70 results about "Sleep behavior" patented technology

The invention discloses a sleep report generation method and device, electronic equipment and a storage medium. The method comprises the following steps: acquiring basic information, historical sleep data and behavior data of a target object; dividing a group type of the target object based on the basic information, and determining a first attention score of the target object on the target sleep index according to group type mapping; counting sleep behaviors based on historical sleep data to construct a sleep problem label of the target object, and mapping and determining a second attention score of the target object to the target sleep index according to the sleep problem label; the attention of the target object to the target sleep index is obtained based on behavior data statistics, and a third attention score of the target object to the target sleep index is determined according to attention mapping; and performing weighted summation on all attention scores corresponding to the target sleep index, and outputting a sleep report of the target object according to a weighted summation result. The sleep report can be generated in a personalized mode, and the method can be widely applied to the technical field of data processing.

The invention discloses a multi-sleep behavior activity identification method and system in the technical field of acoustic sensing, and aims to solve the optimization problem of the existing multi-sleep behavior activity identification technology. The method comprises the following steps: preprocessing a collected dual-track acoustic signal in an ear canal of a user to obtain a processed dual-track acoustic signal; according to the processed dual-track acoustic signal, sleep behavior event detection and segmentation are carried out based on an adaptive detection and segmentation algorithm of a dynamic threshold, and a sleep event set is obtained; according to the sleep event set, sleep behavior events are classified based on accumulated spectrum power, and a sleep body activity event set and a sleep acoustic activity event set are obtained; according to the sleep body activity event set, based on acoustic attenuation and accumulated spectrum power, performing fine-grained identification of body activity events; and performing multi-dimensional feature extraction according to the sleep acoustic activity event set, and performing fine-grained identification of the acoustic activity events by using the extracted multi-dimensional features.

The invention provides a system for early predicting the incidence of obstructive sleep apnea diseases based on sleep behaviors. Specifically, the invention provides a sleep behavior-based early obstructive sleep apnea (OSA) disease occurrence risk assessment system, which comprises (a) an input module configured to input sleep behavior data of a certain object; (b) an evaluation module which is configured to perform preliminary evaluation on the input sleep behavior data, obtain a sleep score and perform discrimination processing; and (d) an output module configured to output the evaluation result value. The system provided by the invention can predict chronic obstructive sleep apnea more effectively, more early and more accurately, and provides effective prevention suggestions.

The invention provides a sleep behavior detection method and device and electronic equipment, and the method comprises the steps: carrying out the detection of a current video image for each frame of video image in a to-be-detected video, and obtaining a detection result; if it is determined that at least one first detection frame exists according to the detection result, obtaining a camera identifier corresponding to the current video image; if it is determined that historical time information and at least one historical detection frame of a previous frame of video image corresponding to the camera identifier exist according to the camera identifier, detecting whether a sleep behavior exists through a DHash algorithm based on current time information and historical time information of a current video image, each first detection frame and each historical detection frame; according to the mode, the current time information of the current video image, each first detection frame, and the historical time information and each historical detection frame of the previous frame of video image can be combined, and the DHash algorithm is used to detect whether the sleep behavior exists, so that the detection accuracy of the sleep behavior can be improved.

A device for monitoring a sleep state of a community mounted on each measurement target forming the community includes an electrode unit configured to measure biosignals including an electroencephalogram (EEG) and electromyography (EMG) of each measurement target forming the community, a control unit configured to compare the measured EEG andEMG with critical values and classify sleep and wake states of the measurement target, an indicating unit configured to emit light in different colors according to the sleep and wake states of the measurement target, and a recording and communication unit configured to store or transmit the measured EEG and EMG to an external device. Therefore, by measuring a sleeping behavior of each entity of the community and analyzing and visualizing the sleep and wake states in real time, it is possible to efficiently observe the interaction between sleep and an environment.

The present invention relates to the field of medicine and of dietary supplements, in particular the technical (i.e. medical-pharmaceutical or food-technology) field of sleep problems and sleep disorders. In particular, the present invention relates to a dosage form, in particular a dietary-supplement dosage form or pharmaceutical dosage form, in particular for oral administration, preferably for promoting or supporting sleep health or sleep behavior or preferably for use in the prophylactic or therapeutic treatment of sleep disorders or dysregulation of the natural day / night rhythm or the circadian rhythm.

