Intelligent lamp based on awakening requirement and sleep monitoring system

Abstract

The invention discloses an intelligent lamp based on wake-up requirements and a sleep monitoring system, and relates to the technical field of intelligent lamps, the intelligent lamp comprises a lamp base and a lamp shell, a supporting shaft is fixedly arranged on the surface of the top end of the lamp base, a plurality of moving rails are fixedly arranged on the surface of the outer side of the supporting shaft, and driving systems are fixedly arranged in the moving rails; the outer side surfaces of the plurality of driving systems are connected with intelligent lamps, and the system further comprises a demand acquisition unit, a sleep monitoring unit, an awakening control unit, a light control unit and a sleep analysis unit; the wake-up execution plan is made according to the duration of the wake-up time interval and the physiological data, position regulation and control of the intelligent lamp are completed according to the wake-up execution plan, meanwhile, the working state of the intelligent lamp is switched, the wake-up process is achieved through light change, the lagged wake-up process is added, wake-up failure is avoided, and meanwhile, the sleep quality analysis chart is drawn. And a sleep-aiding reminding signal is generated to remind the user to fall asleep in time.

Description

Technical Field

[0001] The present invention relates to the technical field of intelligent lamps, and in particular to an intelligent lamp and a sleep monitoring system based on wake-up requirements. Background Art

[0002] With the development and improvement of people's living standards, single-functional lighting can no longer meet the contemporary people's individual needs for high-quality indoor lighting and humanized living space. As the most basic visual need in people's daily activities, light exists not only to meet the necessary visibility needs in daily activities, but also to meet people's physiological and psychological needs. The living room is the main activity space in daily life and needs to meet the daily needs of rest, relaxation and entertainment.

[0003] Wake-up technology refers to a method of waking a person from sleep through specific means in order to achieve a certain purpose. Common wake-up technologies include alarm clocks: Alarm clocks are a common wake-up technology that wakes people from sleep by setting parameters such as time and sound. However, the conventional sound-awakened alarm clock has a single wake-up method, is not intelligent, and has a poor wake-up effect. It often brings people an uncomfortable waking experience, especially for users who are in a deep sleep state. The sudden sound of the alarm clock may cause headaches, fatigue, etc., which is not conducive to the user's physical health. In addition, some users like to stay up late, which makes it difficult to get up. After turning off the alarm clock, they may fall asleep again, but the alarm clock has been turned off at this time and cannot play a wake-up function;

[0004] In view of the above-mentioned technical defects, a solution is now proposed. Summary of the invention

[0005] The purpose of the present invention is to formulate a wake-up execution plan according to the duration of the wake-up time interval and physiological data, and complete the position adjustment of the smart light according to the wake-up execution plan, while switching the working state of the smart light, realizing the wake-up process through light changes, increasing the delayed wake-up process, avoiding wake-up failure, drawing a sleep quality analysis chart, and generating a sleep-aid reminder signal to remind the user to fall asleep in time.

[0006] In order to achieve the above-mentioned purpose, the present invention adopts the following technical scheme: a smart lamp based on wake-up demand, comprising a lamp base and a lamp housing, a support shaft is fixedly arranged on the top surface of the lamp base, a plurality of movable tracks are fixedly arranged on the outer surface of the support shaft, a plurality of movable tracks are fixedly arranged inside with a drive system, and a plurality of outer surfaces of the drive systems are connected with smart lamps;

[0007] The smart lamp includes a lamp mounting plate, which is connected to the outer surface of the driving system, and the lamp shell is detachably connected to the outer surface of the lamp mounting plate. The outer surface of the lamp mounting plate is fixedly provided with a limit clamp, and the limit clamp is slidably connected to the outer surface of the support shaft. A lamp cavity is formed between the lamp mounting plate and the lamp shell, and a main lighting lamp is fixedly provided on the inner wall of the lamp cavity, and a plurality of fill-light auxiliary lamps are evenly distributed on the inner wall of the lamp cavity outside the main lighting lamp.

[0008] Furthermore, the cross section of the support shaft is a regular polygonal structure, and each end surface of the support shaft is fixedly provided with a movable track.

[0009] Furthermore, the driving system includes a servo motor, which is fixed to the top surface of the support shaft, and the output end of the servo motor is connected to a ball screw. A slide is slidably connected to the inner wall of the movable track, and the slide is sleeved on the outer surface of the ball screw, and the lamp mounting plate is fixed to the outer surface of the slide.

[0010] Furthermore, the lamp housing is made of a transparent acrylic material, a light-transmitting groove is provided inside the lamp housing, and atomized glass is fixed on the inner wall of the light-transmitting groove.

