Patient rehabilitation progress tracking method and system

Abstract

The present application relates to the technical field of rehabilitation nursing, and discloses a method and system for tracking the rehabilitation progress of a patient, the method comprising obtaining the patient's affected tissue information, matching associated muscles from a preset skeletal muscle model based on the affected tissue information to define the muscles to be monitored, and then determining the pasting positions of several monitoring elements; obtaining the patient's initial information on the contralateral muscles, the first-order treatment time, and the contralateral muscle monitoring information to create a muscle movement monitoring form; based on the muscle movement monitoring form and the preset muscle maintenance movement amount form, evaluating the affected-side movement loss and the contralateral movement loss of the patient's muscles to be monitored; generating a rehabilitation training plan based on the affected-side movement loss and the contralateral movement loss and sending it to the patient; the present application has the effect of improving the patient's rehabilitation training efficiency.

Description

Technical Field

[0001] The present application relates to the technical field of rehabilitation nursing, and in particular to a method and system for tracking the rehabilitation progress of a patient. Background Art

[0002] During the treatment of fracture patients, after the bones are repositioned and fixed, it is usually necessary to keep the affected part stable and minimize movement involving the bones to reduce damage to the bones; when the patient's bones begin to heal, the patient is usually required to undergo rehabilitation training to help the affected limb recover muscle function, joint flexibility and daily function; the current main method of rehabilitation training is to determine the type and amount of rehabilitation training based on the location of the affected part and the time the patient has stopped exercising since the injury; however, since different patients have different motor functions before the injury, and the amount of movement of the two sides of the body during the fracture is also different, it is easy for patients to have movement imbalance during or after rehabilitation training; therefore, the rehabilitation training programs of the above-mentioned related technologies are difficult to solve the problem of patient movement imbalance. Summary of the invention

[0003] In order to improve the efficiency of rehabilitation training for patients, the present application provides a method and system for tracking the rehabilitation progress of patients.

[0004] The first invention objective of the present application is achieved by adopting the following technical solution:

[0005] A method for tracking a patient's recovery process, comprising:

[0006] Acquire the patient's affected tissue information, match the associated muscles from a preset skeletal muscle model based on the affected tissue information to define the muscles to be monitored, and then determine the locations where several monitoring elements are attached;

[0007] Obtain the patient's contralateral muscle initial information, first-order treatment time, and contralateral muscle monitoring information to create a muscle movement monitoring form;

[0008] Based on the muscle movement monitoring form and the preset muscle maintenance movement form, assess the patient's affected-side movement loss and contralateral movement loss of the muscles to be monitored;

[0009] Generate a rehabilitation training program based on the affected-side motion loss and the contralateral motion loss and send it to the patient;

[0010] The first-order treatment time refers to the time from the injury of the affected tissue to the preparation for rehabilitation training; the contralateral muscle refers to the muscle tissue located on the opposite side of the affected area corresponding to the associated muscle; the muscles to be monitored include the associated muscles and the contralateral muscles; the initial information of the contralateral muscles includes the size parameters of the contralateral muscles measured in the early stage of treatment; the contralateral muscle monitoring information refers to the muscle movement parameters measured by the monitoring element attached to the contralateral muscle; the muscle maintenance exercise volume form records the theoretical exercise volume corresponding to various types of muscle tissues that maintain different parameters.

[0011] By adopting the above technical solution, the patient's affected tissue information is obtained to determine the patient's specific injured bones and / or muscles, and then the associated muscles related to the affected tissue are matched from the preset skeletal muscle model to define the muscles to be monitored, so that the monitoring elements can be subsequently attached to the muscles to be monitored; the patient's initial information on the contralateral muscles, the first-order treatment time, and the contralateral muscle monitoring information are obtained to evaluate the patient's bilateral muscle status information before the injury, and a muscle movement monitoring form is formed based on the first-order treatment time and the contralateral muscle monitoring information, so as to know the movement of the patient's contralateral muscles during the injury period; based on the contralateral muscles The initial muscle information and muscle maintenance exercise volume form are used to calculate the amount of exercise lost on the injured side of the patient to obtain the amount of exercise lost on the affected side. The amount of exercise on the contralateral muscle during the injury period is determined based on the muscle exercise monitoring form, and the amount of exercise lost on the contralateral side is calculated based on the difference between the amount of exercise lost on the affected side and the amount of exercise lost on the contralateral muscle, so as to quantitatively calculate the amount of exercise lost on both sides of the patient's muscles; a rehabilitation training plan is generated based on the amount of exercise lost on the affected side and the amount of exercise lost on the contralateral side and sent to the patient, so that the patient can develop rehabilitation training plans with different intensities for both sides of the body, thereby improving the patient's rehabilitation training efficiency and the balance of motor function on both sides of the patient after recovery.

[0012] In a preferred example of the present application, the method of obtaining the initial information of the contralateral muscle of the patient, the first-order treatment time and the contralateral muscle monitoring information to create a muscle movement monitoring form includes:

[0013] Obtain the patient's physical examination report and diagnosis report, extract the muscle test data and treatment plan corresponding to the muscles to be monitored, and determine the initial information of the contralateral muscles and the first-order treatment time;

[0014] Receiving monitoring data from a plurality of monitoring elements, and generating a fiber direction change stroke-time relationship curve and a circumferential direction change stroke-time relationship curve of the contralateral muscle;

[0015] Acquire the patient's heart rate monitoring data to generate an intensity-time relationship curve, and generate an exercise volume-time relationship curve based on the intensity-time relationship curve, the fiber direction change stroke-time relationship curve, and the circumferential direction change stroke-time relationship curve;

[0016] Generate a muscle movement monitoring form based on the initial information of the contralateral muscle, the first-order treatment time and exercise volume time relationship curve;

[0017] The calculation formula of the movement amount is:

[0018] dC t =(L A dA t +L B dB t )K t

[0019] Among them, t is the time mark, dA t is the differential value of the fiber direction change, dB t is the differential value of the circumferential change stroke, L A is the fiber motion coefficient, L B is the circumferential motion coefficient, dC t is the differential value of the amount of motion, K t The exercise intensity is assigned a value, which is a value determined based on the heart rate and is positively correlated with the heart rate; the monitoring element is a muscle patch with strain detection sensors for detecting deformation in two directions perpendicular to each other; the fiber direction refers to the length direction of the muscle cell fiber, and the circumferential direction refers to the circumference direction of the cross-section of the muscle cell fiber bundle.