The invention discloses a sleep behavior monitoring method and device, a storage medium and a terminal, and the method comprises the steps: obtaining a cover image corresponding to a sleep event video, the sleep event video being a video collected for a sleep event in a current scene through a sleep monitoring device; the cover image is input into a large action recognition model, sleep actions output by the large action recognition model based on the cover image are determined, and the sleep actions are normal sleep actions or quilt kicking actions; and when the sleep action is a quilt kicking action, generating first notification information corresponding to the quilt kicking event, and sending the first notification information to a target terminal bound with the sleep monitoring equipment, so that the target terminal displays the first notification information. And the server can analyze the cover image by using the action recognition large model, so that the sleep action of the user is obtained. In this way, when the user kicks the quilt, the corresponding prompt notification information can be sent to the bound target terminal in time, and the sleep experience of family members is improved.

The invention relates to a respiratory nephropathy department patient sleep nursing system and method based on intelligent monitoring, equipment and a medium. Comprising a physical sign acquisition module, a data processing module, an environment monitoring module, an illness state prediction module and a nursing intervention module. The physical sign acquisition module is responsible for monitoring physiological parameters and sleep behaviors of a patient during sleep in real time, and the data processing module performs analysis and evaluation according to physiological feature data and sleep behavior data to obtain a sleep quality evaluation result of the patient. The environment monitoring module monitors environment parameters of a sleep environment of a patient in real time to obtain environment characteristic data. And the illness state prediction module predicts the illness state change of the patient by using a trained prediction model based on the environment feature data, the physiological feature data and the sleep behavior data to obtain a predicted illness state trend. And the nursing intervention module performs analysis according to the sleep evaluation result and the predicted illness state trend to obtain an environment regulation scheme suitable for sleep of the patient. And comprehensive monitoring and optimization of sleep and illness conditions of the patient are realized.

The invention discloses a multi-source snore recognition and analysis system based on a single microphone. The system comprises an audio acquisition module for acquiring audio signals in an environment, a signal preprocessing module connected with the audio acquisition module and used for processing the acquired audio signals, and a multi-scale convolutional neural network feature extraction module connected with the signal preprocessing module and used for extracting time-frequency features of the signals through a multi-scale CNN. The GRU time sequence processing module is connected with the multi-scale convolutional neural network feature extraction module, carries out time sequence information optimization on the extracted time-frequency features and generates separated snore features, and the sleep behavior analysis module is connected with the GRU time sequence processing module, detects snore feature signals and generates a visual sleep report. The method has the advantages of being low in hardware cost, simple, wide in application scene and beneficial to popularization based on the single microphone.

The invention belongs to the technical field of traditional Chinese medicine compound preparations, and particularly relates to a qi-regulating, phlegm-reducing and nerve-calming paste, a preparation method thereof and application of the paste in preparation of a medicine for treating Parkinson's disease combined with rapid eye movement sleep behavior disorder. The paste is prepared from the following raw materials in parts by weight: 9-30 parts of semen ziziphi spinosae, 15-30 parts of Chinese yam, 10-15 parts of poria with hostwood, 9-30 parts of semen coicis, 3-10 parts of pericarpium citri reticulatae, 3-10 parts of fingered citron, 10-20 parts of sesame, 10-20 parts of rock candy and 3-5 parts of maltose. By nourishing the heart and strengthening the spleen to consolidate the root, regulating qi and reducing phlegm to relieve stagnation and tranquilizing and sedating the physique to return to the soul, the three methods are combined to achieve the purposes of tonifying without stagnation, eliminating without injury, recovering the heart and the spleen, smoothing phlegm and qi and self-hiding the soul.

The invention belongs to the technical field of biological medicines, and particularly relates to application of an mTOR inhibitor to improvement of sleep disorders. Aiming at the defects of the existing hypnotics, the invention finds that the sleep disorder can be improved by using the Rapamycin through researching a new sleep pathway target. The Rapamycin disclosed by the invention is a non-addictive sleeping drug, and can induce natural sleep behaviors; compared with an existing clinical hypnotics which has the side effect of greatly increasing the death rate, the Rapamycin administration disclosed by the invention is beneficial to improving the sleep quality and prolonging the life of animals at the same time. The invention discloses a remarkable effect of Rapamycin in the aspect of improving the sleep disorder, and the discovery has important significance in improving the sleep quality of a patient and preventing the progress of diseases, so that the Rapamycin has a wide medical prospect and a remarkable economic value.

