Sports equipment detection system with motion equivalent calculation

Abstract

A sports equipment detection system with motion equivalent calculation, the sports equipment detection system is installed on preset sports equipment and is provided with a detection device interface, said detection device interface has a built-in computing unit, the computing unit is equipped with motion coefficient data corresponding to the sports equipment installed, and uses a signaling device to connect to the network and sensing elements to read the number of movements, resistance and other information during the operator's exercise, and calculate the exercise results, the training module at least runs an exercise information option and an exercise prescription option, wherein the detection device interface is built with a metabolic equivalent calculation unit, and the metabolic equivalent calculation unit detects and calculates the estimated maximum intake Oxygen volume, calculation of metabolic equivalents per minute, estimated maximum oxygen uptake of athletes and caloric consumption per minute.

Description

[Technical Field]

[0001] This invention relates to a sports equipment detection system that calculates motion equivalent. It is equipped with a detection device interface, which has a built-in motion equivalent calculation unit that corresponds to the motion coefficient data of the installed sports equipment. It is also connected to a cloud network and sensors to read the exercise results of the operator. Through the design of running a training module and a test module, and reading the motion data calculation information records through a history record interface, the operator has a more efficient sports equipment detection system that calculates motion equivalent. [Previous Technology]

[0002] The Japanese Invention Patent No. I727737, "Method for Circular Operation of Exercise Equipment and Its Application," mainly discloses a method for circular operation of exercise equipment. The main function of this method is to enable the operator to achieve effective exercise intensity through circular exercise training. The method mainly includes the following steps: 1. An assessment step involves computer-based information statistical assessment, including status assessment, question-and-answer assessment, and physical fitness assessment; 2. A testing step, based on the operator's exercise limit test after physical fitness assessment, uses a non-invasive physiological monitoring system. This monitoring system consists of a continuous cardiac output monitoring system and a near-infrared and far-infrared spectral system, respectively monitoring the operator's cardiac hemodynamics. In addition to assessing the oxygenation and perfusion of brain tissue and skeletal muscle, the exercise limit test first involves having the subject rest for half an hour, then wearing a mask with a continuous cardiac output monitoring system, an exercise blood pressure monitor, and a finger oxygen saturation meter. During the exercise test, heart rate, blood pressure, and blood oxygen are monitored throughout. Near-infrared and far-infrared spectroscopy detectors are placed on the subject's prefrontal cortex and lateral femoral muscles to detect the distribution of oxygen and deoxyhemoglobin in the tissues, and to observe changes in local tissue blood flow and oxygen uptake during exercise, until the subject reaches their physical limit and is exhausted. The third step involves calculating the exercise limit obtained from the test, performing algorithmic conversions of the preset exercise metabolic equivalent, the power and load of each exercise equipment, and obtaining effective and accurate exercise prescription data.

[0003] Although the previous patent has a motion module that allows the operator to perform efficient exercises for various muscle groups, it lacks a hardware and software system that is easy for the operator to use to run the circular motion. There is still a need to further integrate with the current cloud-based motion market and provide a more practical motion device through the integration of cloud technology and electronic detection device interfaces. [Summary of the Invention]

