TWI815564B - Sleep-assistance system and sleep-assistance method - Google Patents

Abstract

A sleep-assistance system and a sleep-assistance method are provided and include an electroencephalogram sensor for measuring alpha wave, beta wave, gamma wave, theta wave and/or delta wave of an user; an analysis module for receiving the alpha wave, the beta wave, the gamma wave, the theta wave and/or the delta wave measured by the electroencephalogram sensor, the analysis module analyzes the ratio of the alpha wave, the beta wave, the gamma wave, the theta wave and/or the delta wave of the user to obtain a first sleep aid parameter and select a type of essential oil to be applied to the user's body according to the first sleep aid parameter; a multimedia control module for selecting a multimedia type according to the first sleep aid parameter of the analysis module; and a space control module for adjusting a concentration of negative ions released into the air.

Description

Sleep assistance system and sleep assistance method

The present invention relates to a sleep assistance system and a sleep assistance method, and in particular to a sleep assistance system and a sleep assistance method that provide precise care for users.

Modern people live at a fast pace and face various pressures in their daily lives. The busy life prevents people from releasing stress in time. They often work upside down day and night or have abnormal daily routines. Over time, this often leads to stress, anxiety, insomnia, etc., which makes people The body and mind are tired and cannot get proper rest, which affects the thinking and judgment of normal life.

However, everyone's physical condition and constitution are greatly different, and the degree of insomnia and the causes of inability to fall asleep are also different. In addition, the neural activity of the brain changes with different ages and stages of life, making it difficult for traditional sleep aids to accurately It meets the actual needs of users and cannot effectively improve sleep quality.

In summary, the inventor of the present invention thought about and designed a sleep assistance system and sleep assistance method in order to improve the shortcomings of the conventional technology and thereby enhance industrial implementation and utilization.

In view of the above-mentioned conventional problems, the object of the present invention is to provide a sleep assistance system and a sleep assistance method to solve the problems faced in the conventional technology, and to provide a sleep assistance system and a sleep assistance method for precise intelligent care. According to the use According to the user's actual constitution, physical condition, nerve activity, five elements, and pulse condition, a sleep aid program is developed that is suitable for the user, and a suitable sleep environment is provided to improve the user's sleep quality, thereby improving the user's physical condition.

Based on the above purpose, the present invention provides a sleep assistance system, which includes: a brain wave sensor, the brain wave sensor measures the user's alpha wave, beta wave, gamma wave, theta wave and/or delta wave; an analysis The module receives the alpha waves, beta waves, gamma waves, theta waves and/or delta waves returned by the brain wave sensor, and the analysis module analyzes the user's alpha waves, beta waves, gamma waves, theta waves and/or delta waves. The proportion of the waves derives a first sleep assisting parameter, and a type of essential oil is selected to be applied to the user's body based on the first sleep assisting parameter; and a space control module regulates the concentration of negative ions released into the air.

Preferably, the sleep assistance system further includes: a pulse sensor for measuring a nerve conduction signal of a user.

Preferably, the nerve conduction signal is total autonomic nerve function activity, sympathetic nerve activity and/or parasympathetic nerve activity.

Preferably, the analysis module obtains the second sleep assistance parameter by analyzing the pulse curve, the ratio of sympathetic nerve activity and parasympathetic nerve activity.

Preferably, the sleep assisting system further includes: a smart integrated mattress. The smart integrated mattress can adjust a bending angle of the smart integrated mattress to 127 degrees according to the second sleep assisting parameter.

Preferably, the sleep assistance system further includes: a multimedia control module that selects a multimedia type according to the first sleep assistance parameter of the analysis module.

Preferably, the multimedia control module provides music selected from one of 20Hz~262Hz, 262Hz~294Hz, 294Hz~330Hz, 330Hz~392Hz, and 392Hz~440Hz according to the first sleep auxiliary parameter.

Preferably, the sleep assistance system further includes: a light therapy device that provides light with a color temperature of 3000K~5700K and a circadian factor (CAF) of 0.35~0.9.

