WO2019120279A1 - Sleep quality monitoring method and system, computer device and storage medium - Google Patents

Abstract

A sleep quality monitoring method and system, a computer device and a storage medium. The method comprises: receiving a first monitoring instruction sent by a monitoring apparatus (104), and entering a first mode according to the first monitoring instruction (step 202); under the first mode, collecting a first sleep parameter of a monitored object (step 204); under the first mode, sending a first synchronization instruction to a sleep assistance apparatus (106), and receiving a second sleep parameter of the monitored object returned by the sleep assistance apparatus (106) according to the first synchronization instruction (step 206); acquiring a pre-set sleep analysis model, and inputting the first sleep parameter and the second sleep parameter into the sleep analysis model to obtain sleep data of the monitored object (step 208); and sending the sleep data to the monitoring apparatus (104), and the monitoring apparatus (104) analyzing the sleep data to obtain data corresponding to sleep quality of the monitored object through the analysis (step 210). The present method can improve the accuracy of sleep quality monitoring.

Description

Sleep quality monitoring method, system, computer device and storage medium Technical field

The present application relates to the field of computer technology, and in particular, to a sleep quality monitoring method, system, computer device, and storage medium.

Background technique

A reasonable and normal lifestyle is a key factor in ensuring human health. Lifestyle is generally reflected in the three aspects of diet, activity and sleep quality. Among them, sleep is extremely important for the body to maintain normal physiological functions and growth and development. Traditionally, people generally judge their sleep quality based on the time of falling asleep, the number of nights at night, and the mental state of the next day. However, due to inconsistent judgment criteria and deviations in personal memory, it is impossible to accurately determine the quality of sleep. In order to better monitor the quality of sleep, a variety of sleep monitoring devices have appeared on the market. The professional sleep monitoring device on the market needs to stick a lot of electrodes on the body of the monitored object, and the monitored object cannot perform the above operation alone, and has a great influence on the sleep of the monitored object, and cannot obtain the monitored object in nature. The sleep condition in the state, so that it is difficult to truly reflect the true sleep quality of the monitored object. The parameters of the simple sleep monitoring device on the market are relatively simple, which makes the monitoring results less accurate.

Summary of the invention

Based on this, it is necessary to provide a sleep quality monitoring method, system, computer device and storage medium capable of improving the accuracy of sleep quality monitoring in response to the above technical problems.

A sleep quality monitoring method includes: receiving a first monitoring instruction sent by a monitoring device, entering a first mode according to the first monitoring instruction; and collecting a first sleep parameter of the monitored object in the first mode; In the first mode, sending a first synchronization instruction to the sleep aid device, receiving a second sleep parameter of the monitored object returned by the sleep aid device according to the first synchronization instruction; acquiring a preset sleep analysis model And inputting the first sleep parameter and the second sleep parameter to the sleep analysis model to obtain sleep data of the monitored object; sending the sleep data to the monitoring device, where the monitoring device is The sleep data is analyzed, and the data corresponding to the sleep quality of the monitored object is analyzed.

A sleep quality monitoring method includes: transmitting a first monitoring instruction to a monitoring device, causing the monitoring device to enter a first mode according to the first monitoring instruction, and collecting a first sleep of the monitored object in the first mode a parameter, sending a first synchronization instruction to the sleep aid device, receiving a second sleep parameter of the monitored object returned by the sleep aid device according to the first synchronization instruction; acquiring a preset sleep analysis model, Entering a sleep parameter and a second sleep parameter to the sleep analysis model to obtain sleep data of the monitored object; sending a second synchronization instruction to the monitoring device, and receiving the monitoring device to return according to the second synchronization instruction The sleep data of the monitored object; analyzing the sleep data to obtain data corresponding to the sleep quality of the monitored object.

A sleep quality monitoring system includes: a monitoring device, configured to send a first monitoring instruction to the monitoring device, to cause the monitoring device to enter a first mode according to the first monitoring instruction; Collecting a first sleep parameter of the monitored object in the first mode; and transmitting a first synchronization instruction to the sleep aid device in the first mode; the sleep aid device, configured to: according to the first synchronization instruction The monitoring device reports a second sleep parameter of the monitored object; the monitoring device is further configured to acquire a preset sleep analysis model, and input the first sleep parameter and the second sleep parameter into the sleep analysis model to obtain The sleep data of the monitored object sends the sleep data to the monitoring device; the monitoring device is further configured to analyze the sleep data and analyze the data corresponding to the sleep quality of the monitored object.

A computer apparatus comprising a memory, a processor, and a computer program stored on the memory and operative on the processor, the processor executing the computer program to implement the steps of any of the above methods.

A computer readable storage medium having stored thereon a computer program that, when executed by a processor, implements the steps of any of the above methods.

The above sleep quality monitoring method, system, computer equipment and storage medium, the monitoring device can enter a corresponding working mode according to the monitoring instruction sent by the monitoring device. In the first mode, the monitoring device may collect the first sleep parameter of the monitored object, and may also acquire the second sleep parameter of the monitored object collected by the sleep aid device. The monitoring device can analyze the calculated sleep data of the monitored object according to the first sleep parameter and the second sleep parameter. The sleep data is sent to the monitoring device to analyze the sleep data, and the data corresponding to the sleep quality of the monitored object can be analyzed. The sleep aid device and the monitoring device can acquire the sleep parameters of the monitored object from multiple dimensions without affecting the sleep of the monitored object, and the sleep quality monitoring result obtained by using the multi-dimensional sleep parameter analysis can be more accurate.

DRAWINGS

1 is an application scenario diagram of a sleep quality monitoring method in an embodiment;

2A is a flow chart of a sleep quality monitoring method in an embodiment;

2B is an interaction timing diagram of a sleep quality monitoring method in one embodiment;

2C is an interaction timing diagram of a sleep quality monitoring method in another embodiment;

2D is an interaction timing diagram of a sleep quality monitoring method in still another embodiment;

2E is an interaction timing diagram of a sleep quality monitoring method in still another embodiment;

3 is a flow chart of a sleep quality monitoring method in another embodiment;

4 is a structural diagram of a sleep quality monitoring system in one embodiment;

Figure 5 is a structural diagram of a monitoring device in an embodiment;

Figure 6 is a structural diagram of a monitoring device in another embodiment;

Figure 7 is a structural view of a monitoring device in an embodiment;

Figure 8 is a block diagram of a sleep aid device in one embodiment.

Detailed ways

In order to make the objects, technical solutions, and advantages of the present application more comprehensible, the present application will be further described in detail below with reference to the accompanying drawings and embodiments. It is understood that the specific embodiments described herein are merely illustrative of the application and are not intended to be limiting.

It will be understood that the terms "first", "second" and the like, as used herein, may be used to describe various elements, but these elements are not limited by these terms. These terms are only used to distinguish one element from another. For example, a first client may be referred to as a second client, and similarly, a second client may be referred to as a first client, without departing from the scope of the present invention. Both the first client and the second client are clients, but they are not the same client.

The present application provides a sleep quality monitoring method that can be applied to an application environment as shown in FIG. 1. The monitoring device 102 is connected to the monitoring device 104 via a network. The monitoring device 104 is coupled to the sleep aid device 106 via a network. The monitoring device 102 can be the terminal 1022 or a combination of the terminal 1022 and the server 1024. The terminal 1022 may be at least one of a smartphone, a tablet, a desktop computer, or a notebook computer, but is not limited thereto. The server 1024 may be a stand-alone physical server or a server cluster composed of multiple physical servers. The monitoring device 104 can be a wearable device such as a wristband, a toe ring, a neck ring or a waistband, and the like. The sleep aid device 106 can be a bedding item such as a pillow or mattress. It should be noted that the monitoring device 104 and the sleep aid device 106 may be one or more.

When the monitored object needs to monitor the quality of sleep of itself for a period of time (hereinafter referred to as "monitoring period"), the monitoring device 102 can transmit a monitoring instruction to the monitoring device 104. The monitoring device 104 enters the corresponding operating mode according to the monitoring command.

