present invention has been described in detail with reference to the aforementioned embodiments, those skilled in the art should understand that they can still modify the technical solutions described in the aforementioned embodiments, or make equivalent substitutions for some of the technical features therein; and these modifications or substitutions do not make the essence of the corresponding technical solutions deviate from the spirit and scope of the technical solutions of the embodiments of the present invention.

Claims

1. An AI eye protection lamp, characterized in that: include: Lighting module, control module, storage module, camera module, voice broadcast module, voice acquisition module, touch button, AI module, The control module is connected to the lighting module, the storage module, the camera module, the voice broadcast module, the voice collection module, the touch button, and the AI ​​module; in, The lighting module is a multi-light source lighting module, including a full-color bionic white light source module with adjustable brightness and power, a red-orange light source module, a yellow light source module, and a green light source module; The storage module is used to store information, including: basic information of the user of the AI ​​eye protection lamp, usage status information and commands of the user collected during debugging and use of the AI ​​eye protection lamp, and programs, parameters and generated data used by the control module when executing control functions; The camera module is used to capture video of the user; The voice broadcast module is used to perform voice prompts under the control of the control module, including: when debugging and using the AI ​​eye protection lamp, prompting the user to input the basic information by voice, prompting the lighting mode of the AI ​​eye protection lamp, and prompting the user to determine the brightness and power of each lighting mode; The voice collection module is used to collect the user's voice information when debugging and using the AI ​​eye protection lamp under the control of the control module, including: the basic information input by the user's voice, the user's instructions for determining whether the brightness and power of each lighting mode are appropriate or adjusting the lighting brightness, the user's command for determining the lighting mode of the AI ​​eye protection lamp, and the command for turning on and off the light; The touch button is used for the user to manually control the AI ​​eye protection lamp; The AI ​​module is used to collect environmental information according to the IoT sensor, automatically formulate a brightness adjustment plan according to the environmental information, and convert the brightness adjustment plan into a brightness adjustment instruction to transmit to the control module; The control module is used to control the lighting module, storage module, camera module, voice broadcast module, voice acquisition module, touch button, and AI module.

2. The AI ​​eye protection lamp according to claim 1, characterized in that: The wavelength range of the effective red-orange light band provided by the red-orange light source module is 590 nanometers to 710 nanometers, the wavelength range of the effective yellow light band provided by the yellow light source module is 560 to 590 nanometers, and the wavelength range of the effective green light band provided by the green light source module is 490 to 560 nanometers; The basic information of the user of the AI ​​eye protection lamp includes the user's working or studying time, the user's daytime rest time, and the user's nighttime sleep time; The usage status information includes the average blink interval of the user in different time periods during the use of the AI ​​eye protection lamp every day, where the time period refers to the time period divided into the time period excluding the sleep time every day, and the average blink interval includes the average blink interval t of the work or study in the current time period. w and the average inter-blink time during daytime rest t r , the daytime rest refers to the rest time other than the sleeping time; The commands include: a light-on command, a light-off command, a command for selecting different lighting modes, and a command for determining light brightness or power; The video is used by the control module to statistically extract the average blink interval time t of work or study w and the average inter-blink time during daytime rest t r .

3. The AI ​​eye protection lamp according to claim 2, characterized in that: The duration of the time period T is not less than 0.5 hours; The duration of the non-inspection period is t f Satisfaction: 0.5 minutes ≤ t f ≤2 minutes; The duration of the detection time period t t Satisfied: 2 minutes ≤ t t .

4. The AI ​​eye protection lamp according to claim 2 or 3, characterized in that: The control module is used to control the lighting mode of the lighting module, and the lighting modes include: white light lighting mode, a first auxiliary working mode, namely a red light auxiliary working mode, a second auxiliary working mode, namely a yellow light auxiliary working mode, a third auxiliary working mode, namely a green light auxiliary working mode, a first auxiliary rest mode, namely a red light auxiliary rest mode, a second auxiliary rest mode, namely a yellow light auxiliary rest mode, a third auxiliary rest mode, namely a green light auxiliary rest mode, a first eye protection mode, namely a red light eye protection mode, a second eye protection mode, namely a yellow light eye protection mode, and a third eye protection mode, namely a green light eye protection mode.