[0020] By adopting the above technical solution, the patient's physical examination report and diagnosis report are obtained to extract the muscle detection data and treatment plan of the muscles to be monitored, and then determine the initial information of the contralateral muscles and the first-order treatment time; receive the monitoring data of a number of monitoring elements to analyze the movement of each muscle to be monitored along the fiber direction and the movement along the circumferential direction, and then generate the fiber direction change stroke time relationship curve and the circumferential change stroke time relationship curve of the contralateral muscle; obtain the patient's heart rate monitoring data to analyze the patient's muscle movement intensity, and then generate an intensity time relationship curve, combine the patient's movement intensity and the fiber direction and circumferential direction movement stroke, calculate the patient's exercise volume and further generate an exercise volume time relationship curve; based on the initial information of the contralateral muscles, the first-order treatment time and the exercise volume time relationship curve, generate a muscle movement monitoring form to record the cumulative exercise volume of the contralateral muscles during treatment.

[0021] In a preferred example of the present application: the muscle movement monitoring form and the preset muscle maintenance movement form are used to evaluate the amount of movement loss on the affected side and the amount of movement loss on the contralateral side of the patient's monitored muscle, including:

[0022] Based on the initial information of the contralateral muscles recorded in the muscle movement monitoring form, the corresponding theoretical exercise volume is matched from the preset muscle maintenance exercise volume form to determine the amount of exercise loss on the affected side;

[0023] Based on the muscle movement monitoring form, the movement amount of the contralateral muscles during the first-order treatment period is evaluated to determine the movement amount of the contralateral muscles, and the difference between the theoretical movement amount and the contralateral muscle movement amount is calculated to determine the contralateral movement loss amount;

[0024] The amount of movement loss on the affected side and the amount of movement loss on the contralateral side both include the amount of movement loss of multiple muscles.

[0025] By adopting the above technical scheme, according to the initial information of the contralateral muscles recorded in the muscle movement monitoring form, the initial conditions of the muscles to be monitored on both sides of the patient are determined, and then the theoretical amount of exercise required to maintain these muscles is matched from the preset muscle maintenance exercise form, so as to determine the amount of exercise loss of the associated muscles on the injured side of the patient, and to determine the amount of exercise loss on the affected side; based on the muscle movement monitoring form, the exercise volume of the contralateral muscles during the first-order treatment time is evaluated to determine the exercise volume of the contralateral muscles, and according to the difference between the theoretical exercise volume and the exercise volume of the contralateral muscles, the exercise loss of the contralateral muscles is calculated to obtain the amount of exercise loss on the contralateral side, so as to facilitate the subsequent formulation of a targeted rehabilitation training plan according to the amount of exercise loss on both sides of the patient.

[0026] In a preferred example of the present application: before generating a rehabilitation training program based on the amount of motion loss on the affected side and the amount of motion loss on the contralateral side and sending it to the patient, the method includes:

[0027] Obtain the patient's physical examination report, and load the patient's height, weight, and muscle test data into the skeletal muscle model to update the skeletal muscle model;

[0028] Inputting the motion data corresponding to a number of rehabilitation exercises into the skeletal muscle model, simulating the corresponding exercise volume data, and generating a type exercise volume form;

[0029] The skeletal muscle model records the recommended daily training limits for each bone and muscle; the type exercise volume table records the daily exercise volume of each muscle for each type of exercise.

[0030] By adopting the above technical solution, the patient's physical examination report is obtained so that the patient's height, weight and muscle test data can be loaded into the skeletal muscle model to simulate the skeletal muscle state in the patient's body and improve the consistency between the skeletal muscle model and the patient's physical condition; the motion data corresponding to a number of rehabilitation exercises are input into the skeletal muscle model to simulate the exercise volume data of each rehabilitation exercise, and then a type of exercise volume form is generated, so that rehabilitation training programs and rehabilitation training days can be formulated later according to the lack of exercise volume.

[0031] In a preferred example of the present application, generating a rehabilitation training program based on the amount of motion loss on the affected side and the amount of motion loss on the contralateral side and sending the program to the patient includes:

[0032] Input the amount of exercise loss on the affected side into the type exercise amount form, determine the rehabilitation training project that best matches the proportion of exercise loss of each muscle in the amount of exercise loss on the affected side through an optimization algorithm, and then determine the number of rehabilitation training days according to the rehabilitation training project;

[0033] Inputting the contralateral exercise loss, rehabilitation training items and rehabilitation training days into a type exercise amount form to formulate a contralateral training plan, wherein the contralateral training plan includes an exercise load;

[0034] Based on the total motion loss ratio of the affected side to the contralateral side, and the exercise load of the contralateral muscles, the additional load on the associated muscles is determined, and combined with the contralateral training plan, a rehabilitation training plan is generated and sent to the patient.

[0035] By adopting the above technical solution, the amount of motion loss on the affected side is input into the type exercise form, so as to determine the rehabilitation training project that best matches the proportion of the amount of motion loss of each muscle in the affected side through the optimization algorithm, and further determine the rehabilitation training project, so as to improve the scientific nature of the formulation of rehabilitation training projects and rehabilitation training days; according to the contralateral motion loss, the selected rehabilitation training project and rehabilitation training days, combined with the type exercise amount form, the exercise load of the contralateral muscles is determined, and then a contralateral training plan for the contralateral muscles is formulated; based on the ratio of the total motion loss of the affected side motion loss and the contralateral motion loss, and the exercise load set in the contralateral training plan, the additional load of the associated muscles is determined, so as to achieve the effect of applying different amounts of exercise to the muscles on both sides of the patient in the same rehabilitation training project, and generate a rehabilitation training plan in combination with the contralateral training plan and send it to the patient to guide the patient's rehabilitation training.

[0036] The second invention objective of this application is achieved by the following technical solution:

[0037] A patient rehabilitation progress tracking system, applied to any of the above patient rehabilitation progress tracking methods, comprising:

[0038] The muscle definition module to be monitored is used to obtain the patient's affected tissue information, match the associated muscles from the preset skeletal muscle model based on the affected tissue information to define the muscles to be monitored, and then determine the attachment positions of several monitoring elements;

[0039] A muscle movement monitoring form generation module is used to obtain the patient's contralateral muscle initial information, first-order treatment time and contralateral muscle monitoring information to create a muscle movement monitoring form;

[0040] The movement loss assessment module is used to assess the movement loss on the affected side and the movement loss on the contralateral side of the patient's monitored muscle based on the muscle movement monitoring form and the preset muscle maintenance movement form;

[0041] A rehabilitation training program generation module, used to generate a rehabilitation training program based on the affected-side motion loss amount and the contralateral motion loss amount and send the program to the patient end;

[0042] The first-order treatment time refers to the time from the injury of the affected tissue to the preparation for rehabilitation training; the contralateral muscle refers to the muscle tissue located on the opposite side of the affected area corresponding to the associated muscle; the muscles to be monitored include the associated muscles and the contralateral muscles; the initial information of the contralateral muscles includes the size parameters of the contralateral muscles measured in the early stage of treatment; the contralateral muscle monitoring information refers to the muscle movement parameters measured by the monitoring element attached to the contralateral muscle; the muscle maintenance exercise volume form records the theoretical exercise volume corresponding to various types of muscle tissues that maintain different parameters.

