Control method of a physiological monitoring system and related devices

Abstract

The application provides a control method of a physiological monitoring system and related devices, the method comprising: when a preset event corresponding to a target event type is detected, controlling the task execution module to start an induction mode; obtaining real-time physiological data of the user by using the physiological monitoring module, and calculating real-time depth parameters corresponding to the preset state based on the real-time physiological data and a calculation strategy corresponding to the target event type; when it is detected that the real-time depth parameters of the user present a downward trend and the amount of decline in a first preset time length is greater than a corresponding first depth threshold, controlling the task execution module to start a maintenance mode; and when a preset wake-up event is detected, controlling the task execution module to start a wake-up mode, obtaining state evaluation information corresponding to the user, and sending the state evaluation information to a user device. The whole sleep or meditation process is controlled in the whole process of early induction, mid-term state maintenance, and late wake-up.

Description

TECHNICAL FIELD

[0001] The present application relates to the technical field of physiological monitoring, and in particular to a control method of a physiological monitoring system and related apparatus. BACKGROUND

[0002] Sleep, as a complex physiological process, is an important link of body recovery, integration and consolidation. Sleep can help the human body recover fatigue and relieve emotions, and sufficient sleep is very necessary for people's normal life. In modern society, there are not a few people suffering from insomnia, somnolence and other symptoms, and sleep deprivation often has a great impact on people's daytime life, leading to other mental and physical problems.

[0003] Meditation is a form of changing consciousness that enhances self-knowledge and well-being by attaining a deep state of tranquility. Meditation often provides many benefits for the practitioner, including improved mood (e.g., making the person more calm, more focused, more relaxed, happier, improved mental state, reduced anxiety, etc.), performance (e.g., athletic performance, professional performance, etc.), addiction help (e.g., helping to overcome drug abuse, etc.), sleep pattern help (e.g., sleep time, sleep duration, etc.), enlightenment, and / or overall health.

[0004] Patent CN113398470A discloses a neural regulation system that can enhance sleep, which includes a microcontroller acquisition unit, a computing terminal, an electroencephalogram acquisition unit, an analog-to-digital conversion circuit, an electrical stimulation unit, and an atomizer unit. The microcontroller acquisition unit is used to acquire the sleep electroencephalogram signal of the measured object in real time, and the computing terminal calculates the sleep depth information of the measured object according to the real-time acquired sleep electroencephalogram signal. The computing terminal controls the working state of the electroencephalogram acquisition unit, the analog-to-digital conversion circuit, the electrical stimulation unit, and the atomizer unit according to the sleep depth information of the measured object. However, this system only works during the deep sleep and light sleep of the user, and does not have the functions of inducing sleep and waking up.

[0005] Therefore, it is urgent to provide a control method of a physiological monitoring system and related apparatus to solve the problems of the prior art. SUMMARY

[0006] The purpose of the present application is to provide a control method of a physiological monitoring system and related apparatus, which realizes the whole process closed-loop control of the pre-induction, mid-state maintenance and post-waking up of the whole sleep or meditation process.

[0007] The purpose of the present application is achieved by adopting the following technical solutions:

[0008] In a first aspect, the present application provides a control method of a physiological monitoring system, the physiological monitoring system comprising a physiological monitoring module and a task execution module, the method comprising:

[0009] controlling the task execution module to start an induction mode when a preset event corresponding to a target event type is detected, so as to make the user enter a preset state corresponding to the target event type;

[0010] obtaining real-time physiological data of the user by using the physiological monitoring module, and calculating a real-time depth parameter corresponding to the preset state based on the real-time physiological data and a calculation strategy corresponding to the target event type;

[0011] controlling the task execution module to start a maintenance mode when it is detected that the real-time depth parameter of the user presents a downward trend and a downward amount in a first preset time length is greater than a corresponding first depth threshold, so as to maintain the user in the preset state;

[0012] controlling the task execution module to start a wake-up mode when a preset wake-up event is detected, so as to wake up the user, obtain state evaluation information corresponding to the user and send the state evaluation information to a user device;

[0013] wherein the target event type is a sleep event type or a meditation event type, the preset state corresponding to the sleep event type is a sleep state, and the preset state corresponding to the meditation event type is a meditation state;

[0014] the preset event corresponding to the sleep event type comprises that a time length of contact between the user and a preset sleep product is not less than a second preset time length;

[0015] the preset event corresponding to the meditation event type comprises that a time length of contact between the user and a preset meditation product is not less than the second preset time length;

[0016] the preset wake-up event comprises at least one of the following: a current time is within a preset time range; a gas concentration in a room is not less than a first concentration threshold; a smoke concentration in the room is not less than a second concentration threshold; and a vibration amplitude of a floor in the room is not less than a first preset amplitude.

[0017] The beneficial effects of the technical solution are as follows: when the length of time that the user contacts the preset sleep product (mattress or pillow) is not less than a second preset length of time (for example, 20 minutes or 30 minutes), the control task execution module starts the induction mode to induce the user to fall asleep; after the user falls asleep, the physiological monitoring module is used to obtain real-time physiological data of the user, the real-time physiological data is analyzed and processed, and a real-time depth parameter of sleep is calculated; when the real-time depth parameter presents a downward trend and a downward amount of the real-time depth parameter in a first preset length of time is greater than a first depth threshold value, it is indicated that the sleep of the user is from deep to shallow, and the sleep depth decreases very quickly, the user can not be able to enter deep sleep autonomously, and the user has a trend of waking up; at this time, the control task execution module starts the maintenance mode to help the user to sleep again; when a preset wake-up event occurs (1, the current time is in a preset time range, for example, 7 o'clock to 8 o'clock in the morning; 2, an indoor gas concentration is not less than a first concentration threshold value, and there is a risk of gas leakage; 3, an indoor smoke concentration is not less than a second concentration threshold value, and there is a risk of fire; 4, a vibration amplitude of an indoor floor is not less than a first preset amplitude, and there is a risk of earthquake), the control task execution module starts the wake-up mode to wake up the user in time, and evaluates a sleep condition of the user this time, and sends state evaluation information corresponding to the sleep this time to a user device.

[0018] Correspondingly, when the length of time that the user contacts the preset meditation product (yoga mat or meditation cushion) is not less than a second preset length of time (for example, 20 minutes or 30 minutes), the control task execution module starts the induction mode to induce the user to enter a meditation state; after the user starts meditation, the physiological monitoring module is used to obtain real-time physiological data of the user, the real-time physiological data is analyzed and processed, and a real-time depth parameter of meditation is calculated; when the real-time depth parameter presents a downward trend and a downward amount of the real-time depth parameter in a first preset length of time is greater than a first depth threshold value, it is indicated that the user has a trend of interrupting meditation; at this time, the control task execution module starts the maintenance mode to help the user to enter the meditation state again; when a preset wake-up event occurs, the control task execution module starts the wake-up mode to wake up the user in time, and evaluates a meditation condition of the user this time, and sends state evaluation information corresponding to the meditation this time to a user device.

[0019] The physiological monitoring system can realize whole-process closed-loop control of early induction, mid-state maintenance and late wake-up of the whole sleep or meditation process, timely maintenance is performed when the sleep or meditation of the user is about to be interrupted, the sleep or meditation state of the user is helped to be maintained, and therefore the sleep or meditation quality of the user is improved.

[0020] In some optional embodiments, the physiological monitoring module comprises a contact monitoring unit and / or a non-contact monitoring unit.

[0021] The non-contact monitoring unit includes at least one of the following: a BCG electrocardiogram signal acquisition unit, a millimeter-wave radar, and a microphone; the contact monitoring unit includes at least one of the following: an electroencephalogram (EEG) signal acquisition unit, a PCG heart sound signal acquisition unit, an ECG electrocardiogram signal acquisition unit, an accelerometer, a body temperature detection unit, a blood oxygen detection unit, a blood pressure detection unit, and a microcirculation detection unit;

[0022] The task execution module includes at least one of the following: an audio unit, a massage unit, a breathing light unit, an electrical stimulation delivery unit, an aromatherapy release unit, a semiconductor temperature control unit, and a home control unit;

[0023] The home control unit is used to establish a communication connection with smart home devices, which include at least one of the following: smart curtains, robot vacuum cleaner, smart toilet, humidity control device, and air purifier.

[0024] The beneficial effects of this technical solution are as follows: the physiological monitoring module of the physiological monitoring system can adopt a contact monitoring unit and / or a non-contact monitoring unit. The non-contact monitoring unit can monitor vital signs without contact and without disturbing the user's normal routine, while the contact monitoring unit has higher measurement accuracy.

[0025] The task execution module can employ an audio unit to play corresponding audio; a massage unit, such as an airbag placed on the user's head and neck, to gently oscillate in sync with the user's breathing to adjust the user's head and neck posture; a breathing light unit to use different colored lights to induce, maintain, and wake up functions; an electrical stimulation delivery unit, such as a patch electrode, to apply weak electrical stimulation to the user; an aromatherapy release unit to release corresponding types of aromatherapy; a semiconductor temperature control unit to regulate the user's local body surface temperature to induce, maintain, and wake up functions; and a home control unit to control corresponding smart home devices to achieve the same functions.

[0026] In some optional embodiments, the task execution module includes an audio unit;

[0027] The control of the task execution module to start the induction mode includes:

[0028] The audio unit is used to play the preset audio corresponding to the induction mode;

[0029] The control of the task execution module to start the wake-up mode includes:

[0030] The audio unit is used to play a preset audio corresponding to the wake-up mode;

[0031] The preset audio includes at least one of the following: white noise, real human voice, artificially synthesized audio, and difference frequency sound after difference frequency processing of biphasic audio;

[0032] The control of the task execution module to start maintenance mode includes:

[0033] The audio unit is used to acquire audio information of indoor noise, and based on the audio information, a noise-reduced frequency corresponding to the audio information is played to perform reverse noise reduction on the indoor noise.

