Intelligent motion safety management method and system

Abstract

To provide an intelligent motion safety management method capable of enhancing safety in using a motion member.SOLUTION: An intelligent motion safety management method which is applied to an intelligent motion safety management system, includes: a step in which a biological measurement device measures biological data of a user and transmits the biological data to a server; a step in which the server generates a biological state on the basis of the biological data; a step in which a motion member having at least one motion program is turned on; a step in which the server transmits the biological state to the motion member; and a step in which the motion member permits turning-on or turns off the at least one motion program on the basis of the received biological state.SELECTED DRAWING: Figure 4

Description

[Technical Field]

[0001] The present invention relates to safety using motion members, and more particularly to an intelligent motion safety management method and system. [Background technology]

[0002] With the development of society, lack of exercise has become a common problem for modern people. Research has shown that exercise can improve the human body's cardiopulmonary function, promote blood circulation, and reduce the risk of developing chronic diseases. Exercising with exercise equipment is not limited by weather, so it is gradually becoming a form of exercise chosen by many people. People who need physical rehabilitation also need exercise equipment for rehabilitation.

[0003] Although appropriate exercise is beneficial to the body's health, it is difficult for a person to determine for themselves whether their own biological condition, such as blood pressure, pulse rate, or blood oxygen concentration, is normal, except for the abnormalities that appear before exercise. Even if the biological condition is abnormal, using exercise equipment carelessly and engaging in exercise that exceeds the load that the body can bear can easily cause discomfort to the body, and even lead to the possibility of sudden death. Summary of the Invention [Problem to be solved by the invention]

[0004] In view of this, an object of the present invention is to provide an intelligent motion safety management method and system that can improve the safety of using motion members. [Means for solving the problem]

[0005] To achieve the above object, the present invention provides an intelligent exercise safety management method for an intelligent exercise safety management system, which includes a biometric detection device, at least one exercise member, and a server, and includes the following steps: Step A is to detect the biometric data of the user using the biometric detection device and send the biometric data to the server, and the server receives the biometric data and generates a biometric status corresponding to the user based on the biometric data, and the biometric status is one of a normal state, a borderline state, and an abnormal state. Step B turns on the at least one motion member. Step C: The server transmits the physiological condition to the at least one motion member. Step D: The at least one exercise member has at least one exercise program, and enables or disables the at least one exercise program based on the received physiological state. Furthermore, when the biological condition is the normal condition, the at least one exercise member is allowed to activate the at least one exercise program, and the operating intensity of the at least one exercise member is not limited. Furthermore, when the biological state is the boundary state, the at least one exercise member is allowed to activate the at least one exercise program, and the operating intensity of the at least one exercise member is limited. Furthermore, when the biological condition is the abnormal condition, the at least one exercise member turns off the at least one exercise program.

[0006] The intelligent exercise safety management system provided by the present invention includes a biometric detection device, a server, and at least one exercise member. The biometric detection device detects a user's biometric data and transmits the biometric data. The server receives the biometric data and generates a biometric status corresponding to the user based on the biometric data, where the biometric status is one of a normal state, a borderline state, and an abnormal state. The at least one exercise member is communicatively connected to the server and has at least one exercise program. The server transmits the biometric status to the at least one exercise member. Wherein, the at least one exercise member enables or disables the at least one exercise program according to the received physiological state. Wherein, when the biological condition is the normal state, the at least one exercise member is allowed to activate the at least one exercise program, and the working intensity of the at least one exercise member is not limited. Wherein, when the biological state is the boundary state, the at least one exercise member is allowed to activate the at least one exercise program, and the working intensity of the at least one exercise member is limited. Wherein, when the biological condition is the abnormal state, the at least one exercise member turns off the at least one exercise program. [Effects of the Invention]

[0007] The effect of the present invention is that it is possible to decide whether to allow or prohibit the use of an exercise member according to the user's biological condition, and by limiting the operating strength of the exercise member when the biological condition is in a borderline state, it is possible to effectively prevent the user from forcing themselves to exercise even when their biological condition is not good, thereby increasing the safety of using the exercise member. [Brief explanation of the drawings]

