Motion and cognitive function evaluation cabin integrated with mute cabin

Abstract

The invention discloses a mute cabin integrated motion and cognitive function assessment cabin. The assessment cabin comprises a mute cabin body, a workbench, an intelligent processing terminal, a hand motion capture sensor, a plantar pressure sensor, a depth camera and a touch screen. The workbench is installed in the mute cabin body, and an intelligent processing terminal and a touch screen are installed on the workbench and used for user interaction; and the intelligent processing terminal processes user data acquired by the hand motion capture sensor, the plantar pressure sensor and the depth camera, comprehensively performs motion and cognitive function evaluation, and displays a result on the touch screen. According to the system and the method, the motion and cognitive functions of the user can be effectively evaluated, the result is displayed on the touch screen, and the system and the method have good interactivity.

Description

Technical Field

[0001] The present invention relates to the field of digital medicine, and particularly to a quiet cabin integrated exercise and cognitive function assessment hut. Background Art

[0002] With the rapid development of society, due to reasons such as long-term sedentary office work, unhealthy eating habits, lack of exercise, and genetic inheritance, sports diseases are likely to occur in the population. Due to reasons such as social pressure and mental anxiety brought about by fierce competition, cognitive diseases are likely to occur in the population. With the advent of an aging society and the increasing tension of medical resources, the emergence of function assessment huts can alleviate the burden on the medical system to a certain extent and promote the development of the public medical and health cause. However, for complex sports diseases and cognitive diseases, traditional function assessment huts are difficult to effectively prevent and diagnose.

[0003] Traditional function assessment huts usually configure self-service health monitoring devices such as electronic blood glucose meters, body composition analyzers, and automatic blood pressure monitors, and are integrated into function assessment huts. The function assessment huts in various places have a relatively unified style, with only slight differences in the form and quantity of the devices. These traditional function assessment huts can only provide basic biochemical index examinations on the devices, and have limited assessment of exercise and cognitive functions. Traditional function assessment huts are designed to be semi-closed or non-closed. In this case, performing function examinations will cause discomfort to users at the physical and mental levels. It is difficult to effectively integrate the function assessment results with the long-term health records of users, which brings difficulties to subsequent medical decisions. Traditional function assessment huts have insufficient mobility and usually cannot be moved or require cumbersome disassembly and installation steps. Therefore, the huts are often built at designated locations in large hospitals and are difficult to cover all areas in need of services, especially communities. The huts in public institutions such as large hospitals are usually only open at specific times and cannot meet the needs of inspections at any time. Summary of the Invention

[0004] The purpose of the present invention is to propose a quiet cabin integrated exercise and cognitive function assessment hut in view of the deficiencies of the prior art.

[0005] The purpose of the present invention is achieved through the following technical solutions: A quiet cabin integrated exercise and cognitive function assessment hut includes a quiet cabin body, a workbench, an intelligent processing terminal, a touch screen, a hand movement capture sensor, a plantar pressure sensor, and a depth camera.

[0006] Further, the quiet cabin body of the hut uses an independent closed box design and is constructed with sound insulation materials.

[0007] Further, rollers are installed under the assessment hut and can move.

[0008] Further, the intelligent processing terminal can receive data from the hand movement capture sensor, plantar pressure sensor, and depth camera, perform multi-source data fusion, and is equipped with an intelligent evaluation system for evaluating the user's motor and cognitive functions.

[0009] Further, the hand movement capture sensor uses visual or inertial signals to collect the user's hand movement data and transmits it to the intelligent processing terminal.

[0010] Further, the plantar pressure sensor communicates with the intelligent processing terminal wirelessly, is used to collect the pressure data of each area of the user's sole, and transmits it to the intelligent processing terminal.

[0011] Further, the depth camera is used to analyze the user's body posture data from the RGB-D point cloud data and transmits it to the intelligent processing terminal.

[0012] Further, the intelligent evaluation system includes a motion data processing module, a cognitive data processing module, an intelligent evaluation module, and a user interface module;

[0013] The motion data processing module is used to receive the motion data of the hand movement capture sensor, plantar pressure sensor, and depth camera, perform multi-source data fusion, extract motion features, and transmit them to the intelligent evaluation module;

[0014] The cognitive data processing module is used to receive the user's cognitive data based on the scale, perform preprocessing, extract cognitive features, and transmit them to the intelligent evaluation module;

[0015] The intelligent evaluation module adopts an intelligent algorithm based on multi-modal feature alignment and aggregation, mines the causal relationship between multi-source signals and evaluation tasks, is used to reason about motion features and cognitive features, and outputs the evaluation results of the user's motor and cognitive functions;

[0016] The user interface module is used to display the interaction interface and the evaluation results of motor and cognitive functions in a visual form.

[0017] Advantages of the present invention:

[0018] 1. The present invention discloses a sports and cognitive function evaluation cabin integrated with a silent cabin. The evaluation cabin includes a silent cabin body, a workbench, an intelligent processing terminal, a hand movement capture sensor, a plantar pressure sensor, a depth camera, and a touch screen. The intelligent processing terminal processes the user data collected by the hand movement capture sensor, plantar pressure sensor, and depth camera, effectively evaluates the user's motor and cognitive functions, and displays the results on the touch screen, having good interactivity.