[0034] The beneficial effects of this technical solution are as follows: the task execution module can include an audio unit. In the induction mode or wake-up mode, the audio unit can play the corresponding preset audio to induce or wake up the user. In the maintenance mode, the audio unit can acquire the audio information of indoor noise, and after analysis and processing, play the noise-reduced frequency corresponding to the audio information to perform reverse noise reduction on the indoor noise, help the user fall asleep or meditate deeply, and improve the user's sleep or meditation quality.

[0035] In some optional embodiments, the task execution module includes an aromatherapy release unit and a home control unit, the home control unit establishing a communication connection with the robot vacuum cleaner;

[0036] The method further includes:

[0037] The home control unit receives indoor layout information sent by the robotic vacuum cleaner.

[0038] Based on the indoor layout information, the recommended placement information corresponding to the aromatherapy release unit is obtained and sent to the user device. The recommended placement information includes the number of units and their placement locations.

[0039] The beneficial effects of this technical solution are as follows: the task execution module can include an aroma release unit and a home control unit. The home control unit establishes a communication connection with the robot vacuum cleaner, thereby receiving indoor layout information (house type, area, door orientation, furniture placement, etc.) sent by the robot vacuum cleaner. Based on the indoor layout information, the module obtains the recommended placement information corresponding to the aroma release unit and sends it to the user device.

[0040] Generally speaking, the effectiveness of aromatherapy is related to its placement. When placed in a spacious, well-ventilated area, the aroma can quickly diffuse to other parts of the room, while when placed in a closed corner, it is less likely to diffuse. This system can automatically obtain recommended placement information based on the room layout, helping users make decisions when placing the aromatherapy diffuser, demonstrating a high degree of intelligence.

[0041] In some optional embodiments, the aroma release unit includes at least one openable and closable aroma box for holding aroma and a heating component for heating the aroma. The physiological monitoring system also includes an infrared sensing device, which includes at least one of the following: an infrared camera, a PIR infrared detector, and a microwave sensing device.

[0042] The method further includes:

[0043] The infrared sensing device is used to acquire the user's body temperature and body posture information, including height and body type.

[0044] Based on the user's body temperature, body posture information, and state assessment information, the aromatherapy release unit obtains a first release strategy in the induction mode, a second release strategy in the maintenance mode, and a third release strategy in the wake-up mode.

[0045] Each of the first to third release strategies is used to indicate the aroma type corresponding to the aroma box, the degree of opening of the aroma box, and the heating sequence, heating time, and heating temperature corresponding to the heating component.

[0046] The beneficial effects of this technical solution are that users with different body types require different types of aromatherapy and corresponding release amounts, and users with different sleep qualities also require different types of aromatherapy and corresponding release amounts.

[0047] This application considers three aspects: the user's body temperature, posture information, and state assessment information. Based on these factors, it obtains the corresponding release strategies of the aromatherapy release unit in different modes, thereby employing the appropriate type of aromatherapy and controlling the release amount of that type of aromatherapy. Specifically, the release amount of aromatherapy can be controlled by the degree of opening of the aromatherapy box (half-open or fully open) and the heating sequence, heating time, and heating temperature of the heating components. In this way, a customized aromatherapy release strategy can be set according to the user's body temperature, posture, and state assessment information, further enhancing the effects of induction, maintenance, and awakening, and improving the quality of the user's sleep or meditation.

[0048] In some optional embodiments, the task execution module includes a home control unit that establishes a communication connection with the humidity control device;

[0049] The method further includes:

[0050] Obtain the user's personal information, which includes at least one of the following: age, gender, skin information, history of rheumatism, history of rhinitis, and history of asthma;

[0051] Based on the personal information and the status assessment information, the recommended humidity range for the user is obtained;

[0052] When the indoor humidity is not within the recommended humidity range, the home control unit controls the humidity control device to operate so that the indoor humidity is within the recommended humidity range.

[0053] The beneficial effects of this technical solution are that the user's personal information, such as age, gender, skin information, history of rheumatism, history of rhinitis, and history of asthma, are key factors in determining the appropriate indoor humidity for the user.

[0054] This application considers both the user's personal information and status assessment information. Based on the personal information and status assessment information, it obtains the user's corresponding recommended humidity range. When the indoor humidity is not within the recommended humidity range, the home control unit controls the humidity control device to work so that the indoor humidity is within the recommended humidity range. In this way, the indoor humidity can always be kept within the recommended humidity range suitable for the user, which helps to improve the user's sleep or meditation quality.

[0055] In some optional embodiments, the task execution module includes an aroma release unit, which includes multiple aroma release components, a negative ion generator, and a heating component for heating the aroma release components.

[0056] The method further includes:

[0057] The user equipment receives the user's aromatherapy configuration operation to obtain the user's aromatherapy configuration strategy, which is used to indicate the heating sequence and heating temperature corresponding to each aromatherapy firmware.

[0058] The aroma release unit is controlled to release aroma according to the aroma release strategy.

[0059] The beneficial effects of this technical solution are that users can use their devices to set aromatherapy configuration strategies according to their own preferences, thereby improving their sleep or meditation quality in a user-created aromatherapy atmosphere.

[0060] In some optional embodiments, the method further includes:

[0061] The user equipment is used to receive the user's selection operation for the sharing user;

[0062] In response to the selection operation, the user's aromatherapy configuration strategy is sent to the terminal device corresponding to the sharing user.

[0063] The beneficial effects of this technical solution are that users can share their own aromatherapy configuration strategies with others. By sharing aromatherapy configuration strategies, users can call up aromatherapy configuration strategies that others have set up in advance, thereby improving the user experience.

[0064] In some optional embodiments, the task execution module includes an audio unit and an electrical stimulation delivery unit, wherein the electrical stimulation delivery unit uses a pulsed square wave waveform.

[0065] The method further includes:

[0066] The audio played by the audio unit is used as an amplitude modulation wave to perform composite co-wave processing on the pulse square wave of the electrical stimulation delivery unit in order to regulate the neural excitability of the user's sleep or meditation process.

[0067] The audio played by the audio unit is either a combination of single audio frequencies or audio after differential frequency processing of two-phase audio frequencies.

[0068] The beneficial effects of this technical solution are as follows: by performing composite wave frequency modulation and amplitude modulation processing on the square wave electrical signal of the electrical stimulation delivery unit through audio effects, this composite electrical signal effect combined with the playback of difference frequency sounds can enhance the low-frequency brain waves generated in the user's brain by the difference frequency sounds, thereby achieving a strong brain wave induction gain effect, improving the activity of the body's response to electrical signals, and especially helping to regulate the neural excitability and microcirculation metabolism during sleep or meditation.

[0069] Secondly, this application provides a control device for a physiological monitoring system, the physiological monitoring system including a physiological monitoring module and a task execution module, the device comprising:

[0070] The state induction module is used to control the task execution module to start the induction mode when a preset event corresponding to the target event type is detected, so as to make the user enter the preset state corresponding to the target event type.

[0071] The depth calculation module is used to acquire the user's real-time physiological data using the physiological monitoring module, and calculate the real-time depth parameters corresponding to the preset state based on the real-time physiological data and the calculation strategy corresponding to the target event type.

[0072] The status maintenance module is used to control the task execution module to start the maintenance mode when it is detected that the user's real-time depth parameter is decreasing and the decrease amount is greater than the corresponding first depth threshold for a first preset time, so as to maintain the user in the preset state.

[0073] The wake-up evaluation module is used to control the task execution module to start the wake-up mode when a preset wake-up event is detected, so as to wake up the user, obtain the user's corresponding status evaluation information and send it to the user device;

[0074] The target event type is either a sleep event type or a meditation event type, the preset state corresponding to the sleep event type is a sleep state, and the preset state corresponding to the meditation event type is a meditation state.

[0075] The preset events corresponding to the sleep event types include: the duration of contact between the user and the preset sleep products is not less than the second preset duration;

[0076] The preset events corresponding to the meditation event type include: the duration of contact between the user and the preset meditation supplies is not less than the second preset duration;

[0077] The preset wake-up event includes at least one of the following: the current time is within a preset time range; the indoor gas concentration is not less than a first concentration threshold; the indoor smoke concentration is not less than a second concentration threshold; and the vibration amplitude of the indoor floor is not less than a first preset amplitude.

[0078] Thirdly, this application provides a physiological monitoring system, which includes a physiological monitoring module, a task execution module, and a data processing module. The data processing module includes a processor configured to perform the following steps:

[0079] When a preset event corresponding to the target event type is detected, the task execution module is controlled to start an induction mode so that the user enters the preset state corresponding to the target event type.

[0080] The physiological monitoring module is used to acquire the user's real-time physiological data. Based on the real-time physiological data and the calculation strategy corresponding to the target event type, the real-time depth parameter corresponding to the preset state is calculated.

[0081] When it is detected that the user's real-time depth parameter is decreasing and the decrease amount is greater than the corresponding first depth threshold within a first preset time, the task execution module is controlled to start the maintenance mode to keep the user in the preset state.

[0082] When a preset wake-up event is detected, the task execution module is controlled to start the wake-up mode to wake up the user, obtain the user's corresponding status evaluation information and send it to the user device;

[0083] The target event type is either a sleep event type or a meditation event type, the preset state corresponding to the sleep event type is a sleep state, and the preset state corresponding to the meditation event type is a meditation state.

[0084] The preset events corresponding to the sleep event types include: the duration of contact between the user and the preset sleep products is not less than the second preset duration;

[0085] The preset events corresponding to the meditation event type include: the duration of contact between the user and the preset meditation supplies is not less than the second preset duration;

[0086] The preset wake-up event includes at least one of the following: the current time is within a preset time range; the indoor gas concentration is not less than a first concentration threshold; the indoor smoke concentration is not less than a second concentration threshold; and the vibration amplitude of the indoor floor is not less than a first preset amplitude.