[0008] [Figure 1] 1 is an intelligent motion safety management system according to a first preferred embodiment of the present invention; [Figure 2] 1 is a schematic diagram showing a moving member according to a first preferred embodiment of the present invention; [Figure 3] 1 is a schematic diagram showing a screen for displaying an identification image on the display of a motion member according to a first preferred embodiment of the present invention; [Figure 4] 1 is a flowchart illustrating an intelligent exercise safety management method according to a first preferred embodiment of the present invention. [Figure 5] 1 is a schematic diagram showing the display of the motion member according to the first preferred embodiment of the present invention when the display is in a normal state; [Figure 6] 1 is a schematic diagram showing the display of the motion member according to the first preferred embodiment of the present invention when the display is in a boundary state; [Figure 7] 10 is a schematic diagram showing the display of the motion member according to the first preferred embodiment of the present invention when the display is in an abnormal state; FIG. [Figure 8] 1 is a schematic diagram showing a first planning screen displayed when the display of the motion member according to the first preferred embodiment of the present invention is in a normal state; FIG. [Figure 9] FIG. 10 is a schematic diagram showing a second planning screen displayed when the display of the motion member according to the first preferred embodiment of the present invention is in a boundary state; DETAILED DESCRIPTION OF THE INVENTION

[0009] In order to more clearly explain the present invention, preferred embodiments will be described in detail below with reference to the drawings. Fig. 1 shows an intelligent movement safety management system 1 that applies an intelligent movement safety management method according to a first preferred embodiment of the present invention. The intelligent movement safety management system 1 includes a biometric device 10, a server 12, and at least one movement member 16.

[0010] The biometric device 10 measures and transmits biometric data of a user. The biometric device 10 may be a wearable device or a biometric device. The wearable device may be, for example, an intelligent watch, an intelligent bracelet, or an intelligent ring. The wearable device measures and transmits biometric data of a user. The biometric data includes at least one of a plurality of measurement items, which may include, but are not limited to, blood pressure, pulse, and blood oxygen level. In this embodiment, the biometric data includes three measurement items, such as blood pressure, pulse, and blood oxygen level. The biometric device may have at least one function, such as a blood pressure monitor, a pulse monitor, or a blood oxygen level monitor. In this embodiment, the biometric device 10 is a wearable device and is communicatively connected to a behavioral device 20, which may be a wireless communication connection, such as Bluetooth or Wi-Fi. The biometric device 10 may be connected to a network 22.

[0011] The server 12 may be connected to a network 22. In this embodiment, the network 22 may be, but is not limited to, the Internet. The network 22 may also be a local network. The server 12 includes a database 14.

[0012] In this embodiment, the at least one exercise member 16 is a plurality of members, but may be at least one. The plurality of exercise members 16 may include a treadmill 16a, a fitness bike 16b, an elliptical machine 16c, a hand-foot coordination trainer 16d, etc. Each exercise member 16 is connected to a network 22 and is communicatively connected to the server 12 via the network 22. The at least one exercise member 16 has at least one exercise program.

[0013] As shown in FIG. 2 , each of the motion members 16 includes a communication module 162, a control module 164, an actuation module 166, and a display 168. The communication module 162, the actuation module 166, and the display 168 are electrically connected to the control module 164. The communication module 162 is connected to the network 22, and the control module 164 controls the actuation of the actuation module 166 and displays information on the display 168. In this embodiment, the display 168 is a touch panel display that not only displays information but also allows a user to input various commands to the control module 164. The control module 164 can control the operation of the actuation module 166, such as starting and stopping the actuation, and changing the actuation intensity (the actuation intensity may be, for example, the actuation speed or resistance). Taking the treadmill 16a as an example, the operating module 166 includes a drive motor and a treadmill belt, the control module 164 controls the drive motor to operate the treadmill belt, and the operating intensity includes the speed at which the treadmill belt operates.

[0014] The control module 164 also stores the at least one exercise program and an identification code of the exercise member 16. In this embodiment, the at least one exercise program is plural, and the control module 164 controls the operation of the actuation module 166 according to each exercise program. Specifically, the plural exercise programs include at least one first exercise program and at least one second exercise program. In this embodiment, the at least one first exercise program is plural first exercise programs, and the at least one second exercise program is plural second exercise programs. The biological state corresponding to each of the first exercise programs is the normal state, and the biological state corresponding to each of the second exercise programs is the normal state and a boundary state. That is, the plural first exercise programs are only applicable to users whose biological state is the normal state, and are not applicable to users whose biological state is a boundary state or an abnormal state. The plural second exercise programs are applicable to users whose biological state is the normal state and a boundary state, but are not applicable to users whose biological state is an abnormal state.