The invention discloses an unattended sleep quality analysis method and system, and the method comprises the steps: obtaining sleep related signals from the surrounding environment of a user through a non-contact sensor technology, carrying out the real-time capturing of body movement frequency characteristics and breathing rhythm characteristics, and obtaining a preliminary sleep behavior data record; according to the initial sleep behavior data record, filtering the body movement frequency signal and the breathing rhythm signal by adopting a signal denoising processing method, eliminating environmental noise interference, and determining an optimized sleep signal data set; aiming at the optimized sleep signal data set, performing feature extraction by utilizing a pre-established sleep stage classification model, analyzing regular changes of a body movement mode and a breathing law, and judging a sleep stage distribution condition of the user; according to the sleep stage distribution condition, the sleep quality of the user is graded and evaluated in combination with the preset threshold range, and accurate sleep stage judgment and sleep quality evaluation can be achieved.

The invention belongs to the technical field of medical health monitoring and behavior intervention, and discloses a pre-school autism sleep personalized intervention system based on AI behavior analysis, which comprises a behavior acquisition unit, an environment monitoring unit, a living habit management unit, a fusion analysis unit, an intervention execution unit, a self-adaptive optimization unit and a family interaction unit, according to the system, body movement, heart rate, skin electricity and sleeping posture information of children and environment parameters such as illumination, noise and temperature and humidity of a bedroom are synchronously collected, diet and exercise balance indexes are combined for fusion analysis, and behavior risk indexes are generated; a personalized intervention scheme is automatically generated according to the risk level, and intervention is implemented through light, sound and visual guidance modes. The system dynamically adjusts analysis parameters according to an intervention result, realizes closed-loop correlation analysis and continuous regulation and control of sleep behaviors, environment changes and parent feedback, and is suitable for individualized sleep management of children with autism.

The invention discloses a sleep scene-oriented bimodal fusion radar dynamic attitude identification method and device. The method comprises the following steps of: S1, acquiring and demodulating radar original data; s2, double-window feature construction of a velocity mode and a structural mode; s3, carrying out speed-guided dual-mode time alignment and feature reweighting; s4, the dynamic sleeping postures are output in a classified mode. According to the method, the limitation of an existing single-mode radar processing method in the aspects of weak action visibility, bedding shielding robustness and directivity discrimination capability is broken through, and a new implementation mode is provided for whole-process dynamic posture monitoring of complex sleep behaviors.

A monitoring device system includes a tunable VCSEL laser 10 with one or more active regions having quantum wells and barriers. The active regions are surrounded by one or more p-n junctions. The one or more active regions can include a selected shape structure each with a tunnel junction (TJ). One or more apertures are provided with the selected shape structure. One or more buried tunnel junctions (BTJ) or oxide confine the apertures, additional TJ's, planar structures and or additional BTJ's created during a regrowth process that is independent of a first growth process. A VCSEL output is determined in response to a monitoring application of the VCSEL The VCSEL includes an HCG grating and a bottom DBR. A user monitoring device includes the VCSEL laser. A motion detection apparatus detects a user's movement information. The motion detection apparatus and the monitoring system assist to determine one or more of a person's: gestures; sleep information and sleep behavior information, or user respiration information. A cloud based system is in communication with the monitoring device and the motion detection apparatus.

The invention discloses a data processing method and system based on insomnia behaviors, and relates to the technical field of health monitoring, and the method comprises the steps: collecting sleep behavior data of a user through a smart bracelet and a sleep diary application; performing exception labeling on the sleep behavior data according to a preset normal range; evaluating an insomnia risk level according to the number of the abnormal labels; corresponding processing flows are triggered according to different risk levels. The system comprises an acquisition module, an evaluation module and a processing module. According to the invention, automatic assessment and graded intervention of the insomnia risk are realized, and the accuracy of insomnia monitoring and the pertinence of intervention are improved.

The present invention proposes a method for identifying sleep behavior using a millimeter-wave radar based on adaptive synchronous compression transform. The present invention relates to the field of sleep monitoring technology. The millimeter-wave radar obtains intermediate frequency signals of sleep behavior and uses a sliding window method to suppress background clutter. The intermediate frequency signal after background interference is removed is subjected to a fast Fourier transform to generate a range image, and a unit average constant false alarm rate detection algorithm is used to achieve target detection and range unit positioning. At the range unit where the target is located, the range image is subjected to an adaptive synchronous compression transform along the slow time axis, and the window length of the short-time Fourier transform is adaptively adjusted according to the main frequency change trend to improve the time-frequency energy concentration and compensate for the signal attenuation and frequency shift caused by distance and angle changes. Finally, a cascaded CNN-LSTM network model is constructed. CNN extracts spatial features, and LSTM captures temporal dependencies to achieve accurate identification of sleep behavior under different distance and angle conditions.