When the monitoring device 104 enters the first mode, the first sleep parameter of the monitored object, such as a heart rate parameter, a first body motion parameter or an electromyogram parameter, is collected according to a preset frequency. In the first mode, the monitoring device 104 transmits a first synchronization command to the sleep aid device 106 at a preset frequency. The sleep aid device 106 reports the collected second sleep parameter of the monitored object, such as the second body motion parameter, to the monitoring device 104 according to the first synchronization command. The monitoring device 104 pre-stores the sleep analysis model, inputs the first sleep parameter and the second sleep parameter to the sleep analysis model, and uses the sleep analysis model to analyze the sleep data of the monitored object, such as a sleep state or a sleep depth. When the monitored object needs to know the quality of sleep during the monitoring period, the monitoring device 102 can send a second synchronization instruction to the monitoring device 104. The monitoring device 104 transmits the sleep data of the monitored object during the monitoring period to the monitoring device 102 according to the second synchronization instruction. The monitoring device 102 analyzes the sleep data to obtain data corresponding to the sleep quality of the monitored object, and displays the data corresponding to the analyzed sleep quality.

When the monitoring device 104 enters the second mode, the sleep data of the monitored object during the monitoring period is acquired in the above manner. Sleep data includes sleep states. In the second mode, the monitoring device 104 generates a sleep aid command when the sleep state is the first state, and sends the sleep aid command to the sleep aid device 106. The sleep aid device 106 enters the sleep aid mode according to the sleep aid command, and generates a pulse signal that helps the subject to sleep. When the sleep state is the second state, the monitoring device 104 generates a sleep aid stop command to transmit a sleep aid stop command to the sleep aid device 106. The sleep aid device 106 stops generating the pulse signal according to the sleep aid stop command. When the sleep state is the third state, a sleep command is generated, and the sleep command is sent to the sleep aid device 106. The sleep aid device 106 switches to the sleep mode according to the sleep command, and suspends the operation.

The sleep aid device and the monitoring device can acquire the sleep parameters of the monitored object from multiple dimensions without affecting the sleep of the monitored object, and the sleep quality monitoring result obtained by using the multi-dimensional sleep parameter analysis can be more accurate; The data corresponding to the obtained sleep quality adjusts the working mode of the monitoring device, so that the monitoring device can not only accurately monitor the sleep quality of the monitored object, but also help the monitored object through the pulse signal in time when the monitored object has poor sleep quality. Sleep, monitoring of sleep quality forms a closed-loop monitoring that can further improve the accuracy of sleep quality monitoring results.

In an embodiment, as shown in FIG. 2A, a sleep quality monitoring method is provided, which is applied to the monitoring device as an example, and specifically includes the following steps:

Step 202: Receive a first monitoring instruction sent by the monitoring device, and enter the first mode according to the first monitoring instruction.

When the monitored object needs to monitor the quality of its sleep, the terminal can trigger the monitoring device to enter a corresponding working mode, such as the first mode or the second mode. There are various embodiments for the terminal to trigger the monitoring device to enter the corresponding working mode. As shown in FIG. 2B, in an embodiment, the monitored object can wirelessly connect the terminal to the monitoring device, wirelessly connect the monitoring device to the sleep aid device, wear the monitoring device, and input text or a button at the terminal by clicking a button. The monitoring instruction is generated by voice or the like, and the terminal sends the monitoring instruction to the monitoring device, and the monitoring device enters the corresponding working mode according to the monitoring instruction. The monitoring instruction includes a first monitoring instruction and a second monitoring instruction. The monitoring device enters the first mode according to the first monitoring instruction or enters the second mode according to the second monitoring instruction. As shown in FIG. 2C, in another embodiment, the monitored object can wirelessly connect the server to the terminal, wirelessly connect the terminal to the monitoring device, wirelessly connect the monitoring device to the sleep aid device, and wear the monitoring device. Obtaining historical sleep data of the monitored object or crawling the medical record of the monitored object, generating a monitoring instruction according to the historical sleep data or the medical record of the monitored object, and the terminal forwards the monitoring instruction to the monitoring device, and the monitoring device enters the corresponding work according to the monitoring instruction. mode.

The first mode refers to a working mode in which the monitoring device only needs to perform data acquisition. The second mode refers to a mode of operation in which the monitoring device not only needs to perform data acquisition but also controls the sleep aid device. The terminal and the monitoring device, the monitoring device and the sleep aid device can be respectively connected through a wireless network such as Bluetooth or Wi-Fi. It should be noted that the terminal may be connected to the monitoring device through the local area network, or may be connected to the monitoring device through a wide area network or a mobile network, so that the terminal can perform close control on the monitoring device or remotely control the monitoring device.

In another embodiment, as shown in FIG. 2D, the monitoring device can also be triggered to enter the corresponding working mode by self-triggering. Specifically, when the monitored object needs to monitor the quality of sleep, the monitoring device can be wirelessly connected only to the sleep aid device, and the monitoring device can be worn. When the wearing is completed, the monitoring device automatically performs the wearing detection. If the detection result is successful wearing, the parameter collecting instruction is generated, and the first mode is entered according to the parameter collecting instruction. The triggering manner can reduce the connection operation of the monitored object to the monitoring device and the monitoring device. The monitoring device only needs to wirelessly connect with the monitoring device when synchronizing the parameters collected by the monitoring device.

Step 204: Collect the first sleep parameter of the monitored object in the first mode.

Step 206: In the first mode, send a first synchronization instruction to the sleep aid device, and receive a second sleep parameter of the monitored object returned by the sleep aid device according to the first synchronization instruction.

When the terminal triggers the monitoring device to enter the first mode, the monitored object can set the user identification and the monitoring period at the terminal. The user identifier may be a social account, a mobile phone number, or an ID number that can uniquely identify a monitored object. The monitoring period refers to the time interval in which the quality of sleep of the monitored object needs to be monitored, such as 10:00 on the first day to 6:00 in the morning on the next day. The monitoring command sent by the terminal to the monitoring device records the time stamp of the current time. The monitoring device can perform time synchronization based on the time stamp. It is easy to understand that when the monitoring device is triggered to enter the first mode by means of self-triggering, the monitoring period refers to a time interval from the successful wearing of the monitoring device to the failure of the monitoring device to wear.

In order to improve the sleep quality monitoring result, the monitoring device acquires sleep parameters of the monitored object from multiple dimensions. Specifically, in the first mode, the monitoring device collects the first sleep parameter of the monitored object according to the first preset frequency during the monitoring period. The first preset frequency can be set in consideration of the power consumption of the monitoring device and the accuracy of the sleep quality monitoring result, such as 1 time/minute. The first sleep parameter includes at least one of a first body motion parameter, a heart rate parameter, or an electromyogram parameter. The first body motion parameter refers to a parameter of a sleep action parameter of the monitored object, such as an arm lift action, a leg lift action, or a body twist action.

In the first mode, the monitoring device sends a first synchronization instruction to the sleep aid device according to the second preset frequency during the monitoring period, so that the sleep aid device reports the second sleep parameter of the monitored object. Specifically, the sleep aid device collects the second sleep parameter of the monitored object according to the third preset frequency. The second preset frequency may be freely set according to requirements, such as 30 minutes; the third preset frequency may be the same as the first preset frequency, or may be different. The second sleep parameter includes a second body motion parameter. The second body motion parameters may vary depending on the sleep aid device. For example, when the sleep aid device includes a sleep aid pillow, the second body motion parameter includes a parameter of the head of the monitored object leaving the pillow; when the sleep aid device includes the sleep aid mattress, the second body motion parameter includes the monitored object The parameters of the body leaving the mattress, etc.

Step 208: Acquire a preset sleep analysis model, input the first sleep parameter and the second sleep parameter to the sleep analysis model, and obtain sleep data of the monitored object.

The monitoring device acquires a sleep analysis model, and inputs the first sleep parameter and the second sleep parameter to the sleep analysis model. The sleep analysis model may be obtained by the server or the terminal using the sleep parameters of the plurality of monitored objects and stored in advance to the monitoring device. The monitoring device uses the sleep analysis model to analyze the sleep data of the monitored object, such as the sleep state or the depth of sleep.

Step 210: Send sleep data to the monitoring device, and the monitoring device analyzes the sleep data, and analyzes and obtains data corresponding to the sleep quality of the monitored object.

When the monitored object needs to know the quality of sleep during the monitoring period, the terminal may send a second synchronization instruction to the monitoring device through the terminal. For example, in the above example, the monitored object can synchronize the sleep data from 10:00 on the first day to 6:00 am on the next day from the monitoring device to the terminal after getting up at 7:00 in the morning. After receiving the sleep data of the monitored object returned by the monitoring device according to the second synchronization instruction, the terminal generates a synchronization success response, returns the synchronization success response to the monitoring device, and causes the monitoring device to delete the sleep data of the corresponding monitoring period to reduce Resource occupancy of the monitoring device.