[0015] The control module 164 displays an identification image 24 on the display 168 (see FIG. 3), and the identification image 24 includes the identification code in its content. The identification image 24 may be, for example, a two-dimensional code.

[0016] The activity device 20 may be a device that can be connected to the network 22, such as an intelligent clock or a tablet. The activity device 20 is communicatively connected to the server 12 via the network 22. In this embodiment, the activity device 20 receives biometric data from the biometric measurement device 10 and transmits the biometric data to the server 12. That is, the biometric data transmitted by the biometric measurement device 10 is transmitted to the server 12 via the activity device 20. Alternatively, the biometric measurement device 10 is communicatively connected to the server 12 via the network 22 and transmits the biometric data to the server 12 via the biometric measurement device 10.

[0017] The movement device 20 has a photographing module 202, which photographs the identification image 24. The movement device 20 also identifies the content of the identification image 24 on the movement member 16 and obtains the identification code of the corresponding movement member 16.

[0018] The server 12 stores the user's biometric data in the database 14. In this embodiment, the server 12 incorporates a comparison program for analyzing the received biometric data and generating the biometric status. In this embodiment, the biometric status is one of the normal state, the borderline state, and the abnormal state. The analysis of the biometric status is based on standards published by the World Health Organization (WHO) or the health management organization at the fitness center's location. The normal state indicates that the human biometric data is within the reference range and the user can exercise normally. The borderline state indicates that the human biometric data is outside the reference range but not yet beyond the danger range and the user can exercise, but the exercise intensity must be reduced. The abnormal state indicates that the biometric data exceeds the danger threshold and the user cannot exercise. Taking blood pressure as an example, a systolic blood pressure of 100-139 mmHg and a diastolic blood pressure of 66-90 mmHg are considered normal. A systolic blood pressure of 140-179 mmHg and a diastolic blood pressure of 91-100 mmHg is determined to be a borderline state. A systolic blood pressure of 180 mmHg or higher and a diastolic blood pressure of 101 mmHg or higher is determined to be an abnormal state. Similarly, pulse rate and blood oxygen concentration may be classified as normal, borderline, or abnormal, but this will not be repeated here.

[0019] Based on the above configuration, the intelligent exercise safety management method according to this embodiment can be implemented. As shown in FIG. 4, the intelligent exercise safety management method includes the following steps:

[0020] In step S11, the biometric data of the user is detected by the biometric detection device 10 and transmitted to the server 12. The server 12 receives the biometric data and generates the biometric status corresponding to the user according to the biometric data.

[0021] In this embodiment, the user measures his / her biometric data in advance using the biometric measuring device 10 at a scheduled time before starting to use the exercise member 16. The scheduled time may be, for example, 30 minutes. Next, an example will be described in which the biometric data includes three measurement items, namely, blood pressure, pulse rate, and blood oxygen level. After the measurement, the biometric measuring device 10 transmits the biometric data to the activity device 20, which then transmits the biometric data to the server 12 via the network 22. In turn, the biometric measuring device 10 transmits the biometric data to the server 12 via the network 22. The server 12 executes the comparison program to generate the user's biometric status.

[0022] Step S12 turns on the at least one motion member 16.

[0023] In this embodiment, the step of turning on the at least one motion member 16 includes: displaying the identification image 24, including an identification code of the motion member 16, on a display 168 of the at least one motion member 16; and The action device 20 then recognizes the identification image 24 to obtain the identification code, and transmits the identification code to the server 12.

[0024] In this embodiment, the user selects the exercise member 16 to be used. The user operates the exercise member 16 by touching the display 168, and the control module 164 displays the identification image 24 on the display 168, as shown in FIG. 3 . The user uses the activity device 20 to photograph the identification image 24 on the display 168 with its photographing module 202, and then the activity device 20 identifies the identification image 24 and transmits the obtained identification code to the server 12. This allows the server 12 to know that the user intends to start the exercise member 16 and exercise using the exercise member 16.

[0025] In one embodiment, step S12 may display an identification image of each of the exercise members 16 on the display 168 of each of the exercise members 16. The user approaches the exercise member 16 that they wish to use and scans the corresponding identification image 24 with the action device 20 to identify it.

[0026] In one embodiment, each motion member 16 may include an electronic label reader. The electronic label reader is electrically connected to the control module 164. A user holds an electronic label (e.g., an RFID electronic label, an NFC electronic label, or an NFC-enabled motion device 20) in their hand. The electronic label has an embedded identification code, and the electronic label reader guides the electronic label to obtain the embedded identification code. The control module 164 transmits the identification code and the identification code of the motion member 16 to the server 12. If the server 12 verifies that the identification code belongs to the user, the control module 164 confirms that the user attempts to start the motion member 16.