[0004] This invention relates to a sports equipment detection system for calculating motion equivalents. Installed on pre-set sports equipment, the system includes a detection device interface. This interface has a built-in computing unit that processes motion coefficient data for the corresponding sports equipment. A signal device connects to a cloud network, and sensors read information such as the number of repetitions and resistance during the user's exercise, calculating the exercise results. The detection device interface runs a training module. A key feature of this invention is that the training module offers at least the following options: a sports information option and a sports prescription option. The sports information option provides a signal connection element connection setting option, and the sports prescription option allows the user to set the motion parameters of the sports equipment according to their needs. Through these motion parameter settings, the detection device... The built-in calculation unit in the interface calculates the predetermined amount and method of exercise; an exercise prescription option allows the operator to set target values ​​for the warm-up, exercise, and cool-down phases of a preset exercise mode. This exercise prescription option interface includes: an exercise selection for choosing different exercise modes; and a target value setting that provides target values ​​for the warm-up, exercise, and cool-down phases, including setting target values ​​for exercise time and wattage for each phase. The detection device interface includes a built-in metabolic equivalent calculation unit. This unit detects and calculates the following data and displays the calculated data on the control screen for the operator to read: Estimated maximum oxygen uptake * (%HRR) / test time / 3.5 = METs / sec, where metabolic equivalent (MET, metabolic acid) is the metabolic rate of oxygen uptake. The term "equivalent" can be used to describe exercise intensity. 1 MET is defined as 1 kcal / kg / hour (1 kcal consumed per kilogram of body weight per hour). MET is used to express the relative energy metabolism level of various activities. It is also another way to express exercise intensity besides heart rate and perceived exercise intensity. 1 MET is equivalent to the energy consumed when sitting down to rest. Considering that individual differences in energy consumption at rest are often ignored, 1 MET is equivalent to 1 O2 (3.5 mL / Kg / min).1 MET (Kcal / min) = 3.5 mL / Kg / min; When exercise begins (warm-up phase), the change in heart rate per second from resting heart rate is calculated as: VO2 max * ((heart rate - resting heart rate) / (maximum heart rate - resting heart rate) / test time / 3.5); Calculate the metabolic equivalent per minute: estimated VO2 max * ((heart rate - resting heart rate) / (maximum heart rate - resting heart rate) / test time / 3.5) = METs / sec (metabolic equivalent per second), and sum the average METs obtained over the test time to get METs per minute; Calories per minute (Kcal): METs per second * 3.5 * body weight / 200 (mL / kg / min = L / min × 1000 ÷ body weight in kg → L / min = [mL / kg / min] ÷ 1000 × body weight in kg), calculate the average calorie consumption over the test time, and the average test time is in minutes, then the calories per minute (kcal / min).

[0005] A secondary feature of the present invention is that the test module (S3) runs at least one start test for exercise testing, wherein after the start test, a test detection interface can be selected, and the test detection interface displays a window for measuring resting heart rate. Before the start of the exercise test, the operator is prompted to remain still for a preset time and the remaining time is displayed. After the preset time, the resting heart rate is measured. Before the start of the exercise test, the operator is prompted that the start test displays a corresponding test heart rate bar and a test heart rate interval bar. The test heart rate bar and the test heart rate interval bar are transmitted through the detection device. The interface inputs the signal from the monitoring device into the built-in program to calculate the result. If the tested heart rate exceeds the danger level of 85% for more than 30 seconds, it will be forced into a cool-down phase. The start test displays a test information interface and performs the exercise test. The test information interface displays a test speed bar. During the start of the exercise test, the target speed cannot be manually adjusted. If the speed is not maintained within the preset time, the exercise test will be forced into a cool-down phase. The test value is set to calculate the calorie consumption during exercise: (total metabolic equivalent × 3.5 × body mass). (weight) / 200 (ml / kg / min = L / min × 1000 ÷ weight kg → L / min = [ml / kg / min] ÷ 1000 × weight kg); The warm-up and cool-down phases can be adjusted freely, the target wattage can be adjusted freely, and the wattage value increases every minute during the exercise test, providing the operator with numerical exercise resting heart rate; The test information interface displays: a test wattage column and a corresponding test resistance value column, as well as a test chart that displays the current data in real time. The target wattage in the test wattage column cannot be adjusted manually during the test, and it displays reminder lines for the start and end of the exercise test, as well as the selected perceived exercise intensity level per minute during the test; a test metabolic equivalent column. The device includes a test data section displaying information such as test distance and calories burned; a test mode section allowing the user to select the desired exercise mode when there are multiple exercise testing modes available on the equipment; and a test perception interface displayed after the test is started and completed. This interface provides a self-assessment section for perceived exercise intensity and a self-assessment intensity comparison table. The self-assessment section provides the user's perceived wattage, which increases by one watt per minute after the start of the test. Users select the appropriate exercise intensity based on their perceived intensity and the information in the self-assessment intensity comparison table. [Simplified Explanation of the Diagram]