The terminal sends the received sleep data to the server, and the server analyzes the sleep data of the monitored object. Or the terminal directly analyzes the received sleep data. As shown in FIG. 2E, the sleep data includes a user identification. When the terminal analyzes the received sleep data, the terminal acquires the stored user identifier, and matches the user identifier of the sleep data with the obtained user identifier. When the matching is successful, the monitored object is monitored according to the sleep data during the monitoring period. The total length of sleep, the number of waking hours, etc. For convenience of description, the time corresponding to the second preset frequency is referred to as a parameter synchronization period. As in the above example, the parameter synchronization period may be 30 minutes. The sleep data further includes a sleep state of the monitored object acquired in each parameter synchronization period within the monitoring period, that is, a sleep state of each parameter synchronization period of the monitored object during the monitoring period. For example, sleep state from 10:00 pm to 10:30 pm. The terminal calculates the sleep quality score of the monitored object according to the total sleep duration, the number of awake and the sleep state of the monitored object during the monitoring period. The terminal uses the total sleep duration, the number of awake, the sleep state, and the sleep quality score of the monitored object to generate an analysis file corresponding to the user identifier, and displays the analysis file when receiving the query request of the monitored object.

A database is deployed on the server. When the server analyzes the received sleep data, the server analyzes the sleep data of the monitored object according to the above manner, and sends the analyzed analysis file to the terminal, and analyzes the sleep data of the monitored object during the monitoring period. Data such as total sleep duration, number of awake, sleep status, and sleep quality score are recorded to the database.

In this embodiment, the monitoring device can enter the corresponding working mode according to the monitoring instruction sent by the monitoring device. In the first mode, the monitoring device may collect the first sleep parameter of the monitored object, and may also acquire the second sleep parameter of the monitored object collected by the sleep aid device. The monitoring device can analyze and calculate the sleep data of the monitored object according to the first sleep parameter and the second sleep parameter. The sleep data is sent to the monitoring device to analyze the sleep data, and the data corresponding to the sleep quality of the monitored object can be analyzed. The sleep aid device and the monitoring device can acquire the sleep parameters of the monitored object from multiple dimensions without affecting the sleep of the monitored object, and the sleep quality monitoring result obtained by using the multi-dimensional sleep parameter analysis can be more accurate.

In an embodiment, the method further includes: receiving a second monitoring instruction sent by the monitoring device, entering the second mode according to the second monitoring instruction; and acquiring the sleep data of the monitored object according to the preset frequency in the second mode; The data includes a sleep state; when the sleep state is the first state, a sleep aid command is generated, and the sleep mode is set to the sleep mode by the sleep aid command, so that the sleep aid device generates a pulse signal; when the sleep state is the second state In the state, a sleep aid stop command is generated, and the sleep aid stop command is sent to the sleep aid device, and the sleep aid device stops generating the pulse signal according to the sleep aid stop command.

When the monitoring device enters the second mode according to the second monitoring instruction sent by the monitoring device, the monitoring device acquires the sleep data of the monitored object during the monitoring period according to the above manner. The preset frequency may be the second preset frequency described above. The sleep data includes the sleep state of each parameter synchronization period of the monitored object during the monitoring period. In the second mode, the monitoring device controls the working mode of the sleep aid device in the current parameter synchronization period according to the sleep data collected in the previous parameter synchronization period. Specifically, the sleep state of the embodiment includes at least one of a first state, a second state, or a third state, wherein the first state may be an awake state, the second state may be a light sleep state, and the third state may be Deep sleep state. It is easy to understand that the sleep state of the monitored object can be divided into different precisions according to actual needs, for example, the fourth state may be included, or only the first state and the second state may be included, and no limitation is imposed thereon.

When the sleep state is the first state, the monitoring device generates a sleep aid command, and uses the sleep aid command to set the working mode of the sleep aid device to the sleep assist mode. In the sleep assist mode, the sleep aid device collects and reports the second sleep parameter of the monitored object, and generates a pulse signal. The pulse frequency of the pulse signal is close to the frequency of the human brain wave, which can promote human sleep. It is easy to understand that other methods can be used to promote the sleep of the monitored object, such as the sleep aid device vibrating according to the preset frequency, etc., which is not limited. When there is no sleep data collected by the previous parameter synchronization period in the monitoring device, if the monitored object uses the first parameter synchronization period of the monitoring device during the monitoring period, the sleep aid device can work in the first parameter synchronization period. The mode is set to sleep mode by default.

When the sleep state is the second state, the monitoring device generates a sleep aid stop command, and switches the operation mode of the sleep aid device to the monitoring mode by using the sleep aid stop command. In the monitoring mode, the sleep aid device stops generating the pulse signal, and only needs to collect the second sleep parameter of the monitored object according to the third preset frequency, and collect the second synchronization time of each parameter according to the second preset frequency. The sleep parameter is reported to the monitoring device, which can reduce the power consumption of the sleep aid device.

When the sleep state is the third state, the monitoring device generates a sleep command, and uses the sleep command to switch the working mode of the sleep aid device to the sleep mode. In the sleep mode, the sleep aid device is suspended, no need to generate a pulse signal, and no need to collect the second sleep parameter of the monitored object, further saving the power consumption of the sleep aid device.

In this embodiment, the monitoring device can enter different working modes according to the monitoring instruction sent by the monitoring device. In the second mode, the monitoring device acquires sleep data of the monitored object during the monitoring period according to the above manner, and controls the working mode of the sleep aid device according to the sleep data. The sleep aid device can adjust the working mode of the sleep aid device according to the sleep condition of the monitored object, so as to achieve a balance between the power consumption of the sleep aid device, the sleep aid effect and the accuracy of the sleep quality monitoring result.

In one embodiment, the sleep data further includes a sleep depth; when the sleep state is the first state, generating a sleep aid command, and setting a working mode of the sleep aid device to a sleep assist mode by using a sleep aid command, causing the sleep aid device to generate a pulse The step of the signal includes: acquiring a plurality of sleep depth intervals corresponding to the first state and a pulse intensity corresponding to each sleep depth interval when the sleep state is the first state; acquiring the sleep depth interval according to the sleep depth of the monitored object Corresponding pulse intensity; using the acquired pulse intensity to generate a sleep aid command, and using the sleep aid command to set the working mode of the sleep aid device to the sleep aid mode, so that the sleep aid device generates a pulse signal according to the pulse intensity in the sleep aid command.

Sleep data also includes sleep depth. The depth of sleep refers to the depth of sleep of the monitored object, and is a parameter value that can characterize the sleep state of the monitored object. The monitoring device controls the pulse intensity of the pulse signal generated by the sleep aid device according to the depth of sleep of the monitored object. Specifically, the monitoring device pre-stores a plurality of sleep depth intervals and a pulse intensity corresponding to each sleep depth interval. When the sleep state is the first state, it indicates that the sleep stage of the monitored object is weaker in the current stage, and the sleep aid device is required to assist the sleep, and the monitoring device acquires a plurality of pre-stored sleep depth intervals and pulses corresponding to each sleep depth interval. Intensity, according to the sleep depth interval to which the current sleep depth of the monitored object belongs, the corresponding pulse intensity is queried. The monitoring device generates a sleep aid command by using the acquired pulse intensity, so that the sleep aid device generates a pulse signal according to the pulse intensity in the sleep aid command, thereby adjusting the pulse intensity of the pulse signal.

In this embodiment, the monitoring device controls the pulse intensity of the pulse signal generated by the sleep aid device according to the sleep depth of the monitored object, so that the pulse intensity of the pulse signal adapts to the current sleep depth of the monitored object, thereby achieving a better help. The sleep effect also achieves a balance between sleep aid effect and power consumption.

In an embodiment, the method further includes: collecting, in the first mode, the monitoring device information; the monitoring device information includes at least one of the first charging information or the first version information; and receiving the second sent by the monitoring device When the synchronization command is sent, the monitoring device information is sent to the monitoring device; the monitoring device generates a low battery prompt according to the first charging information; and when the monitoring device transmits the monitoring upgrade command according to the first version information, the monitoring upgrade command carries the monitoring upgrade. Package, use the monitoring upgrade package to upgrade the version.