5. The AI ​​eye protection lamp according to claim 4, characterized in that: The white light illumination mode refers to illumination using a full-color bionic white light source module alone.

6. The AI ​​eye protection lamp according to claim 5, characterized in that: The control module receives the brightness adjustment instruction, compares the brightness adjustment instruction with a preset brightness adjustment instruction, judges the validity of the brightness adjustment instruction according to the comparison result, and adjusts the brightness of the AI ​​eye protection lamp according to the judgment result, wherein: When the brightness adjustment instruction is inconsistent with the preset brightness adjustment instruction, the control module determines that the brightness adjustment instruction is invalid, and the control module does not adjust the brightness of the AI ​​eye protection lamp; When the brightness adjustment instruction is consistent with the preset brightness adjustment instruction, the control module determines that the brightness adjustment instruction is valid, the control module adjusts the brightness of the AI ​​eye protection lamp, and adjusts the brightness of the AI ​​eye protection lamp according to the brightness adjustment instruction.

7. The AI ​​eye protection lamp according to claim 6, characterized in that: The first auxiliary working mode, the second auxiliary working mode, and the third auxiliary working mode respectively use the red-orange light source module, the yellow light source module, and the green light source module for auxiliary lighting during work or study, and any one of the red-orange light source module, the yellow light source module, and the green light source module is recorded as a work or study auxiliary lighting module, and the corresponding auxiliary working modes all include the following light source adjustment steps: S11, after the first working learning lighting time t s11 The luminous brightness of the full-color bionic white light source module is determined by L NW Down to L SW11 , L NW is the illumination brightness of the full-color bionic white light source module when the full-color bionic white light source module is used alone for static illumination, t s11 Satisfy 30 seconds ≤ t s11 =n s11 ·t wn , n s11 is an integer greater than 1, t wn is the average blinking time t of the work or study in the current period w At the same time, after the first working learning lighting time t s11 The brightness of the working or learning auxiliary lighting module increases from 0 to L S11 , L S11 =k s11 ·L MS , k s11 Starting duty factor for auxiliary lighting modules for work or study, 10% <k s11 ≤K s11 , K s11 is the starting working coefficient of the highest working or learning auxiliary lighting module, k s11 and K s11 Set by the manufacturer or by the user, L MS Maximum lighting brightness for work or study auxiliary lighting module, L SW11 =(1-k s11 )·L NW or L SW11 =L NW -L S11 ; S12, after the second working learning lighting time t s12 The luminous brightness of the full-color bionic white light source module is determined by L SW11 Down to L SW12 , t s12 Satisfy 30 seconds ≤ t s12 =n s12 ·t wn , n s12 is an integer greater than 1, and at the same time, after the second working period, the lighting time t s12 The luminous brightness of the working or learning auxiliary lighting module is determined by L S11 Up to L S12 , L S12 =k s12 ·L MS , k s12 k is the working coefficient of the auxiliary lighting module for work or study, s11 <k s12 ≤K s12 , K s12 is the maximum working or learning auxiliary lighting module working coefficient, k s12 and K s12 Factory set by the manufacturer or set by the user, k s12 and K s12 When set by the manufacturer, 2K s11 ≤K s12 ≤40%, L SW12 =(1-k s12 )·L NW or L SW12 =L NW -L S12 ; S13, after the third working lighting time t s13 The luminous brightness of the full-color bionic white light source module is determined by L SW12 Up to L SW11 , t s13 Satisfy 30 seconds ≤ t s13 =n s13 ·t wn , n s13 is an integer greater than 1, and n s12 <n s13 At the same time, after the third working lighting time t s13 The luminous brightness of the working or learning auxiliary lighting module is determined by L S12 Down to L S11 ; S14, the full-color bionic white light source module and the work or study auxiliary lighting module repeat the steps S12 to S13 to perform cyclic synchronous lighting, and the lighting time t L1 ≥15 minutes.