In addition, another embodiment of the present invention provides a sleep assistance method, which includes the following steps: Measure the user's alpha waves, beta waves, gamma waves, theta waves and/or delta waves through a brain wave sensor; and analyze the user's alpha waves, beta waves, gamma waves, theta waves and/or delta waves through an analysis module The ratio of the waves yields a first sleep assisting parameter; and A space control module is used to adjust the concentration of negative ions released into the air according to the first sleep assistance parameter.

Preferably, the sleep assistance method further includes the following steps: measuring a nerve conduction signal of a user through a pulse sensor.

Preferably, the nerve conduction signal is total autonomic nerve function activity, sympathetic nerve activity and/or parasympathetic nerve activity.

Preferably, the analysis module obtains the second sleep assistance parameter by analyzing the pulse curve, the ratio of sympathetic nerve activity and parasympathetic nerve activity.

Preferably, the sleep assistance method further includes the following steps: adjusting a bending angle of the intelligent integrated mattress to 127 degrees according to the second sleep assistance parameter through an intelligent integrated mattress; and using a plurality of pressure sensors on the intelligent integrated mattress. Monitor a sleep activity parameter of the user to analyze a sleep state.

Preferably, the sleep assistance method further includes the following steps: selecting a multimedia type according to the first sleep assistance parameter of the analysis module through a multimedia control module.

Preferably, the sleep assistance method further includes the following steps: the multimedia control module provides one of 20Hz~262Hz, 262Hz~294Hz, 294Hz~330Hz, 330Hz~392Hz, and 392Hz~440Hz according to the first sleep assistance parameter. music.

Preferably, the sleep assistance method further includes the following steps: providing light with a color temperature of 3000K~5700K and a circadian factor (CAF) <0.35~0.9 through a light therapy device to regulate melatonin secretion.

The sleep assisting system and sleep assisting method of the present invention integrate five physical therapy devices: light therapy, body therapy, air therapy, sound therapy, aromatherapy and remote care, and utilize brain wave sensors and pulse sensing. The configuration of the device detects the user's current physical state and neural activity, and determines the first sleep auxiliary parameter and the second sleep auxiliary parameter through the analysis module, thereby controlling the multimedia control module and the space control module according to the user's actual conditions. According to the user's constitution, physical condition, nerve activity, five elements, and pulse, a sleep aid program is developed that is suitable for the user. The type of multimedia and the type of essential oils applied to the body are selected to be most suitable for the user's physical condition at the moment, and the negative ions released into the air are adjusted. Execute the corresponding light therapy mode according to the concentration and time, and release an essential oil in the space as the basis of background fragrance and aromatherapy, providing a suitable sleeping environment, improving the user's sleep quality, thereby improving the user's physical condition, and Regulates the user's melatonin secretion to adjust their work schedule.

1: Sleep assistance system

10:Brain wave sensor

110: Brainwave sensor body

120:Headband

130: switch

140: Brainwave sensor detection film

150, 160, 170: Detection piece

151, 161, 171: Wire

20:Pulse sensor

210: Pulse sensor body

211:Button

220: Pulse sensor display

230: Pulse sensor wristband

240:Wireless communication

30:Smart integrated mattress

31: Sensing mattress

310:Gravity sensor

32: Electric bed frame

40:Music player

50: Essential oil releaser

60: Phototherapy device

70:Terminal equipment

710: Pulse analysis application

711:Test date

712: Subject account

713:Pulse curve

714: User’s current pulse condition

715:Search history

716:Vibration spectrum analysis

717:Save data

720: Brainwave Analysis App

801:Analysis module

802: Sensing module

803:Medical monitoring module

804: Space control module

805: Multimedia control module

806:Display module

90:Air conditioning device

α1: first angle

α2: second angle

α3: The third angle

S01~S07: Steps

In order to explain the technical solutions of the embodiments of the present invention more clearly, the drawings required for describing the embodiments of the present invention will be briefly introduced below. Obviously, the drawings described below are only some embodiments of the present invention. For those with ordinary knowledge in the technical field, other drawings can also be obtained based on these drawings.