[0087] In some optional embodiments, the physiological monitoring system further includes the preset sleep aids and / or the preset meditation aids;

[0088] The preset sleep products include any one of the following: pillows and mattresses;

[0089] The pre-set meditation supplies include any one of the following: yoga mats and meditation cushions.

[0090] In some alternative embodiments, the data processing module and the preset sleep product are integrated into one unit; or, the data processing module and the preset meditation product are integrated into one unit.

[0091] In some optional embodiments, the physiological monitoring module includes a contact monitoring unit and / or a non-contact monitoring unit;

[0092] The non-contact monitoring unit includes at least one of the following: a BCG electrocardiogram signal acquisition unit, a millimeter-wave radar, and a microphone; the contact monitoring unit includes at least one of the following: an electroencephalogram (EEG) signal acquisition unit, a PCG heart sound signal acquisition unit, an ECG electrocardiogram signal acquisition unit, an accelerometer, a body temperature detection unit, a blood oxygen detection unit, a blood pressure detection unit, and a microcirculation detection unit;

[0093] The task execution module includes at least one of the following: an audio unit, a massage unit, a breathing light unit, an electrical stimulation delivery unit, an aromatherapy release unit, a semiconductor temperature control unit, and a home control unit;

[0094] The home control unit is used to establish a communication connection with smart home devices, which include at least one of the following: smart curtains, robot vacuum cleaner, smart toilet, humidity control device, and air purifier.

[0095] Fourthly, this application provides a computer-readable storage medium storing a computer program that, when executed by a processor, implements the steps of any of the above methods. Attached Figure Description

[0096] The present application will be further described below with reference to the accompanying drawings and embodiments.

[0097] Figure 1 This is a flowchart illustrating a control method for a physiological monitoring system provided in an embodiment of this application.

[0098] Figure 2 This is a structural block diagram of a control device for a physiological monitoring system provided in an embodiment of this application.

[0099] Figure 3 This is a structural block diagram of a physiological monitoring system provided in an embodiment of this application.

[0100] Figure 4 This is a schematic diagram illustrating data processing using a cloud data management platform, as provided in an embodiment of this application.

[0101] Figure 5 This is a structural block diagram of another physiological monitoring system provided in the embodiments of this application.

[0102] Figure 6 This is a structural block diagram of a program product provided in an embodiment of this application. Detailed Implementation

[0103] The present application will now be further described in conjunction with the accompanying drawings and specific embodiments. It should be noted that, without conflict, the various embodiments or technical features described below can be arbitrarily combined to form new embodiments.

[0104] See Figure 1 , Figure 1 This is a flowchart illustrating a control method for a physiological monitoring system provided in an embodiment of this application.

[0105] The physiological monitoring system includes a physiological monitoring module and a task execution module, and the method includes:

[0106] Step S101: When a preset event corresponding to the target event type is detected, the task execution module is controlled to start the induction mode so that the user enters the preset state corresponding to the target event type.

[0107] Step S102: Use the physiological monitoring module to obtain the user's real-time physiological data, and calculate the real-time depth parameter corresponding to the preset state based on the real-time physiological data and the calculation strategy corresponding to the target event type.

[0108] Step S103: When it is detected that the real-time depth parameter of the user is decreasing and the decrease amount is greater than the corresponding first depth threshold in the first preset time, the task execution module is controlled to start the maintenance mode to maintain the user in the preset state.

[0109] Step S104: When a preset wake-up event is detected, the task execution module is controlled to start the wake-up mode to wake up the user, obtain the user's corresponding status evaluation information and send it to the user device;

[0110] The target event type is either a sleep event type or a meditation event type, the preset state corresponding to the sleep event type is a sleep state, and the preset state corresponding to the meditation event type is a meditation state.

[0111] The preset events corresponding to the sleep event types include: the duration of contact between the user and the preset sleep products is not less than the second preset duration;

[0112] The preset events corresponding to the meditation event type include: the duration of contact between the user and the preset meditation supplies is not less than the second preset duration;

[0113] The preset wake-up event includes at least one of the following: the current time is within a preset time range; the indoor gas concentration is not less than a first concentration threshold; the indoor smoke concentration is not less than a second concentration threshold; and the vibration amplitude of the indoor floor is not less than a first preset amplitude.

[0114] Therefore, when the user is in contact with the preset sleep aids (mattress or pillow) for a duration no less than the second preset duration (e.g., 20 or 30 minutes), the control task execution module activates the induction mode to hypnotize the user. After the user falls asleep, the physiological monitoring module acquires the user's real-time physiological data, analyzes and processes the data, and calculates the real-time sleep depth parameter. When the real-time depth parameter shows a downward trend and the decrease in the first preset duration is greater than the first depth threshold, it indicates that the user's sleep is transitioning from deep to shallow, and the sleep depth is decreasing rapidly. The user may not be able to enter deep sleep independently and may show signs of waking up. At this point, the control task... The execution module initiates maintenance mode to help the user fall asleep again. When a preset wake-up event occurs (1. The current time is within a preset time range, such as 7:00-8:00 AM; 2. The indoor gas concentration is not less than the first concentration threshold, indicating a risk of gas leakage; 3. The indoor smoke concentration is not less than the second concentration threshold, indicating a risk of fire; 4. The indoor floor vibration amplitude is not less than the first preset amplitude, indicating a risk of earthquake), the control task execution module initiates wake-up mode to wake the user in a timely manner. Furthermore, it evaluates the user's sleep status and sends the corresponding sleep status assessment information to the user's device.

[0115] Accordingly, when the user is in contact with the preset meditation supplies (yoga mat or meditation cushion) for a duration no less than the second preset duration (e.g., 20 or 30 minutes), the control task execution module activates the induction mode to induce the user into a meditation state. After the user begins meditation, the physiological monitoring module acquires the user's real-time physiological data, analyzes and processes the real-time physiological data, and calculates the real-time depth parameter of the meditation. When the real-time depth parameter shows a downward trend and the decrease in the first preset duration is greater than the first depth threshold, it indicates that the user is likely to interrupt the meditation. At this time, the control task execution module activates the maintenance mode to help the user re-enter the meditation state. When a preset wake-up event occurs, the control task execution module activates the wake-up mode to wake up the user in time, and evaluates the user's current meditation status, sending the corresponding status evaluation information to the user's device.

[0116] This physiological monitoring system can achieve closed-loop control of the entire sleep or meditation process, including pre-sleep induction, mid-sleep state maintenance, and post-sleep awakening. By monitoring the user's real-time physiological data, it can promptly maintain the user's sleep or meditation state when it is about to be interrupted, thereby improving the user's sleep or meditation quality.

[0117] The physiological monitoring system of this application embodiment can be integrated with an eco-pillow, mattress, yoga mat, meditation cushion, futon mat, sitting cushion, or table and chair.

[0118] Among them, the physiological monitoring system can not only monitor the user's sleep process and play a role in inducing sleep, aiding sleep and waking up, but also serve as a neurophysiological therapy device that forms an active feedback mechanism, providing real-time physiological monitoring, cloud algorithm analysis and real-time physiological and physical stimulation for users in a waking state (engaging in activities such as yoga, meditation, and exercise).

[0119] In some implementations, the physiological monitoring module may further include a visual detection device, which acquires image data to determine the duration of contact between the user and preset sleep products or preset meditation products.

[0120] Preset sleep products are objects related to the user's sleep, such as pillows, mattresses, or recliners. Preset meditation products include yoga mats, meditation cushions, sitting mats, or sitting cushions.

[0121] The embodiments of this application do not limit the first preset duration, the second preset duration, the preset time range, the first concentration threshold, the second concentration threshold, and the first preset amplitude.

[0122] The first preset duration is, for example, 1 minute, 5 minutes, or 10 minutes; the second preset duration is, for example, 10 minutes, 20 minutes, or 30 minutes; the preset time range is, for example, 7:00 AM to 8:00 AM; the first concentration threshold is, for example, 35 ppm, 50 ppm, or 150 ppm; the second concentration threshold is, for example, 100 ppm, 150 ppm, or 250 ppm; the first preset amplitude is, for example, 0.05 meters, 0.1 meters, or 0.2 meters.

[0123] In some implementations, the user's real-time physiological data may include at least one of the following: heart rate data, respiratory rate data, respiratory wave data, snoring data, electroencephalogram (EEG) signal data, body temperature data, body movement data, blood oxygen data, blood pressure data, microcirculation data, electrocardiogram (ECG) data, and sweat data.

[0124] Among them, EEG signal data is used to indicate the band, frequency, and amplitude of brain waves.

[0125] Electroencephalogram (EEG) waves are electrical signals generated by the activity between neurons. They are commonly used clinically to assess brain activity and aid in the diagnosis of diseases such as epilepsy. EEG waves have different rhythms and can be divided into different wavebands.

[0126] There are four types of normal brain waves: alpha waves, beta waves, theta waves, and delta waves. Alpha waves appear when the person is quiet, awake, and with their eyes closed. Beta waves appear when the person is awake and seeing objects, hearing sounds, or thinking. Theta waves appear when the person is drowsy, under deep anesthesia, or in a hypoxic state. Delta waves are generally not present in a conscious state but appear in adults during sleep, under deep anesthesia, or in a hypoxic state.

[0127] Alpha waves: Frequency typically 8–13 Hz, amplitude 20–100 mV, belonging to the basic rhythm of normal human brainwaves. Beta waves: Frequency 14–30 Hz. Theta waves: Frequency 4–7 Hz, amplitude 20–150 mV. Delta waves: Frequency 0.5–3 Hz, amplitude 20–200 microamplitude. δ waves: Frequency 0.3 Hz, amplitude 20–200 mV.