[0025] Figure 1: A diagram showing the allocation of a sports equipment detection system for calculating motion equivalent according to a preferred embodiment of the present invention; Figure 2: A diagram showing the operation steps of a sports equipment detection system for calculating motion equivalent according to a preferred embodiment of the present invention; Figure 3: A diagram showing the login steps of the detection device interface according to a preferred embodiment of the present invention; Figure 4: A functional tree diagram of the detection device interface according to a preferred embodiment of the present invention; Figure 5: A diagram showing the login module of the detection device interface according to a preferred embodiment of the present invention; Figure 6: A diagram showing the detection device interface after login according to a preferred embodiment of the present invention; Figure 7: A diagram showing the detection device interface after login according to a preferred embodiment of the present invention; Figure 8: A diagram showing the settings interface after login according to a preferred embodiment of the present invention; Figure 9: A diagram showing the settings interface after login according to a preferred embodiment of the present invention. Figure 10: A simplified view of the exercise information interface after login according to a preferred embodiment of the present invention; Figure 11: A view of the exercise prescription interface after login according to a preferred embodiment of the present invention; Figure 12: A view of the test setting interface after login according to a preferred embodiment of the present invention; Figure 13: A view of the resting heart rate of the test detection interface after login according to a preferred embodiment of the present invention; Figure 14: A view of the test information interface after login according to a preferred embodiment of the present invention; Figure 15: A view of the test perception interface after login according to a preferred embodiment of the present invention; Figure 16: A view of the test history record interface according to a preferred embodiment of the present invention; Figure 17: A view of the exercise history record interface according to a preferred embodiment of the present invention.

Implementation Method

[0006] In order to enable various sports devices to display sports information more accurately during exercise and to provide convenient operation for the operator, the present invention provides a sports equipment detection system for calculating sports equivalent, which provides the operator of sports equipment with a more accurate and convenient understanding of the exercise effect.

[0007] Please refer to Figure 1 for the distribution diagram of the exercise equipment detection system for calculating exercise equivalents according to a preferred embodiment of the present invention. This preferred embodiment uses exercise equipment with eccentric exercise training function. On the exercise equipment 20 with eccentric exercise training function used in this preferred embodiment, a detection device interface 10 is installed. This detection device interface 10 is a control screen with a built-in computing unit. This computing unit stores the motion coefficient data of the corresponding exercise equipment, such as exercise resistance or information on the muscle groups trained during exercise, and stores it as a signal. The system connects to a cloud network C, a sensor 21, and a monitoring device 30 to read the heart rate information signal of the operator U during movement. The monitoring device 30 can use wireless or wired signals such as WiFi or Bluetooth, which are all acceptable. The detection device interface 10 reads the signal and processes it through its built-in program via various processing units. The results are then displayed on the control screen via the detection device interface 10. The monitoring device 30 can be a continuous output monitoring system such as a heart rate monitoring strap. Along with near-infrared and far-infrared spectral systems, the system detects the operator's cardiac hemodynamics, as well as the oxygenation and perfusion of brain tissue and skeletal muscle. This allows the operator (U) to conveniently adjust the exercise intensity and monitor the effects of exercise on the body before, during, and after the selected exercise prescription, all based on real-time information. This information is recorded in the cloud server (C) for future historical data analysis, gradually enabling the body to achieve more effective exercise results. The sensor 21 refers to a device installed in the exercise equipment that can detect the number of repetitions, such as those with eccentric exercise training functions. The device incorporates sensors such as those for pedaling frequency on exercise equipment or rotation speed on a treadmill, and transmits the detected data to the detection interface 10 via electrical connection for processing. The detection interface 10 includes a built-in metabolic equivalent calculation unit. This unit detects and processes the following data and displays the results on a control screen for the operator to read: Heart rate detection: The monitoring device 30 detects the heart rate (beats / min), which includes the resting heart rate (resting heart rate). Heart rate (heart rate during 2-5 minutes of seated rest), heart rate during exercise, and heart rate at the end of exercise; Estimated VO2 max * (%HRR) / test time / 3.5 = METs / sec: The change in heart rate per second from resting heart rate at the start of exercise (warm-up phase), calculated as VO2 max * ((heart rate - resting heart rate) / (maximum heart rate - resting heart rate) / test time / 3.5); Calculate metabolic equivalent per minute: Estimated VO2 max * ((heart rate - resting heart rate) / (maximum heart rate - resting heart rate) / test time / 3.5).5) = METs / sec (metabolic equivalents per second), the average of the METs obtained from the test time is used to get METs per minute; Calories per minute (kcal): METs per second * 3.5 * body weight / 200 (ml / kg / min = L / min × 1000 ÷ body weight in kg → L / min = [ml / kg / min] ÷ 1000 × body weight in kg), calculate the calories consumed per second, and sum the test time seconds to get the calories per minute (kcal / min); Calculate the calories consumed during exercise: (total metabolic equivalents × 3.5 × body weight) (weight) / 200 (ml / kg / min = liters / min × 1000 ÷ body weight kg → liters / min = [ml / kg / min] ÷ 1000 × body weight kg); Please refer to Figure 2 for the operation steps of the sports equipment detection system for calculating exercise equivalent according to the preferred embodiment of the present invention, Figure 3 for the login steps of the detection device interface according to the preferred embodiment of the present invention, and Figure 4 for the function tree diagram of the detection device interface according to the preferred embodiment of the present invention. In order to make the sports equipment detection system for calculating exercise equivalent and its operation method of the present invention more convenient... This allows for precise application during the operation of exercise equipment. The detection device interface 10 of the exercise equipment 20 with eccentric exercise training function includes three operation modules: login module S1, training module S2, and testing module S3. Considering that the operator U may have logged-in, intended-to-login, or unlogged-in identities when operating the exercise equipment 20, the detection device interface 10 is equipped with three main sub-functional interfaces for performing operations related to the login module S1, training module S2, and testing module S3.