8. The AI ​​eye protection lamp according to claim 7, characterized in that: The first auxiliary rest mode, the second auxiliary rest mode, and the third auxiliary rest mode respectively use the red-orange light source module, the yellow light source module, and the green light source module to perform auxiliary lighting for the user when resting. Any one of the red-orange light source module, the yellow light source module, and the green light source module is recorded as a rest auxiliary lighting module, and the corresponding auxiliary rest modes all include the following light source adjustment steps: S21, after the first rest lighting time t s21 The luminous brightness of the full-color bionic white light source module is determined by L NW Down to L SW21 , t s21 Satisfy t s11 <t s21 =n s21 ·t rn , n s21 is an integer greater than 1, t rn is the average blink interval time t of the daytime rest in the current period r At the same time, after the first rest lighting time t s21 The brightness of the rest auxiliary lighting module increases from 0 to L S21 , L S21 =k s21 ·L MR , k s21 The starting working coefficient of the rest auxiliary lighting module is 10% <k s21 ≤K s21 , K s21 is the starting working coefficient of the highest rest auxiliary lighting module, k s21 and K s21 Set by the manufacturer or by the user, L MR The maximum brightness of the rest auxiliary lighting module, L SW21 =(1-k s21 )·L NW or L SW21 =L NW -L S21 ; S22, after the second rest lighting time t s22 The luminous brightness of the full-color bionic white light source module is determined by L SW21 Down to L SW22 , t s22 Satisfy 30 seconds ≤ t s22 =n s22 ·t wr , n s22 is an integer greater than 1, and at the same time, after the second rest lighting time t s22 The luminous brightness of the rest auxiliary lighting module is determined by L S21 Up to L S22 , L S22 =k s22 ·L MR , k s22 is the working coefficient of the rest auxiliary lighting module, k s21 <k s22 ≤K s22 , K s22 is the maximum rest auxiliary lighting module working coefficient, k s22 and K s22 Factory set by the manufacturer or set by the user, k s22 and K s22 When set by the manufacturer, 2K s21 ≤K s22 ≤70%, L SW22 =(1-k s22 )·L NW or L SW22 =L NW -L S22 ; S23, after the third rest lighting time t s23 The luminous brightness of the full-color bionic white light source module is determined by L SW22 Up to L SW21 , t s23 Satisfy 30 seconds ≤ t s23 =n s23 ·t wr , n s23 is an integer greater than 1, and n s22 <n s23 At the same time, after the third rest lighting time t s23 The luminous brightness of the rest auxiliary lighting module is determined by L S22 Down to L S21 ; S24, the full-color bionic white light source module and the rest auxiliary lighting module repeat the steps S22 to S23 to perform cyclic synchronous lighting, and the lighting time t L2 ≥15 minutes.