[0011] Furthermore, the limit clamp includes a first clamp plate and a second clamp plate, a fixed angle is formed between the first clamp plate and the second clamp plate, the size of the fixed angle is the same as the size of the inner angle of the support shaft cross section, and the first clamp plate and the second clamp plate are respectively in contact with two adjacent side surfaces on the support shaft.

[0012] The present invention also provides a sleep monitoring system for an intelligent lamp based on wake-up demand, comprising a demand acquisition unit, a sleep monitoring unit, a wake-up control unit, a light control unit and a sleep analysis unit;

[0013] The demand acquisition unit acquires the user's wake-up time interval, generates a wake-up process according to the duration of the wake-up time interval, and sends it to the wake-up control unit;

[0014] The sleep monitoring unit is used to obtain the user's physiological data, determine the user's sleep duration and sleep state based on the physiological data, generate a corresponding wake-up intensity value according to the user's sleep state, combine the wake-up intensity value with the wake-up process to generate a wake-up execution plan, and send the wake-up execution plan to the wake-up control unit and the light control unit;

[0015] The wake-up control unit obtains and processes the wake-up signal, marks several smart lights as M1, M2, M3, ..., Mn, and records M1 as the first smart light. According to the wake-up execution plan, the drive system corresponding to the smart light Mn is controlled in sequence to drive the smart light to move upward, thereby completing the position control of the smart light;

[0016] The lighting control unit includes a mode storage module and a demand switching module, wherein the mode storage module is used to store various working states of the smart light, including sleep-aiding mode, wake-up mode, leisure mode and reading mode, and the demand switching mode is used to switch the working state of the smart light according to user needs and the wake-up execution plan, and complete the switch control of the main lighting light, the auxiliary fill light and the atomized glass;

[0017] The sleep analysis unit is used to obtain the user's sleep duration, analyze the user's sleep state in combination with the wake-up time interval, draw a sleep quality analysis chart, and generate a sleep-aid reminder signal to the wake-up control unit and the light control unit.

[0018] Furthermore, the specific process of generating the wake-up process is as follows:

[0019] S101, obtaining a wake-up time interval, the wake-up time interval including the wake-up start time ts and the latest wake-up time te, and calculating the wake-up period △tm=te-ts according to the wake-up start time ts and the latest wake-up time te;

[0020] S102, taking the starting time ts as the starting point, establishing a time period division table, and dividing the wake-up cycle into sections, including a pre-wake-up period, a strong wake-up period, and a delayed wake-up period;

[0021] S103, distinguishing time periods in the time period division table, the pre-awakening time period is [ts, t1], the strong awakening time period is [t1, t2], the delayed awakening time period is [t2, te], and marking the intensity switching point on each section;

[0022] The pre-wake-up time corresponding to the pre-wake-up period is △t1=t1-ts=e1·△tm, the pre-wake-up time corresponding to the strong wake-up period is △t2=t2-t1=e2·△tm, and the pre-wake-up time corresponding to the delayed wake-up period is △t3=te-t2=e3·△tm, wherein e1, e2 and e3 are preset proportional coefficients, and their specific values ​​are set and updated according to the user's sleep quality analysis chart.

[0023] Furthermore, the specific process of generating the wake-up execution plan is as follows:

[0024] S201, before the user falls asleep, obtaining the user's pre-sleep physiological data, including heart rate data, respiratory rate data, and body temperature data, determining the user's sleep time based on the user's pre-sleep physiological data, and recording the sleep time t4 and deep sleep time t5;

[0025] S202, obtaining the awakening start time ts according to the awakening time interval of the user, obtaining the user's pre-awakening physiological data before the awakening start time ts arrives, including heart rate data, respiratory rate data and body temperature data, and determining the user's sleep level Wn based on the user's pre-sleep physiological data, including a first-level sleep state W1, a second-level sleep state W2 and a third-level sleep state W3;

[0026] S203, calculating the total sleep duration td according to the time difference between the user's wake-up start time ts and the sleep time t4;

[0027] S204, calculating the awakening intensity value Ed according to the total sleep time td of the user and the sleep level of the user: Wherein, e1 and e2 are both preset proportional coefficients, and the value of e2 is related to the specific level of the sleep level Wn. The values ​​of e2 corresponding to the first-level sleep state W1, the second-level sleep state W2 and the third-level sleep state W3 show an upward trend;

[0028] S205. Assign values ​​to the pre-wake-up period, strong wake-up period and delayed wake-up period according to the wake-up intensity value Ed, and mark them in the wake-up process to generate a wake-up execution plan. The wake-up intensity value Ed represents the light reminder intensity required for the user to be awakened in the current sleep state. The larger the wake-up intensity value Ed, the smaller the reminder intensity of the pre-wake-up period, and the larger the reminder intensity of the strong wake-up period and the delayed wake-up period.