[0043] In a preferred example of the present application: the muscle movement monitoring form generation module includes:

[0044] The physical examination diagnosis and analysis submodule is used to obtain the patient's physical examination report and diagnosis report, extract the muscle test data and treatment plan corresponding to the muscles to be monitored, and determine the initial information of the contralateral muscles and the first-order treatment time;

[0045] A muscle movement stroke analysis submodule is used to receive monitoring data of a plurality of monitoring elements and generate a fiber direction change stroke-time relationship curve and a circumferential direction change stroke-time relationship curve of the contralateral muscle;

[0046] The exercise volume-time relationship analysis submodule is used to obtain the patient's heart rate monitoring data, generate an intensity-time relationship curve, and generate an exercise volume-time relationship curve based on the intensity-time relationship curve, the fiber direction change stroke-time relationship curve, and the circumferential change stroke-time relationship curve;

[0047] The muscle movement monitoring submodule is used to generate a muscle movement monitoring form based on the initial information of the contralateral muscle, the first-order treatment time and the time relationship curve of the exercise amount;

[0048] The calculation formula of the movement amount is:

[0049] dC t =(L A dA t +L B dB t )K t

[0050] Among them, t is the time mark, dA t is the differential value of the fiber direction change, dB t is the differential value of the circumferential change stroke, L A is the fiber motion coefficient, L B is the circumferential motion coefficient, dC t is the differential value of the amount of motion, Kt The exercise intensity is assigned a value, which is a value determined based on the heart rate and is positively correlated with the heart rate; the monitoring element is a muscle patch with strain detection sensors for detecting deformation in two directions perpendicular to each other; the fiber direction refers to the length direction of the muscle cell fiber, and the circumferential direction refers to the circumference direction of the cross-section of the muscle cell fiber bundle.

[0051] In a preferred example of the present application: the motion loss assessment module includes:

[0052] The affected-side movement loss assessment submodule is used to match the corresponding theoretical movement amount from the preset muscle maintenance movement amount form based on the initial information of the contralateral muscles recorded in the muscle movement monitoring form to determine the movement loss amount of the affected side;

[0053] The contralateral movement loss assessment submodule is used to assess the movement amount of the contralateral muscle during the first-order treatment time based on the muscle movement monitoring form to determine the movement amount of the contralateral muscle, and calculate the difference between the theoretical movement amount and the contralateral muscle movement amount to determine the contralateral movement loss amount;

[0054] The amount of movement loss on the affected side and the amount of movement loss on the contralateral side both include the amount of movement loss of multiple muscles.

[0055] The third invention objective of this application is achieved by the following technical solution:

[0056] A computer device comprises a memory, a processor and a computer program stored in the memory and executable on the processor, wherein the processor implements the steps of the above-mentioned patient rehabilitation progress tracking method when executing the computer program.

[0057] The fourth invention objective of this application is achieved by the following technical solution:

[0058] A computer-readable storage medium stores a computer program, which, when executed by a processor, implements the steps of the above-mentioned patient rehabilitation progress tracking method.

[0059] In summary, the present application includes at least one of the following beneficial technical effects:

[0060] 1. Obtain the patient's affected tissue information in order to determine the patient's specific injured bones and / or muscles, and then match the associated muscles related to the affected tissue from the preset skeletal muscle model to define the muscles to be monitored, so that the monitoring elements can be subsequently attached to the muscles to be monitored; obtain the patient's initial information on the contralateral muscles, the first-order treatment time, and the contralateral muscle monitoring information in order to evaluate the patient's bilateral muscle status information before the injury, and form a muscle movement monitoring form based on the first-order treatment time and the contralateral muscle monitoring information in order to learn about the movement of the patient's contralateral muscles during the injury period; based on the initial information on the contralateral muscles The patient's missing exercise on the injured side is calculated based on the muscle movement monitoring form to obtain the amount of exercise loss on the injured side; the exercise amount of the contralateral muscles during the injury period is determined based on the muscle movement monitoring form; and the contralateral exercise loss is calculated according to the difference between the affected-side exercise loss and the contralateral muscle exercise, so as to quantitatively calculate the amount of exercise loss on both sides of the patient's muscles; a rehabilitation training plan is generated based on the affected-side exercise loss and the contralateral exercise loss and sent to the patient, so that the patient can develop rehabilitation training plans with different intensities for both sides of the body, thereby improving the patient's rehabilitation training efficiency and the balance of motor function on both sides of the patient after recovery.

[0061] 2. Obtain the patient's physical examination report and diagnosis report to extract the muscle detection data and treatment plan of the muscles to be monitored, and then determine the initial information of the contralateral muscles and the first-order treatment time; receive the monitoring data of several monitoring elements to analyze the movement of each muscle to be monitored along the fiber direction and the movement along the circumferential direction, and then generate the fiber direction change stroke-time relationship curve and the circumferential change stroke-time relationship curve of the contralateral muscles; obtain the patient's heart rate monitoring data to analyze the patient's muscle movement intensity, and then generate an intensity-time relationship curve, combine the patient's movement intensity and the fiber direction and circumferential direction movement stroke, calculate the patient's exercise volume and further generate an exercise volume-time relationship curve; based on the initial information of the contralateral muscles, the first-order treatment time and the exercise volume-time relationship curve, generate a muscle movement monitoring form to record the cumulative exercise volume of the contralateral muscles during treatment.