Figure 1 is a schematic diagram of the sleep assistance system of the present invention.

Figure 2 is a flow chart of the sleep assistance method of the present invention.

Figure 3 is a block diagram of the sleep assistance system of the present invention.

Figures 4A and 4B are schematic structural diagrams of the brainwave sensor of the sleep assistance system of the present invention.

Figure 5 is a schematic structural diagram of the pulse sensor of the sleep assistance system of the present invention.

Figure 6 is a schematic structural diagram of the smart integrated mattress of the sleep assistance system of the present invention.

The advantages, features and technical methods achieved by the present invention will be described in more detail with reference to the exemplary embodiments and accompanying drawings to be more easily understood. The present invention can be implemented in different forms and should not be understood to be limited to what is described here. Rather, these embodiments will be provided so that this disclosure will be thorough and complete and will fully convey the scope of the invention to those of ordinary skill in the art, and the present invention will only be construed as appended. defined by the scope of the patent application.

It will be understood that, although the terms "first," "second," etc. may be used herein to describe various elements, components, regions, sections, layers and/or sections, these elements, components, regions, sections , layers and/or sections shall not be limited by these terms. These terms are only used to distinguish one element, component, region, section, layer and/or section from another element, component, region, section, layer and/or section.

Unless otherwise defined, all terms (including technical and scientific terms) used herein have the same meanings as commonly understood by one of ordinary skill in the art to which this invention belongs. It will be further understood that terms such as those defined in commonly used dictionaries should be construed to have definitions consistent with their meanings in the context of the relevant technology and the present invention, and are not to be construed as idealistic or overly formal meaning unless expressly so defined herein.

Please refer to Figure 1 to Figure 2 together. Figure 1 is a schematic diagram of the sleep assisting system 1 of the present invention, and Figure 2 is a flow chart of the sleep assisting method of the present invention.

A sleep assistance system 1 of the present invention includes: a brain wave sensor 10, a pulse sensor 20, an analysis module 801, a multimedia control module 805, a space control module 804 and a smart integrated mattress 30, and provides A sleep assistance method is provided, which includes the following multiple steps:

Step S01: Wear the brain wave sensor 10 on the user's forehead, and measure the user's alpha waves, beta waves, gamma waves, theta waves and/or delta waves through the brain wave sensor 10.

Step S02: Wear the pulse sensor 20 on the user's wrist, and measure a nerve conduction signal of the user through the pulse sensor 20. The nerve conduction signal is the total autonomic nerve function activity, sympathetic nerve activity and/or parasympathetic nerve activity. Neuroactivity.

Step S03: Analyze the ratio of the user's alpha waves, beta waves, gamma waves, theta waves and/or delta waves through the analysis module 801 to obtain a first sleep assistance parameter and select the type of essential oil to apply to the user's body, and An analysis module 801 receives the nerve conduction signal returned by the pulse sensor 20 and analyzes the user's current pulse 714 to obtain a second sleep assistance parameter.

Step S04: Adjust the concentration of negative ions released into the air through a space control module 804, and release an essential oil in the space through the essential oil releaser 50.

Step S05: Select a multimedia type according to the first sleep assistance parameter of the analysis module 801 through a multimedia control module 805.

Step S06: Provide light with a color temperature of 3000K to 5700K and a circadian rhythm factor (CAF) of 0.35 to 0.9 through a phototherapy device 60 to regulate melatonin secretion.

Step S07: Set a bending angle of the smart integrated mattress 30 to 127 degrees.

In some embodiments, the sleep assisting method may further include the following steps: when the user lies on the smart integrated mattress 30, the smart integrated mattress 30 adjusts the smart integrated mattress 30 according to the second sleep assisting parameter. The smart integrated mattress 30 has a bending angle of 127 degrees; and the smart integrated mattress 30 monitors a sleep activity parameter of the user through a plurality of pressure sensors to analyze a sleep state.