In the first mode, the monitoring device not only collects the first sleep parameter of the monitored object, but also collects the monitoring device information of the monitoring device. The monitoring device information includes at least one of the first charging information or the first version information. The first charging information includes a current power quantity, a charging state, and the like of the monitoring device. An application for parameter acquisition, parameter analysis, and the like is run on the monitoring device, and the first version information refers to the version number of the application. It is easy to understand that the monitoring device information may also include other information, such as the product serial number of the monitoring device, the Mac address (Medium Access Control, physical address), etc., without limitation. The monitoring device displays the received monitoring device information, and determines whether the application on the monitoring device needs to be upgraded according to the received monitoring device information. When the version upgrade is required, the corresponding monitoring and upgrading package is obtained, and the monitoring upgrade is performed. The package generates a monitoring upgrade command, and sends a monitoring upgrade command to the monitoring device, so that the monitoring device uses the monitoring upgrade package to upgrade the running application.

In this embodiment, the monitoring device not only collects the first sleep parameter of the monitored object, but also collects the monitoring device information, and the monitored object can directly understand the monitoring device information such as the power of the monitoring device through the monitoring device, and is convenient for the monitored object. Maintenance of the monitoring device. The monitoring device can automatically upgrade the application on the monitoring device according to the monitoring device information, which can reduce the time cost of manually maintaining the monitoring device.

In an embodiment, the method further includes: in the first mode, sending a first synchronization instruction to the sleep aid device, receiving sleep aid device information sent by the sleep aid device according to the first synchronization instruction; and the sleep aid device information includes a sleep aid At least one of the second charging information, the second version information, or the abnormal error code of the device; when receiving the second synchronization command sent by the monitoring device, transmitting the sleep aid device information to the monitoring device; and causing the monitoring device according to the second The charging information generates a low battery prompt, or generates an overcurrent prompt or an over temperature prompt corresponding to the sleep aid device according to the abnormal error code; and when the monitoring device receives the sleep aid upgrade command according to the second version information, the sleep device is removed and assisted Inter-communication link; establish a communication link between the monitoring device and the sleep aid device, and upgrade the sleep aid device.

In the sleep aid mode or the monitoring mode, the sleep aid device not only collects the second sleep parameter of the monitored object, but also collects the sleep aid device information of the sleep aid device. The sleep aid device information includes at least one of second charging information, second version information, or abnormal error code of the sleep aid device. The second charging information includes a current power and a charging state of the sleep aid device. An application for parameter acquisition, sleep control, and the like is run on the sleep aid device, and the second version information refers to the version number of the application. The abnormal error code may be obtained after the sleep aid device obtains the current information and the temperature information, and compares the current information and the temperature information with a preset current threshold and a temperature threshold, respectively. The current threshold and the temperature threshold can be freely set according to actual requirements, for example, the current threshold can be 3A, and the temperature threshold can be 70 °C. It is easy to understand that the sleep aid device information may also include other information, such as the product serial number of the sleep aid device, the Mac address, etc., without limitation.

The monitoring device displays the received sleep aid device information, and generates a low battery prompt when the current power of the sleep aid device is lower than the threshold, or generates an overcurrent prompt or an over temperature prompt corresponding to the sleep aid device according to the abnormal error code. In another embodiment, the monitoring device controls the sleep aid device to enter the sleep mode according to the abnormal error code reported by the sleep aid device, and suspends the work to reduce the loss of the sleep aid device and the safety hazard caused by over-current or over-temperature.

The monitoring device determines whether the application on the sleep aid device requires a version upgrade based on the second version information of the sleep aid device. When a version upgrade is required, the monitoring device disconnects from the network connection with the monitoring device and connects to the sleep aid device via a wireless network or a wired network. The monitoring device obtains the corresponding sleep aid upgrade package, generates a sleep aid upgrade command by using the sleep aid upgrade package, and sends the sleep aid upgrade command to the sleep aid device, so that the sleep aid device uses the sleep aid upgrade package to upgrade the running application.

In this embodiment, the sleep aid device not only collects the second sleep parameter of the monitored object, but also collects the information of the sleep aid device, and the monitored object can directly monitor the power, current, temperature, etc. of the sleep aid device through the monitoring device. The device information is generated according to the monitoring device information, so that the monitored object can maintain the monitoring device. The monitoring device can automatically upgrade the application on the sleep aid device according to the information of the sleep aid device, thereby reducing the time cost of manually maintaining the sleep aid device.

In an embodiment, as shown in FIG. 3, a sleep quality monitoring method is provided. The method is applied to the monitoring device as an example, and specifically includes the following steps:

Step 302: Send a first monitoring instruction to the monitoring device, so that the monitoring device enters the first mode according to the first monitoring instruction, and in the first mode, collects a first sleep parameter of the monitored object, and sends a first synchronization instruction to the sleep aid device. Receiving a second sleep parameter of the monitored object returned by the sleep aid device according to the first synchronization instruction; acquiring a preset sleep analysis model, inputting the first sleep parameter and the second sleep parameter to the sleep analysis model, and obtaining the monitored object Sleep data.

Step 304: Send a second synchronization instruction to the monitoring device, and receive sleep data of the monitored object returned by the monitoring device according to the second synchronization instruction.

Step 306, analyzing the sleep data to obtain data corresponding to the sleep quality of the monitored object.

In an embodiment, the method further includes: receiving a sleep monitoring request sent by the monitoring device, the sleep monitoring request carrying the user identifier; detecting whether to store the corresponding historical sleep data according to the user identifier; and when there is corresponding historical sleep data, according to The historical sleep data generates a first monitoring instruction or a second monitoring instruction; when there is no corresponding historical sleep data, crawling the medical record of the user identification within a preset time, and generating a first monitoring instruction or a second monitoring instruction according to the medical record .

When the monitored object needs to monitor the quality of its sleep, the terminal can trigger the monitoring device to enter the corresponding working mode. Specifically, the monitored object can wirelessly connect the server to the terminal, wirelessly connect the terminal to the monitoring device, wirelessly connect the monitoring device to the sleep aid device, and wear the monitoring device. When the wearing is completed, the monitoring device automatically performs the wearing detection. If the detection result is successful wearing, the sleep monitoring request is generated, and the sleep monitoring request is sent to the terminal. The terminal sends a sleep monitoring request to the server.

The sleep monitoring request carries the user identification. The server queries, in the database, whether the corresponding historical sleep data and the sleep quality data obtained from the historical sleep data analysis are stored in the database according to the user identifier. When the corresponding historical sleep data exists, the monitored object corresponding to the user identifier has collected the sleep data by using the sleep quality monitoring method provided by the embodiment at least once, and the server obtains the historical sleep data corresponding to the user identifier in the database. And data corresponding to sleep quality obtained from historical sleep data analysis. The server determines, according to the acquired data, whether the monitored object needs to help sleep, and when the sleep aid is not needed, sets the working mode of the monitoring device to the first mode; otherwise, sets the working mode of the monitoring device to the second mode, and uses the work. The setting information of the mode generates a first monitoring instruction or a second monitoring instruction.

When the corresponding historical sleep data does not exist in the database, the monitored object corresponding to the user identifier is the first time to collect the sleep data by using the sleep quality monitoring method provided in this embodiment, and the server is preset according to the user identifier. The website crawls the medical record of the monitored object corresponding to the user identifier within a preset time, and predicts the sleep quality of the monitored object according to the medical record. The preset time can be freely set as needed, such as 1 month. The medical record may include the user identification corresponding to the sleep data collected by the monitored object by other methods, or the medical data of the visit to the hospital. The server determines whether the monitored object needs to help sleep according to the predicted sleep quality. When the sleep aid is not needed, the working mode of the monitoring device is set to the first mode, and the first monitoring instruction is generated by using the setting information of the first mode, and the terminal will A monitoring command is forwarded to the monitoring device. On the contrary, the server sets the working mode of the monitoring device to the second mode, generates the second monitoring command by using the setting information of the second mode, and the terminal forwards the second monitoring command to the monitoring device.

In this embodiment, when the historical sleep data of the monitored object is stored, the monitoring device is controlled to enter the corresponding working mode according to the historical sleep data; when the historical sleep data of the monitored object is not stored, the medical record of the monitored object is crawled. Using the medical record to assist in judging the sleep quality of the monitored object, and further controlling the monitoring device to enter the corresponding working mode according to the sleep quality of the monitored object, thereby making the control mode of the monitoring device more precise, and thus the system power consumption and the sleep aid effect. And a balance between sleep quality monitoring effects.