[0128] Human sleep is mainly divided into deep sleep and light sleep, with the two sleep stages alternating cyclically. The real-time sleep depth parameter in this embodiment indicates the user's sleep depth. Sleep depth can be represented by a number (0-100), where 100 corresponds to the deepest sleep and 0 corresponds to complete wakefulness. The sleep depth corresponding to deep sleep is higher than that of light sleep. The numerical range for deep sleep can be 60-100, and the numerical range for light sleep can be 10-60.

[0129] Accordingly, the real-time depth parameter of the meditation state in this application embodiment is used to indicate the user's meditation depth. The meditation depth can be represented by a number (0~100), where 100 corresponds to the deepest meditation and 0 corresponds to not entering meditation.

[0130] Meditation and light sleep correspond to brainwave frequencies ranging from beta to theta waves, with a primary frequency of 5–20 Hz. Deep sleep corresponds to brainwave frequencies in the delta wave range.

[0131] In some implementations, image data collected by visual detection devices (cameras) can be used to determine the user's posture (sitting, lying down), whether their eyes are closed, and the range of motion of their limbs (hands, legs) to verify whether the user has entered a meditative or sleep state. Lying down is not recommended for meditation, as most untrained individuals easily fall asleep while meditating in a supine position, rendering the meditation ineffective. If the user's brainwave frequency is in the beta-theta wave range, and the user is sitting, it can be determined that the user is not asleep but in a meditative state.

[0132] By detecting the user's brainwave frequency, simultaneously testing the user's respiratory rate, respiratory stability, and heart rate variability (HRV) data, the user's sympathetic-negative nervous system balance index is calculated, thereby obtaining the user's sleep depth or meditation depth.

[0133] In some implementations, the computation strategy corresponding to the target event type can employ deep learning algorithms, machine learning algorithms, or reinforcement learning algorithms.

[0134] In a specific application, the calculation process for the real-time depth parameters corresponding to the preset state is as follows:

[0135] The user's real-time physiological data is input into the depth calculation model to obtain the user's corresponding real-time depth parameters;

[0136] The training process of the deep computing model includes:

[0137] Obtain a first training set, which includes multiple training data sets, each of which includes real-time physiological data of a sample object and labeled data of the real-time depth parameters of the sample object.

[0138] For each training data point in the first training set, the following processing is performed:

[0139] The real-time depth parameters of the sample objects in the training data are input into a preset first deep learning model to obtain the predicted data of the real-time depth parameters of the sample objects.

[0140] Based on the predicted and labeled data of the real-time depth parameters of the sample object, the model parameters of the first deep learning model are updated.

[0141] The system checks whether the preset training termination condition is met; if so, the trained first deep learning model is used as the deep computing model; if not, the first deep learning model is trained again using the next training data.

[0142] The embodiments of this application do not limit the method of obtaining the annotation data of real-time depth parameters. For example, manual annotation, automatic annotation, or semi-automatic annotation can be used.

[0143] The embodiments of this application do not limit the training process of the deep computing model. For example, it can adopt the supervised learning training method described above, or the semi-supervised learning training method, or the unsupervised learning training method.

[0144] The embodiments of this application do not limit the preset training termination conditions. For example, it may be that the number of training sessions reaches a preset number (the preset number of training sessions is, for example, 1 time, 3 times, 10 times, 100 times, 1000 times, 10000 times, etc.), or it may be that the training data in the training set has completed one or more training sessions, or it may be that the total loss value obtained in this training is not greater than the preset loss value.

[0145] In other implementations, the calculation strategy corresponding to the target event type can adopt a preset depth calculation formula. The real-time physiological data of the user obtained is input into the preset depth calculation formula to calculate the real-time depth parameter corresponding to the preset state.

[0146] This application does not limit the preset depth calculation formula, which may be, for example, a univariate polynomial or a multivariate polynomial, or a linear polynomial or a nonlinear polynomial. Using this preset depth calculation formula and independent variables (one or more, generally multiple, of the user's heart rate data, respiratory rate data, respiratory wave data, snoring data, EEG signal data, body temperature data, body movement data, blood oxygen data, blood pressure data, microcirculation data, ECG data, and sweat data), the dependent variable (the real-time depth parameter corresponding to the preset state) is calculated. The calculation process based on the formula consumes fewer computational resources, takes less time, and has high computational efficiency.

[0147] In some implementations, the methods used to induce sleep events and the methods used to induce meditation events can be similar but not exactly the same; correspondingly, the methods used to maintain the sleep event type can also be similar but not exactly the same. The methods used to induce sleep events and the methods used to induce meditation events can be the same.

[0148] In a specific application, in the sleep event induction mode, a breathing light (green light) combined with aromatherapy can be used to induce the user to fall asleep; in the meditation event induction mode, a breathing light (blue light) combined with aromatherapy can be used to induce the user to enter meditation. At the same time, the aromatherapy increases the output of negative ions and uses stimulating scents, such as peppermint and eucalyptus essential oil, to prevent the user from falling asleep.

[0149] In the maintenance mode for sleep events, the semiconductor temperature control unit can use an auxiliary temperature slightly higher than body temperature, combined with massage assistance, by pneumatically inflating and deflating the bladder in sync with the breathing rhythm, to massage the user's head and neck while lying on the pillow; in the maintenance mode for meditation events, the semiconductor temperature control unit can use an auxiliary temperature lower than body temperature, such as 24-26°C.

[0150] In some implementations, obtaining the status assessment information corresponding to the user includes:

[0151] The user's real-time physiological data is input into the state assessment model to obtain the user's corresponding state assessment information;

[0152] The training process of the state evaluation model includes:

[0153] Obtain a second training set, which includes multiple second training data sets. Each second training data set includes real-time physiological data of a sample object and labeled data of the state evaluation information of the sample object.

[0154] For each second training data point in the second training set, the following processing is performed:

[0155] The state evaluation information of the sample objects in the second training data is input into a preset second deep learning model to obtain the predicted data of the state evaluation information of the sample objects.

[0156] Based on the predicted data and labeled data of the state evaluation information of the sample objects, the model parameters of the second deep learning model are updated;

[0157] The system checks whether the preset training termination condition is met; if so, the trained second deep learning model is used as the state evaluation model; if not, the system continues to train the second deep learning model using the next set of second training data.

[0158] Therefore, by designing and establishing an appropriate number of neural computing nodes and a multi-layered computational hierarchy, and selecting suitable input and output layers, a pre-defined second deep learning model can be obtained. Through the learning and optimization of this pre-defined second deep learning model, a functional relationship from input to output can be established. Although it is not possible to find a 100% accurate functional relationship between input and output, it can approximate the real-world correlation as closely as possible. The state evaluation model trained in this way can obtain the user's corresponding state evaluation information based on the user's real-time physiological data, and the calculation results are highly accurate and reliable.

[0159] This application does not limit the method of obtaining labeled data for state assessment information. For example, manual labeling, automatic labeling, or semi-automatic labeling can be used.

[0160] The embodiments of this application do not limit the training process of the state evaluation model. For example, it can adopt the above-mentioned supervised learning training method, or the semi-supervised learning training method, or the unsupervised learning training method.

[0161] The assessment information for sleep status can be a sleep evaluation report, and the assessment information for meditation status can be a meditation evaluation report. For example, the content of the assessment information could be: Status quality score: 70 (out of 100; the higher the score, the better the status); Suggestions for improvement: Soak feet in hot water every night and drink warm milk.

[0162] The embodiments of this application do not limit the user equipment. The user equipment may be a smart terminal device such as a mobile phone, tablet computer, laptop computer, desktop computer, or smart wearable device, or it may be a workstation or console.

[0163] In a specific application, after waking up the user every morning, the system can automatically obtain the status quality score for that day. By comparing the status quality score for that day with the status quality scores for previous days (yesterday, last week, or last month), the system can obtain the trend of the status quality score and update the corresponding status improvement suggestions accordingly.

[0164] In some optional embodiments, the physiological monitoring module includes a contact monitoring unit and / or a non-contact monitoring unit;

[0165] The non-contact monitoring unit includes at least one of the following: a BCG electrocardiogram signal acquisition unit, a millimeter-wave radar, and a microphone; the contact monitoring unit includes at least one of the following: an electroencephalogram (EEG) signal acquisition unit, a PCG heart sound signal acquisition unit, an ECG electrocardiogram signal acquisition unit, an accelerometer, a body temperature detection unit, a blood oxygen detection unit, a blood pressure detection unit, and a microcirculation detection unit;

[0166] The task execution module includes at least one of the following: an audio unit, a massage unit, a breathing light unit, an electrical stimulation delivery unit, an aromatherapy release unit, a semiconductor temperature control unit, and a home control unit;

[0167] The home control unit is used to establish a communication connection with smart home devices, which include at least one of the following: smart curtains, robot vacuum cleaner, smart toilet, humidity control device, and air purifier.

[0168] Therefore, the physiological monitoring module of the physiological monitoring system can adopt contact monitoring units and / or non-contact monitoring units. Non-contact monitoring units can monitor vital signs without contact and without disturbing the user's normal routine, while contact monitoring units have higher measurement accuracy.

[0169] In some implementations, the physiological monitoring module may also include a static pressure sensor and a PIR infrared scanning motion detection unit.

[0170] BCG (Ballistocardiography) is a biomechanical characteristic of the heart, used to indicate subtle changes in external pressure on the body surface caused by heartbeats and arterial blood flow. The BCG signal acquisition unit consists of a BCG sensor and signal conditioning circuitry. The BCG sensor can be placed in weighing scales, pillows, mattresses, yoga mats, tables, and chairs to monitor vital signs non-contactly and without disturbing the user's normal activities.

[0171] By setting up a BCG signal acquisition unit, users can monitor physiological data such as heart rate, respiratory rate, and respiratory waves in real time without wearing a device; by setting up a static pressure sensor, a dynamic acceleration sensor, and a millimeter-wave radar, the position and posture of local body parts (head and neck) can be analyzed in real time; by setting up a microphone, users' snoring can be detected and snoring data can be obtained. The microphone can also be used to detect indoor noise and obtain audio information about indoor noise.