[0027] In step S13, the server 12 transmits the biological condition to the corresponding motion member 16.

[0028] In this embodiment, the server 12 transmits the biological condition to the exercise member 16 based on the identification code. In addition to transmitting the user's biological condition to the corresponding exercise member 16, the server 12 also transmits the user's biological data to the exercise member 16. Upon receiving the biological condition and the biological data, the communication module 162 of the exercise member 16 transmits them to the control module 164.

[0029] Step S14 allows the exercise member 16 to turn on or off at least one of the exercise programs based on the received biological condition. Wherein, step S14a allows the exercise member 16 to turn on at least one of the exercise programs when the biological condition is the normal state, and does not limit the operating intensity of the exercise member 16. In this embodiment, the exercise member 16 allows the plurality of first exercise programs and the plurality of second exercise programs to be turned on, and does not limit the operating intensity when the exercise member 16 executes each of the first exercise programs or each of the second exercise programs.

[0030] In step S14b, when the biological state is the boundary state, the exercise member 16 is allowed to turn on at least one of the exercise programs and limits the operating intensity of the exercise member 16. In this embodiment, the exercise member 16 turns off the plurality of first exercise programs, allows the plurality of second exercise programs to be turned on, and limits the operating intensity when the exercise member 16 executes each of the second exercise programs.

[0031] In step S14c, when the biological condition is the abnormal state, the exercise member 16 turns off at least one of the exercise programs. In this embodiment, the exercise member 16 turns off the plurality of first exercise programs and the plurality of second exercise programs.

[0032] In this embodiment, step S14 displays at least one exercise option button image 26 on the display 168 of the exercise member 16, where the at least one exercise option button image 26 corresponds to at least one of the exercise programs. The at least one exercise option button image 26 includes at least one first exercise option button image 26a and at least one second exercise option button image 26b, where the at least one first exercise option button image 26a corresponds to the at least one first exercise program and the at least one second exercise option button image 26b corresponds to the at least one second exercise program. More specifically, as shown in Figures 5 to 7, the control module 164 of the exercise member 16 displays a plurality of the first exercise option button images 26a and a plurality of the second exercise option button images 26a on the display 168 to allow a user to select an exercise option button image 26 to be used, where each first exercise option button image 26a and each second exercise option button image 26b corresponds to a first exercise program and a second exercise program, respectively. The control module 164 may display the biological condition on the display 168, or may display the biological data on the display 168. Referring to Fig. 5, when the biological condition is normal (i.e., all of the measurement items are normal), the control module 164 displays the plurality of first exercise option button images 26a and the plurality of second exercise option button images 26b on the display 168 in a selectable form, allowing the user to make a selection.

[0033] 6, when the biological condition is in a borderline state (i.e., any of the measurement items is in a borderline state), the control module 164 displays each of the first exercise option button images 26a on the display 168 in an unselectable form, prohibiting the user from selecting any of the first exercise option button images 26a. This turns off each of the first exercise programs. Also, the control module 164 displays the plurality of second exercise option button images 26b on the display 168 in a selectable form, allowing the user to select one. This still allows the corresponding second exercise program to be turned on.

[0034] 7, when the biological condition is the abnormal state (i.e., when any of the measurement items is in the abnormal state), the control module 164 displays the exercise option button images 26 in an unselectable form on the display 168, prohibiting the user from selecting either the first exercise option button image 26a or the second exercise option button image 26b. This turns off the first exercise program and the second exercise program, preventing the user from feeling any discomfort in the body during the exercise process.

[0035] 5, the user selects one of the exercise option button images 26 to turn on the corresponding exercise program. The control module 164 turns on the exercise program corresponding to the exercise option button image 26. The control module 164 controls the operating module 166 according to the first or second exercise program and does not limit the operating intensity of the operating module 166. That is, the user can adjust the exercise intensity by themselves.