In an embodiment, the method further includes: generating a first monitoring instruction or a second monitoring instruction according to the data corresponding to the sleep quality, and switching the working mode of the monitoring device to the second mode by using the second monitoring instruction, so that the monitoring device is in the In the second mode, a sleep aid command is generated, and the sleep mode is set to the sleep mode by using the sleep aid command, so that the sleep aid device generates a pulse signal.

The sleep data and the data corresponding to the sleep quality obtained by the analysis become the basis for the monitoring device to determine the working mode of the monitoring device when the monitored object uses the sleep quality monitoring method provided by the embodiment. In other words, the received sleep data and the data corresponding to the analyzed sleep quality become the historical sleep data in the above embodiment. In this embodiment, the monitoring device controls the working mode of the monitoring device and the sleep aid device. In the first mode, the monitoring device and the sleep aid device respectively collect sleep data of the monitored object, and feed back the collected sleep data to the monitoring device. The monitoring device analyzes the sleep quality of the monitored object according to the sleep data, and adjusts the working mode of the monitoring device according to the sleep quality, thereby forming a closed-loop monitoring of the sleep quality, and the closed-loop monitoring makes the sleep quality monitoring method provided by the solution not only It only stays in the monitoring stage, and can also use the pulse signal to improve the sleep quality of the monitored object according to the monitoring result, so as to achieve the effect of sleep quality monitoring and monitoring.

In an embodiment, the method further includes: sending a second synchronization instruction to the monitoring device, receiving device information returned by the monitoring device according to the second synchronization instruction; the device information has a corresponding user identifier; acquiring sleep data corresponding to the plurality of user identifiers And device information; perform large data analysis on the acquired sets of sleep data and device information; generate improved guidance documents for the monitoring device and/or the sleep aid device according to the analysis result; send the improved guidance file to the designated device; The document records device improvement requirements information.

In order to improve the product quality of the monitoring device and the sleep aid device, the server extracts sleep data and device information corresponding to multiple user identifiers in the database according to a preset period or according to a big data analysis request of the specified device, and acquires multiple groups of the acquired Big data analysis of sleep data and device information. The preset period can be freely set according to actual needs, such as 3 months. The designated device refers to a computer device corresponding to the manufacturer of the monitoring device manufacturer and/or the manufacturer of the sleep aid device. It should be noted that the sleep data in this embodiment may include not only the sleep data obtained by the monitoring apparatus according to the first sleep parameter and the second sleep parameter in the foregoing embodiment, but also the first sleep parameter and the second sleep parameter itself. And analysis files obtained from analysis of sleep data. Device information includes monitoring device information and sleep aid device information.

The server performs big data analysis on multiple sets of sleep data. Specifically, the server determines target sleep data according to the acquired plurality of sets of sleep data. In other words, the server calculates an average of the plurality of sets of sleep data, and uses the average as the target sleep data. The target sleep data is a reference value used by the sleep quality monitoring method provided in this embodiment to determine the sleep quality of the monitored object. The server reads the pre-stored baseline sleep data in the database. The baseline data can be normal values of sleep data as specified by industry standards or medical experience. The baseline sleep data can be a data interval. The server compares the acquired target sleep data with the baseline sleep data, generates an improved guidance file for monitoring parameter reference adjustment according to the comparison result, and sends an improved guidance file of the monitoring parameter reference adjustment to the designated device to enable the monitoring device and/or the sleep aid The device manufacturer may calibrate the first sleep parameter collected by the monitoring device or the sleep analysis model for analyzing the sleep data according to the improved guidance document displayed by the designated device; or the second sleep collected by the sleep aid device according to the improved guidance file The parameters are calibrated.

The server also performs big data analysis on multiple sets of device information. Specifically, the server uses the web crawler's page analysis technology to capture the review information corresponding to the plurality of monitoring devices and the sleep aid device from the website according to the product serial number in the device information, and generates a guide file for improving the performance of the device according to the review information. The device performance improvement guide file is sent to the designated device, so that the monitoring device and/or the sleep aid device manufacturer can adjust the hardware structure of the monitoring device and/or the sleep aid device according to the improved guidance document displayed by the designated device, or the monitoring device And/or upgrade the application on the sleep aid. It is easy to understand that there are many ways to analyze large data sets of sleep data and device information, and will not be repeated here.

In this embodiment, big data analysis is performed on the acquired plurality of sets of sleep data and device information, and the improvement of the monitoring device and the sleep aid device is guided according to the analysis result, so that the monitoring device and the manufacturer of the sleep aid device can be used for the monitoring device. Maintenance with the sleep aid device can improve the problem finding time and problem solving time for the monitoring device and the sleep aid device system, thereby reducing the time cost of manually maintaining the monitoring device and the sleep aid device.

In one embodiment, as shown in FIG. 4, a sleep quality monitoring system is provided, comprising: a monitoring device 402, a monitoring device 404, and a sleep aid device 406, wherein:

The monitoring device 402 is configured to send a first monitoring instruction to the monitoring device 404, so that the monitoring device enters the first mode according to the first monitoring instruction.

The monitoring device 404 is configured to collect the first sleep parameter of the monitored object in the first mode; and send the first synchronization instruction to the sleep aid device 406 in the first mode.

The sleep aid device 406 is configured to report the second sleep parameter of the monitored object to the monitoring device according to the first synchronization instruction. The monitoring device 404 is further configured to acquire a preset sleep analysis model, input the first sleep parameter and the second sleep parameter to the sleep analysis model, obtain sleep data of the monitored object, and send the sleep data to the monitoring device 402. The monitoring device 402 is further configured to analyze the sleep data and analyze the data corresponding to the sleep quality of the monitored object.

In one embodiment, monitoring device 402 can be terminal 4022. The internal structure diagram of the terminal 4022 can be as shown in FIG. 5, and the terminal includes a processor, a memory, a network interface, a display screen, and an input device connected through a system bus. The processor of the terminal is used to provide computing and control capabilities. The memory of the terminal includes a non-volatile storage medium and an internal memory. The non-volatile storage medium stores an operating system and a computer program. The internal memory provides an environment for operation of an operating system and computer programs in a non-volatile storage medium. The network interface of the terminal is used for communication with an external terminal through a network connection. The computer program is executed by the processor to implement a sleep quality monitoring method. The display screen of the terminal may be a liquid crystal display or an electronic ink display screen, and the input device of the terminal may be a touch layer covered on the display screen, or a button, a trackball or a touchpad provided on the terminal housing, or It is an external keyboard, trackpad or mouse.

In another embodiment, the monitoring device 402 can also be a combination of the terminal 4022 and the server 4024. An internal block diagram of server 4024 can be as shown in Figure 6, which includes a processor, memory, network interface, and database connected by a system bus. The processor of the server is used to provide computing and control capabilities. The memory of the server includes a non-volatile storage medium and an internal memory. The non-volatile storage medium stores an operating system, a computer program, and a database. The internal memory provides an environment for operation of an operating system and computer programs in a non-volatile storage medium. The database of the server is used to store historical sleep data and data corresponding to sleep quality obtained from historical sleep data analysis. The server's network interface is used to communicate with external terminals over a network connection.

It will be understood by those skilled in the art that the structures shown in FIG. 5 and FIG. 6 are only block diagrams of part of the structure related to the solution of the present application, and do not constitute a limitation of the computer device to which the solution of the present application is applied. The computer device may include more or fewer components than those shown in the figures, or some components may be combined, or have different component arrangements.

In one embodiment, the internal structure of the monitoring device 404 can be as shown in FIG. 7, which includes a first control module 702, a first parameter acquisition module 704, a communication module 706, and a wear detection module 708. The first parameter collection module 704, the communication module 706, and the wear detection module 708 are electrically connected to the first control module 702, respectively. The first parameter collection module 704 includes at least one of a myoelectric module 7042, an acceleration sensor 7044, or a heart rate module 7046. The myoelectric module 7042 includes an electrode and a filter amplification circuit. The electrode is electrically connected to the first control module 702 through an amplification filter circuit. The myoelectric module 7042 is used to collect the myoelectric parameters of the monitored object. The acceleration sensor 7044 is configured to acquire a first body motion parameter of the monitored object. The heart rate module 7046 is used to collect heart rate parameters of the monitored object. The first control module 702 is configured to acquire a preset sleep analysis model, and input the first body motion parameter, the heart rate parameter, or the myoelectric parameter to the sleep analysis model. The communication module 706 can be a wireless communication module such as a Bluetooth module or a Wi-Fi module. It is easy to understand that the monitoring device further includes a charging module 710, a power module 712, a prompting module 714, a memory 716 or a button 718, and the like. The first control module 702, the first parameter collection module 704, the communication module 706, the wearing detection module 708, the charging module 710, the prompting module 714, and the memory 716 are electrically connected to the power module 712, respectively. The prompt module 714 can be a device such as a speaker or an LED lamp that can prompt the monitored object.