[0172] The task execution module can employ an audio unit to play corresponding audio; a massage unit, such as an airbag placed on the user's head and neck, to gently oscillate in sync with the user's breathing to adjust the user's head and neck posture; a breathing light unit to use different colored lights to induce, maintain, and wake up functions; an electrical stimulation delivery unit, such as a patch electrode, to apply weak electrical stimulation to the user; an aromatherapy release unit to release corresponding types of aromatherapy; a semiconductor temperature control unit to regulate the user's local body surface temperature to induce, maintain, and wake up functions; and a home control unit to control corresponding smart home devices to achieve the same functions.

[0173] The audio unit can include a microphone and a speaker, and can output pure music, lullabies, white noise, and natural-sounding audio. It can also induce or awaken the listener through two-way combined audio (the difference frequency audio signal played by two players). The audio unit can also capture the main characteristic audio frequencies in indoor noise, analyze and calculate them, and then play corresponding noise-reducing frequencies to actively reduce noise and achieve effective silencing in a localized area, thus aiding sleep or meditation.

[0174] The massage unit can be installed on the mattress, including an inflation / deflation mechanism and airbags. By adjusting the multi-channel air passage of the inflation / deflation mechanism, the airbags near the user's head and neck are inflated and deflated, thereby adjusting the posture of the user's head and neck. At the same time, it dynamically coordinates with the user's breathing rate to make slight undulating oscillations, thereby achieving an induction effect.

[0175] A breathing light is a light whose brightness first increases exponentially and then decreases exponentially. The changes in the brightness of a breathing light can guide the user's breathing frequency.

[0176] The electrical stimulation delivery unit can work in conjunction with the difference frequency audio signal of the audio unit to apply weak electrical stimulation to the user, acting on the corresponding organs of the human body to achieve an induction effect.

[0177] The aroma release unit can be used with a negative ion generator to optimize the local environment. It uses heating to control the amount and timing of volatilization of various types of aromatherapy consumables, achieving the combined effect of the overall fragrance.

[0178] Semiconductor heating and cooling units can be used to regulate the user's local body surface temperature. Generally speaking, a slightly higher temperature makes it easier to fall asleep or meditate, while a slightly lower temperature makes it easier to wake up.

[0179] In some optional embodiments, the task execution module includes an audio unit;

[0180] The control of the task execution module to start the induction mode includes:

[0181] The audio unit is used to play the preset audio corresponding to the induction mode;

[0182] The control of the task execution module to start the wake-up mode includes:

[0183] The audio unit is used to play a preset audio corresponding to the wake-up mode;

[0184] The preset audio includes at least one of the following: white noise, real human voice, artificially synthesized audio, and difference frequency sound after difference frequency processing of biphasic audio;

[0185] The control of the task execution module to start maintenance mode includes:

[0186] The audio unit is used to acquire audio information of indoor noise, and based on the audio information, a noise-reduced frequency corresponding to the audio information is played to perform reverse noise reduction on the indoor noise.

[0187] Therefore, the task execution module can include an audio unit. In the induction mode or wake-up mode, the audio unit can play the corresponding preset audio to induce or wake up the user. In the maintenance mode, the audio unit can acquire the audio information of indoor noise, and after analysis and processing, play the noise-reduced frequency corresponding to the audio information to perform reverse noise reduction of indoor noise, help the user fall asleep or meditate deeply, and improve the user's sleep or meditation quality.

[0188] In some optional embodiments, the task execution module includes an aromatherapy release unit and a home control unit, the home control unit establishing a communication connection with the robot vacuum cleaner;

[0189] The method further includes:

[0190] The home control unit receives indoor layout information sent by the robotic vacuum cleaner.

[0191] Based on the indoor layout information, the recommended placement information corresponding to the aromatherapy release unit is obtained and sent to the user device. The recommended placement information includes the number of units and their placement locations.

[0192] Therefore, the task execution module can include an aroma release unit and a home control unit. The home control unit establishes a communication connection with the robot vacuum cleaner, thereby receiving indoor layout information (house type, area, door orientation, furniture placement, etc.) sent by the robot vacuum cleaner. Based on the indoor layout information, it obtains the recommended placement information corresponding to the aroma release unit and sends it to the user device.

[0193] Generally speaking, the effectiveness of aromatherapy is related to its placement. When placed in a spacious, well-ventilated area, the aroma can quickly diffuse to other parts of the room, while when placed in a closed corner, it is less likely to diffuse. This system can automatically obtain recommended placement information based on the room layout, helping users make decisions when placing the aromatherapy diffuser, demonstrating a high degree of intelligence.

[0194] Recommended placement information is as follows: "Please place two aroma diffuser units near the bedside close to the door and one aroma diffuser unit near the windowsill."

[0195] In some optional embodiments, the aroma release unit includes at least one openable and closable aroma box for holding aroma and a heating component for heating the aroma. The physiological monitoring system also includes an infrared sensing device, which includes at least one of the following: an infrared camera, a PIR infrared detector, and a microwave sensing device.

[0196] The method further includes:

[0197] The infrared sensing device is used to acquire the user's body temperature and body posture information, including height and body type.

[0198] Based on the user's body temperature, body posture information, and state assessment information, the aromatherapy release unit obtains a first release strategy in the induction mode, a second release strategy in the maintenance mode, and a third release strategy in the wake-up mode.

[0199] Each of the first to third release strategies is used to indicate the aroma type corresponding to the aroma box, the degree of opening of the aroma box, and the heating sequence, heating time, and heating temperature corresponding to the heating component.

[0200] Therefore, different body types require different types of aromatherapy and corresponding release levels, and users with different sleep qualities also require different types of aromatherapy and corresponding release levels.

[0201] This application embodiment considers three aspects: the user's body temperature, posture information, and state assessment information. Based on these factors, it obtains the corresponding release strategies of the aromatherapy release unit in different modes, thereby employing the appropriate type of aromatherapy and controlling the release amount of that type of aromatherapy. Specifically, the release amount of aromatherapy can be controlled by the degree of opening of the aromatherapy box (half-open or fully open) and the heating sequence, heating time, and heating temperature of the heating components. In this way, a customized aromatherapy release strategy can be set according to the user's body temperature, posture, and state assessment information, further enhancing the effects of induction, maintenance, and awakening, and improving the quality of the user's sleep or meditation.

[0202] In some implementations, a PIR infrared detector and a microwave sensing device can be used to scan and sense the user to obtain the user's body temperature, posture, and body shape information, which may include height and body type.

[0203] PIR (Passive Infrared Detector) infrared detectors are also known as passive infrared detectors or body sensors.

[0204] Passive infrared detectors have two key components. One is the pyroelectric infrared sensor (PIR), which converts changes in infrared signals with wavelengths between 8-12µm into electrical signals and suppresses white light signals from the environment. Therefore, within the detection zone of a passive infrared detector, when there is no human movement, the PIR sensor only detects the background temperature. When a human enters the detection zone, the PIR sensor detects the temperature difference between the human body and the background temperature through a Fresnel lens. Thus, the basic concept of infrared detection is sensing the temperature difference between a moving object and a background object. The other component is the Fresnel lens, which comes in two forms: refractive and reflective. The Fresnel lens has two functions: first, it focuses the pyroelectric infrared signal onto the PIR; second, it divides the detection zone into several bright and dark areas, allowing moving objects entering the detection zone to generate changing pyroelectric infrared signals on the PIR in the form of temperature changes, thus enabling the PIR to generate changing electrical signals.

[0205] Microwave induction devices, also known as microwave radar, are instruments that utilize the Doppler principle of electromagnetic waves. They are characterized by fast response speed, higher sensitivity, wide sensing area, and high safety and stability, and are unaffected by temperature, airflow, dust, or smoke.

[0206] All waves have the property of reflection. When a wave of a certain frequency encounters an obstacle, a portion of the wave will be reflected back. If the obstacle is stationary, the wavelength of the reflected wave is constant. If the obstacle is moving towards the wave source, the wavelength of the reflected wave is shorter than the wavelength of the wave source. If the obstacle is moving away from the wave source, the wavelength of the reflected wave is longer than the wavelength of the wave source. The change in wavelength means a change in frequency. Microwave induction detects the approach or departure of a moving object by observing changes in the reflected wave.

[0207] The aromatherapy box consists of a box body and a lid that slides onto the box body. The lid slides across the box body to achieve a complete seal or full opening. The heating element is, for example, an electric heating element.

[0208] In one specific application, three types of aromatherapy release units—lavender, chamomile, and vetiver—were placed in the user's bedroom.

[0209] The first release strategy is as follows: the lavender diffuser box is fully open, the chamomile diffuser box is fully open, and the vetiver diffuser box is half open. The heating temperature of the heating components of the lavender and chamomile diffusers is, for example, 140°C, and the heating temperature of the heating component of the vetiver diffuser box is, for example, 120°C.

[0210] The second release strategy is as follows: the lavender diffuser box is opened to a half-open degree, the chamomile diffuser box is opened to a half-open degree, the vetiver diffuser box is opened to a half-open degree, and the heating temperature of the heating components of the lavender diffuser box, the chamomile diffuser box and the chamomile diffuser box is, for example, 120°C.

[0211] The third release strategy is as follows: the lavender diffuser box, chamomile diffuser box, and chamomile diffuser box are all fully closed, and the heating components of the lavender diffuser box, chamomile diffuser box, and chamomile diffuser box stop heating.

[0212] In some optional embodiments, the task execution module includes a home control unit that establishes a communication connection with the humidity control device;

[0213] The method further includes:

[0214] Obtain the user's personal information, which includes at least one of the following: age, gender, skin information, history of rheumatism, history of rhinitis, and history of asthma;

[0215] Based on the personal information and the status assessment information, the recommended humidity range for the user is obtained;

[0216] When the indoor humidity is not within the recommended humidity range, the home control unit controls the humidity control device to operate so that the indoor humidity is within the recommended humidity range.