The sleep assisting system 1 of the present invention integrates sleep analysis and detection and sleep assisting equipment. Please refer to Figure 3. Figure 3 is a block diagram of the sleep assisting system 1 of the present invention.

The sleep assistance system 1 of the present invention is provided with the following modules: analysis module 801, sensing module 802, medical monitoring module 803, space control module 804, multimedia control module 805 and display module 806.

The sensing module 802 collects data such as the user's physical condition and physiological information and transmits it to the analysis module 801 for analysis. The sensing module 802 may include a brain wave sensor 10, a pulse sensor 20, and a gravity sensor. 310 to collect the user's current brain waves, pulse, sleeping posture, etc. The sensing module 802 can transmit data to a cloud database to save and/or back up the data.

The analysis module 801 receives the physical condition and physiological information returned by the sensing module 802, obtains the first sleep auxiliary parameter and the second sleep auxiliary parameter, and evaluates the user's five-element physique and music, essential oils, and/or suitable for the user. or mattress inclination angle, and sends instructions to the space control module 804 and the multimedia control module 805 to provide a suitable sleeping environment. In addition, the analysis module 801 can transmit the analysis results to the display module 806 to display the analysis results on the user's terminal device 70. The terminal device 70 includes but is not limited to: mobile phones, watches, computers, tablets, various displays, etc. . The terminal device 70 may be provided with applications 710 and 720 to display data to the user, remind the user, contact medical institutions, etc. In addition, the analysis module 801 can transmit analysis results to the medical monitoring module 803 for professionals in medical institutions to diagnose, monitor, remind or provide solutions, etc. Users can consult professionals based on the analysis results, and medical institutions can also Accordingly, the real-time physical status of multiple users can be monitored simultaneously. In addition, the analysis module 801 can send the analysis results to the cloud database to save and/or back up the data. The medical monitoring module 803 can also access the cloud database, obtain historical records, analyze and judge and integrate the data.

The multimedia control module 805 can select a multimedia type (sound therapy) according to the first sleep assistance parameter of the analysis module 801. Examples of the multimedia control module 805 include but are not limited to the music player 40, headphones, etc.

The space control module 804 can be connected to the essential oil releaser 50, the air conditioning device 90, the light therapy device 60, the smart integrated mattress 30 or a combination thereof. The essential oil releaser 50 can adjust and select the type of essential oil released to the air (aromatherapy) according to the first sleep auxiliary parameter, and the air conditioning device 90 can adjust the concentration of negative ions released to the air (aerotherapy) according to the first sleep auxiliary parameter, wherein the negative ions The concentration reaches 100,000 to 1 million negative ions within 1.5 meters, of which the negative ions are molecular-level particles, which help users absorb them.

Aromatherapy is divided into two parts: air absorption and body absorption. Regarding the air absorption part, an essential oil is released in the space through the essential oil releaser 50 as the basis for background fragrance and aromatherapy. The space release rate of the essential oil is 0.1 ml/hour to 2 ml/hour. Examples of essential oil release devices 50 include, but are not limited to, diffuser stones, essential oil diffusers, water oxygen machines, and atomizers. Essential oils used for air absorption include, but are not limited to, lavender essential oil. Regarding body absorption, the type of essential oil selected according to the user's first sleep aid parameter is applied to the user's body, preferably on the skin close to the arteries, preferably on the hands, to help the body absorb. On the other hand, the essential oils selected according to the user's first sleep aid parameter are provided to the user in the form of essential oil soap for use during bathing or hand washing, so that the body can maintain the aroma of the essential oils for a long time, which helps to increase the amount of essential oils. For absorption, please see Table 6 below for the selection of essential oil types.