[0036] Referring to FIG. 8 , after the user selects the first exercise option button image 26a or the second exercise option button image 26b and activates the corresponding first or second exercise program, a first planning screen 28 is displayed on the display 168. The first planning screen 28 has a first time coordinate axis 282 and a first exercise intensity coordinate axis 284. The first time coordinate axis 282 is labeled "Time" and the first exercise intensity coordinate axis 284 is labeled "Exercise Intensity." The first planning screen 28 allows the user to draw a first trajectory 30 along the first time coordinate axis 282 and the first exercise intensity coordinate axis 284 in the form of a touch with a finger. The control module 164 of the exercise member 16 sets multiple first exercise intensities 34 for multiple first time periods 32 according to the first trajectory 30. The control module 164 displays the first exercise intensities 34 for the multiple first time periods 32 as a long bar on the first planning screen 28. The user can individually adjust the first exercise intensity 34 for each first time period 32. When the user presses the start button image 36, the control module 164 controls the operating module 166 according to the plurality of first exercise intensities 34 in the plurality of first time periods 32, and the exercise member 16 operates according to the plurality of first exercise intensities 34 in the plurality of first time periods 32. This allows the user to freely plan the exercise intensity.

[0037] 6, when the user's biological condition is in a boundary state, the user selects the second exercise option button image 26b to activate the corresponding exercise program. The control module 164 activates the second exercise program corresponding to the second exercise option button image 26b. The control module 164 controls the operating module 166 according to the second exercise program and limits the operating intensity of the operating module 166. That is, the user can adjust the exercise intensity according to the limited exercise intensity.

[0038] 9 , after the user selects the second exercise option button image 26b to activate an exercise program, a second planning screen 38 is displayed on the display 168. The second planning screen 38 has a second time coordinate axis 382 and a second exercise intensity coordinate axis 384. The second time coordinate axis 382 is labeled “Time,” and the second exercise intensity coordinate axis 384 is labeled “Exercise Intensity.” The second planning screen 38 allows the user to draw a second trajectory 40 along the second time coordinate axis 382 and the second exercise intensity coordinate axis 384 in the form of a touch. The control module 164 of the exercise member 16 sets multiple second exercise intensities 44 for multiple second time periods 42 according to the second trajectory 40, and limits the multiple second exercise intensities 44 to not exceed a predetermined intensity 46. The control module 164 displays the second exercise intensities 44 for the multiple second time periods 42 as a long strip on the second planning screen 38, and ensures that the predetermined intensity 46 does not exceed half of the maximum intensity. If the second trajectory 40 exceeds the predetermined intensity 46 on the second exercise intensity coordinate axis 384 during any of the second time periods 42, the control module 164 limits the second exercise intensity 44 to the predetermined intensity 46. The user can individually adjust the second exercise intensity 44 for each of the second time periods 42, but can only adjust the second exercise intensity 44 up to the predetermined intensity 46. When the user presses the start button image 36, the control module 164 controls the operating module 166 according to the plurality of second exercise intensities 44 for the plurality of second time periods 42, and the exercise member 16 operates according to the plurality of second exercise intensities 44 for the plurality of second time periods 42. This achieves the purpose of allowing the user to freely plan exercise intensity without exceeding the predetermined intensity 46. The user can use the exercise member 16 to perform appropriate exercise and avoid exercising at a high intensity, which could cause physical discomfort.

[0039] For example, in the case of the treadmill 16a, the first exercise intensity 34, the second exercise intensity 44, and the predetermined intensity 46 may be, for example, the operating speed of the treadmill belt. For other exercise members, the first exercise intensity 34, the second exercise intensity 44, or the predetermined intensity 46 may be, for example, a resistance force.

[0040] After the user finishes exercising, the control module 164 of the exercise member 16 transmits the exercise information of the user during the exercise process to the server 12 via the communication module 162. The server 12 stores the exercise information of the user in the database 14 for subsequent analysis.

[0041] In a second preferred embodiment of the present invention, step S11 includes the server 12 generating a recommended exercise time for that day, for example, 30 minutes, when the server 12 determines that the user's biometric data is in a boundary state. Furthermore, step S13 includes the server 12 transmitting the recommended exercise time to the exercise member 16 selected by the user. Next, in step S14b of step S14, in addition to limiting the exercise intensity of the exercise member 16, the control module 164 of the exercise member 16 also limits the exercise time of the exercise member 16 so that it does not exceed the recommended exercise time. That is, when the control module 164 determines that the exercise time has reached the recommended exercise time, it controls the operating module 166 to stop operating. Preferably, the control module 164 controls the operating module 166 to gradually slow down the operating speed from an operating state until it stops operating, to avoid injury to the user caused by a sudden stop of operation.

[0042] By limiting the operating time so that it does not exceed the available exercise time, it is possible to prevent a user in a borderline state from experiencing physical discomfort due to exercising for too long.