[0019] 2. The intelligent assessment system proposed in the present invention includes a motion data processing module, a cognitive data processing module, an intelligent assessment module and a user interface module. The motion data processing module and the cognitive data processing module extract the user's motion characteristics and cognitive characteristics, effectively reducing the complexity of the data and reducing the interference of redundant data. The intelligent assessment module adopts an intelligent algorithm based on multimodal feature alignment and aggregation to explore the causal relationship between multi-source signals and assessment tasks, providing support for the accuracy of the results of motion and cognitive function assessment. BRIEF DESCRIPTION OF THE DRAWINGS

[0020] In order to more clearly illustrate the embodiments of the present invention or the technical solutions in the prior art, the drawings required for use in the embodiments or the description of the prior art will be briefly introduced below. Obviously, the drawings described below are only some embodiments of the present invention. For ordinary technicians in this field, other drawings can be obtained based on these drawings without paying creative work.

[0021] Figure 1 It is a structural schematic diagram of the present invention.

[0022] Figure 2 It is a schematic diagram of the architecture of the intelligent evaluation system of the present invention.

[0023] In the figure: 1- workbench; 2- chair; 3- intelligent processing terminal; 4- touch screen; 5- hand motion capture sensor; 6- plantar pressure sensor; 7- depth camera; 8- soundproof wall; 9- air inlet; 10- exhaust hole; 11- lighting; 12- power socket and switch; 13- network entrance. DETAILED DESCRIPTION

[0024] Embodiments of the present invention are described in detail below. Examples of the embodiments are shown in the accompanying drawings. The embodiments described in the accompanying drawings are exemplary and are intended to be used to explain the present invention, but should not be understood as limiting the present invention.

[0025] like Figure 1 As shown, the present invention proposes a motion and cognitive function assessment cabin integrated with a silent cabin, and its equipment includes a workbench 1, a chair 2, an intelligent processing terminal 3, a touch screen 4, a hand motion capture sensor 5, a plantar pressure sensor 6, a depth camera 7, a soundproof wall 8, an air inlet 9, an exhaust hole 10, a lighting lamp 11, a power socket and a switch 12, and a network entrance 13.

[0026] The cabin is a soundproof cabin with an independent closed box design. The soundproof wall 8 is made of soundproof cotton and sandwich wood to isolate the sound inside and outside the cabin and ensure the privacy and safety of the user.

[0027] The workbench 1 is placed at the corner of the small house. The chair 2 is located behind the workbench 1. The workbench 1 and the chair 2 are movable and can freely adjust the lifting height. The workbench 1 is placed with devices such as an intelligent processing terminal 3 and a touch screen 4, facilitating user interaction.

[0028] The hand motion capture sensor 5 is connected to the intelligent processing terminal 3 using a USB data cable and is placed on the workbench 1. The hand motion capture sensor 5 collects the hand motion data of the user and transmits it to the intelligent processing terminal 3. The intelligent processing terminal 3 receives the data, controls its intelligent operation, and records the user's motion information.

[0029] The depth camera 7 is connected to the intelligent processing terminal 3 through an industrial camera data cable. It can analyze the user's body posture data from the RGB-D point cloud data and transmit it to the intelligent processing terminal 3. Preferably, the depth camera 7 uses an advanced iToF 3D camera Femto Bolt. Further, the depth camera 7 is fixed to the top wall of the small house by means of screws and an aluminum alloy bracket. The depth camera 7 shoots vertically downward to collect the user's body posture data.

[0030] The plantar pressure sensor 6 is placed on the floor of the small house and communicates with the intelligent processing terminal 3 wirelessly. It can collect the pressure data of each area of the user's sole and transmit it to the intelligent processing terminal 3. Further, the plantar pressure sensor 6 uses a flexible film array type acquisition module to collect the pressure data of each area of the user's sole for evaluating the user's balance function.

[0031] The touch screen 4 is placed on the workbench 1, and its placement position is fixed by a bracket. It is connected to the intelligent processing terminal 3 and can display a visual interface for interacting with the user. The user interacts by clicking with a finger and can display the evaluation results of the user's motion and cognitive results.

[0032] The power socket and switch 12 include the control switch of the small house top wall lighting lamp and the exhaust fan control switch of the air intake hole 9 and the exhaust hole 10.

[0033] The network inlet 13 can be connected to a network cable interface to upload the medical data received by the intelligent processing terminal 3 and the results after intelligent evaluation to a data center such as a hospital platform or a third-party platform.

[0034] The intelligent processing terminal 3 can receive the data from devices such as the hand motion capture sensor 5, the plantar pressure sensor 6, and the depth camera 7, perform multi-source data fusion, and is deployed with an intelligent evaluation system to evaluate the user's motion and cognitive functions. Preferably, the intelligent processing terminal 3 uses a Jetson Orin NX high-performance edge computing chip with an artificial intelligence AI computing power of 100 TOPS.