Examples of the air conditioning device 90 include, but are not limited to, a negative ion release device, a negative ion air purifier, and the like. The light therapy device 60 can provide light with a color temperature of 3000K~5700K and a circadian factor (CAF) of 0.35~0.9 to regulate the secretion of melatonin and provide an environment suitable for relaxation and rest. Examples of the light therapy device 60 include, but are not limited to, chandeliers, wall lamps, standing lamps, table lamps, light bulbs, panel lamps, wall lamps, and lamp tubes.

Furthermore, the phototherapy device 60 has four phototherapy modes, which are switched according to time. Phototherapy with a high CAF value can suppress the secretion of melatonin, thereby keeping one awake and focused. Phototherapy with a low CAF value can stimulate melatonin secretion, thereby producing drowsiness. Therefore, the phototherapy device 60 can adjust the user's response to the corresponding Secrete the corresponding amount of melatonin at the right time to match your daily routine, which can not only make your work more efficient, but also make your sleep more stable.

The smart integrated mattress 30 (body therapy) is provided with a sensing mattress 31 and an electric bed frame 32. The sensing mattress 31 is divided into three areas: the upper part, the middle part and the lower part, and can be bent at the first angle α1 and the second part respectively. For the second angle α2 and the third angle α3, the user can directly control the bending angles of the upper, middle and lower parts of the smart integrated mattress 30 through the remote control. The smart integrated mattress 30 can also be adjusted according to the first sleep assistance parameter and/or The second sleep assisting parameter adjusts at least one bending angle of the smart integrated mattress 30 . Furthermore, the upper part and the middle part of the smart integrated mattress 30 form an angle of 127 degrees to provide the user with a sleeping posture that simulates a zero-gravity state. The smart integrated mattress 30 is equipped with a plurality of pressure sensors. When the user lies on the smart integrated mattress 30 When activated, the smart integrated mattress 30 integrates pressure sensor data to monitor the user's sleep activity parameters to analyze a sleep status, such as: sleep posture, number of turns, sleep time, sleep efficiency, sleep latency, sleep interruption times and other information, and upload the above data to the analysis module 801, the terminal device 70 and/or the cloud database, so that the user and medical institutions can monitor the user's physical condition.

It can be seen that the various modules of the sleep assistance system 1 of the present invention are interconnected, integrate sleep analysis and detection and sleep assistance equipment, and integrate five physical therapy devices: light therapy, body therapy, air therapy, sound therapy, and aroma therapy. treatment and provide remote care, allowing users and medical institutions to simultaneously receive real-time physical conditions and develop an accurate and suitable sleep environment for users.

Please refer to Figures 4A and 4B together. Figures 4A and 4B are schematic structural diagrams of the brainwave sensor 10 of the sleep assistance system 1 of the present invention. As shown in Figure 4A, the brainwave sensor 10 includes a brainwave sensor body 110 and a headband 120. The brainwave sensor body 110 has a switch 130, an indicator light 111 and a brainwave sensor. The detection piece 140 is made of conductors such as metal. The indicator light 111 has two functions, namely indicating that the brain wave sensor 10 is connected to the terminal device 70 and serving as a charging indicator light. As shown in Figure 4B, the brainwave sensor detection piece 140 passes through the headband 120 and is electrically connected to the brainwave sensor body 110 and contacts the user's forehead. The headband 120 may have three detection pieces 150 and 160. , 170, and connect the brainwave sensor detection piece 140 of the brainwave sensor body 110 with separate wires 151, 161, 171. The present invention does not limit the number of detection pieces 150, 160, 170, and can be based on the measurement requirements. increase or decrease. The brainwave sensor 10 can transmit the measurement results to the terminal device 70 (for example, a computer) through wireless communication 240 .

The brain wave sensor 10 can measure the user's alpha waves, beta waves, gamma waves, theta waves and/or delta waves, and can further measure the various frequency ranges of the brain wave sensor 10 of the present invention as shown in Table 2. and the mental state it represents.