9. The AI ​​eye protection lamp according to claim 8, characterized in that: The first eye protection mode, the second eye protection mode, and the third eye protection mode respectively use the red-orange light source module, the yellow light source module, and the green light source module to perform eye care lighting for the user, and any one of the red-orange light source module, the yellow light source module, and the green light source module is recorded as an eye protection lighting module, and the corresponding eye protection modes all include the following light source adjustment steps: S31, after the first eye protection lighting time t s31 The luminous brightness of the full-color bionic white light source module is determined by L NW Down to L SW21 , t s31 Satisfy t s11 <t s31 =n s31 ·t wr , n s31 is an integer greater than 1, and at the same time, after the first eye protection lighting time t s31 The luminous brightness of the eye protection lighting module increases from 0 to L S31 , L S31 =k s31 ·L MR , k s31 The starting working coefficient of the eye protection lighting module is 30% <k s31 ≤K s31 , K s31 is the starting working coefficient of the highest eye protection lighting module, k s31 and K s31 Set by the manufacturer or by the user, L MR is the maximum lighting brightness of the eye protection lighting module, L SW31 =(1-k s31 )·L NW or L SW31 =L NW -L S31 ; S32, after the second eye protection lighting time t s32 The luminous brightness of the full-color bionic white light source module is determined by L SW31 Down to L SW32 , t s32 Satisfy 30 seconds ≤ t s32 =n s32 ·t wr , n s32 is an integer greater than 1, and at the same time, after the second eye protection lighting time t s32 The luminous brightness of the eye protection lighting module is determined by L S31 Up to L S32 , L S32 =k s32 ·L MR , k s32 is the working coefficient of the eye protection lighting module, k s31 <k s32 ≤K s22 , K s32 is the maximum eye protection lighting module working coefficient, k s32 and K s32 Factory set by the manufacturer or set by the user, k s32 and K s32 When set by the manufacturer, 2K s31 ≤K s32 ≤100%, L SW32 =(1-k s32 )·L NW or L SW32 =L NW -L S32 ; S33, after the third eye protection lighting time t s33 The luminous brightness of the full-color bionic white light source module is determined by L SW32 Up to L SW31 , t s33 Satisfy 30 seconds ≤ t s33 =n s33 ·t wr , n s33 is an integer greater than 1, and n s32 <n s33 At the same time, after the third eye protection lighting time t s33 The luminous brightness of the eye protection lighting module is determined by L S32 Down to L S31 ; S34, the full-color bionic white light source module and the eye protection lighting module repeat the steps S32 to S33 to perform cyclic synchronous lighting, and the lighting time t L3 ≥15 minutes.

10. The AI ​​eye protection lamp according to claim 9, characterized in that: The control module is also used to control the use mode of the AI ​​eye protection lamp, including a user-defined mode and a setting mode. The setting mode includes the following light source operation steps: SS1. After turning on the light, the AI ​​eye protection lamp works in the white light lighting mode; SS2, after entering the user's work or study time, after a preset first time t w1 , the AI ​​eye protection lamp is changed to the auxiliary working mode. After entering the auxiliary working mode, the AI ​​eye protection lamp rotates at least two of the three auxiliary working modes, wherein the first auxiliary working mode is mandatory, t w1 ≥15 minutes, or t w1 Satisfy|t w5 -t w |<∈1, ∈1 is the first small quantity set in advance, t w5 The average blinking interval of the user in the last five minutes, wherein, in the interval between the operation of two adjacent auxiliary working modes, the AI ​​eye protection lamp is restored to work in the white light illumination mode for at least 5 minutes; SS3, after entering the user's daytime rest time, after a preset second time t r1 , the AI ​​eye protection lamp is changed to the auxiliary rest mode. After entering the auxiliary rest mode, the AI ​​eye protection lamp rotates to run at least two of the three auxiliary rest modes, wherein the first auxiliary rest mode is mandatory, and the last auxiliary rest mode running on the day is the second auxiliary rest mode or the third auxiliary rest mode, t r1 ≥15 minutes, or t r1 Satisfy|t r5 -t r |<∈2, ∈2 is the second smallest value set in advance, t r5 The average blinking interval of the user in the last five minutes, wherein, in the interval between the operation of two adjacent auxiliary working modes, the AI ​​eye protection lamp is restored to work in the white light illumination mode for at least 5 minutes; SS4. The user determines to run the eye protection mode. After entering the eye protection mode, the AI ​​eye protection lamp rotates to run at least two of the three eye protection modes, among which the first eye protection mode is required; in the interval between the operation of two adjacent eye protection modes, the AI ​​eye protection lamp is restored to work in the white light illumination mode for at least 5 minutes.

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