In one embodiment, the internal structure of the sleep aid device 406 can be as shown in FIG. 8. The sleep aid device includes a second control module 802, a second parameter acquisition module 804, a communication module 806, and a pulse sleep aid module 808. The second parameter collection module 804, the communication module 806, and the pulse sleep aid module 808 are electrically connected to the second control module 802, respectively. The second parameter collecting module 804 includes a sub-module such as a second body motion parameter module, a power detecting module, a current detecting module, and a temperature detecting module. A plurality of submodules can be electrically connected to the second control module 802 through a system bus. The second body motion parameter module may be an infrared sensor, a distance sensor, or the like. The second body motion parameter module is configured to collect the second body motion parameter of the monitored object. The second control module 802 is configured to report the second body motion parameter to the monitoring device 404. The pulse sleep aid module 808 is used to generate a pulse signal. The pulse frequency of the pulse signal is close to the frequency of the human brain wave, which can promote human sleep. It is easy to understand that other methods may be used to promote sleep of the monitored object, such as the sleep aid device 406 vibrating according to a preset frequency, etc., which is not limited thereto. It is easy to understand that the sleep aid device also includes a charging module 810, a power module 812, a prompt module 814 or a memory 816, and the like. The second control module 802, the pulse sleep module 808, the charging module 810, and the prompt module 814 are electrically connected to the power module 812, respectively.

In one embodiment, the monitoring device 402 is further configured to send a near field connection request or a remote connection request to the monitoring device 404. The monitoring device 404 is further configured to establish a communication link with the monitoring device 402 according to the near field connection request or the remote connection request, and receive the first monitoring instruction sent by the monitoring device 402 through the communication link. In this embodiment, the monitoring device may be connected to the monitoring device through the local area network, or may be connected to the monitoring device through a wide area network or a mobile network, so that the monitoring device can perform close control on the monitoring device or remotely control the monitoring device.

In one embodiment, the monitoring device 402 is further configured to send a second synchronization command to the monitoring device 404 prior to transmitting the first monitoring command to the monitoring device 404. The second synchronization instruction includes a user identification. The monitoring device 404 is further configured to detect, according to the second synchronization instruction, whether the sleep data corresponding to the user identifier is stored. The monitoring device 402 is further configured to: when the monitoring device 404 does not store the sleep data corresponding to the user identifier, crawl the medical record corresponding to the medical record corresponding to the preset time, generate a first monitoring instruction or a second monitoring instruction according to the medical record; or when monitoring When the device 404 stores the sleep data corresponding to the user identifier, the receiving monitoring device 404 generates the first monitoring command or the second monitoring command according to the sleep data according to the sleep data of the monitored object returned by the second synchronization instruction.

In one embodiment, the sleep aid device 406 includes a second control module 802 and a pulse sleep aid module 808. The monitoring device 402 is further configured to generate a first monitoring command or a second monitoring command according to the data corresponding to the sleep quality, using the second monitoring The instruction switches the working mode of the monitoring device 404 to the second mode; the monitoring device 404 is further configured to enter the second mode according to the second monitoring instruction, and obtain the sleep data of the monitored object according to the preset frequency in the second mode, the sleep data The sleep state is generated. When the sleep state is the first state, a sleep aid command is generated, and the sleep mode is used to set the working mode of the sleep aid device 406 to the sleep mode; the second control module 802 is further configured to control in the sleep mode. The pulse sleep aid module 808 generates a pulse signal; the monitoring device 404 is further configured to generate a sleep aid stop command when the sleep state is the second state, and send the sleep aid stop command to the second control module 802; the second control module 802 further uses The pulse-sleeping module 808 is controlled to stop generating the pulse signal according to the sleep aid stop command.

In one embodiment, the monitoring device 404 further includes a storage module 716, configured to store a plurality of sleep depth intervals corresponding to the first state and a pulse intensity corresponding to each sleep depth interval; the first control module 702 is further configured to be monitored according to The sleeping depth of the object belongs to the sleep depth interval, the corresponding pulse intensity is obtained, the sleep pulse command is generated by using the acquired pulse intensity, and the working mode of the sleep aid device 406 is set to the sleep assist mode by using the sleep aid command; the pulse sleep aid module 808 is further Used to generate a pulse signal based on the pulse intensity in the sleep aid command.

In one embodiment, the monitoring device 404 collects monitoring device information in the first mode; the monitoring device information includes at least one of the first charging information or the first version information; when the second synchronization sent by the monitoring device 402 is received When the command is sent, the monitoring device information is sent to the monitoring device 402; the monitoring device 402 is further configured to generate a low battery prompt according to the first charging information; or generate a monitoring upgrade command according to the first version information, and the monitoring upgrade command carries the monitoring upgrade package, The monitoring upgrade package is sent to the monitoring device 404, causing the monitoring device 404 to perform a version upgrade using the monitoring upgrade package.

In one embodiment, the monitoring device 404 is further configured to send, in the first mode, the first synchronization instruction to the sleep aid device 406, and receive the sleep aid device information sent by the sleep aid device 406 according to the first synchronization instruction; the sleep aid device information. The at least one of the second charging information, the second version information or the abnormal error code of the sleep aid device 406; when receiving the second synchronization command sent by the monitoring device 402, the sleep device information is sent to the monitoring device 402; The monitoring device 402 is further configured to generate a low battery prompt according to the second charging information, or generate an overcurrent prompt or an over temperature prompt corresponding to the sleep aid device 406 according to the abnormal error code; generate a sleep aid upgrade command according to the second version information, and dismantle and assist The communication link between the sleep devices 406; the communication link between the monitoring device 402 and the sleep aid device 406 is established, the sleep aid upgrade command is sent to the sleep aid device 406, and the sleep aid device 406 is version upgraded.

In one embodiment, the monitoring device 402 is further configured to send a second synchronization instruction to the monitoring device 404, and receive device information returned by the monitoring device 404 according to the second synchronization instruction; the device information has a corresponding user identifier; and the multiple user identifiers are acquired. Sleep data and device information; perform large data analysis on the acquired sets of sleep data and device information; generate an improved guidance file for the monitoring device 404 and/or the sleep aid device 406 according to the analysis result; send the improved guidance file to Designated equipment; improved guidance documents document device improvement requirements information.

In one embodiment, a computer device is provided comprising a memory, a processor, and a computer program stored on the memory and executable on the processor. When the processor executes the computer program, the following steps may be performed: receiving the first monitoring instruction sent by the monitoring device, entering the first mode according to the first monitoring instruction; and collecting the first sleep parameter of the monitored object in the first mode; In the mode, sending a first synchronization instruction to the sleep aid device, receiving a second sleep parameter of the monitored object returned by the sleep aid device according to the first synchronization instruction, acquiring a preset sleep analysis model, and using the first sleep parameter and the second sleep The parameter is input to the sleep analysis model to obtain sleep data of the monitored object; the sleep data is sent to the monitoring device, and the monitoring device analyzes the sleep data and analyzes the data corresponding to the sleep quality of the monitored object.

In an embodiment, when the processor executes the computer program, the method further includes: receiving a second monitoring instruction sent by the monitoring device, entering the second mode according to the second monitoring instruction; and acquiring the monitored according to the preset frequency in the second mode Sleep data of the object; the sleep data includes a sleep state; when the sleep state is the first state, generating a sleep aid command, and setting a working mode of the sleep aid device to a sleep assist mode by using a sleep aid command, so that the sleep aid device generates a pulse signal; When the sleep state is the second state, a sleep aid stop command is generated, and the sleep aid stop command is sent to the sleep aid device, and the sleep aid device stops generating the pulse signal according to the sleep aid stop command.

In one embodiment, the sleep data further includes a sleep depth; the processor further performs the following steps: when the sleep state is the first state, acquiring a plurality of sleep depth intervals corresponding to the first state and each sleep depth interval Corresponding pulse intensity; according to the sleep depth interval of the monitored object, the corresponding pulse intensity is obtained; the sleep pulse command is generated by using the acquired pulse intensity, and the sleep mode is set to the sleep mode by using the sleep aid command. The sleep aid device generates a pulse signal according to the pulse intensity in the sleep aid command.