[0062] 3. According to the initial information of the contralateral muscles recorded in the muscle movement monitoring form, determine the initial conditions of the muscles to be monitored on both sides of the patient, and then match the theoretical amount of exercise required to maintain these muscles from the preset muscle maintenance exercise form, so as to determine the amount of exercise loss of the associated muscles on the injured side of the patient, and determine the amount of exercise loss on the affected side; based on the muscle movement monitoring form, evaluate the exercise volume of the contralateral muscles during the first-order treatment time, so as to determine the exercise volume of the contralateral muscles, and calculate the amount of exercise loss of the contralateral muscles according to the difference between the theoretical exercise volume and the contralateral muscle exercise volume, so as to obtain the amount of contralateral exercise loss, so as to facilitate the subsequent formulation of rehabilitation training plans based on the amount of exercise loss on both sides of the patient. BRIEF DESCRIPTION OF THE DRAWINGS

[0063] Figure 1It is a flow chart of the patient rehabilitation progress tracking method in Example 1 of the present application.

[0064] Figure 2 It is a principle block diagram of the patient rehabilitation progress tracking system in Example 2 of the present application.

[0065] Figure 3 It is a schematic diagram of the equipment in Example 3 of the present application. DETAILED DESCRIPTION

[0066] The following is combined with Figures 1 to 3 This application is described in further detail.

[0067] Embodiment 1

[0068] Reference Figure 1 The present application discloses a method for tracking the rehabilitation progress of patients, which is mainly used to monitor the rehabilitation progress of patients with fractures and muscle injuries and provide rehabilitation training guidance, and specifically includes the following steps:

[0069] S10: Acquire the patient's affected tissue information, match the associated muscles from a preset skeletal muscle model based on the affected tissue information to define the muscles to be monitored, and then determine the locations where several monitoring elements are pasted.

[0070] In this embodiment, the affected tissue information refers to information used to record the name and location of the specific bone or muscle tissue of the patient that is sick or injured.

[0071] Specifically, the patient's affected tissue information is obtained in order to determine the patient's specific diseased or injured bones and / or muscles, and then the associated muscles related to the affected tissue are matched from a preset skeletal muscle model to define the muscles to be monitored so that the monitoring element can be subsequently attached to the muscles to be monitored; for example, when the affected tissue is the humerus, the associated muscles may include the deltoid, biceps, triceps, etc.

[0072] S20: Obtain the patient's contralateral muscle initial information, first-order treatment time, and contralateral muscle monitoring information to create a muscle movement monitoring form.

[0073] In this embodiment, the first-order treatment time refers to the time from the injury of the affected tissue to the preparation for rehabilitation training; the contralateral muscle refers to the muscle tissue corresponding to the associated muscle located on the opposite side of the affected area, for example, when the associated muscles include the left arm biceps, left arm triceps, and left shoulder deltoid muscle, the contralateral muscles are the right arm biceps, right arm triceps, and right shoulder deltoid muscle; the muscles to be monitored include the associated muscles and the contralateral muscles; the initial information of the contralateral muscles includes the size parameters of the contralateral muscles measured in the early stage of treatment, wherein the early stage of treatment refers to before the start of treatment, or after surgery, and the initial information of the contralateral muscles should be measured as soon as possible after the injury accident; the contralateral muscle monitoring information refers to the muscle movement parameters measured by the monitoring element attached to the contralateral muscle.

[0074] Specifically, the patient's initial contralateral muscle information, first-order treatment time and contralateral muscle monitoring information are obtained in order to evaluate the patient's bilateral muscle status information before injury, and a muscle movement monitoring form is formed based on the first-order treatment time and contralateral muscle monitoring information to understand the patient's contralateral muscle movement during the injury period.

[0075] Wherein, in step S20, it includes:

[0076] S21: Obtain the patient's physical examination report and diagnosis report, extract the muscle test data and treatment plan corresponding to the muscles to be monitored, and determine the initial information of the contralateral muscles and the first-order treatment time.

[0077] In this embodiment, the physical examination report includes muscle detection data, wherein the muscle detection data is specifically inspection data of parameters such as muscle size and volume, which can be specifically measured according to medical imaging methods such as ultrasound imaging, CT imaging, and magnetic resonance imaging; the diagnosis report includes a treatment plan for the patient's injury / illness, specifically including the first-order treatment time.

[0078] Specifically, the patient's physical examination report and diagnosis report are obtained to extract the muscle detection data and treatment plan of the muscles to be monitored, and then determine the initial information of the contralateral muscles and the first-order treatment time.

[0079] S22: receiving monitoring data from a plurality of monitoring elements, and generating a fiber direction change-stroke-time relationship curve and a circumferential direction change-stroke-time relationship curve of the contralateral muscle.

[0080] In this embodiment, the monitoring element is a muscle patch with strain detection sensors for detecting deformation in two directions perpendicular to each other. When the monitoring element is pasted, the strain detection sensor for another deformation detection direction is pasted along the length direction of the muscle cell fiber to detect fiber-direction deformation. Preferably, the strain detection sensor is a strain gauge and corresponding power supply, data processing circuits and equipment; the fiber direction refers to the length direction of the muscle cell fiber, and the circumferential direction refers to the circumference direction of the cross-section of the muscle cell fiber bundle; the fiber-direction change stroke refers to the cumulative value of the lengthening or shortening stroke of the muscle tissue along the fiber direction, and whether the muscle tissue is elongated or shortened will lead to an increase in the fiber-direction change stroke; the circumferential change stroke refers to the cumulative value of the expansion and contraction change stroke of the circumference of the muscle tissue cross-section.

[0081] Specifically, the monitoring data of several monitoring elements are received to analyze the movement of each muscle to be monitored along the fiber direction and along the circumferential direction, and then generate the fiber direction change stroke-time relationship curve and the circumferential change stroke-time relationship curve of the contralateral muscle.

[0082] S23: Acquire the patient's heart rate monitoring data, generate an intensity-time relationship curve, and generate an exercise volume-time relationship curve based on the intensity-time relationship curve, the fiber direction change stroke-time relationship curve, and the circumferential direction change stroke-time relationship curve.

[0083] In this embodiment, the calculation formula of the amount of exercise is:

[0084] dC t =(L A dA t +L B dB t )K t

[0085] Among them, t is the time mark, dA t is the differential value of the fiber direction change, dB t is the differential value of the circumferential change stroke, L A is the fiber motion coefficient, L B is the circumferential motion coefficient, dC t is the differential value of the amount of motion, K t The exercise intensity is assigned a value, which is a value determined based on the heart rate, and the exercise intensity value is positively correlated with the heart rate.

[0086] Specifically, the patient's heart rate monitoring data is obtained to analyze the patient's muscle exercise intensity, and then an intensity-time relationship curve is generated. The patient's exercise intensity and axial and circumferential movement range are combined to calculate the patient's exercise volume and further generate an exercise volume-time relationship curve.