[0008] Login Module S1: It mainly runs as a login program on the detection device interface 10 and the cloud server C. Through the operation of the login program, it provides the operator U with action input information for selecting options on the detection device interface 10, or provides a QR code (Quick Response Code) for scanning login via the cloud server C. The operator U can use the application (APP) installed on the mobile phone to scan the QR code to quickly log in or register member information. The input information or the information logged in by scanning the QR code through the application installed on the mobile phone can be processed by the program of the detection device interface 10 for subsequent actions and the unique information is stored on the cloud server C. When registering member information, the operator U can use the application installed on the mobile phone corresponding to the detection device interface 10 to scan the QR code. After the Code interface S11, the user can log in to the cloud server C to read the operator U's information, or directly log in via the login device interface 10 by entering their account password or health insurance card. After logging in to the cloud server C, the operator U can further log in through the login device interface 10 and then display the registration interface S12 to enter the operator U's height S121, weight S122, and exercise preset values ​​S123 to register membership information. This allows for the calculation of various subsequent parameters for future use. The login module S1 also has a guest login interface S13, which allows guest login. Interface S13 allows the operator U to fill in relevant operator U information through the detection device interface 10 without being a registered member, so as to calculate the baseline value of metabolic equivalent during various exercises without being registered or logged in. Furthermore, whether logging in as a member through the registration interface S12 or temporarily logging in as a guest through the visitor login interface S13, after logging in, the login module S1 will further display a login bar S14, which also has settings S141, information S142 and logout S143 options for the operator to operate and set the detection device interface 10.

[0009] Training Module S2: It mainly has two main options: Exercise Information S21 and Exercise Prescription S22. The Exercise Information S21 option provides signal connection element connection settings such as heart rate strap connection settings to detect the body's condition during exercise. The Exercise Prescription S22 option allows the operator to set the exercise parameters of the exercise equipment used according to their needs. Through the parameter settings, the calculation unit built into the detection device interface 10 calculates the predetermined exercise amount and method.

[0010] Test module S3: mainly has motion detection S31 option and history record option S32. The motion detection S31 option is used to detect the operator's body state after setting the connected sports equipment and sensing devices, and to set and adjust various sports parameters. The history record option S32 allows the operator to display the sports equivalent calculation results after each sports activity through the detection device interface 10.

[0011] Please refer to Figure 5, which shows the login module configuration of the detection device interface of the preferred embodiment of the present invention. Further details regarding the preferred embodiment of the present invention will be described sequentially with each actual operation step displayed on the interface. When the operator U prepares to use the exercise equipment with eccentric exercise training function, after powering on the detection device interface 10 on the exercise equipment with eccentric exercise training function, the operator U can see the login module S1 display interface. The login module S1 has at least a QR Code interface S11 and a fill-in interface S110. In this embodiment, the QR Code interface S11 and the visitor login interface S13 are intuitively visible. The operator U can install a QR code on their mobile phone that has been scanned by the detection device interface 10. After accessing the Code interface S11, the mobile phone can connect to the cloud server C to log in. The cloud server C reads the operator U's information and uses the cloud server C to distinguish whether the operator U is logging in for the first time or is a registered member. If it is logging in for the first time, the corresponding interface is sent back to the mobile phone to display the registration interface S12. After logging in, the operator U fills in information such as height S121, weight S122, and exercise preset values ​​S123 to register as a member.