The invention is suitable for the technical field of breathing machines, and particularly relates to a breathing machine control method and system based on sleep behavior data, and the method comprises the steps: obtaining behavior data and first operation data; wherein the behavior data comprises first behavior data used for reflecting abdominal diaphragm movement when the user sleeps and second behavior data used for reflecting respiratory movement when the user sleeps; determining an adjustment gain parameter based on the first behavior data; based on the second behavior data and the adjustment gain parameter, identifying sleep feature data used for reflecting a breathing machine tidal volume adjustment demand actually needed by the user in the sleep process from the first operation data; and after the first operation data is adjusted based on the adjustment gain parameter, second operation data is generated based on the sleep feature data and the adjusted first operation data. According to the method, when the user sleeps at night, the tidal volume of the breathing machine conforms to the sleeping habit of the user, and therefore the use experience of the breathing machine is improved.

The application discloses a sleep behavior recognition method and system under security monitoring, and a medium, and the method comprises the following steps: preparing a video sequence dataset; adopting a convolutional neural network to perform feature coding on the video sequence dataset, and coding image frame features; adopting a video segmentation strategy to segment the image frame features, and calculating segment-level features of a current segment; stacking the segment-level features of each segment in time sequence to form video-level features of the video sequence, and taking the video-level features as inputs of a time recurrent neural network module added with a spatiotemporal non-local attention mechanism; and passing output feature maps of the spatiotemporal non-local attention mechanism through a full connection layer of the time recurrent neural network module, and completing final sleep behavior recognition. The improved CNN-LSTM network architecture realizes sleep behavior detection under monitoring video.

The invention relates to the technical field of sleep health monitoring, in particular to a sleep apnea-oriented monitoring and feedback system, which comprises a sleep sensing module for acquiring physiological parameters, sleep behavior data and sleep environment parameters in sleep; the sleep breathing state analysis center performs sleep apnea type identification, severity evaluation and correlation analysis on a sleep cycle and a breathing event; the self-adaptive intervention feedback module dynamically adjusts intervention parameters according to the real-time analysis result and the physiological tolerance of the user and generates a basic feedback strategy; the multi-level risk assessment unit assesses a night hypoxia risk, a sleep structure disorder risk and a cardiovascular stress risk in real time, quantifies a risk weight, and generates a target feedback strategy in combination with historical sleep data of the user; and the cross-end cooperation unit links the household sleep monitoring terminal and the medical early warning terminal according to the intervention execution and state return instruction, executes feedback intervention and returns data. Therefore, the problems of low data accuracy, insufficient adaptability and the like in the prior art are solved.

The invention provides an intelligent sleep posture adjusting method, system and device, and belongs to the technical field of health monitoring. The method comprises the following steps: S1, collecting brain wave information of a user in a sleep behavior process; s2, judging whether the user is in a sleep state or not according to the brain wave information; s3, when it is judged that the user is in the sleep state, optimal sleep posture information of the user is determined, and the optimal sleep posture information is obtained based on historical sleep data of the user; s4, collecting the current sleep posture of the user; generating an adjustment step scheme for changing from the current sleep posture to the optimal sleep posture based on the difference between the current sleep posture and the optimal sleep posture; and S5, adjusting the sleep posture of the user based on the adjustment step scheme, so that the sleep posture of the user is consistent with the optimal sleep posture. According to the invention, dynamic adjustment can be carried out according to personal sleep habits and demands, the sleep posture of the user is adjusted, and personalized sleep experience is provided.

The invention provides a processing module and system for glucose concentration before and after sleep, and the processing module is used for detecting the glucose concentration of a to-be-detected object and giving guidance information. The processing module is configured to determine the fluctuation type of a glucose concentration curve between the pre-sleep state and the post-sleep state on the basis of glucose data including the time-varying glucose concentration between the pre-sleep state and the post-sleep state of the to-be-detected object, and the fluctuation type reflects the variation trend of the glucose concentration between the pre-sleep state and the post-sleep state; a fluctuation type is obtained based on the glucose concentration, the maximum glucose fluctuation amplitude and the sleep glucose fluctuation amplitude obtained based on the glucose data at the time before sleep, and guidance information or suggestions related to the sleep behavior are generated according to the fluctuation type. Therefore, the time for seeking suggestions of doctors can be reduced.