In one embodiment, a computer device is provided comprising a memory, a processor, and a computer program stored on the memory and executable on the processor. The processor may execute the following steps: sending a first monitoring instruction to the monitoring device, causing the monitoring device to enter the first mode according to the first monitoring instruction, and collecting the first sleep parameter of the monitored object in the first mode, assisting The sleep device sends a first synchronization instruction, receives a second sleep parameter of the monitored object returned by the sleep aid device according to the first synchronization instruction, acquires a preset sleep analysis model, and inputs the first sleep parameter and the second sleep parameter to the sleep analysis Model, obtaining sleep data of the monitored object; sending a second synchronization instruction to the monitoring device, receiving sleep data of the monitored object returned by the monitoring device according to the second synchronization instruction; analyzing the sleep data to obtain a sleep quality corresponding to the monitored object The data.

In an embodiment, the processor further performs the following steps: receiving a sleep monitoring request sent by the monitoring device, the sleep monitoring request carrying the user identifier; detecting whether to store the corresponding historical sleep data according to the user identifier; when there is a corresponding When the historical sleep data is generated, the first monitoring instruction or the second monitoring instruction is generated according to the historical sleep data; when there is no corresponding historical sleep data, the medical record of the user identification in the preset time is crawled, and the first monitoring is generated according to the medical record. Instruction or second monitoring instruction.

In one embodiment, when the processor executes the computer program, the method further includes: generating a first monitoring instruction or a second monitoring instruction according to the data corresponding to the sleep quality, and switching the working mode of the monitoring device to the second mode by using the second monitoring instruction And causing the monitoring device to generate the first monitoring command or the second monitoring command in the second mode, and setting the working mode of the sleep aid device to the sleep assist mode by using the sleep aid command, so that the sleep aid device generates the pulse signal.

In one embodiment, the sleep data has a corresponding user identifier; the processor executes the computer program to: send a second synchronization instruction to the monitoring device, and receive device information returned by the monitoring device according to the second synchronization instruction; the device information has Corresponding user identifier; acquiring sleep data and device information corresponding to multiple user identifiers; performing large data analysis on the acquired plurality of sets of sleep data and device information; and generating improvement on the monitoring device and/or the sleep aid device according to the analysis result Guidance document; the improvement guidance document is sent to the designated equipment, and the improvement guidance document records the device improvement demand information.

In one embodiment, a computer readable storage medium is provided having stored thereon a computer program that, when executed by a processor, implements the computer program to: receive a first monitoring command sent by the monitoring device, according to the first monitoring The instruction enters the first mode; in the first mode, the first sleep parameter of the monitored object is collected; in the first mode, the first synchronization instruction is sent to the sleep aid device, and the received sleep aid device returns according to the first synchronization instruction Monitoring a second sleep parameter of the object; acquiring a preset sleep analysis model, inputting the first sleep parameter and the second sleep parameter to the sleep analysis model to obtain sleep data of the monitored object; and sending the sleep data to the monitoring device, and the monitoring device The sleep data is analyzed, and the data corresponding to the sleep quality of the monitored object is analyzed.

In an embodiment, when the computer program is executed by the processor, the method further comprises: receiving a second monitoring instruction sent by the monitoring device, entering the second mode according to the second monitoring instruction; and acquiring the second frequency according to the preset frequency Monitoring sleep data of the object; the sleep data includes a sleep state; when the sleep state is the first state, generating a sleep aid command, and setting a working mode of the sleep aid device to a sleep assist mode by using a sleep aid command, so that the sleep aid device generates a pulse signal When the sleep state is the second state, a sleep aid stop command is generated, and the sleep aid stop command is sent to the sleep aid device, so that the sleep aid device stops generating the pulse signal according to the sleep aid stop command.

In one embodiment, the sleep data further includes a sleep depth; when the computer program is executed by the processor, the following steps are further performed: when the sleep state is the first state, acquiring a plurality of sleep depth intervals corresponding to the first state and each sleep depth The pulse intensity corresponding to the interval; according to the sleep depth interval of the monitored object's sleep depth, the corresponding pulse intensity is obtained; the sleep pulse command is used to generate the sleep aid command, and the sleep mode is used to set the working mode of the sleep aid device to help sleep The mode causes the sleep aid to generate a pulse signal based on the pulse intensity in the sleep aid command.

In one embodiment, a computer readable storage medium is provided having stored thereon a computer program that, when executed by a processor, implements the computer program to: send a first monitoring command to the monitoring device to cause the monitoring device to a monitoring instruction enters a first mode, and collects a first sleep parameter of the monitored object in the first mode, and sends a first synchronization instruction to the sleep aid device, and receives a second monitored object returned by the sleep aid device according to the first synchronization instruction. a sleep parameter; acquiring a preset sleep analysis model, inputting the first sleep parameter and the second sleep parameter to the sleep analysis model to obtain sleep data of the monitored object; sending a second synchronization instruction to the monitoring device, and receiving the monitoring device according to the second The sleep data of the monitored object returned by the synchronization command; the sleep data is analyzed to obtain data corresponding to the sleep quality of the monitored object.

In one embodiment, when the computer program is executed by the processor, the following steps are further performed: receiving a sleep monitoring request sent by the monitoring device, the sleep monitoring request carrying the user identifier; detecting whether to store the corresponding historical sleep data according to the user identifier; When the historical sleep data is generated, the first monitoring instruction or the second monitoring instruction is generated according to the historical sleep data; when there is no corresponding historical sleep data, the medical record of the user identification in the preset time is crawled, and the first record is generated according to the medical record. Monitor instruction or second monitor instruction.

In one embodiment, when the computer program is executed by the processor, the step of: generating a first monitoring instruction or a second monitoring instruction according to the data corresponding to the sleep quality, and switching the working mode of the monitoring device to the second by using the second monitoring instruction. The mode causes the monitoring device to generate a sleep aid command in the second mode, and uses the sleep aid command to set the working mode of the sleep aid device to the sleep assist mode, so that the sleep aid device generates a pulse signal.

In one embodiment, the sleep data has a corresponding user identification; the computer program is further executed by the processor to: send a second synchronization instruction to the monitoring device, receive device information returned by the monitoring device according to the second synchronization instruction; device information Having a corresponding user identifier; acquiring sleep data and device information corresponding to the plurality of user identifiers; performing large data analysis on the acquired plurality of sets of sleep data and device information; generating a pair of monitoring devices and/or sleep aid devices according to the analysis result Improve the guidance document; send the improvement guidance document to the designated equipment, and improve the guidance document to record the equipment improvement demand information.

A person skilled in the art can understand that all or part of the process of implementing the above embodiment method can be completed by a computer program to instruct related hardware, and the computer program can be stored in a non-volatile storage medium. When executed, the flow of an embodiment of the methods as described above may be included. The storage medium may be a magnetic disk, an optical disk, a read-only memory (ROM), or the like.

The technical features of the above embodiments may be arbitrarily combined. For the sake of brevity of description, all possible combinations of the technical features in the above embodiments are not described. However, as long as there is no contradiction in the combination of these technical features, It is considered to be the range described in this specification.

The above embodiments are merely illustrative of several embodiments of the present application, and the description thereof is more specific and detailed, but is not to be construed as limiting the scope of the claims. It should be noted that a number of variations and modifications may be made by those skilled in the art without departing from the spirit and scope of the present application. Therefore, the scope of the invention should be determined by the appended claims.