[0012] Please refer to Figure 6, which shows the training module of the login detection device interface of the preferred embodiment of the present invention. After the operator U completes the login to the detection device interface 10, the training module S2 on the login detection device interface 10 displays the following options: exercise information S21, exercise prescription S22, exercise test S31, and history record S32, as well as setting options S141, information S142, and logout option S143. The related exercise equipment and sensing devices connected to the setting option S141 can be selected. If the user is already a registered member, the information option S142 can be selected to display the corresponding member information and exercise information to the operator U for reference. Alternatively, the user can select the logout option S143 to exit the cloud server C when ending the exercise.

[0013] Continuing from the above, the operator U can select the exercise prescription S22 option to select the preset exercise method and the desired exercise effect of the exercise prescription; after selecting the exercise prescription S22 option, the operator U can select the exercise information S21 option to exercise with the exercise equipment, and perform the corresponding exercise actions, intensity and time in accordance with the information displayed on the interface 10 of the detection device, so as to achieve the preset exercise effect; the exercise test S31 option is a pre-test before the operator U performs the exercise prescription S22 and starts the exercise. By operating the exercise test S31 option, the necessary exercise test S31 option is performed for warm-up, exercise test settings and cool-down, so that the operator U can have the best physical condition and training settings before and after the exercise. The history record S32 connects to the cloud network C through the signal device, and downloads and records various exercise detection information of the operator U during the exercise, such as the exercise equipment sensor with eccentric exercise training function and the monitoring device 30, from the cloud network C for display, so as to provide the operator U with various physical exercise information after exercising through the exercise prescription S22 option and selecting the exercise information S21 option.

[0014] Please refer to Figure 7, which shows the interface of the detection device after login in a preferred embodiment of the present invention. After the operator U logs in, clicking on the registration interface S12 provides the operator U with information such as height S121, weight S122 and exercise preset value S123 to register member information. The preset value S123 refers to the metabolic equivalent of task (METs) that the operator U expects to achieve, so as to understand whether the preset goal has been achieved through exercise operation calculation during subsequent exercise.

[0015] Please refer to Figure 8, which shows the login setup interface of a preferred embodiment of the present invention. After the operator U logs in and selects the setup S141 option, an interface for detecting connected sports equipment and sensing devices is displayed. Signal connection and control are obtained through wireless connection methods such as WiFi or Bluetooth. On the setup S141 option interface, a scan S1411 option is displayed to start wireless detection of related sports equipment and sensing devices. After the related sports equipment and sensing devices are connected, device information S1412 is displayed. The device information S1412 includes device name and device address (IP) to identify the connected device, and information bar S1413 displays the connected device information. In the future, users can quickly select to connect related sports equipment and sensing devices.

[0016] Please refer to Figure 9, which shows the general mode of the motion information interface after login according to a preferred embodiment of the present invention. After the operator U logs in and selects the motion information S21 option, they can choose between a general display mode S21A or a simplified display mode S21B as needed. The general display mode S21A interface displays: 1) a target speed bar S211. The target speed bar S211 can be freely adjusted during the start of the motion process. If the target speed is not maintained within a preset 30-second period, the system will detect... The measuring device interface 10 will end the motion detection; 2) The target watts (WATTS) column S212 and the corresponding resistance value column S217, as well as the chart S216 that displays the current data in real time. The target watts column S212 can be freely adjusted during exercise to end the exercise, allowing the operator to monitor the fluctuations of their heart rate, or whether the target speed has been achieved, etc. The range of watts calculated by the measuring device interface 10 will be adjusted according to the target watts to adjust various exercise data; 3) The corresponding displayed reserve heart rate (Bpm) The per minute (S213) column and heart rate zone (S2131) column are provided. If the reserve heart rate exceeds the preset danger value of 85% for more than 30 seconds, the detection device interface 10 will end the exercise; 4) metabolic equivalent (S214) column and exercise data (S215) column are provided. The exercise data column S215 displays information such as exercise distance and calories burned; exercise mode (S218) column is provided to allow the operator to select the desired exercise mode when there are more than one exercise operation mode on the exercise equipment. In this embodiment, the exercise equipment with eccentric exercise training function has centripetal mode and eccentric mode to choose from.