[0087] S24: Generate a muscle movement monitoring form based on the initial information of the contralateral muscle, the first-order treatment time and the exercise volume time relationship curve.

[0088] Specifically, based on the initial information of the contralateral muscle, the first-order treatment time and the time relationship curve of the exercise volume, a muscle movement monitoring form is generated to record the cumulative exercise volume of the contralateral muscle during the treatment.

[0089] S30: Based on the muscle movement monitoring form and the preset muscle maintenance movement amount form, assess the affected-side movement loss and the contralateral movement loss of the patient's monitored muscle.

[0090] In this embodiment, the muscle maintenance exercise volume form records the theoretical exercise volume corresponding to various muscle tissues that maintain different parameters, wherein the muscle maintenance exercise volume form can be determined based on authoritative medical literature, or can be obtained by analyzing research experimental data on muscle mass and exercise volume of different populations.

[0091] Specifically, based on the initial information of the contralateral muscles and the muscle maintenance exercise volume form, the amount of exercise lost on the injured side of the patient is calculated to obtain the amount of exercise lost on the affected side. The amount of exercise lost on the contralateral muscles during the injury period is determined based on the muscle movement monitoring form. Based on the difference between the amount of exercise lost on the affected side and the amount of exercise lost on the contralateral muscles, the amount of exercise lost on the contralateral side is calculated to quantitatively calculate the amount of exercise lost on both sides of the patient's muscles.

[0092] Wherein, in step S30, it includes:

[0093] S31: Based on the initial information of the contralateral muscles recorded in the muscle movement monitoring form, the corresponding theoretical exercise volume is matched from the preset muscle maintenance exercise volume form to determine the amount of exercise loss on the affected side.

[0094] In this embodiment, both the affected-side movement loss amount and the contralateral-side movement loss amount include movement loss amounts of multiple muscles.

[0095] Specifically, based on the initial information of the contralateral muscles recorded in the muscle movement monitoring form, the initial conditions of the muscles to be monitored on both sides of the patient are determined, and then the theoretical amount of exercise required to maintain these muscles is matched from the preset muscle maintenance exercise form, so as to determine the amount of exercise loss of the associated muscles on the injured side of the patient.

[0096] S32: Evaluate the movement volume of the contralateral muscles during the first-order treatment time based on the muscle movement monitoring form to determine the movement volume of the contralateral muscles, and calculate the difference between the theoretical movement volume and the contralateral muscle movement volume to determine the contralateral movement loss.

[0097] Specifically, the contralateral muscle movement volume during the first-order treatment period is evaluated based on the muscle movement monitoring form, thereby determining the contralateral muscle movement volume. The contralateral muscle movement loss volume is calculated based on the difference between the theoretical movement volume and the contralateral muscle movement volume to obtain the contralateral movement loss volume, which facilitates the subsequent formulation of a targeted rehabilitation training plan based on the patient's movement loss volume on both sides.

[0098] S40: Generate a rehabilitation training program based on the affected-side motion loss amount and the contralateral-side motion loss amount and send it to the patient.

[0099] Specifically, a rehabilitation training plan is generated based on the amount of motion loss on the affected side and the amount of motion loss on the contralateral side and sent to the patient so that the patient can develop rehabilitation training plans of different intensities for both sides of the body, thereby improving the patient's rehabilitation training efficiency and the balance of motor function on both sides of the patient after recovery.

[0100] Before step S40, the method further includes:

[0101] S41: Obtain the patient's physical examination report, and load the patient's height, weight, and muscle test data into the skeletal muscle model to update the skeletal muscle model.

[0102] In this embodiment, the skeletal muscle model records the recommended daily training limits of each bone and muscle.

[0103] Specifically, the patient's physical examination report is obtained so that the patient's height, weight and muscle test data can be loaded into the skeletal muscle model to simulate the skeletal muscle state in the patient's body and improve the consistency between the skeletal muscle model and the patient's physical condition.

[0104] S42: Inputting the motion data corresponding to the plurality of rehabilitation exercises into the skeletal muscle model, simulating the corresponding exercise volume data, and generating a type exercise volume form.

[0105] In this embodiment, the motion data includes data on skeletal motion and muscular motion; the type exercise volume table records the daily exercise volume of each type of exercise on each muscle.

[0106] Specifically, the motion data corresponding to several rehabilitation exercises are input into the skeletal muscle model to simulate the exercise volume data of each rehabilitation exercise, and then a type of exercise volume form is generated, so that rehabilitation training programs and rehabilitation training days can be formulated later according to the lack of exercise volume.

[0107] Wherein, in step S40, it includes:

[0108] S43: Input the affected-side exercise loss into the type exercise amount form, determine the rehabilitation training program that best matches the proportion of each muscle exercise loss in the affected-side exercise loss through an optimization algorithm, and then determine the number of rehabilitation training days based on the rehabilitation training program.

[0109] In this embodiment, the optimization algorithm may be an existing optimization algorithm such as a neural network algorithm, a genetic algorithm, etc.; the rehabilitation training program may be one sport or a combination of multiple sports.

[0110] Specifically, the amount of exercise loss on the affected side is input into the type of exercise form, so that the rehabilitation training program that best matches the proportion of muscle loss in the affected side's exercise loss can be determined through an optimization algorithm, and the rehabilitation training program can be further determined to improve the scientific nature of the formulation of rehabilitation training programs and rehabilitation training days.

[0111] S44: Inputting the contralateral exercise loss, rehabilitation training items and rehabilitation training days into a type exercise amount form to formulate a contralateral training plan, wherein the contralateral training plan includes an exercise load.

[0112] Specifically, based on the amount of contralateral exercise loss, the selected rehabilitation training items and the number of rehabilitation training days, combined with the type of exercise volume form, the exercise load of the contralateral muscles is determined, and then a contralateral training plan for the contralateral muscles is formulated.

[0113] S45: Based on the total motion loss ratio of the affected-side motion loss to the contralateral motion loss, and the motion load of the contralateral muscles, determine the additional load for the associated muscles, combine with the contralateral training plan, generate a rehabilitation training plan and send it to the patient.

[0114] Specifically, based on the ratio of the total motion loss of the affected side to the contralateral side, and the exercise load set in the contralateral training plan, the additional load of the associated muscles is determined, so as to achieve the effect of applying different amounts of exercise to the muscles on both sides of the patient in the same rehabilitation training program. A rehabilitation training plan is generated in combination with the contralateral training plan and sent to the patient to guide the patient's rehabilitation training.