[0029] Furthermore, in the sleep-aiding mode, the lighting environment is diffuse light, that is, the smart lights are arranged in sequence from top to bottom along the support axis, and the main lighting light is turned off, the auxiliary lighting light is connected to the circuit, and the atomized glass is powered off and presents a blurred state;

[0030] In the wake-up mode, the lighting environment is gradually concentrated top light. After the main lighting light on the first smart light is connected to the circuit, it moves to the top of the support shaft in advance. The remaining smart lights move in sequence to execute the pre-wake-up mode in parallel with the first smart light. After all the smart lights complete the top concentration, the supplementary light is connected to the circuit to enter the strong wake-up mode. After the atomized glass is powered on, it enters the delayed wake-up mode.

[0031] In reading mode, the lighting mode is centralized top light. All smart lights move to the top of the support shaft at the same time. After the top concentration is completed, the main lighting light and the auxiliary fill light are connected to the circuit at the same time, and the atomized glass is powered off.

[0032] In relaxation mode, the lighting mode is uniform diffuse light. The smart lights are evenly distributed on the support axis from top to bottom. The main lighting light is connected to the circuit, and the working status of the fill light and the fogging glass are adjusted according to the indoor environment.

[0033] In summary, due to the adoption of the above technical solution, the beneficial effects of the present invention are:

[0034] 1. The smart lamp based on wake-up demand can control the servo motor to access the circuit according to the user's usage needs, drive the slide to move on the moving track, the slide and the lamp mounting plate are an integrated structure, the slide drives the smart lamp to move synchronously, and the height of the smart lamp on the support shaft can be adjusted. Several smart lamps are radially distributed on the outside of the support shaft. The number of smart lamps is set according to usage needs and design requirements. The smart lamps can be fixed above the support shaft to form concentrated top light to provide high-brightness lighting conditions. Several smart lamps can also be evenly distributed on the support shaft from top to bottom to form diffuse light to provide a wide range of lighting conditions.

[0035] 2. The smart lamp based on wake-up demand is provided with a main lighting lamp and a supplementary lighting lamp. The main lighting lamp and the supplementary lighting lamp can be controlled to be connected to the circuit separately or simultaneously according to the use demand to provide different lighting intensities and lighting ranges. Atomized glass is also provided. The user can control the transparency and opacity of the atomized glass by controlling the on and off of the current, and adjust the power-on state of the atomized glass as needed, thereby changing the lighting intensity provided by the smart lamp, so that the smart lamp has a multi-mode working state.

[0036] 3. The sleep monitoring system of the smart lamp based on the wake-up demand formulates a wake-up execution plan according to the duration of the wake-up time interval and physiological data, and controls the drive system connected to the smart lamp in turn according to the wake-up execution plan to drive the smart lamp to move upward, completes the position regulation of the smart lamp, and switches the working state of the smart lamp at the same time, completes the switch control of the main lighting lamp, the auxiliary fill light and the fogging glass, realizes the wake-up process through light changes, increases the delayed wake-up process, avoids wake-up failure, and also analyzes the user's sleep state in combination with the wake-up time interval, draws a sleep quality analysis chart, and generates a sleep reminder signal to remind the user to fall asleep in time, thereby improving sleep quality. BRIEF DESCRIPTION OF THE DRAWINGS

[0037] Figure 1 The overall external structure schematic diagram of the present invention is shown;

[0038] Figure 2 The overall internal structure schematic diagram of the present invention is shown;

[0039] Figure 3 A schematic diagram of the internal structure of the smart lamp of the present invention is shown;

[0040] Figure 4 A schematic diagram showing the internal structure of the smart lamp from another angle of the present invention is shown;

[0041] Figure 5 A schematic diagram of the structure of the sleep monitoring system of the present invention is shown;

[0042] Legend: 1. Lamp base; 2. Support shaft; 3. Moving track; 4. Lamp mounting plate; 5. Lamp body; 6. Limiting clip; 61. First clip; 62. Second clip; 7. Lamp inner cavity; 8. Main lighting lamp; 9. Auxiliary fill light; 10. Servo motor; 11. Ball screw; 12. Slide; 13. Fogging glass. DETAILED DESCRIPTION

[0043] 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.

[0044] Embodiment 1:

[0045] like Figure 1-4 As shown, the smart lamp based on the wake-up demand includes a lamp base 1 and a lamp housing 5. A support shaft 2 is fixedly arranged on the top surface of the lamp base 1, and a plurality of movable tracks 3 are fixedly arranged on the outer surface of the support shaft 2. A driving system is fixedly arranged inside the plurality of movable tracks 3, and the outer surfaces of the plurality of driving systems are connected to smart lamps.