[0035] Furthermore, the architecture of the intelligent evaluation system is as Figure 2 shown. The motion data processing module receives the motion data of the hand motion capture sensor 5, the plantar pressure sensor 6, and the depth camera 7, performs multi-source data fusion, extracts motion features, and transmits them to the intelligent evaluation module. The cognitive data processing module receives the cognitive data of the user based on the scale, performs preprocessing to extract cognitive features, and transmits them to the intelligent evaluation module.

[0036] Furthermore, the cognitive data based on the scale is collected by evaluation scales such as the Hamilton Depression Scale (HAMD-17) and the Montreal Cognitive Assessment Scale (MoCA). The intelligent evaluation module performs reasoning on the motion features and cognitive features based on an intelligent algorithm for multi-modal feature alignment and aggregation, and outputs the evaluation results of the user's motion and cognitive functions. The user interface module displays the interaction interface and the evaluation results in a visual form.

[0037] The air inlet 9 and the air outlet 10 are located on the top wall of the hut, and the exhaust fan is used to keep the air in the hut unobstructed. The air inlet 9 and the air outlet 10 can be manually closed, and the knob can control the rotation speed of the exhaust fan, thereby controlling the ventilation speed.

[0038] The lighting lamp 11 is located on the top wall of the hut and can be controlled by a switch on the wall to provide lighting services for the user.

[0039] The power sockets are located on the front wall and the rear wall for the devices in the hut to be powered on and operate.

[0040] The network inlet 13 is located at the bottom corner of the right wall, and the intelligent processing terminal can be connected to the internal local area network or the external data center through a network cable.

[0041] The content described in the embodiments of this specification is only a list of the implementation forms of the inventive concept and is only for illustrative purposes. The protection scope of the present invention should not be regarded as limited to the specific forms stated in this embodiment, and the protection scope of the present invention also extends to equivalent technical means that can be conceived by those of ordinary skill in the art based on the inventive concept of the present invention.

Claims

1. A quiet cabin integrated with a sports and cognitive function assessment cabin, characterized in that, The evaluation cabin includes a soundproof cabin, a workbench, an intelligent processing terminal, a hand motion capture sensor, a foot pressure sensor, a depth camera, and a touch screen. The workbench is installed inside the silent cabin, and an intelligent processing terminal and a touch screen are installed on the workbench for user interaction; The intelligent processing terminal processes the user data collected by the hand motion capture sensor, the plantar pressure sensor and the depth camera, comprehensively evaluates the movement and cognitive functions, and displays the results on the touch screen.

2. The motion and cognitive function evaluation cabin integrated with a silent cabin according to claim 1, characterized in that The soundproof cabin of the cabin adopts an independent closed box design and is constructed with sound-proof materials.

3. The sports and cognitive function evaluation cabin integrated with a silent cabin according to claim 1, characterized in that, The assessment cabin is equipped with rollers underneath so it can be moved.

4. The sports and cognitive function assessment cabin integrated with a silent cabin according to claim 1, characterized in that The intelligent processing terminal can receive data from hand motion capture sensors, plantar pressure sensors, and depth cameras, perform multi-source data fusion, and deploy an intelligent evaluation system to evaluate the user's movement and cognitive functions.

5. The motion and cognitive function assessment cabin integrated with a silent cabin according to claim 1, characterized in that, The hand motion capture sensor uses visual or inertial signals to collect the user's hand motion data and transmits it to the intelligent processing terminal.

6. The sports and cognitive function evaluation cabin integrated with a silent cabin as claimed in claim 1, characterized in that, The plantar pressure sensor communicates with the intelligent processing terminal in a wireless manner, and is used to collect pressure data of various areas of the user's sole and transmit the data to the intelligent processing terminal.

7. The motion and cognitive function evaluation cabin integrated with a silent cabin according to claim 1, characterized in that The depth camera is used to analyze the user's body data from the RGB-D point cloud data and transmit it to the intelligent processing terminal.

8. The movement and cognitive function evaluation cabin integrated with the silent cabin according to claim 4, characterized in that, The intelligent evaluation system comprises a motion data processing module, a cognitive data processing module, an intelligent evaluation module and a user interface module; The motion data processing module is used to receive motion data from the hand motion capture sensor, the plantar pressure sensor, and the depth camera, perform multi-source data fusion, extract motion features, and transmit them to the intelligent evaluation module; The cognitive data processing module is used to receive the user's cognitive data based on the scale, perform preprocessing, extract cognitive features, and transmit them to the intelligent evaluation module; The intelligent evaluation module adopts an intelligent algorithm based on multimodal feature alignment and aggregation to mine the causal relationship between multi-source signals and evaluation tasks, and is used to infer motion features and cognitive features, and output the user's motion and cognitive function evaluation results; The user interface module is used to display the interactive interface and the motor and cognitive function assessment results in a visual form.

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