[0115] It should be understood that the serial numbers of the steps in the above embodiments do not imply a sequence of execution. The execution sequence of each process should be determined by its function and internal logic, and should not constitute any limitation on the implementation process of the embodiments of the present application.

[0116] Embodiment 2

[0117] A patient rehabilitation progress tracking system is provided, and the patient rehabilitation progress tracking system corresponds to the patient rehabilitation progress tracking method in the above embodiment.

[0118] like Figure 2 As shown, the patient rehabilitation process tracking system includes a muscle definition module to be monitored, a muscle movement monitoring form generation module, a movement loss assessment module and a rehabilitation training program generation module. The detailed description of each functional module is as follows:

[0119] The muscle definition module to be monitored is used to obtain the patient's affected tissue information, match the associated muscles from the preset skeletal muscle model based on the affected tissue information to define the muscles to be monitored, and then determine the attachment positions of several monitoring elements;

[0120] A muscle movement monitoring form generation module is used to obtain the patient's contralateral muscle initial information, first-order treatment time and contralateral muscle monitoring information to create a muscle movement monitoring form;

[0121] The movement loss assessment module is used to assess the movement loss on the affected side and the movement loss on the contralateral side of the patient's monitored muscle based on the muscle movement monitoring form and the preset muscle maintenance movement form;

[0122] A rehabilitation training program generation module is used to generate a rehabilitation training program based on the affected-side motion loss and the contralateral motion loss and send the program to the patient.

[0123] Among them, the muscle movement monitoring form generation module also includes:

[0124] The physical examination diagnosis and analysis submodule is used to obtain the patient's physical examination report and diagnosis report, extract the muscle test data and treatment plan corresponding to the muscles to be monitored, and determine the initial information of the contralateral muscles and the first-order treatment time;

[0125] A muscle movement stroke analysis submodule is used to receive monitoring data of a plurality of monitoring elements and generate a fiber direction change stroke-time relationship curve and a circumferential direction change stroke-time relationship curve of the contralateral muscle;

[0126] The exercise volume-time relationship analysis submodule is used to obtain the patient's heart rate monitoring data, generate an intensity-time relationship curve, and generate an exercise volume-time relationship curve based on the intensity-time relationship curve, the fiber direction change stroke-time relationship curve, and the circumferential change stroke-time relationship curve;

[0127] The muscle movement monitoring submodule is used to generate a muscle movement monitoring form based on the initial information of the contralateral muscle, the first-order treatment time and the time relationship curve of the exercise volume

[0128] The motion loss assessment module also includes:

[0129] The affected-side movement loss assessment submodule is used to match the corresponding theoretical movement amount from the preset muscle maintenance movement amount form based on the initial information of the contralateral muscles recorded in the muscle movement monitoring form to determine the movement loss amount of the affected side;

[0130] The contralateral movement loss assessment submodule is used to assess the movement amount of the contralateral muscles during the first-order treatment time based on the muscle movement monitoring form to determine the movement amount of the contralateral muscles, and calculate the difference between the theoretical movement amount and the contralateral muscle movement amount to determine the contralateral movement loss amount.

[0131] Among them, the rehabilitation training program generation module also includes:

[0132] The skeletal muscle model update submodule is used to obtain the patient's physical examination report and load the patient's height, weight and muscle test data into the skeletal muscle model to update the skeletal muscle model;

[0133] The type exercise volume form generation submodule is used to input the action data corresponding to a number of rehabilitation exercises into the skeletal muscle model, simulate the corresponding exercise volume data, and generate a type exercise volume form.

[0134] A rehabilitation training program days determination submodule is used to input the affected side movement loss into the type movement amount form, determine the rehabilitation training program that best matches the ratio of each muscle movement loss in the affected side movement loss through an optimization algorithm, and then determine the rehabilitation training days according to the rehabilitation training program;

[0135] A contralateral training program formulation submodule is used to input the contralateral exercise loss, rehabilitation training items and rehabilitation training days into a type exercise amount form to formulate a contralateral training program, wherein the contralateral training program includes exercise load;

[0136] The rehabilitation training program sending submodule is used to determine the additional load on the associated muscles based on the total motion loss ratio of the affected side to the contralateral side, and the exercise load of the contralateral muscles, and generate a rehabilitation training program in combination with the contralateral training program and send it to the patient.

[0137] For the specific limitations of the patient rehabilitation progress tracking system, please refer to the limitations of the patient rehabilitation progress tracking method in the above text, which will not be repeated here; the various modules in the above-mentioned patient rehabilitation progress tracking system can be implemented in whole or in part through software, hardware and their combination; the above-mentioned modules can be embedded in or independent of the processor in the computer device in the form of hardware, or can be stored in the memory of the computer device in the form of software, so that the processor can call and execute the corresponding operations of the above-mentioned modules.

[0138] Embodiment 3

[0139] A computer device, which may be a server, may have an internal structure as shown in Figure 3As shown. The computer device includes a processor, a memory, a network interface and a database connected through a system bus. Among them, the processor of the computer device is used to provide computing and control capabilities. The memory of the computer device 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 the operation of the operating system and the computer program in the non-volatile storage medium. The database of the computer device is used to store data such as affected area tissue information, skeletal muscle model, initial information of contralateral muscles, first-order treatment time, contralateral muscle monitoring information, muscle movement monitoring form, muscle maintenance movement amount form, affected side movement loss, contralateral movement loss and rehabilitation training program. The network interface of the computer device is used to communicate with an external terminal through a network connection. When the computer program is executed by the processor, a patient rehabilitation process tracking method is implemented.

[0140] In one embodiment, a computer device is provided, including a memory, a processor, and a computer program stored in the memory and executable on the processor, wherein the processor implements the following steps when executing the computer program:

[0141] S10: Acquire the patient's affected tissue information, match the associated muscles from a preset skeletal muscle model based on the affected tissue information to define the muscles to be monitored, and then determine the locations where several monitoring elements are attached;

[0142] S20: Obtain the patient's contralateral muscle initial information, first-order treatment time, and contralateral muscle monitoring information to create a muscle movement monitoring form;

[0143] S30: Based on the muscle movement monitoring form and the preset muscle maintenance movement amount form, assess the affected-side movement loss and the contralateral movement loss of the patient's monitored muscle;

[0144] S40: Generate a rehabilitation training program based on the affected-side motion loss amount and the contralateral-side motion loss amount and send it to the patient.