[0017] Please refer to Figure 10, which shows the simplified mode of the sports information interface after login in the preferred embodiment of the present invention. When the operator U logs in and can select the simplified display mode S21B, the target speed bar S211, target watts bar S212, reserve heart rate bar S213, resistance value bar S217, and sports mode bar S218, which are frequently noticed during exercise, are displayed in a concentrated manner. However, it is not limited to the specific bars mentioned above, and the bars can be set and combined according to actual needs.

[0018] Please refer to Figure 11, which shows the login interface of the preferred embodiment of the present invention. After the operator U logs in, they can select the exercise prescription S22 option to set the target values ​​for the warm-up, exercise, and cool-down phases of the preset exercise mode. The exercise prescription S22 option interface includes: 1) Quick Login S221 and Account Loading S2211. Quick Login S221 allows the logged-in operator U to select quick login, and Account Loading S2211 allows quick retrieval of the stored exercise settings of the operator U; 2) Exercise Selection S222, which allows selection of different exercise modes; 3) Target Value Setting S223, which provides target values ​​for the warm-up, exercise, and cool-down phases, including setting the exercise time and wattage for each phase, thereby providing the operation parameters display for the operator U to coordinate with the numerical exercise. In this preferred embodiment, the target value setting S223 is based on the latest guidelines of the American Medical Association (AHA / ACC). The guideline recommends at least 500-1000 MET-mins of moderate to vigorous exercise per week to maintain good health. The guidelines suggest three types: "A) No exercise habit: 500 MET-mins / week; B) Maintaining healthy habits: 1000 MET-mins / week; C) Weight loss (intensity) exercise: 2000 MET-mins / week." After selecting a type, users can use the corresponding exercise equipment on the machine, and the system calculates metabolic equivalents and calories based on the detected heart rate changes. 4) Start Exercise S224: After setting the exercise selection S222 and target value setting S223, start the exercise S224. 5) Return S225: Logged-in users can select "Return to Homepage" to re-set information. Additionally, the exercise prescription interface displays device information S1412, allowing users to confirm the device name and IP address linked to the device detection interface 10.

[0019] Please refer to Figure 12, which shows the login test setting interface of the preferred embodiment of the present invention. To make the exercise effect more accurate, after logging in, the operator U can select the exercise test S31 option to perform an ability test for the estimated oxygen uptake and optimal exercise intensity before exercise. After clicking, the test setting S31A interface is entered. The test setting S31A interface displays: 1) Account loading S311, which provides quick retrieval of various test settings of the operator U; 2) Test selection S312, which allows selection of different test modes; 3) Test value setting S313, which provides target values ​​for warm-up, exercise and cool-down stages, including setting target values ​​such as exercise time and wattage for each stage to provide test results for each stage. The calculation parameters are provided for the operator U to follow; 4) Start test S314. After setting the aforementioned test selection S312 and test value setting S313, start test S314 to conduct the exercise test. The warm-up and cool-down phases can be freely adjusted. The initial target watt value is fixed at 0. The preset exercise test time is fixed at 10 minutes. The target watt can be freely adjusted. The exercise test starts from 0 watts and increases the watt value (10% of the target watt) every minute. The display provides the operator U with the numerical exercise; 5) Return S315. The logged-in operator U can click to return to the homepage information to make further settings; In addition, the test setting S31A interface displays device information S1412 to provide the operator U with the device name and device address (IP) of the device connected to the detection device interface 10.

[0020] Please refer to Figure 13, which shows the resting heart rate pattern of the test detection interface after login in the preferred embodiment of the present invention. After starting the test S314, the test detection S31B interface can be selected. When the test detection S31B interface is in progress, the system will display the resting heart rate measurement S316 window. Before the start of the exercise test, the operator will be prompted to remain still for a preset time of three minutes and the remaining time will be displayed. The resting heart rate will be measured S316 after three minutes.