[0217] Therefore, a user's personal information, such as age, gender, skin condition, history of rheumatism, history of rhinitis, and history of asthma, are key factors in determining the appropriate indoor humidity level for that user.

[0218] This application considers both the user's personal information and status assessment information. Based on the personal information and status assessment information, it obtains the user's corresponding recommended humidity range. When the indoor humidity is not within the recommended humidity range, the home control unit controls the humidity control device to work so that the indoor humidity is within the recommended humidity range. In this way, the indoor humidity can always be kept within the recommended humidity range suitable for the user, which helps to improve the user's sleep or meditation quality.

[0219] Among them, skin information is used to indicate the dryness of the skin surface, rheumatism history is used to indicate whether the user has rheumatism and the severity of rheumatism, rhinitis history is used to indicate whether the user has rhinitis and the severity of rhinitis, and asthma history is used to indicate whether the user has asthma and the severity of asthma.

[0220] Recommended humidity range is, for example, 30% to 60%.

[0221] Humidity control devices may include dehumidifiers and humidifiers. The dehumidifier is controlled to operate so as to lower the indoor humidity, and the humidifier is controlled to operate so as to raise the indoor humidity.

[0222] In some optional embodiments, the task execution module includes a home control unit that establishes a communication connection with the smart toilet;

[0223] The method further includes:

[0224] When the real-time depth parameter of the user's sleep state is detected to be decreasing and the decrease amount is greater than the first depth threshold within the first preset duration, the smart toilet is controlled by the home control system to heat the toilet seat.

[0225] When the real-time depth parameter of the user's sleep state is detected to be greater than the second depth threshold, the smart toilet is controlled by the home control system to stop heating the toilet seat.

[0226] Therefore, when the real-time depth parameter of the user's sleep state shows a downward trend and the decrease is greater than the first depth threshold within the first preset time, it indicates that the user's sleep is transitioning from deep to shallow, and the sleep depth is decreasing rapidly. The user may not be able to enter deep sleep on their own and may be prone to waking up. Before the user wakes up, the smart toilet can be preheated using home control to ensure that the user can use a warm toilet seat when getting up to use the toilet at night. When the real-time depth parameter of the user's sleep state is detected to be greater than the second depth threshold, it indicates that the user is already asleep and will not need to use the toilet in the short term. The smart toilet can then be stopped from heating the toilet seat using home control to save energy at night.

[0227] Existing smart toilets heat the toilet seat as long as they are powered on, maintaining a certain temperature throughout the day. This application improves upon this by continuously heating the toilet seat during the day (non-sleep period). At night, when the user's real-time sleep depth parameter exceeds a second depth threshold (entering sleep state), the heating of the toilet seat stops. When the user is about to wake up at night, the toilet seat is preheated until the user returns to bed and falls asleep again, at which point the heating stops.

[0228] The embodiments of this application do not limit the first depth threshold and the second depth threshold. The first depth threshold is, for example, 30, 50 or 60, and the second depth threshold is, for example, 20, 30 or 40.

[0229] When the user is about to wake up, the toilet seat is preheated. After the user finishes using the toilet and returns to bed, the task execution module activates the induction mode to help the user fall asleep again.

[0230] In some optional embodiments, the task execution module includes an aroma release unit, which includes multiple aroma release components, a negative ion generator, and a heating component for heating the aroma release components.

[0231] The method further includes:

[0232] The user equipment receives the user's aromatherapy configuration operation to obtain the user's aromatherapy configuration strategy, which is used to indicate the heating sequence and heating temperature corresponding to each aromatherapy firmware.

[0233] The aroma release unit is controlled to release aroma according to the aroma release strategy.

[0234] Therefore, users can use their devices to set aromatherapy configuration strategies according to their own preferences, and improve their sleep or meditation quality in a user-created aromatherapy atmosphere.

[0235] In some implementations, the aromatherapy component may be, for example, an aromatherapy candle or an aromatherapy capsule, the amount of evaporation at room temperature is negligible, and the evaporation rate increases with the increase of heating temperature after heating.

[0236] In some optional embodiments, the method further includes:

[0237] The user equipment is used to receive the user's selection operation for the sharing user;

[0238] In response to the selection operation, the user's aromatherapy configuration strategy is sent to the terminal device corresponding to the sharing user.

[0239] Therefore, users can share their own aromatherapy configuration strategies with others. By sharing aromatherapy configuration strategies, users can access other people's pre-set aromatherapy configuration strategies, thus improving the user experience.

[0240] In one specific application, the aromatherapy release unit includes four aromatherapy candles. These four candles are of the types "grass," "earth," "lotus," and "mint," and are numbered 1, 2, 3, and 4, respectively. The different aromas of the candles can be combined to create complex aromatherapy atmospheres, such as "desert," "forest," and "ocean." User A can set an aromatherapy configuration strategy according to the corresponding candle numbers, such as "1423," which means heating candle number 1 first, then candle number 4, then candle number 2, and finally candle number 4. When user A feels that the aromatherapy configuration strategy they set has a good sleep-inducing effect, they can share the aromatherapy configuration strategy "1423" with their friend user B. User B can use their own user device (mobile phone, tablet, smart wearable device, etc.) to call up user A's aromatherapy configuration strategy "1423" with one click.

[0241] In some optional embodiments, the task execution module includes an audio unit and an electrical stimulation delivery unit, wherein the electrical stimulation delivery unit uses a pulsed square wave waveform.

[0242] The method further includes:

[0243] The audio played by the audio unit is used as an amplitude modulation wave to perform composite co-wave processing on the pulse square wave of the electrical stimulation delivery unit in order to regulate the neural excitability of the user's sleep or meditation process.

[0244] The audio played by the audio unit is either a combination of single audio frequencies or audio after differential frequency processing of two-phase audio frequencies.

[0245] Therefore, by performing composite wave frequency modulation and amplitude modulation processing on the square wave electrical signal of the electrical stimulation delivery unit through audio effects, this composite electrical signal effect combined with the playback of difference frequency sounds can enhance the low-frequency brain waves induced by the difference frequency sounds in the user's brain, thereby achieving a strong brain wave induction gain effect and improving the activity of the body's response to electrical signals. It is especially helpful for regulating neural excitability and microcirculation metabolism during sleep or meditation.

[0246] Conventional audio electrotherapy is a type of mid-frequency electrotherapy. It employs constant-amplitude sinusoidal mid-frequency electrotherapy, which has anti-inflammatory, anti-swelling, analgesic, and vascular nerve function recovery effects. It can treat various clinical diseases, especially intestinal adhesions, large-area keloid scars, lateral femoral cutaneous nerve neuritis, herpes zoster, lymphangitis, and thrombophlebitis, showing good efficacy.

[0247] A pulsed square wave can be used as a fundamental wave, and by frequency modulation, it can be converted into pulsed DC or pulsed alternating AC. Furthermore, it can be combined with audio signals to perform composite harmonic processing on the pulsed square wave.

[0248] This application improves upon conventional audio electrotherapy by using a pulsed square wave as the basic waveform, with a square wave frequency ranging from 1 kHz to 20 kHz. The audio signal is used as an amplitude modulation wave, and the pulsed square wave is processed by composite harmonics. In addition to composite single audio signals, the audio signal can also be processed by difference frequency using biphasic audio signals. The audio signals used here are signals with the same sound effect but different sound wave frequencies, and the frequency difference is kept within the range of 5 to 200 Hz. This is mainly used for harmonic induction of brain electric fields.

[0249] This audio-electric signal composite induction enhances the body's activity in responding to electrical signals, especially in regulating nerve excitability and microcirculation metabolism.

[0250] See Figure 2 , Figure 2This is a structural block diagram of a control device for a physiological monitoring system provided in an embodiment of this application.

[0251] The physiological monitoring system includes a physiological monitoring module and a task execution module. The specific implementation of the control device is consistent with the implementation method and the technical effects achieved as described in the method embodiment, and some details will not be repeated here.

[0252] The device includes:

[0253] The state induction module 101 is used to control the task execution module to start the induction mode when a preset event corresponding to the target event type is detected, so as to make the user enter the preset state corresponding to the target event type.

[0254] The depth calculation module 102 is used to obtain the user's real-time physiological data using the physiological monitoring module, and calculate the real-time depth parameters corresponding to the preset state based on the real-time physiological data and the calculation strategy corresponding to the target event type.

[0255] The status maintenance module 103 is used to control the task execution module to start the maintenance mode when it is detected that the real-time depth parameter of the user is decreasing and the decrease amount is greater than the corresponding first depth threshold for a first preset time, so as to maintain the user in the preset state.

[0256] The wake-up evaluation module 104 is used to control the task execution module to start the wake-up mode when a preset wake-up event is detected, so as to wake up the user, obtain the status evaluation information corresponding to the user, and send it to the user device.

[0257] The target event type is either a sleep event type or a meditation event type, the preset state corresponding to the sleep event type is a sleep state, and the preset state corresponding to the meditation event type is a meditation state.

[0258] The preset events corresponding to the sleep event types include: the duration of contact between the user and the preset sleep products is not less than the second preset duration;

[0259] The preset events corresponding to the meditation event type include: the duration of contact between the user and the preset meditation supplies is not less than the second preset duration;

[0260] The preset wake-up event includes at least one of the following: the current time is within a preset time range; the indoor gas concentration is not less than a first concentration threshold; the indoor smoke concentration is not less than a second concentration threshold; and the vibration amplitude of the indoor floor is not less than a first preset amplitude.

[0261] See Figure 3 , Figure 3This is a structural block diagram of a physiological monitoring system 100 provided in an embodiment of this application.