[0046] The smart lamp includes a lamp mounting plate 4, which is connected to the outer surface of the driving system. The lamp housing 5 is detachably connected to the outer surface of the lamp mounting plate 4. The outer surface of the lamp mounting plate 4 is fixedly provided with a limit clamp 6, which is slidably connected to the outer surface of the support shaft 2. A lamp inner cavity 7 is formed between the lamp mounting plate 4 and the lamp housing 5. A main lighting lamp 8 is fixedly provided on the inner wall of the lamp inner cavity 7. A number of fill-light auxiliary lamps 9 are evenly distributed on the inner wall of the lamp inner cavity 7 outside the main lighting lamp 8. The main lighting lamp 8 and the fill-light auxiliary lamps 9 can be controlled to be connected to the circuit separately or simultaneously according to usage requirements to provide different lighting intensities and lighting ranges.

[0047] The cross-section of the support shaft 2 is a regular polygonal structure. Each end face of the support shaft 2 is fixed with a movable track 3. Several smart lights are radially distributed on the outside of the support shaft 2. The number of smart lights is set according to usage requirements and design needs. The smart lights can be centrally fixed above the support shaft 2 to form concentrated top light, providing high-brightness lighting conditions. Several smart lights can also be evenly distributed on the support shaft 2 from top to bottom to form diffuse light, providing a wide range of lighting conditions.

[0048] The driving system includes a servo motor 10, which is fixed on the top surface of the support shaft 2. The output end of the servo motor 10 is connected to a ball screw 11. A slide 12 is slidably connected to the inner wall of the movable track 3. The slide 12 is sleeved on the outer surface of the ball screw 11. The lamp mounting plate 4 is fixed on the outer surface of the slide 12. According to the user's usage requirements, the servo motor 10 can be controlled to access the circuit. The servo motor 10 drives the ball screw 11 to rotate, and then drives the slide 12 to move on the movable track 3. The slide 12 and the lamp mounting plate 4 are an integrated structure. The slide 12 drives the smart lamp to move synchronously, and the height of the smart lamp on the support shaft 2 can be adjusted.

[0049] The lamp housing 5 is made of transparent acrylic material, and a light-transmitting groove is opened inside the lamp housing 5. A frosted glass 13 is fixedly provided on the inner wall of the light-transmitting groove. The user can control the transparency and opacity of the frosted glass 13 by controlling the on and off of the current, and adjust the power-on state of the frosted glass 13 as needed, thereby changing the lighting intensity provided by the smart lamp, so that the smart lamp has a multi-mode working state.

[0050] The limiting clamp includes a first clamp plate 61 and a second clamp plate 62, and a fixed angle is formed between the first clamp plate 61 and the second clamp plate 62. The size of the fixed angle is the same as the size of the inner angle of the cross section of the support shaft 2. The first clamp plate 61 and the second clamp plate 62 are respectively in contact with two adjacent side surfaces on the support shaft 2. The smart lamp is slidably fixed to the outside of the support shaft 2 by the first clamp plate 61 and the second clamp plate 62, thereby improving the stability of the smart lamp during movement.

[0051] Working principle: According to the user's usage requirements, the servo motor 10 can be controlled to access the circuit, and the servo motor 10 drives the ball screw 11 to rotate, thereby driving the slide 12 to move on the moving track 3. The slide 12 and the lamp mounting plate 4 are an integrated structure. The slide 12 drives the smart lamp to move synchronously. The height of the smart lamp on the support shaft 2 can be adjusted. Several smart lamps are radially distributed on the outside of the support shaft 2. The number of smart lamps can be set according to usage requirements and design needs. The smart lamps can be centrally fixed above the support shaft 2 to form a concentrated top light, providing high-brightness lighting conditions. Several smart lamps can also be evenly distributed on the support shaft 2 from top to bottom to form diffuse light, providing a wide range of lighting conditions;

[0052] The smart light is provided with a main lighting light 8 and a supplementary lighting light 9. The main lighting light 8 and the supplementary lighting light 9 can be controlled to be connected to the circuit separately or simultaneously according to the use requirements to provide different lighting intensities and lighting ranges. A fogging glass 13 is also provided. The user can control the transparency and opacity of the fogging glass 13 by controlling the on and off of the current. The power-on state of the fogging glass 13 is adjusted according to the needs, thereby changing the lighting intensity provided by the smart light, so that the smart light has a multi-mode working state:

[0053] In the sleep-aiding mode, the lighting environment is diffuse light, that is, the smart lights are arranged in sequence from top to bottom along the support axis 2, and the main lighting light 8 is turned off, the auxiliary fill light 9 is connected to the circuit, and the atomized glass 13 is powered off and presents a blurred state;

[0054] In the wake-up mode, the lighting environment is gradually concentrated top light. After the main lighting lamp 8 on the first smart lamp is connected to the circuit, it moves to the top of the support shaft 2 in advance. The remaining smart lamps move in sequence to execute the pre-wake-up mode in parallel with the first smart lamp. After all the smart lamps complete the top concentration, the supplementary light lamp 9 is connected to the circuit to enter the strong wake-up mode, and the fogging glass 13 is powered on to enter the delayed wake-up mode.