[0043] In a third preferred embodiment of the present invention, based on the second embodiment, in step S14b of step S14, if the exercise member 16 determines that the user has left the exercise member 16, the exercise member 16 transmits the operating time to the server 12. The server 12 subtracts the operating time from the available exercise time to obtain the remaining available exercise time.

[0044] For example, the exercise member 16 is equipped with a human sensor, and the control module 164 is electrically connected to the human sensor. When the human sensor detects that no one is using the exercise member 16, the control module 164 determines that the person has left the exercise member 16 and transmits the operating time to the server 12. For example, if the operating time is 10 minutes, the server 12 calculates that the remaining available exercise time is 20 minutes, which means that the user can exercise for only 20 minutes on that day.

[0045] Next, the user may select and use the same exercise member 16 or another exercise member 16, and then execute steps S12 to S14. Furthermore, in step S12, the same exercise member 16 or another exercise member 16 may be turned on. Furthermore, in step S13, the server 12 transmits the biological condition and the remaining exercise time, or transmits the biological data to the corresponding exercise member 16. Furthermore, in step S14b, when the biological condition is in the boundary state and the remaining exercise time is greater than zero, the exercise member 16 limits the exercise intensity to prevent the exercise time from exceeding the remaining exercise time. Among them, in step S14b, if the remaining exercise time is zero, it means that the user's previous use of the exercise member 16 will be limited to the exercise time of the day, and the exercise member 16 will turn off the exercise program, that is, the control module 164 will display each of the exercise option button images 26 on the display 168 in an unselectable form, prohibiting the user from selecting any of the exercise option button images 26.

[0046] The above description is merely a preferred embodiment of the present invention, and any equivalent replacements obtained by applying the patent scope together with the specification of the present invention should be included in the patent scope of the present invention. [Explanation of symbols]

[0047] 1. Intelligent Motion Safety Management System 10. Biopsy equipment 12 Servers 14 Database 16. Moving parts 16a Treadmill 16b fitness bike 16c elliptical machine 16d Hand-foot Coordination Trainer 162 Communication Module 164 Control Module 166 Operation Module 168 displays 20 Behavioral devices 202 Photography Module 22 Network 24 Identification Image 26 Exercise Option Button Image 26a First exercise option button image 26b Second movement option button image 28 First Planning Screen 282 First time coordinate axis 284 First exercise intensity coordinate axis 30 First trajectory 32 First Time Zone 34 First exercise intensity 36 Start button image 38 Second Planning Screen 382 Second time coordinate axis 384 Second motion intensity coordinate axis 40 Second trajectory 42 Second Time Zone 44 Second exercise intensity 46 Planned Strength Steps S11 to S14, S14a to S14c

Claims

1. An intelligent movement safety management method applied to an intelligent movement safety management system including a biometric device, at least one movement member, and a server, Step A: the biometric testing device tests the biometric data of the user and transmits the biometric data to the server; the server receives the biometric data and generates a biometric status corresponding to the user based on the biometric data; and the biometric status is one of a normal state, a borderline state, and an abnormal state. Step B: turning on the at least one motion member; a step C in which the server transmits the physiological condition to the at least one motion member; The at least one exercise member has at least one exercise program, and step D includes enabling or disabling the at least one exercise program based on the received physiological condition; When the biological condition is the normal state, the at least one exercise member is allowed to turn on the at least one exercise program, and the working intensity of the at least one exercise member is not limited; When the biological state is the boundary state, the at least one exercise member is allowed to turn on the at least one exercise program and the operating intensity of the at least one exercise member is limited; The intelligent exercise safety management method is characterized in that, when the biological condition is the abnormal state, the at least one exercise member turns off the at least one exercise program.

2. In step D, the at least one exercise program is plural in number, and includes at least one first exercise program and at least one second exercise program, the at least one first exercise program corresponds to the normal state, and the at least one second exercise program corresponds to the normal state and the boundary state; When the biological condition is the normal state, the at least one exercise member is allowed to turn on the at least one first exercise program and the at least one second exercise program, and the at least one exercise member does not limit the working intensity when executing the at least one first exercise program or the at least one second exercise program; When the biological state is the boundary state, the at least one exercise member prohibits the at least one first exercise program from being activated, and allows the at least one second exercise program to be activated, and limits the operating intensity when the at least one exercise member executes the at least one second exercise program; The intelligent exercise safety management method of claim 1, characterized in that when the biological condition is the abnormal state, the at least one motion member turns off the at least one first motion program and the at least one second motion program.