[0262] The physiological monitoring system 100 includes a physiological monitoring module 10, a task execution module 20, and a data processing module 30. The data processing module 30 includes a processor, which is configured to perform the following steps:

[0263] When a preset event corresponding to the target event type is detected, the task execution module 20 is controlled to start an induction mode so that the user enters the preset state corresponding to the target event type.

[0264] The physiological monitoring module 10 is used to acquire the user's real-time physiological data. Based on the real-time physiological data and the calculation strategy corresponding to the target event type, the real-time depth parameter corresponding to the preset state is calculated.

[0265] When it is detected that the user's real-time depth parameter is decreasing and the decrease amount is greater than the corresponding first depth threshold over a first preset time, the task execution module 20 is controlled to start maintenance mode to keep the user in the preset state.

[0266] When a preset wake-up event is detected, the task execution module 20 is controlled to start the wake-up mode to wake up the user, obtain the user's corresponding status evaluation information and send it to the user device;

[0267] The target event type is either a sleep event type or a meditation event type, the preset state corresponding to the sleep event type is a sleep state, and the preset state corresponding to the meditation event type is a meditation state.

[0268] The preset events corresponding to the sleep event types include: the duration of contact between the user and the preset sleep products is not less than the second preset duration;

[0269] The preset events corresponding to the meditation event type include: the duration of contact between the user and the preset meditation supplies is not less than the second preset duration;

[0270] The preset wake-up event includes at least one of the following: the current time is within a preset time range; the indoor gas concentration is not less than a first concentration threshold; the indoor smoke concentration is not less than a second concentration threshold; and the vibration amplitude of the indoor floor is not less than a first preset amplitude.

[0271] In some implementations, the physiological monitoring system 100 can constitute an overall sleep induction environment, employing a physiological monitoring module 10 and a task execution module 20 (using sound, light, odor, combined with corresponding electromagnetic and thermal methods). The overall system is designed for scalable physiological data acquisition, local App control, and cloud computing. Multiple physiotherapy methods can be selected and combined through the task execution module 20 (as a combination physiotherapy module), forming a closed loop of the system solution to achieve full functionality of sleep induction, mid-sleep monitoring and sleep aid, and comfortable wake-up in the later stages.

[0272] 1. Active induction hypnosis stage: playing white noise, background sounds, and difference frequency sounds, combined with warm-colored light breathing lamps at a certain wavelength, pillow skin stretching massage in sync with the user's breathing frequency, combined with hypnotic aromatherapy scent induction, and semiconductor hot and cold temperature control module induction.

[0273] 2. Sleep Aid Process: By monitoring the user's snoring (microphone, sensors) and movement frequency during sleep (monitored by pressure and acceleration sensors), the system assesses the user's sleep status. It employs a multi-channel, split-type scalpel to help regulate head and neck posture during sleep, optimizing the respiratory pathway. For deep sleep aid, background sounds (soothing music, white noise, etc.) are played.

[0274] 3. Wake-up function: Uses a gradual, natural wake-up sound or user-selected sound effects, such as blue-green light, white light, refreshing aromatherapy scents, and temperature control modules, to help users wake up naturally.

[0275] See Figure 4 and Figure 5 , Figure 4 This is a schematic diagram illustrating data processing using a cloud data management platform, provided in an embodiment of this application. Figure 5 This is a structural block diagram of another physiological monitoring system provided in the embodiments of this application.

[0276] In some implementations, the physiological monitoring system 100 may also be equipped with a cloud data management platform, an algorithm platform, and a local data acquisition and management workstation (including an HIS system). An HIS system (Hospital Information System) refers to an information system that utilizes modern means such as computer hardware and software technology and network communication technology to comprehensively manage the flow of people, materials, and finances within a hospital and its departments. It collects, stores, processes, extracts, transmits, and summarizes data generated at each stage of medical activities, processing it into various types of information, thereby providing comprehensive automated management and various services for the overall operation of the hospital.

[0277] In some implementations, the physiological monitoring system 100 may also include a lower-level machine and a cloud platform.

[0278] Data is collected by a lower-level device and connected to a mobile phone or other mobile internet terminal via Bluetooth. This internet terminal has apps and embedded basic algorithms to analyze and process the user's real-time physiological data, obtain real-time reports and monitoring results, and provide preliminary early warning capabilities.

[0279] Real-time physiological data is uploaded to the cloud (cloud server), where a corresponding user physiological record database is established and in-depth analysis is performed. The data can also be downloaded to the data service terminal (mobile phone, etc.) connected to the lower-level machine to provide more comprehensive data analysis reports, such as trend analysis reports for long periods (one month or one year). At the same time, it can be connected to HIS or other medical service information platforms to connect with other pre-diagnosis and expert online services.

[0280] In some optional embodiments, the physiological monitoring system 100 further includes the preset sleep aids and / or the preset meditation aids;

[0281] The preset sleep products include any one of the following: pillows and mattresses;

[0282] The pre-set meditation supplies include any one of the following: yoga mats and meditation cushions.

[0283] In some alternative embodiments, the data processing module 30 and the preset sleep product are integrated into one unit; or, the data processing module 30 and the preset meditation product are integrated into one unit.

[0284] In some optional embodiments, the physiological monitoring module 10 includes a contact monitoring unit and / or a non-contact monitoring unit;

[0285] The non-contact monitoring unit includes at least one of the following: a BCG electrocardiogram signal acquisition unit, a millimeter-wave radar, and a microphone; the contact monitoring unit includes at least one of the following: an electroencephalogram (EEG) signal acquisition unit, a PCG heart sound signal acquisition unit, an ECG electrocardiogram signal acquisition unit, an accelerometer, a body temperature detection unit, a blood oxygen detection unit, a blood pressure detection unit, and a microcirculation detection unit;

[0286] The task execution module 20 includes at least one of the following: an audio unit, a massage unit, a breathing light unit, an electrical stimulation delivery unit, an aromatherapy release unit, a semiconductor temperature control unit, and a home control unit;

[0287] The home control unit is used to establish a communication connection with smart home devices, which include at least one of the following: smart curtains, robot vacuum cleaner, smart toilet, humidity control device, and air purifier.

[0288] This application also provides a computer-readable storage medium for storing a computer program. When the computer program is executed, it implements the steps of any of the above methods. The specific implementation method is consistent with the implementation method and the technical effect achieved in the above method embodiments, and some contents will not be repeated.

[0289] See Figure 6 , Figure 6 A schematic diagram of the structure of a program product provided in an embodiment of this application is shown.

[0290] The program product is used to implement any of the methods described above. The program product may employ a portable compact disc read-only memory (CD-ROM) and include program code, and may run on a terminal device, such as a personal computer. However, the program product 300 of the present invention is not limited thereto. In this application, the readable storage medium may be any tangible medium containing or storing a program that may be used by or in conjunction with an instruction execution system, apparatus, or device. The program product 300 may employ any combination of one or more readable media. The readable medium may be a readable signal medium or a readable storage medium. A readable storage medium may be, for example, but not limited to, an electrical, magnetic, optical, electromagnetic, infrared, or semiconductor system, apparatus, or device, or any combination thereof. More specific examples of readable storage media (a non-exhaustive list) include: an electrical connection having one or more wires, a portable disk, a hard disk, random access memory (RAM), read-only memory (ROM), erasable programmable read-only memory (EPROM or flash memory), optical fiber, portable compact disc read-only memory (CD-ROM), optical storage device, magnetic storage device, or any suitable combination thereof.

[0291] Computer-readable storage media may include data signals propagated in baseband or as part of a carrier wave, carrying readable program code. Such propagated data signals may take various forms, including but not limited to electromagnetic signals, optical signals, or any suitable combination thereof. The readable storage medium may also be any readable medium capable of sending, propagating, or transmitting a program for use by or in conjunction with an instruction execution system, apparatus, or device. The program code contained on the readable storage medium may be transmitted using any suitable medium, including but not limited to wireless, wired, optical fiber, RF, or any suitable combination thereof. Program code for performing operations of the present invention may be written in any combination of one or more programming languages, including object-oriented programming languages ​​such as Java and C++, as well as conventional procedural programming languages ​​such as C or similar languages. The program code may be executed entirely on a user computing device, partially on a user device, as a standalone software package, partially on a user computing device and partially on a remote computing device, or entirely on a remote computing device or server. In cases involving remote computing devices, the remote computing devices can be connected to user computing devices via any type of network, including local area networks (LANs) or wide area networks (WANs), or they can be connected to external computing devices (e.g., via the Internet using an Internet service provider).

[0292] This application describes the invention from the perspectives of purpose, performance, progress, and novelty, and it meets the functional enhancement and use requirements emphasized by the Patent Law. The above description and drawings are merely preferred embodiments of this application and are not intended to limit this application. Therefore, all structures, devices, features, etc., that are similar to or identical to those of this application, i.e., all equivalent substitutions or modifications made in accordance with the scope of this patent application, shall fall within the scope of protection of this patent application.

Claims

1. A control method for a physiological monitoring system, characterized in that, The physiological monitoring system includes a physiological monitoring module and a task execution module, and the method includes: When a preset event corresponding to the target event type is detected, the task execution module is controlled to start an induction mode so that the user enters the preset state corresponding to the target event type. The physiological monitoring module is used to acquire the user's real-time physiological data. Based on the real-time physiological data and the calculation strategy corresponding to the target event type, the real-time depth parameter corresponding to the preset state is calculated. When it is detected that the user's real-time depth parameter is decreasing and the decrease amount is greater than the corresponding first depth threshold within a first preset time, the task execution module is controlled to start the maintenance mode to keep the user in the preset state. When a preset wake-up event is detected, the task execution module is controlled to start the wake-up mode to wake up the user, obtain the user's corresponding status evaluation information and send it to the user device; The target event type is either a sleep event type or a meditation event type, the preset state corresponding to the sleep event type is a sleep state, and the preset state corresponding to the meditation event type is a meditation state. The preset events corresponding to the sleep event types include: the duration of contact between the user and the preset sleep products is not less than the second preset duration; The preset events corresponding to the meditation event type include: the duration of contact between the user and the preset meditation supplies is not less than the second preset duration; The preset wake-up event includes at least one of the following: the current time is within a preset time range; the indoor gas concentration is not less than a first concentration threshold; the indoor smoke concentration is not less than a second concentration threshold; and the vibration amplitude of the indoor floor is not less than a first preset amplitude.