[0055] In reading mode, the lighting mode is concentrated top light, and all smart lights move to the top of the support shaft 2 at the same time. After the top concentration is completed, the main lighting light 8 and the auxiliary fill light 9 are connected to the circuit at the same time, and the atomized glass 13 is powered off;

[0056] In the relaxation mode, the lighting mode is uniform diffuse light, and the smart lights are evenly distributed on the support shaft 2 from top to bottom. The main lighting lamp 8 is connected to the circuit, and the working status of the fill light auxiliary lamp 9 and the fogging glass 13 are adjusted according to the indoor environment.

[0057] Embodiment 2:

[0058] like Figure 5 As shown, the present invention also provides a sleep monitoring system for smart lamps based on wake-up requirements, including a demand acquisition unit, a sleep monitoring unit, a wake-up control unit, a light control unit and a sleep analysis unit;

[0059] The demand acquisition unit acquires the user's wake-up time interval, generates a wake-up process according to the duration of the wake-up time interval, and sends it to the wake-up control unit;

[0060] The specific process of generating the wake-up process is as follows:

[0061] S101, obtaining a wake-up time interval, the wake-up time interval including the wake-up start time ts and the latest wake-up time te, and calculating the wake-up period △tm=te-ts according to the wake-up start time ts and the latest wake-up time te;

[0062] S102, taking the starting time ts as the starting point, establishing a time period division table, and dividing the wake-up cycle into sections, including a pre-wake-up period, a strong wake-up period, and a delayed wake-up period;

[0063] S103, distinguishing time periods in the time period division table, the pre-awakening time period is [ts, t1], the strong awakening time period is [t1, t2], the delayed awakening time period is [t2, te], and marking the intensity switching point on each section;

[0064] The pre-wake-up time corresponding to the pre-wake-up period is △t1=t1-ts=e1·△tm, the pre-wake-up time corresponding to the strong wake-up period is △t2=t2-t1=e2·△tm, and the pre-wake-up time corresponding to the delayed wake-up period is △t3=te-t2=e3·△tm, wherein e1, e2 and e3 are preset proportional coefficients, and their specific values ​​are set and updated according to the user's sleep quality analysis chart.

[0065] The sleep monitoring unit is used to obtain the user's physiological data, determine the user's sleep duration and sleep state based on the physiological data, generate a corresponding wake-up intensity value according to the user's sleep state, combine the wake-up intensity value with the wake-up process to generate a wake-up execution plan, and send the wake-up execution plan to the wake-up control unit and the light control unit;

[0066] The specific process of generating a wake-up execution plan is as follows:

[0067] S201, before the user falls asleep, obtaining the user's pre-sleep physiological data, including heart rate data, respiratory rate data, and body temperature data, determining the user's sleep time based on the user's pre-sleep physiological data, and recording the sleep time t4 and deep sleep time t5;

[0068] S202, obtaining the awakening start time ts according to the awakening time interval of the user, obtaining the user's pre-awakening physiological data before the awakening start time ts arrives, including heart rate data, respiratory rate data and body temperature data, and determining the user's sleep level Wn based on the user's pre-sleep physiological data, including a first-level sleep state W1, a second-level sleep state W2 and a third-level sleep state W3;

[0069] S203, calculating the total sleep duration td according to the time difference between the user's wake-up start time ts and the sleep time t4;

[0070] S204, calculating the awakening intensity value Ed according to the total sleep time td of the user and the sleep level of the user: Wherein, e1 and e2 are both preset proportional coefficients, and the value of e2 is related to the specific level of the sleep level Wn. The values ​​of e2 corresponding to the first-level sleep state W1, the second-level sleep state W2 and the third-level sleep state W3 show an upward trend;

[0071] S205. Assign values ​​to the pre-wake-up period, strong wake-up period and delayed wake-up period according to the wake-up intensity value Ed, and mark them in the wake-up process to generate a wake-up execution plan. The wake-up intensity value Ed represents the light reminder intensity required for the user to be awakened in the current sleep state. The larger the wake-up intensity value Ed, the smaller the reminder intensity of the pre-wake-up period, and the larger the reminder intensity of the strong wake-up period and the delayed wake-up period.