Please also refer to Figure 5 , which is a schematic structural diagram of the pulse sensor 20 of the sleep assistance system 1 of the present invention. The pulse sensor 20 has a pulse sensor body 210 , a pulse sensor display 220 and a pulse sensor wristband 230 . The main body 210 of the pulse sensor is provided with a plurality of buttons 211 to control the operation of the pulse sensor 20 .

Pulse sensor 20 (Manufacturer: Heart Rhythm Master/ANSWatch ^® ) measures a user's nerve conduction signal through multiple metal pieces. The nerve conduction signal includes autonomic nervous system total activity (HRV) and sympathetic nerve measurement value (HF). , parasympathetic nerve measurement value (LF), sympathetic nerve activity (HF%=LF/(LF+HF)*100), parasympathetic nerve activity (LF%=HF/(LF+HF)*100), LF/HF (sympathetic parasympathetic balance index), and the measurement results are displayed on the pulse sensor display 220. In addition, the pulse sensor 20 applies different pressures to further measure three pulse curves 713 , in descending order of pressure: floating pulse (70mmHg), medium pulse (100mmHg) and sinking pulse (130mmHg), to determine the user's pulse condition. In addition, as shown in FIG. 5 , the pulse sensor 20 can transmit the measurement results to the terminal device 70 (for example, a computer) through wireless communication 240 .

The analysis module 801 of the present invention can be any device or application program 710 or 720 with computing functions, and can be built into any sensing module 802 or into an independent computer. As shown in Figure 4, in this embodiment, the analysis module 801 is an application program built into a computer, that is, a brainwave analysis application program 720, which can record the user's data settings 731 and can also set different Measurement time, for example: training 732 (no time limit), three-minute test 733, five-minute test 734. In addition, the brain wave sensor 10 can be directly controlled to start recording 735 and stop recording 736. After the measurement is completed, you can click to display the report 737 and export/import 738 buttons for users to perform corresponding functions. The analysis module 801 receives the values of each brainwave signal returned by the brainwave sensor 10 to form a long bar chart, and draws a real-time brainwave curve 721 to analyze the user's current concentration, relaxation and stress levels, and After the measurement is completed, the first sleep assistance parameters are generated, as shown in Table 3 below. The analysis module 801 can analyze the ratio of the user's alpha waves, beta waves, gamma waves, theta waves, and/or delta waves to obtain a first sleep assistance parameter. The analysis module 801 determines the frequency range of the brain wave sensor 10 according to The ratio of the measured measurement values (100% in total) yields the first brain wave parameter, the second brain wave parameter and the third brain wave parameter.

The first brain wave parameter, the second brain wave parameter and the third brain wave parameter can be adjusted according to needs. For example, in one embodiment, the first brain wave parameter is the average value of theta wave and delta wave, and the second brain wave parameter is the average value of theta wave and delta wave. The parameter is the average value of alpha wave and beta wave and the third brain wave parameter is the average value of gamma wave. The level of the measurement value can be adjusted according to needs. For example, in one embodiment, a measurement value greater than or equal to 50 is defined as "high", and a measurement value less than 50 is defined as "low". The analysis module 801 determines the user's physical condition. , that is, the first sleep auxiliary parameter.

In addition, as shown in Figure 5, in this embodiment, the analysis module 801 can be further equipped with a pulse analysis application 710, which can record the user's test date 711 and the user/subject account 712, or it can There is a function of searching history records 715, and buttons such as vibration spectrum analysis 716 and data storage 717 may also be provided for the user to perform corresponding functions. The analysis module 801 receives the nerve conduction signal and the real-time pulse curve 713 returned by the pulse sensor 20 to analyze the user's current pulse 714, that is, the second sleep assistance parameter, as shown in Table 4.

The analysis module 801 can select a multimedia type suitable for the user based on the first sleep auxiliary parameter (i.e., the user's physique). Table 5 shows the multimedia types corresponding to different physiques, each accompanied by a music frequency and frequency corresponding to different physiques. musical instruments.