The invention relates to the technical field of data processing, and particularly provides an environment adjusting method, system and device based on sleep state monitoring and a medium, the method comprises the steps that state data are collected through a multi-mode non-inductive sensing network, and the state data comprise bedding pressure data, vital sign data and environment parameters; extracting key features from the state data, wherein the key features comprise an off-bed tendency feature, a sleep stability feature and an early awakening feature; analyzing the key features through a machine learning model, and predicting sleep behavior intentions of the user, including an off-bed tendency, an awakening precursor and an early awakening risk; triggering an environment actuator according to the predicted intention, and adjusting at least one parameter of illumination, temperature and humidity; recording user state data before and after intervention, and optimizing a decision threshold and intervention parameters through a reinforcement learning algorithm; the invention provides an unprecedented safe and comfortable sleep health management solution for sensitive people with cognitive impairment and the like.

The application belongs to the technical field of nematode culture and sleep detection, and particularly relates to a simple single nematode culture model and a sleep monitoring method thereof. The model fixes a single nematode in a culture chamber for culture, and the culture chamber is divided into two layers, the upper layer is a micro cavity for accommodating the nematode, and the lower layer is a culture medium (dry base). A nematode dry bacteria solution is arranged in the culture medium for providing growth of the nematode. The application discards the problem that the sleep behavior of the nematode cannot be monitored due to the use of liquid or droplet delivery in microfluidics. Meanwhile, the problem that the nematode cannot be fixed and a single nematode cannot be analyzed in the sleep monitoring model of Caenorhabditis elegans is improved, the throughput and accuracy are improved, the sleep behavior of the nematode can be directly analyzed by using wormlab, naked eye observation is not needed, the labor and material costs are reduced, and the scientificity and effectiveness of the experiment are improved.

The invention belongs to the technical field of biological medicines, and particularly relates to application of an mTOR inhibitor to improvement of sleep disorders. Aiming at the defects of the existing hypnotics, the invention finds that the sleep disorder can be improved by using the Rapamycin through researching a new sleep pathway target. The Rapamycin disclosed by the invention is a non-addictive sleeping drug, and can induce natural sleep behaviors; compared with an existing clinical hypnotics which has the side effect of greatly increasing the death rate, the Rapamycin administration disclosed by the invention is beneficial to improving the sleep quality and prolonging the life of animals at the same time. The invention discloses a remarkable effect of Rapamycin in the aspect of improving the sleep disorder, and the discovery has important significance in improving the sleep quality of a patient and preventing the progress of diseases, so that the Rapamycin has a wide medical prospect and a remarkable economic value.

Slatted base (1) for a reclining and / or seating furniture, comprising: - at least two zone elements (2), wherein at least one slat (3) is arranged on each of the zone elements, - a frame (4) to accommodate the at least two zone elements (2), - at least one support element (5) arranged on the frame (4) for supporting the at least two zone elements (2) along a longitudinal extension (L) of the frame (4), - at least one electrically operated actuating element (6) for adjusting the at least one support element (5), wherein the sinking depth of the reclining and / or seating furniture can be adjusted by adjusting the support element (5), and - a control device (7) for controlling and / or regulating the at least one actuating element (6), characterized in that at least one sensor (8) is provided for determining a person's sleep behavior, wherein the control device (7) is designed to control and / or regulate the at least one actuating element (6) depending on the sleep behavior determined by the at least one sensor (8).