[0072] The wake-up control unit obtains and processes the wake-up signal, marks several smart lights as M1, M2, M3, ..., Mn, and records M1 as the first smart light. According to the wake-up execution plan, the drive system corresponding to the smart light Mn is controlled in sequence to drive the smart light to move upward, thereby completing the position control of the smart light;

[0073] The light control unit includes a mode storage module and a demand switching module, wherein the mode storage module is used to store various working states of the smart light, including a sleep-aiding mode, a wake-up mode, a leisure mode, and a reading mode, and the demand switching mode is used to switch the working state of the smart light according to user needs and a wake-up execution plan, and complete the switch control of the main lighting light 8, the auxiliary fill light 9, and the atomized glass 13;

[0074] The sleep analysis unit is used to obtain the user's sleep duration, analyze the user's sleep state in combination with the wake-up time interval, draw a sleep quality analysis chart, and generate a sleep-aid reminder signal to the wake-up control unit and the light control unit.

[0075] Studies have shown that light with a color temperature of 5000K and a horizontal illumination of about 500lx can directly inhibit the production of melatonin, making users feel refreshed and refreshed. The color temperature is controlled at 3000K, which does not interfere with the secretion of melatonin, thereby improving the sleep quality of users.

[0076] In terms of the influence of color temperature on emotions, the human body is more relaxed under the irradiation of warm white light at around 3000K; when the color temperature reaches 4000K and 6000K, the user is more focused under the irradiation of cold white light, and the work and study efficiency is improved. Since the higher the color temperature, the higher the user's alertness, the high color temperature lighting environment can reduce the user's sleepiness and is more conducive to improving work efficiency;

[0077] The middle color temperature can produce benign stimulation, which can "wake up" or "relax" the brain, improve efficiency and reduce fatigue. In a low color temperature lighting environment, the human body will be in a more relaxed state, which is more in line with the user's emotional needs. Therefore, the working mode can be divided into the following states according to the above settings:

[0078] In the sleep-aiding mode, the lighting environment is diffuse light, that is, the smart lights are arranged in sequence from top to bottom along the support shaft 2, and the main lighting lamp 8 is turned off, the auxiliary light supplementary lamp 9 is connected to the circuit, and the atomized glass 13 is powered off and presents a blurred state. At this time, the auxiliary light supplementary lamp 9 provides a low color temperature lighting environment;

[0079] In the wake-up mode, the lighting environment is gradually concentrated top light. After the main lighting lamp 8 on the first smart lamp is connected to the circuit, it moves to the top of the support shaft 2 in advance. The remaining smart lamps move in sequence to execute the pre-wake-up mode in parallel with the first smart lamp. After all smart lamps complete the top concentration, the fill light auxiliary lamp 9 is connected to the circuit to enter the strong wake-up mode. At this time, the color temperature of the smart lamp reaches 4000K. After the atomized glass 13 is powered on, it enters the delayed wake-up mode. At this time, the color temperature of the smart lamp can reach 6000K, ensuring the effectiveness of user wake-up;

[0080] In reading mode, the lighting mode is concentrated top light, and all smart lights move to the top of the support shaft 2 at the same time. After the top concentration is completed, the main lighting light 8 and the auxiliary fill light 9 are connected to the circuit at the same time, and the atomized glass 13 is powered off. At this time, the color temperature of the smart lights reaches 4000K;

[0081] In relaxation mode, the lighting mode is uniform diffuse light. The smart lights are evenly distributed on the support shaft 2 from top to bottom. The main lighting light 8 is connected to the circuit, and the working status of the fill light auxiliary light 9 and the fogging glass 13 are adjusted according to the indoor environment. At this time, the color temperature of the smart light is adjusted within 2000-3000K.

[0082] The present invention formulates a wake-up execution plan according to the duration of the wake-up time interval and physiological data, and controls the driving system corresponding to the smart lamp in sequence according to the wake-up execution plan to drive the smart lamp to move upward, completes the position adjustment of the smart lamp, and switches the working state of the smart lamp at the same time, completes the switch control of the main lighting lamp 8, the auxiliary fill light lamp 9 and the fogging glass 13, realizes the wake-up process through light changes, increases the delayed wake-up process, avoids wake-up failure, and also analyzes the user's sleep state in combination with the wake-up time interval, draws a sleep quality analysis chart, and generates a sleep-aid reminder signal to remind the user to fall asleep in time, thereby improving sleep quality.

[0083] The size of the interval is set to facilitate comparison. The size of the interval value depends on the amount of sample data and the number of bases set by technical personnel in this field for each group of sample data; as long as it does not affect the proportional relationship between the parameter and the quantized value.