[0145] In one embodiment, a computer readable storage medium is provided, on which a computer program is stored, and when the computer program is executed by a processor, the following steps are implemented:

[0146] S10: Acquire the patient's affected tissue information, match the associated muscles from a preset skeletal muscle model based on the affected tissue information to define the muscles to be monitored, and then determine the locations where several monitoring elements are attached;

[0147] S20: Obtain the patient's contralateral muscle initial information, first-order treatment time, and contralateral muscle monitoring information to create a muscle movement monitoring form;

[0148] S30: Based on the muscle movement monitoring form and the preset muscle maintenance movement amount form, assess the affected-side movement loss and the contralateral movement loss of the patient's monitored muscle;

[0149] S40: Generate a rehabilitation training program based on the affected-side motion loss amount and the contralateral-side motion loss amount and send it to the patient.

[0150] Those skilled in the art can understand that all or part of the processes in the above-mentioned embodiment methods can be completed by instructing the relevant hardware through a computer program, and the computer program can be stored in a non-volatile computer-readable storage medium. When the computer program is executed, it can include the processes of the embodiments of the above-mentioned methods. Among them, any reference to memory, storage, database or other media used in the embodiments provided in the present application can include non-volatile and / or volatile memory. Non-volatile memory can include read-only memory (ROM), programmable ROM (PROM), electrically programmable ROM (EPROM), electrically erasable programmable ROM (EEPROM) or flash memory. Volatile memory can include random access memory (RAM) or external cache memory. As an illustration and not limitation, RAM is available in many forms, such as static RAM (SRAM), dynamic RAM (DRAM), synchronous DRAM (SDRAM), double data rate SDRAM (DDRSDRAM), enhanced SDRAM (ESDRAM), synchronous link (Synchlink), DRAM (SLDRAM), memory bus (Rambus) direct RAM (RDRAM), direct memory bus dynamic RAM (DRDRAM), and memory bus dynamic RAM (RDRAM).

[0151] Those skilled in the art can clearly understand that for the convenience and simplicity of description, only the division of the above-mentioned functional units and modules is used as an example. In actual applications, the above-mentioned functions can be distributed and completed by different functional units and modules as needed, that is, the internal structure of the device can be divided into different functional units or modules to complete all or part of the functions described above.

[0152] The embodiments described above are only used to illustrate the technical solutions of the present application, rather than to limit them. Although the present application has been described in detail with reference to the aforementioned embodiments, it should be understood by those skilled in the art that the technical solutions described in the aforementioned embodiments may still be modified, or some of the features thereof may be replaced by equivalents. Such modifications or replacements do not deviate the essence of the corresponding technical solutions from the spirit and scope of the technical solutions of the embodiments of the present application, and should all be included in the protection scope of the present application.

Claims

1. A method for tracking the progress of a patient's rehabilitation, characterized in that: include: Acquire the patient's affected tissue information, match the associated muscles from a preset skeletal muscle model based on the affected tissue information to define the muscles to be monitored, and then determine the locations where several monitoring elements are attached; Obtain the patient's contralateral muscle initial information, first-order treatment time, and contralateral muscle monitoring information to create a muscle movement monitoring form; Based on the muscle movement monitoring form and the preset muscle maintenance movement form, assess the patient's affected-side movement loss and contralateral movement loss of the muscles to be monitored; Generate a rehabilitation training program based on the affected-side motion loss and the contralateral motion loss and send it to the patient; The first-order treatment time refers to the time from when the patient's affected tissue is injured to when he is ready for rehabilitation training; The contralateral muscle refers to the muscle tissue located on the opposite side of the affected part corresponding to the associated muscle; the muscles to be monitored include the associated muscle and the contralateral muscle; the initial information of the contralateral muscle includes the size parameters of the contralateral muscle measured in the early stage of treatment; the monitoring information of the contralateral muscle refers to the muscle movement parameters measured by the monitoring element attached to the contralateral muscle; the muscle maintenance exercise volume table records the theoretical exercise volume corresponding to various muscle tissues maintaining different parameters; Wherein, the method of evaluating the amount of movement loss on the affected side and the amount of movement loss on the contralateral side of the patient's monitored muscle based on the muscle movement monitoring form and the preset muscle maintenance movement amount form includes: Based on the initial information of the contralateral muscles recorded in the muscle movement monitoring form, the corresponding theoretical exercise volume is matched from the preset muscle maintenance exercise volume form to determine the amount of exercise loss on the affected side; Based on the muscle movement monitoring form, the movement amount of the contralateral muscles during the first-order treatment period is evaluated to determine the movement amount of the contralateral muscles, and the difference between the theoretical movement amount and the contralateral muscle movement amount is calculated to determine the contralateral movement loss amount; The affected-side movement loss amount and the contralateral movement loss amount both include movement loss amounts of multiple muscles; Wherein, before generating a rehabilitation training program based on the amount of motion loss on the affected side and the amount of motion loss on the contralateral side and sending it to the patient, the method includes: Obtain the patient's physical examination report, and load the patient's height, weight, and muscle test data into the skeletal muscle model to update the skeletal muscle model; Inputting the motion data corresponding to a number of rehabilitation exercises into the skeletal muscle model, simulating the corresponding exercise volume data, and generating a type exercise volume form; The skeletal muscle model records the recommended daily training limits for each bone and muscle; the type exercise volume table records the daily exercise volume of each muscle for each type of exercise; The step of generating a rehabilitation training program based on the amount of motion loss on the affected side and the amount of motion loss on the contralateral side and sending the program to the patient includes: Input the amount of exercise loss on the affected side into the type exercise amount form, determine the rehabilitation training project that best matches the proportion of exercise loss of each muscle in the amount of exercise loss on the affected side through an optimization algorithm, and then determine the number of rehabilitation training days according to the rehabilitation training project; Inputting the contralateral exercise loss, rehabilitation training items and rehabilitation training days into a type exercise amount form to formulate a contralateral training plan, wherein the contralateral training plan includes an exercise load; Based on the total motion loss ratio of the affected side to the contralateral side, and the exercise load of the contralateral muscles, the additional load on the associated muscles is determined, and combined with the contralateral training plan, a rehabilitation training plan is generated and sent to the patient.