The analysis module 801 can select the type of essential oil suitable for the user based on the first sleep auxiliary parameter (ie, the user's constitution). Table 6 shows the essential oils corresponding to different constitutions to regulate the body. The analysis module 801 can also analyze the physical condition corresponding to the second sleep assistance parameter (i.e., the user's pulse condition). Select the appropriate essential oil for the conditioning direction. For example, the second sleep auxiliary parameter of the analysis result obtained by the analysis module 801 is Hongmai. After comparing the body conditioning direction in Table 4, the essential oil suitable for the second constitution is obtained.

Example: Human Experiments on Sleep Assistance Methods

1. Initial physical state:

User A first wears the brain wave sensor 10 for measurement before performing the sleep assistance method. Each value is shown in Table 7 to Table 9. Subsequently, the analysis module 801 analyzes and obtains the result as the first brain wave parameter (theta wave and delta wave) is on the high side, the second brain wave parameter (alpha wave and beta wave) is on the high side, and the third brain wave parameter (gamma wave) is on the low side. Therefore, corresponding to the judgment requirements in Table 3, it can be concluded that the first sleep auxiliary parameter is the third According to the four constitutions, User A wears the pulse sensor 20 for measurement, and the analysis results show that the second sleep auxiliary parameter is the composite pulse (solid pulse and long pulse), as shown in Table 9. The analysis module 801 analyzes the first sleep auxiliary parameters and transmits instructions to control the multimedia control module 805 and the space control module 804, so that the multimedia control module 805 plays the video corresponding to the fourth constitution in Table 5. Music, or language guidance and 636 breathing methods and abdominal breathing methods provide users with relaxation exercises. The space control module 804 releases essential oils corresponding to the fourth constitution in Table 6. User A sleeps in this sleeping environment One hour (60 minutes).

2. Physical condition after use:

After user A slept for one hour in this sleep environment, he again used the brain wave sensor 10 and the pulse sensor 20 as mentioned above to measure the effect of the sleep assistance method. The values are as shown in Table 10 to Table 12, and then After analysis by the analysis module 801, the result is that the first brain wave parameters (theta waves and delta waves), the second brain wave parameters (alpha waves and beta waves), and the third brain wave parameters (gamma waves) all dropped to lower measurements. value, therefore corresponding to the judgment requirements in Table 3, it is concluded that the first sleep auxiliary parameter is the second constitution, and then user A wears the pulse sensor 20 for measurement, and the analysis result shows that the second sleep auxiliary parameter is the composite pulse ( deep veins, solid veins and long veins). It can be seen that the physical condition is significantly improved, the mental stress is reduced, and the body and brain are effectively relaxed.

The sleep assisting system and sleep assisting method of the present invention integrate five physical therapy devices: light therapy, body therapy, air therapy, sound therapy, aromatherapy and remote care, and utilize brain wave sensors and pulse sensing. The configuration of the device detects the user's current physical state and neural activity, and determines the first sleep auxiliary parameter and the second sleep auxiliary parameter through the analysis module, thereby controlling the multimedia control module and the space control module according to the user's actual conditions. According to the user's constitution, physical condition, nerve activity, five elements, and pulse, a sleep aid program is developed that is suitable for the user. The type of multimedia and the type of essential oils applied to the body are selected to be most suitable for the user's physical condition at the moment, and the negative ions released into the air are adjusted. Execute the corresponding light therapy mode according to the concentration and time, and release an essential oil in the space as the basis of background fragrance and aromatherapy, providing a suitable sleeping environment, improving the user's sleep quality, thereby improving the user's physical condition, and Regulates the user's melatonin secretion to adjust their work schedule.

The above is only illustrative and not restrictive. Any equivalent modifications or changes that do not depart from the spirit and scope of the present invention shall be included in the appended patent scope.