[0084] The above formulas are all dimensionless and numerical calculations. The formula is a formula obtained by collecting a large amount of data and performing software simulation to obtain the most recent real situation. The preset parameters in the formula are set by technicians in this field according to actual conditions.

[0085] In the two embodiments provided in the present application, it should be understood that the disclosed devices and systems can be implemented in other ways; for example, the device embodiments described above are only schematic, for example, the division of the modules is only a logical function division, and there may be other division methods in actual implementation, such as multiple modules or components can be combined or integrated into another system, or some features can be ignored or not executed; another point, the mutual coupling or direct coupling or communication connection shown or discussed can be through some interfaces, the indirect coupling or communication connection of devices or modules can be electrical, mechanical or other forms;

[0086] The above description is only a preferred specific implementation manner of the present invention, but the protection scope of the present invention is not limited thereto. Any technician familiar with the technical field can make equivalent replacements or changes according to the technical scheme and inventive concept of the present invention within the technical scope disclosed by the present invention, which should be covered by the protection scope of the present invention.

Claims

1. A smart lamp based on wake-up demand, comprising a lamp base (1) and a lamp housing (5), characterized in that: A support shaft (2) is fixedly provided on the top surface of the lamp base (1), a plurality of movable tracks (3) are fixedly provided on the outer surface of the support shaft (2), a driving system is fixedly provided inside the plurality of movable tracks (3), and a smart lamp is connected to the outer surfaces of the plurality of driving systems; The intelligent lamp comprises a lamp mounting plate (4), the lamp mounting plate (4) is connected to the outer surface of the driving system, the lamp housing (5) is detachably connected to the outer surface of the lamp mounting plate (4), the outer surface of the lamp mounting plate (4) is fixedly provided with a limit clamp (6), the limit clamp (6) is slidably connected to the outer surface of the support shaft (2), a lamp inner cavity (7) is formed between the lamp mounting plate (4) and the lamp housing (5), a main lighting lamp (8) is fixedly provided on the inner wall of the lamp inner cavity (7), and a plurality of auxiliary fill-light lamps (9) are evenly distributed on the inner wall of the lamp inner cavity (7) outside the main lighting lamp (8).

2. The smart lamp based on wake-up demand according to claim 1, characterized in that: The cross section of the support shaft (2) is a regular polygonal structure, and each end surface of the support shaft (2) is fixedly provided with a movable track (3).

3. The smart lamp based on wake-up demand according to claim 1, characterized in that: The driving system comprises a servo motor (10), the servo motor (10) is fixedly mounted on the top surface of the support shaft (2), the output end of the servo motor (10) is connected to a ball screw (11), the inner wall of the movable track (3) is slidably connected to a slide table (12), the slide table (12) is sleeved on the outer surface of the ball screw (11), and the lamp mounting plate (4) is fixedly mounted on the outer surface of the slide table (12).

4. The smart lamp based on wake-up demand according to claim 1, characterized in that: The lamp housing (5) is made of a transparent acrylic material, a light-transmitting groove is provided inside the lamp housing (5), and atomized glass (13) is fixedly provided on the inner wall of the light-transmitting groove.

5. The smart lamp based on wake-up demand according to claim 1, characterized in that: The limit clamping member comprises a first clamping plate (61) and a second clamping plate (62); a fixed angle is formed between the first clamping plate (61) and the second clamping plate (62); the size of the fixed angle is the same as the size of the inner angle of the cross section of the support shaft (2); the first clamping plate (61) and the second clamping plate (62) are respectively in contact with two adjacent side surfaces on the support shaft (2).

6. The sleep monitoring system of the smart lamp based on wake-up demand according to any one of claims 1 to 5, characterized in that: It includes a demand acquisition unit, a sleep monitoring unit, a wake-up control unit, a light control unit and a sleep analysis unit; The demand acquisition unit acquires the user's wake-up time interval, generates a wake-up process according to the duration of the wake-up time interval, and sends it to the wake-up control unit; The sleep monitoring unit is used to obtain the user's physiological data, determine the user's sleep duration and sleep state based on the physiological data, generate a corresponding wake-up intensity value according to the user's sleep state, combine the wake-up intensity value with the wake-up process to generate a wake-up execution plan, and send the wake-up execution plan to the wake-up control unit and the light control unit; The wake-up control unit obtains and processes the wake-up signal, marks several smart lights as M1, M2, M3, ..., Mn, and records M1 as the first smart light. According to the wake-up execution plan, the drive system corresponding to the smart light Mn is controlled in sequence to drive the smart light to move upward, thereby completing the position control of the smart light; The light control unit comprises a mode storage module and a demand switching module, wherein the mode storage module is used to store various working states of the smart light, wherein each working state comprises a sleep-aiding mode, a wake-up mode, a leisure mode and a reading mode, and the demand switching mode is used to switch the working state of the smart light according to user needs and a wake-up execution plan, thereby completing the switch control of the main lighting light (8), the auxiliary fill light (9) and the atomized glass (13); The sleep analysis unit is used to obtain the user's sleep duration, analyze the user's sleep state in combination with the wake-up time interval, draw a sleep quality analysis chart, and generate a sleep-aid reminder signal to the wake-up control unit and the light control unit.