3. Step D: displaying at least one first motion option button image and at least one second motion option button image on the display of the at least one motion member, the at least one first motion option button image corresponding to the at least one first motion program, and the at least one second motion option button image corresponding to the at least one second motion program; When the biological condition is the normal condition, displaying the at least one first exercise option button image and the at least one second exercise option button image on the display in a selectable form, and the at least one first exercise option button image or the at least one second exercise option button image is for a user to select to turn on the at least one first exercise program or the at least one second exercise program; When the biological state is the boundary state, display the at least one first exercise option button image on the display in an unselectable form, and display the at least one second exercise option button image on the display in a selectable form, and the at least one second exercise option button image is for a user to select to turn on the at least one second exercise program; The intelligent exercise safety management method of claim 2, characterized in that when the biological condition is the abnormal state, the at least one first exercise option button image and the at least one second exercise option button image are displayed on the display in an unselectable form.

4. Step B includes displaying an identification image including an identification code of the at least one motion member on a display of the at least one motion member, and using a motion device to identify the identification image and obtain the identification code, and transmitting the identification code to the server; 2. The intelligent movement safety management method according to claim 1, wherein in step C, the server transmits the biological condition to the at least one movement member according to the identification code.

5. the display of the at least one motion member is a touch panel display; 2. The intelligent exercise safety management method of claim 1, wherein in step D, when the biological condition is the normal state and the user selects to turn on the at least one exercise program, a first planning screen having a first time coordinate axis and a first exercise intensity coordinate axis is displayed on the touch panel display, and the first planning screen is used by the user to draw a first trajectory along the first time coordinate axis and the first exercise intensity coordinate axis in the form of touch, and to set multiple first exercise intensities for multiple first time periods according to the first trajectory, and the at least one exercise member operates according to the multiple first exercise intensities for the multiple first time periods.

6. 6. The intelligent exercise safety management method of claim 5, wherein in step D, when the biological state is the boundary state and the user selects to turn on the at least one exercise program, a second planning screen having a second time coordinate axis and a second exercise intensity coordinate axis is displayed on the touch panel display, and the second planning screen allows the user to draw a second trajectory along the second time coordinate axis and the second exercise intensity coordinate axis in the form of a touch, and to set a plurality of second exercise intensities for a plurality of second time periods along the second trajectory, and to limit the plurality of second exercise intensities so as not to exceed a predetermined intensity, so that the at least one exercise member operates according to the plurality of second exercise intensities for the plurality of second time periods.

7. In step A, when the biological state is the boundary state, the server generates an available exercise time; Step C includes the server transmitting the available exercise time to the at least one exercise member; The intelligent exercise safety management method of claim 1, characterized in that in step D, when the biological state is the boundary state, the at least one exercise member further limits the operating time of the at least one exercise member so that it does not exceed the exerciseable time.

8. In step D, when the biological state is the boundary state, if the at least one exercise member determines that the user has left the exercise member, the at least one exercise member transmits the operating time to the server, and the server subtracts the operating time from the available exercise time to obtain the remaining available exercise time; After step D, turning on the at least one motion member; The server transmits the biological condition and the remaining exercise time to the at least one exercise member; and The intelligent exercise safety management method of claim 7, further comprising limiting the operating intensity of the at least one exercise member and limiting the operating time so as not to exceed the remaining exercise time when the biological state is the boundary state.

9. 9. The intelligent exercise safety management method of claim 8, wherein after step D, when the biological state is in the boundary state and the remaining exercise time is zero, the at least one exercise member turns off the at least one exercise program.

10. 2. The intelligent exercise safety management method according to claim 1, wherein step D includes: transmitting exercise information of the user during exercise by the at least one exercise member to the server.

11. a biometric detection device that detects biometric data of a user and transmits the biometric data; a server that receives the biometric data and generates a biometric status corresponding to the user based on the biometric data, the biometric status being one of a normal status, a borderline status, and an abnormal status; at least one exercise member communicatively connected to the server and having at least one exercise program; the server transmits the physiological condition to the at least one motion member; The at least one exercise member enables or disables the at least one exercise program based on the received physiological condition; When the biological condition is the normal state, the at least one exercise member is allowed to turn on the at least one exercise program, and the working intensity of the at least one exercise member is not limited; When the biological state is the boundary state, the at least one exercise member is allowed to activate the at least one exercise program and the operating intensity of the at least one exercise member is limited; The intelligent exercise safety management system is characterized in that, when the biological condition is the abnormal state, the at least one exercise member turns off the at least one exercise program.