1: Sleep assistance system

10:Brain wave sensor

20:Pulse sensor

30:Smart integrated mattress

40:Music player

50: Essential oil releaser

60: Phototherapy device

70:Terminal equipment

90:Air conditioning device

Claims (10)

A sleep assistance system, which includes: a brain wave sensor that measures a user's alpha waves, beta waves, gamma waves, theta waves and/or delta waves; an analysis module that receives the The analysis module analyzes the alpha waves, beta waves, gamma waves, theta waves and/or delta waves returned by the brain wave sensor. The ratio of the delta wave derives a first sleep assisting parameter, and an essential oil type is selected to be applied to the user's body based on the first sleep assisting parameter; and a pulse sensor is used to measure a pulse curve of the user. and a nerve conduction signal. The nerve conduction signal is the total activity of the autonomic nerve function, the sympathetic nerve activity and the parasympathetic nerve activity. The analysis module obtains a first value by analyzing the pulse curve, the ratio of the sympathetic nerve activity and the parasympathetic nerve activity. two sleep assistance parameters; and a space control module connected to the analysis module and adjusting the concentration of negative ions released into the air; wherein the sleep assistance system adjusts the second sleep assistance parameter of the user according to the first sleep assistance parameter. The sleep assisting system as described in claim 1, further comprising: a smart integrated mattress, the smart integrated mattress can adjust a bending angle of the smart integrated mattress to 127 degrees according to the second sleep assisting parameter. The sleep assistance system of claim 1, further comprising: a multimedia control module that selects a multimedia type based on the first sleep assistance parameter of the analysis module. The sleep assisting system as described in claim 3, wherein the multimedia control module provides a signal selected from 20Hz~262Hz, 262Hz~294Hz, 294Hz~330Hz, 330Hz~392Hz, and 392Hz~440Hz based on the first sleep assisting parameter. One's music. The sleep assisting system as described in claim 1, further comprising: a phototherapy device connected to the analysis module and providing light with a color temperature of 3000K~5700K and a circadian factor (CAF) of 0.35~0.9. A sleep assistance method, which includes the following steps: measuring a user's alpha wave, beta wave, gamma wave, theta wave and/or delta wave through a brain wave sensor; analyzing the user's alpha wave, beta wave, gamma wave, theta wave and/or delta wave through an analysis module The ratio of the alpha wave, the beta wave, the gamma wave, the theta wave and/or the delta wave derives a first sleep assisting parameter, and an essential oil is selected to be applied to the user's body based on the first sleep assisting parameter. Type; measures a user's pulse curve and a nerve conduction signal through a pulse sensor. The nerve conduction signal is the total activity of autonomic nervous system function, sympathetic nerve activity and parasympathetic nerve activity. The analysis module analyzes the pulse curve, The ratio of sympathetic nerve activity and parasympathetic nerve activity generates a second sleep assisting parameter; adjusting the concentration of negative ions released to the air through a space control module connected to the analysis module; and adjusting the use according to the first sleep assisting parameter is the second sleep assistance parameter. The sleep assistance method as described in claim 6, further comprising the following steps: adjusting a bending angle of the intelligent integrated mattress to 127 degrees through an intelligent integrated mattress according to the second sleep assistance parameter; and the intelligent integrated bed The pad monitors a sleep activity parameter of the user through a plurality of pressure sensors to analyze a sleep state. The sleep assistance method according to claim 6, further comprising the following steps: selecting a multimedia type according to the first sleep assistance parameter of the analysis module through a multimedia control module. The sleep assisting method as described in claim 8, further includes the following steps: the multimedia control module provides a selection method selected from 20Hz~262Hz, 262Hz~294Hz, 294Hz~330Hz, 330Hz~392Hz, based on the first sleep assisting parameter. Music at one of 392Hz~440Hz. The sleep assistance method as described in claim 6, further comprising the following steps: providing light with a color temperature of 3000K~5700K and a circadian rhythm factor (CAF) of 0.35~0.9 through a phototherapy device connected to the analysis module to regulate insomnia. Melanin secretion.

Images