Dosage form, in particular dietary supplement and / or pharmaceutical dosage form, especially for oral administration, preferably for promoting and / or supporting, in particular for non-therapeutic and / or non-medical promotion and / or support, preferably for preventive and / or curative promotion and / or support, sleep health and / or sleep behavior, in particular sleep onset and / or maintenance, and / or preferably for use in the prophylactic and / or therapeutic medical treatment of sleep disorders, in particular sleep onset and / or maintenance, and / or dysregulation of the natural day / night rhythm and / or the circadian rhythm, wherein the dosage form is designed as a multiphase tablet, preferably a multilayer tablet, in particular a two-layer tablet, preferably a three-layer tablet, wherein the dosage form and / or the multiphase tablet has or consists of several, in particular at least two, preferably three, different phases, in particular layers, wherein the different phases, in particular layers, have different disintegration times and / or drug release rates in the gastrointestinal tract, in particular the stomach and / or intestine, after oral administration; where the dosage form and / or the multiphasic tablet is: a) a first phase (“immediate phase”), in particular a first layer (“immediate layer”), with rapid and / or immediate (immediate) disintegration and / or release of the active ingredient in the gastrointestinal tract, in particular the stomach and / or intestine, following oral administration, wherein the first phase, in particular the first layer, (i a ) Melatonin and (ii a ) contains an extract of Ashwagandha (Withania somnifera) (“Ashwagandha extract”), b) a second phase (“depot phase”), in particular a second layer (“depot layer”), with controlled and / or delayed (retarded) disintegration and / or drug release in the gastrointestinal tract, in particular the stomach and / or intestine, following oral administration, wherein the second phase, in particular the second layer, (i b ) Melatonin and (ii b) contains at least one extract of at least one sleep-promoting and / or sedating drug (plant or herb), preferably an extract of valerian (Valeriana officinalis) (“valerian extract”), c) optionally a third phase (“chronophase”), in particular a third layer (“chronolayer”), with continuous disintegration and / or release of the active substance in the gastrointestinal tract, in particular the stomach and / or intestine, following oral administration, wherein the third phase, in particular the third layer, (i c) contains at least one (further) extract of at least one sleep-promoting and / or sedating drug (plant or herb), preferably at least two (further) extracts of different sleep-promoting and / or sedating drugs (plants or herbs), preferably an extract of valerian (Valeriana officinalis) (“valerian extract”) and / or an extract of lavender (Lavandula angustifolia) (“lavender extract”), particularly preferably an extract of valerian (Valeriana officinalis”) (“valerian extract”) and an extract of lavender (Lavandula angustifolia) (“lavender extract”); in particular wherein the dosage form contains melatonin in a total amount of at least 1.5 mg, in particular in a total amount in the range of 1.5 mg to 5 mg; and / or in particular wherein the dosage form contains withanolide glycosides, in particular withanolide glycosides provided by the extract of Ashwagandha, in a total amount of at least 10 mg, in particular in a total amount in the range of 10 mg to 500 mg.

The present disclosure relates to a system and method for improving sleep quality, and particularly, to a system and method for improving sleep quality that can induce correct sleep behavior of a user by measuring objective sleep quality in a wearless state and measuring and analyzing subjective sleep quality in a user-friendly manner. The system for improving sleep quality according to an embodiment of the present disclosure includes: a mattress configured to measure objective sleep quality information of a user in a wearless type; a behavior correction assistance device disposed at a predetermined distance from the mattress; and an AI speaker configured to integrate and analyze objective sleep quality information measured by the mattress and subjective sleep quality information determined through Q&A with the user.

The present disclosure relates to a communication device, a base station, and corresponding methods for the communication device and the base station. More specifically, the base station sends (S930) and the communication device receives (S1030) downlink control information DCI signaling. The DCI signaling includes an indication related to the sleep behavior of the secondary cell (Scell). The Scell ​​is configured with multiple bandwidth parts (BWPs), and the multiple BWPs include a sleep BWP and one or more normal BWPs. If the indication indicates a transition from sleep behavior to non-sleep behavior, a target BWP for performing the non-sleep behavior is determined (S1060). Specifically, the determination of the target BWP is performed based on at least one of the following: a priority order of one or more normal BWPs, a predefined or preconfigured BWP, a legacy BWP indicator field in the DCI signaling, a most recently active normal BWP, and a sleep BWP.

The invention discloses a data processing method and device for monitoring activity time of an ankylosing spondylitis patient by using a wearable device, and the method comprises the steps: obtaining initial time data corresponding to each activity behavior of the ankylosing spondylitis patient by using the wearable device, the activity behaviors comprise a sedentariness behavior, a sleep behavior, a low-intensity physical activity behavior and a medium-high-intensity physical activity behavior; based on the initial time data, determining comparison characteristics among the activity behaviors; constructing a sleep quality regression classification model based on the comparison features; based on the sleep quality regression classification model, determining a target time allocation scheme corresponding to each activity behavior when the probability that the sleep quality of the ankylosing spondylitis user is good is maximum, the personalized target time data capable of improving the sleep quality can be allocated to the ankylosing spondylitis user based on the initial time data of various types of activity behaviors of the ankylosing spondylitis user.