12. The at least one exercise program is plural in number, and includes at least one first exercise program and at least one second exercise program, the at least one first exercise program corresponds to the normal state, and the at least one second exercise program corresponds to the normal state and the boundary state; When the biological condition is the normal state, the at least one exercise member is allowed to turn on the at least one first exercise program and the at least one second exercise program, and the at least one exercise member does not limit the working intensity when executing the at least one first exercise program or the at least one second exercise program; When the biological state is the boundary state, the at least one exercise member is prohibited from turning on the at least one first exercise program, is allowed to turn on the at least one second exercise program, and limits the operating intensity when the at least one exercise member executes the at least one second exercise program; The intelligent motion safety management system of claim 11, wherein when the biological condition is the abnormal state, the at least one motion member turns off the at least one first motion program and the at least one second motion program.

13. the display of the at least one motion member displays at least one first motion option button image and at least one second motion option button image, the at least one first motion option button image corresponding to the at least one first motion program, and the at least one second motion option button image corresponding to the at least one second motion program; When the biological condition is the normal condition, the at least one first exercise option button image and the at least one second exercise option button image are displayed on the display in a selectable form, and the at least one first exercise option button image or the at least one second exercise option button image is for a user to select to turn on the at least one first exercise program or the at least one second exercise program; When the biological state is the boundary state, the at least one first exercise option button image is displayed on the display in an unselectable form, and the at least one second exercise option button image is displayed on the display in a selectable form, and the at least one second exercise option button image is for a user to select to turn on the at least one second exercise program; 13. The intelligent movement safety management system of claim 12, wherein when the biological condition is the abnormal state, the at least one first movement option button image and the at least one second movement option button image are displayed on the display in an unselectable form.

14. an identification image including an identification code of the at least one motion member is displayed on the display of the at least one motion member; The behavioral device identifies the identification image to obtain the identification code, and transmits the identification code to a server; The intelligent motion safety management system according to claim 11, wherein the server transmits the biological condition to the at least one motion member based on the identification code.

15. the display of the at least one motion member is a touch panel display; 14. The intelligent exercise safety management system of claim 13, wherein when the biological condition is the normal state and the user selects to turn on the at least one exercise program, a first planning screen having a first time coordinate axis and a first exercise intensity coordinate axis is displayed on the touch panel display, and the first planning screen allows the user to draw a first trajectory along the first time coordinate axis and the first exercise intensity coordinate axis in the form of a touch, and set multiple first exercise intensities for multiple first time periods according to the first trajectory, so that the at least one exercise member operates according to the multiple first exercise intensities for the multiple first time periods.

16. 16. The intelligent exercise safety management system of claim 15, wherein when the biological condition is in the boundary state and the user selects to turn on the at least one exercise program, a second planning screen having a second time coordinate axis and a second exercise intensity coordinate axis is displayed on the touch panel display, the second planning screen allows the user to draw a second trajectory along the second time coordinate axis and the second exercise intensity coordinate axis in the form of a touch, set a plurality of second exercise intensities for a plurality of second time periods according to the second trajectory, limit the plurality of second exercise intensities so that they do not exceed predetermined intensities, and operate the at least one exercise member according to the plurality of second exercise intensities for the plurality of second time periods.

17. When the biological state is the boundary state, the server generates a time period during which exercise is possible and transmits the time period to the at least one exercise member; The intelligent movement safety management system of claim 11, wherein when the biological state is the boundary state, the at least one movement member further limits the operating time of the at least one movement member so that it does not exceed the available movement time.

18. When the biological condition is the boundary state, the at least one exercise member transmits the operating time to the server when it determines that the user has left the exercise member; the server subtracts the working time from the available exercise time to obtain the remaining available exercise time; the server transmits the biological condition and the remaining exercise time to the at least one exercise member; 18. The intelligent exercise safety management system of claim 17, wherein when the biological condition is the boundary state, the at least one exercise member limits the exercise intensity so that the exercise time does not exceed the remaining exercise time.

19. 19. The intelligent exercise safety management system of claim 18, wherein the at least one exercise member turns off the at least one exercise program when the biological state is in the boundary state and the remaining exercise time is zero.

20. The intelligent exercise safety management system according to claim 11, wherein the at least one exercise member transmits exercise information during the user's exercise to the server.

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