2. The control method for the physiological monitoring system according to claim 1, characterized in that, The physiological monitoring module includes a contact monitoring unit and / or a non-contact monitoring unit; The non-contact monitoring unit includes at least one of the following: a BCG electrocardiogram signal acquisition unit, a millimeter-wave radar, and a microphone; the contact monitoring unit includes at least one of the following: an electroencephalogram (EEG) signal acquisition unit, a PCG heart sound signal acquisition unit, an ECG electrocardiogram signal acquisition unit, an accelerometer, a body temperature detection unit, a blood oxygen detection unit, a blood pressure detection unit, and a microcirculation detection unit; The task execution module includes at least one of the following: an audio unit, a massage unit, a breathing light unit, an electrical stimulation delivery unit, an aromatherapy release unit, a semiconductor temperature control unit, and a home control unit; The home control unit is used to establish a communication connection with smart home devices, which include at least one of the following: smart curtains, robot vacuum cleaner, smart toilet, humidity control device, and air purifier.

3. The control method for the physiological monitoring system according to claim 2, characterized in that, The task execution module includes an audio unit; The control of the task execution module to start the induction mode includes: The audio unit is used to play the preset audio corresponding to the induction mode; The control of the task execution module to start the wake-up mode includes: The audio unit is used to play a preset audio corresponding to the wake-up mode; The preset audio includes at least one of the following: white noise, real human voice, artificially synthesized audio, and difference frequency sound after difference frequency processing of biphasic audio; The control of the task execution module to start maintenance mode includes: The audio unit is used to acquire audio information of indoor noise, and based on the audio information, a noise-reduced frequency corresponding to the audio information is played to perform reverse noise reduction on the indoor noise.

4. The control method for the physiological monitoring system according to claim 2, characterized in that, The task execution module includes an aroma release unit and a home control unit, which establishes a communication connection with the robot vacuum cleaner. The method further includes: The home control unit receives indoor layout information sent by the robotic vacuum cleaner. Based on the indoor layout information, the recommended placement information corresponding to the aromatherapy release unit is obtained and sent to the user device. The recommended placement information includes the number of units and their placement locations.

5. The control method for the physiological monitoring system according to claim 4, characterized in that, The aroma release unit includes at least one openable and closable aroma box for holding aroma and a heating component for heating the aroma. The physiological monitoring system also includes an infrared sensing device, which includes at least one of the following: an infrared camera, a PIR infrared detector, and a microwave sensing device. The method further includes: The infrared sensing device is used to acquire the user's body temperature and body posture information, including height and body type. Based on the user's body temperature, body posture information, and state assessment information, the aromatherapy release unit obtains a first release strategy in the induction mode, a second release strategy in the maintenance mode, and a third release strategy in the wake-up mode. Each of the first to third release strategies is used to indicate the aroma type corresponding to the aroma box, the degree of opening of the aroma box, and the heating sequence, heating time, and heating temperature corresponding to the heating component.

6. The control method for the physiological monitoring system according to claim 2, characterized in that, The task execution module includes a home control unit, which establishes a communication connection with the humidity control device; The method further includes: Obtain the user's personal information, which includes at least one of the following: age, gender, skin information, history of rheumatism, history of rhinitis, and history of asthma; Based on the personal information and the status assessment information, the recommended humidity range for the user is obtained; When the indoor humidity is not within the recommended humidity range, the home control unit controls the humidity control device to operate so that the indoor humidity is within the recommended humidity range.

7. The control method for the physiological monitoring system according to claim 2, characterized in that, The task execution module includes an aroma release unit, which includes multiple aroma release components, a negative ion generator, and a heating component for heating the aroma release components. The method further includes: The user equipment receives the user's aromatherapy configuration operation to obtain the user's aromatherapy configuration strategy, which is used to indicate the heating sequence and heating temperature corresponding to each aromatherapy firmware. The aroma release unit is controlled to release aroma according to the aroma release strategy.

8. The control method for the physiological monitoring system according to claim 7, characterized in that, The method further includes: The user equipment is used to receive the user's selection operation for the sharing user; In response to the selection operation, the user's aromatherapy configuration strategy is sent to the terminal device corresponding to the sharing user.

9. The control method for the physiological monitoring system according to claim 2, characterized in that, The task execution module includes an audio unit and an electrical stimulation delivery unit, wherein the electrical stimulation waveform used by the electrical stimulation delivery unit is a pulse square wave; The method further includes: The audio played by the audio unit is used as an amplitude modulation wave to perform composite co-wave processing on the pulse square wave of the electrical stimulation delivery unit in order to regulate the neural excitability of the user's sleep or meditation process. The audio played by the audio unit is either a combination of single audio frequencies or audio after differential frequency processing of two-phase audio frequencies.

10. A control device for a physiological monitoring system, characterized in that, The physiological monitoring system includes a physiological monitoring module and a task execution module, and the device includes: The state induction module is used to control the task execution module to start the induction mode when a preset event corresponding to the target event type is detected, so as to make the user enter the preset state corresponding to the target event type. The depth calculation module is used to acquire the user's real-time physiological data using the physiological monitoring module, and calculate the real-time depth parameters corresponding to the preset state based on the real-time physiological data and the calculation strategy corresponding to the target event type. The status maintenance module is used to control the task execution module to start the maintenance mode when it is detected that the user's real-time depth parameter is decreasing and the decrease amount is greater than the corresponding first depth threshold for a first preset time, so as to maintain the user in the preset state. The wake-up evaluation module is used to control the task execution module to start the wake-up mode when a preset wake-up event is detected, so as to wake up the user, obtain the user's corresponding status evaluation information and send it to the user device; The target event type is either a sleep event type or a meditation event type, the preset state corresponding to the sleep event type is a sleep state, and the preset state corresponding to the meditation event type is a meditation state. The preset events corresponding to the sleep event types include: the duration of contact between the user and the preset sleep products is not less than the second preset duration; The preset events corresponding to the meditation event type include: the duration of contact between the user and the preset meditation supplies is not less than the second preset duration; The preset wake-up event includes at least one of the following: the current time is within a preset time range; the indoor gas concentration is not less than a first concentration threshold; the indoor smoke concentration is not less than a second concentration threshold; and the vibration amplitude of the indoor floor is not less than a first preset amplitude.

11. A physiological monitoring system, characterized in that, The physiological monitoring system includes a physiological monitoring module, a task execution module, and a data processing module. The data processing module includes a processor, which is configured to perform the following steps: When a preset event corresponding to the target event type is detected, the task execution module is controlled to start an induction mode so that the user enters the preset state corresponding to the target event type. The physiological monitoring module is used to acquire the user's real-time physiological data. Based on the real-time physiological data and the calculation strategy corresponding to the target event type, the real-time depth parameter corresponding to the preset state is calculated. When it is detected that the user's real-time depth parameter is decreasing and the decrease amount is greater than the corresponding first depth threshold within a first preset time, the task execution module is controlled to start the maintenance mode to keep the user in the preset state. When a preset wake-up event is detected, the task execution module is controlled to start the wake-up mode to wake up the user, obtain the user's corresponding status evaluation information and send it to the user device; The target event type is either a sleep event type or a meditation event type, the preset state corresponding to the sleep event type is a sleep state, and the preset state corresponding to the meditation event type is a meditation state. The preset events corresponding to the sleep event types include: the duration of contact between the user and the preset sleep products is not less than the second preset duration; The preset events corresponding to the meditation event type include: the duration of contact between the user and the preset meditation supplies is not less than the second preset duration; The preset wake-up event includes at least one of the following: the current time is within a preset time range; the indoor gas concentration is not less than a first concentration threshold; the indoor smoke concentration is not less than a second concentration threshold; and the vibration amplitude of the indoor floor is not less than a first preset amplitude.

12. The physiological monitoring system according to claim 11, characterized in that, The physiological monitoring system also includes the preset sleep products and / or the preset meditation products; The preset sleep products include any one of the following: pillows and mattresses; The pre-set meditation supplies include any one of the following: yoga mats and meditation cushions.

13. The physiological monitoring system according to claim 12, characterized in that, The data processing module and the preset sleep product are integrated into one unit; or, the data processing module and the preset meditation product are integrated into one unit.

14. The physiological monitoring system according to claim 11, characterized in that, The physiological monitoring module includes a contact monitoring unit and / or a non-contact monitoring unit; The non-contact monitoring unit includes at least one of the following: a BCG electrocardiogram signal acquisition unit, a millimeter-wave radar, and a microphone; the contact monitoring unit includes at least one of the following: an electroencephalogram (EEG) signal acquisition unit, a PCG heart sound signal acquisition unit, an ECG electrocardiogram signal acquisition unit, an accelerometer, a body temperature detection unit, a blood oxygen detection unit, a blood pressure detection unit, and a microcirculation detection unit; The task execution module includes at least one of the following: an audio unit, a massage unit, a breathing light unit, an electrical stimulation delivery unit, an aromatherapy release unit, a semiconductor temperature control unit, and a home control unit; The home control unit is used to establish a communication connection with smart home devices, which include at least one of the following: smart curtains, robot vacuum cleaner, smart toilet, humidity control device, and air purifier.

15. A computer-readable storage medium, characterized in that, The device contains a computer program that, when executed by a processor, implements the steps of the method according to any one of claims 1-9.

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