Claims (17)

1. A method for monitoring sleep quality, comprising:

   Receiving a first monitoring instruction sent by the monitoring device, and entering the first mode according to the first monitoring instruction;

   Collecting, in the first mode, a first sleep parameter of the monitored object;

   In the first mode, sending a first synchronization instruction to the sleep aid device, and receiving a second sleep parameter of the monitored object returned by the sleep aid device according to the first synchronization instruction;

   Obtaining a preset sleep analysis model, inputting the first sleep parameter and the second sleep parameter to the sleep analysis model to obtain sleep data of the monitored object;

   The sleep data is sent to the monitoring device, and the monitoring device analyzes the sleep data and analyzes data corresponding to the sleep quality of the monitored object.
2. The method of claim 1 further comprising:

   Receiving a second monitoring instruction sent by the monitoring device, and entering the second mode according to the second monitoring instruction;

   In the second mode, acquiring sleep data of the monitored object according to a preset frequency; the sleep data includes a sleep state;

   When the sleep state is the first state, generating a sleep aid command, using the sleep aid command to set the working mode of the sleep aid device to a sleep assist mode, and causing the sleep aid device to generate a pulse signal;

   When the sleep state is the second state, a sleep aid stop command is generated, and the sleep aid stop command is sent to the sleep aid device, and the sleep aid device stops generating the pulse signal according to the sleep aid stop command.
3. The method according to claim 2, wherein the sleep data further comprises a sleep depth; when the sleep state is the first state, generating a sleep aid instruction, and the sleep aid device is operated by the sleep aid instruction The mode is set to the sleep mode, and the sleep device generates a pulse signal, including:

   When the sleep state is the first state, acquiring a plurality of sleep depth intervals corresponding to the first state and a pulse intensity corresponding to each sleep depth interval;

   Obtaining a corresponding pulse intensity according to a sleep depth interval to which the sleep depth of the monitored object belongs;

   Generating the sleep aid command by using the acquired pulse intensity, setting the working mode of the sleep aid device to a sleep assist mode by using the sleep aid command, and causing the sleep aid device to generate a pulse according to the pulse intensity in the sleep aid command signal.
4. A method for monitoring sleep quality, comprising:

   Sending a first monitoring instruction to the monitoring device, causing the monitoring device to enter the first mode according to the first monitoring instruction, collecting the first sleep parameter of the monitored object in the first mode, and transmitting the first to the sleep aid device a synchronization instruction, receiving a second sleep parameter of the monitored object returned by the sleep aid device according to the first synchronization instruction; acquiring a preset sleep analysis model, inputting the first sleep parameter and the second sleep parameter Obtaining sleep data of the monitored object to the sleep analysis model;

   Sending a second synchronization instruction to the monitoring device, and receiving sleep data of the monitored object returned by the monitoring device according to the second synchronization instruction;

   The sleep data is analyzed to obtain data corresponding to the sleep quality of the monitored object.
5. The method of claim 4, wherein the method further comprises:

   Receiving a sleep monitoring request sent by the monitoring device, where the sleep monitoring request carries a user identifier;

   Detecting whether to store corresponding historical sleep data according to the user identifier;

   Generating the first monitoring instruction or the second monitoring instruction according to the historical sleep data when there is corresponding historical sleep data;

   When the corresponding historical sleep data does not exist, the medical record of the user identifier in the preset time is crawled, and the first monitoring instruction or the second monitoring instruction is generated according to the medical record.
6. The method of claim 4, wherein the method further comprises:

   Generating, according to the data corresponding to the sleep quality, the first monitoring instruction or the second monitoring instruction, and using the second monitoring instruction, switching an operation mode of the monitoring device to a second mode, so that the monitoring device is in the In the second mode, a sleep aid command is generated, and the sleep mode of the sleep aid device is set to a sleep assist mode, and the sleep aid device generates a pulse signal.
7. The method according to claim 4, wherein the sleep data has a corresponding user identifier; the method further comprises:

   Sending a second synchronization instruction to the monitoring device, and receiving device information returned by the monitoring device according to the second synchronization instruction; the device information has a corresponding user identifier;

   Obtaining sleep data and device information corresponding to multiple user identifiers;

   Performing big data analysis on the acquired sets of sleep data and device information;

   Generating an improved guidance document for the monitoring device and/or the sleep aid device based on the analysis result;

   The improved guidance file is sent to a designated device; the improved guidance file records device improvement demand information.
8. A sleep quality monitoring system comprising:

   a monitoring device, configured to send a first monitoring instruction to the monitoring device, to cause the monitoring device to enter the first mode according to the first monitoring instruction;

   The monitoring device is configured to collect a first sleep parameter of the monitored object in the first mode; and send a first synchronization instruction to the sleep aid device in the first mode;

   The sleep aid device is configured to report a second sleep parameter of the monitored object to the monitoring device according to the first synchronization instruction; the monitoring device is further configured to acquire a preset sleep analysis model, and the Inputting a first sleep parameter and a second sleep parameter to the sleep analysis model, obtaining sleep data of the monitored object, and transmitting the sleep data to the monitoring device; the monitoring device is further configured to use the sleep The data is analyzed and analyzed to obtain data corresponding to the sleep quality of the monitored object.
9. The system according to claim 8, wherein said monitoring means is further configured to send a near field connection request or a remote connection request to said monitoring means; said monitoring means is further operative to respond to said near field connection request or And establishing, by the remote connection request, a communication link with the monitoring device, and receiving, by the communication link, a first monitoring instruction sent by the monitoring device.
10. The system of claim 8 wherein said monitoring means is further operative to transmit a second synchronization command to said monitoring device prior to transmitting said first monitoring command to said monitoring device, said second synchronization command The monitoring device is further configured to detect, according to the second synchronization instruction, whether the sleep data corresponding to the user identifier is stored; the monitoring device is further configured to: when the monitoring device does not store the user identifier, The sleep data of the user identifier corresponding to the preset time, the first monitoring instruction or the second monitoring instruction is generated according to the medical record; or when the monitoring device stores the user identifier And corresponding to the sleep data, receiving, by the monitoring device, the first monitoring instruction or the second monitoring instruction according to the sleep data according to the sleep data of the monitored object returned by the second synchronization instruction.
11. The system according to claim 8, wherein the monitoring device comprises a first control module and a first parameter acquisition module, and the first parameter acquisition module comprises at least one of a heart rate module, an acceleration sensor or a myoelectric module. item;

    The heart rate module is configured to collect a heart rate parameter of the monitored object;

    The acceleration sensor is configured to collect a first body motion parameter of the monitored object;

    The myoelectric module is configured to collect electromyographic parameters of the monitored object;

    The first control module is configured to acquire a preset sleep analysis model, and input the heart rate parameter, the first body motion parameter, or the myoelectric parameter to the sleep analysis model.
12. The system of claim 8 wherein said sleep aid comprises:

    a second parameter collection module, configured to collect a second body motion parameter of the monitored object;

    The second control module is configured to report the second body motion parameter to the monitoring device.
13. The system according to claim 8, wherein the sleep aid device comprises a second control module and a pulse sleep aid module; the monitoring device is further configured to generate the first monitor according to the data corresponding to the sleep quality And the second monitoring command is used to switch the working mode of the monitoring device to the second mode; the monitoring device is further configured to enter the second mode according to the second monitoring instruction, In the second mode, the sleep data of the monitored object is acquired according to a preset frequency, and the sleep data includes a sleep state; when the sleep state is the first state, a sleep aid instruction is generated, and the sleep aid instruction is used The working mode of the sleep aid device is set to a sleep mode; the second control module is further configured to control the pulse sleep module to generate a pulse signal in the sleep mode; when the sleep state is a second state Generating a sleep aid stop command to send the sleep aid stop command to the second control module; the second control module is further configured to control the sleep mode stop command according to the The pulse sleep aid module stops generating the pulse signal.
14. The system according to claim 13, wherein the monitoring device further comprises a storage module, configured to store a plurality of sleep depth intervals corresponding to the first state and a pulse intensity corresponding to each sleep depth interval; The first control module is further configured to acquire a corresponding pulse intensity according to a sleep depth interval to which the sleep depth of the monitored object belongs, generate the sleep aid instruction by using the acquired pulse strength, and use the sleep aid instruction to use the assisting instruction The working mode of the sleep device is set to a sleep assist mode; the pulse sleep aid module is further configured to generate a pulse signal according to a pulse intensity in the sleep aid command.
15. The system according to claim 8, wherein said sleep data has a corresponding user identifier; said monitoring means is further configured to send a second synchronization command to said monitoring device, said receiving said monitoring device according to said The device information returned by the second synchronization instruction; the device information has a corresponding user identifier; acquires sleep data and device information corresponding to the plurality of user identifiers; performs large data analysis on the acquired plurality of sets of sleep data and device information; The result is an improved guidance document for the monitoring device and/or the sleep aid device; the improved guidance file is sent to a designated device, the improved guidance file recording device improvement demand information.
16. A computer device comprising a memory, a processor, and a computer program stored on the memory and operable on the processor, the processor executing the computer program to implement any one of claims 1-3 or 4-7 The steps of the method.
17. A computer readable storage medium having stored thereon a computer program, the computer program being executed by a processor to perform the steps of the method of any of claims 1-3 or 4-7.

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