7. The sleep monitoring system of the smart lamp based on the wake-up demand according to claim 6, characterized in that: The specific process of generating the wake-up process is as follows: S101, obtaining a wake-up time interval, the wake-up time interval including the wake-up start time ts and the latest wake-up time te, and calculating the wake-up period △tm=te-ts according to the wake-up start time ts and the latest wake-up time te; S102, taking the starting time ts as the starting point, establishing a time period division table, and dividing the wake-up cycle into sections, including a pre-wake-up period, a strong wake-up period, and a delayed wake-up period; S103, distinguishing time periods in the time period division table, the pre-awakening time period is [ts, t1], the strong awakening time period is [t1, t2], the delayed awakening time period is [t2, te], and marking the intensity switching point on each section; The pre-wake-up time corresponding to the pre-wake-up period is △t1=t1-ts=e1·△tm, the pre-wake-up time corresponding to the strong wake-up period is △t2=t2-t1=e2·△tm, and the pre-wake-up time corresponding to the delayed wake-up period is △t3=te-t2=e3·△tm, wherein e1, e2 and e3 are preset proportional coefficients, and their specific values ​​are set and updated according to the user's sleep quality analysis chart.

8. The sleep monitoring system of the smart lamp based on wake-up demand according to claim 6, characterized in that: The specific process of generating a wake-up execution plan is as follows: S201, before the user falls asleep, obtaining the user's pre-sleep physiological data, including heart rate data, respiratory rate data, and body temperature data, determining the user's sleep time based on the user's pre-sleep physiological data, and recording the sleep time t4 and deep sleep time t5; S202, obtaining the awakening start time ts according to the awakening time interval of the user, obtaining the user's pre-awakening physiological data before the awakening start time ts arrives, including heart rate data, respiratory rate data and body temperature data, and determining the user's sleep level Wn based on the user's pre-sleep physiological data, including a first-level sleep state W1, a second-level sleep state W2 and a third-level sleep state W3; S203, calculating the total sleep duration td according to the time difference between the user's wake-up start time ts and the sleep time t4; S204, calculating the awakening intensity value Ed according to the total sleep time td of the user and the sleep level of the user: Wherein, e1 and e2 are both preset proportional coefficients, and the value of e2 is related to the specific level of the sleep level Wn. The values ​​of e2 corresponding to the first-level sleep state W1, the second-level sleep state W2 and the third-level sleep state W3 show an upward trend; S205 : Assign values ​​to the pre-wake-up period, the strong wake-up period, and the delayed wake-up period according to the wake-up intensity value Ed, and mark them in the wake-up process to generate a wake-up execution plan.

9. The sleep monitoring system of the smart lamp based on wake-up demand according to claim 6, characterized in that: In the sleep-aiding mode, the lighting environment is diffuse light, that is, the smart lights are arranged in sequence from top to bottom along the support axis (2), and the main lighting light (8) is turned off, the auxiliary lighting light (9) is connected to the circuit, and the atomized glass (13) is powered off and presents a blurred state; In the wake-up mode, the lighting environment is gradually concentrated top light. After the main lighting lamp (8) on the first smart lamp is connected to the circuit, it is pre-moved to the top of the support shaft (2). The remaining smart lamps are sequentially moved to be parallel to the first smart lamp to execute the pre-wake-up mode. After all the smart lamps complete the top concentration, the supplementary light lamp (9) is connected to the circuit to enter the strong wake-up mode. After the atomized glass (13) is powered on, it enters the delayed wake-up mode. In the reading mode, the lighting mode is concentrated top light, and all the intelligent lights are simultaneously moved to the top of the support shaft (2). After the top concentration is completed, the main lighting light (8) and the auxiliary lighting light (9) are simultaneously connected to the circuit, and the atomized glass (13) is powered off; In the relaxation mode, the lighting mode is uniform diffuse light, the intelligent lights are evenly distributed on the support shaft (2) from top to bottom, the main lighting lamp (8) is connected to the circuit, and the working states of the supplementary light lamp (9) and the atomized glass (13) are adjusted according to the indoor environment.

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