2. A method for tracking the patient's rehabilitation progress according to claim 1, characterized in that: The method of obtaining the patient's contralateral muscle initial information, first-order treatment time, and contralateral muscle monitoring information to create a muscle movement monitoring form includes: Obtain the patient's physical examination report and diagnosis report, extract the muscle test data and treatment plan corresponding to the muscles to be monitored, and determine the initial information of the contralateral muscles and the first-order treatment time; Receiving monitoring data from a plurality of monitoring elements, and generating a fiber direction change stroke-time relationship curve and a circumferential direction change stroke-time relationship curve of the contralateral muscle; Acquire the patient's heart rate monitoring data to generate an intensity-time relationship curve, and generate an exercise volume-time relationship curve based on the intensity-time relationship curve, the fiber direction change stroke-time relationship curve, and the circumferential direction change stroke-time relationship curve; Generate a muscle movement monitoring form based on the initial information of the contralateral muscle, the first-order treatment time and exercise volume time relationship curve; The calculation formula of the movement amount is: Among them, t is the time mark, is the differential value of the fiber direction change stroke, is the differential value of the circumferential change stroke, is the fiber motion coefficient, is the circumferential motion coefficient, is the differential value of the amount of motion, The exercise intensity is assigned a value, which is a value determined based on the heart rate and is positively correlated with the heart rate; the monitoring element is a muscle patch with strain detection sensors for detecting deformation in two directions perpendicular to each other; the fiber direction refers to the length direction of the muscle cell fiber, and the circumferential direction refers to the circumference direction of the cross-section of the muscle cell fiber bundle.

3. A patient rehabilitation progress tracking system, characterized in that: The method for tracking the patient's rehabilitation progress as described in any one of claims 1 to 2 comprises: The muscle definition module to be monitored is used to obtain the patient's affected tissue information, match the associated muscles from the preset skeletal muscle model based on the affected tissue information to define the muscles to be monitored, and then determine the attachment positions of several monitoring elements; A muscle movement monitoring form generation module is used to obtain the patient's contralateral muscle initial information, first-order treatment time and contralateral muscle monitoring information to create a muscle movement monitoring form; The movement loss assessment module is used to assess the movement loss on the affected side and the movement loss on the contralateral side of the patient's monitored muscle based on the muscle movement monitoring form and the preset muscle maintenance movement form; A rehabilitation training program generation module, used to generate a rehabilitation training program based on the affected-side motion loss amount and the contralateral motion loss amount and send the program to the patient end; The first-order treatment time refers to the time from the patient's injury to the time when he is ready to undergo rehabilitation training; the contralateral muscle refers to the muscle tissue located on the opposite side of the affected part corresponding to the associated muscle; the muscles to be monitored include the associated muscle and the contralateral muscle; the initial information of the contralateral muscle includes the size parameters of the contralateral muscle measured in the early stage of treatment; the contralateral muscle monitoring information refers to the muscle movement parameters measured by the monitoring element attached to the contralateral muscle; the muscle maintenance exercise volume table records the theoretical exercise volume corresponding to various muscle tissues maintaining different parameters; Wherein, the motion loss assessment module includes: The affected-side movement loss assessment submodule is used to match the corresponding theoretical movement amount from the preset muscle maintenance movement amount form based on the initial information of the contralateral muscles recorded in the muscle movement monitoring form to determine the movement loss amount of the affected side; The contralateral movement loss assessment submodule is used to assess the movement amount of the contralateral muscle during the first-order treatment time based on the muscle movement monitoring form to determine the movement amount of the contralateral muscle, and calculate the difference between the theoretical movement amount and the contralateral muscle movement amount to determine the contralateral movement loss amount; The affected-side movement loss amount and the contralateral movement loss amount both include movement loss amounts of multiple muscles; Among them, the rehabilitation training program generation module also includes: The skeletal muscle model update submodule is used to obtain the patient's physical examination report and load the patient's height, weight and muscle test data into the skeletal muscle model to update the skeletal muscle model; A type exercise volume form generation submodule is used to input the motion data corresponding to a number of rehabilitation exercises into the skeletal muscle model, simulate the corresponding exercise volume data, and generate a type exercise volume form; A rehabilitation training program days determination submodule is used to input the affected side movement loss into the type movement amount form, determine the rehabilitation training program that best matches the ratio of each muscle movement loss in the affected side movement loss through an optimization algorithm, and then determine the rehabilitation training days according to the rehabilitation training program; A contralateral training program formulation submodule is used to input the contralateral exercise loss, rehabilitation training items and rehabilitation training days into a type exercise amount form to formulate a contralateral training program, wherein the contralateral training program includes exercise load; The rehabilitation training program sending submodule is used to determine the additional load on the associated muscles based on the total motion loss ratio of the affected side to the contralateral side, and the exercise load of the contralateral muscles, and generate a rehabilitation training program in combination with the contralateral training program and send it to the patient.

4. A patient rehabilitation progress tracking system according to claim 3, characterized in that: The muscle movement monitoring form generation module includes: The physical examination diagnosis and analysis submodule is used to obtain the patient's physical examination report and diagnosis report, extract the muscle test data and treatment plan corresponding to the muscles to be monitored, and determine the initial information of the contralateral muscles and the first-order treatment time; A muscle movement stroke analysis submodule is used to receive monitoring data of a plurality of monitoring elements and generate a fiber direction change stroke-time relationship curve and a circumferential direction change stroke-time relationship curve of the contralateral muscle; The exercise volume-time relationship analysis submodule is used to obtain the patient's heart rate monitoring data, generate an intensity-time relationship curve, and generate an exercise volume-time relationship curve based on the intensity-time relationship curve, the fiber direction change stroke-time relationship curve, and the circumferential change stroke-time relationship curve; The muscle movement monitoring submodule is used to generate a muscle movement monitoring form based on the initial information of the contralateral muscle, the first-order treatment time and the time relationship curve of the exercise amount; The calculation formula of the movement amount is: Among them, t is the time mark, is the differential value of the fiber direction change stroke, is the differential value of the circumferential change stroke, is the fiber motion coefficient, is the circumferential motion coefficient, is the differential value of the amount of motion, The exercise intensity is assigned a value, which is a value determined based on the heart rate and is positively correlated with the heart rate; the monitoring element is a muscle patch with strain detection sensors for detecting deformation in two directions perpendicular to each other; the fiber direction refers to the length direction of the muscle cell fiber, and the circumferential direction refers to the circumference direction of the cross-section of the muscle cell fiber bundle.

5. A computer device comprising a memory, a processor, and a computer program stored in the memory and executable on the processor, characterized in that: When the processor executes the computer program, the steps of the patient rehabilitation progress tracking method according to any one of claims 1 to 2 are implemented.

6. A computer-readable storage medium storing a computer program, characterized in that: When the computer program is executed by a processor, the steps of the patient rehabilitation progress tracking method according to any one of claims 1 to 2 are implemented.

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