[0021] Please refer to Figure 14, which shows the login test information interface of the preferred embodiment of the present invention. After the operator selects to start the test S314, the system can display the test information S31C interface and perform the motion test. During the motion test, the test information S31C interface displays: 1) Test speed bar S3171. During the start of the motion test, the target speed should not be adjusted manually. If the speed is not maintained for more than 30 seconds, the system will be forced to enter the easing phase of the motion test; 2) Test watts bar S3172 and the corresponding test resistance value bar S3177, as well as the test chart S3176 that displays the current data. During the test, the target watts should not be adjusted manually, and the test watts bar S3172 displays reminder lines for the start and end of the motion test, as well as the selected exercise intensity (Rating of Perceived) per minute during the test. 3) The corresponding heart rate test bar S3173 and heart rate zone test bar S31731 are the results of the signal from the monitoring device 30 obtained through the detection device interface 10 and processed by the built-in program. If the heart rate exceeds the preset danger value of 85% for more than 30 seconds, it will be forced to enter the relief phase; 4) The metabolic equivalent test bar S3174 and the test data bar S3175 are the test data bar S3175, which displays information such as test exercise distance and calories burned; Test mode bar S3178 is provided for the operator to select the desired exercise mode when there is more than one exercise test operation mode on the exercise equipment.

[0022] Please refer to Figure 15 for the login test perception interface pattern diagram of the preferred embodiment of the present invention. After the operator U selects to start the test S314 and completes the exercise test, the system can display the test perception S31D interface. The test perception S31D interface provides a self-assessment column for self-conscious exercise intensity S318 and a comparison table for self-conscious exercise intensity level S3181. The self-assessment column for self-conscious exercise intensity S318 provides the operator U with the exercise intensity selected by comparing the self-conscious exercise intensity level comparison table for self-conscious exercise intensity S318 with the information of the self-conscious exercise intensity level comparison table S3181 every minute after the start of the exercise test. The exercise intensity will be calculated through the detection device interface 10 and the data will be stored and used as the basis for various exercise intensities when the operator U selects the exercise information S21 option in the subsequent detection device interface 10.

[0023] Please refer to Figure 16, which shows the interface pattern of the test history record of the preferred embodiment of the present invention, and Figure 17, which shows the interface pattern of the motion history record of the preferred embodiment of the present invention. After completing the motion training corresponding to each motion information S21 or motion test S31, the detection device interface 10 will store the detected motion data calculation information. The operator U can click on the history record S32 interface of the detection device interface 10 to read the motion data calculation information record. The history record S32 interface has motion record S32A and test record S32B that can be selected and provided to the operator U. According to the relevant information, the information display method of the exercise record S32A and test record S32B is to present different continuous exercise time information in a stacked manner on the screen of exercise record S32A and test record S32B. Among them, the continuous exercise time information bar I1 presented by exercise record S32A includes the exercise time, exercise distance, average heart rate, calories, metabolic equivalent, target exercise time and maximum heart rate for each exercise; the continuous exercise time information bar I2 presented by test record S32B includes the exercise time, exercise distance, resting heart rate, preset maximum oxygen uptake and target exercise time for each exercise.

[0024] In summary, in order to better match the personalized needs of the operator U with the exercise training effect and to provide a more appropriate exercise prescription, the exercise equipment detection system and its operation method for calculating exercise equivalent of the present invention can provide the following specific advantages through the aforementioned system design and operation steps: 1) The detection device interface 10 can be matched with various exercise equipment and detection sensors, and calculates the exercise data of the operator U through a preset program, and provides the operator U with important data such as exercise time, exercise distance, average heart rate, calories, metabolic equivalent, target exercise time and maximum heart rate in real time to understand and track the long-term exercise effect and physical condition; 2) The operator U can log in through the login module S1 of the detection device interface 10 to access the relevant data. The complete historical information of the exercise is recorded on the cloud network server C. Through network access, the operator U can log in to the interface 10 of various detection devices installed on different sports equipment in different locations and continuously record and track their exercise process, effectively control the exercise results, and further train their physical fitness to reach the ideal preset state in combination with the design of circular exercise; 3) The detection device interface 10 is equipped with a training module S2 and a testing module S3. The training module S2 is used to set the preset exercise performance, and the testing module S3 is designed to test the body's current state during exercise. This can achieve effective pre-exercise detection and the operation of various actual exercise prescriptions, so that the operator U can fully understand the body's state before exercise, select an exercise prescription, and carry out the most effective exercise training in the appropriate body state, continuously achieving the preset physical training results.

Claims

1. A sports equipment detection system for calculating exercise equivalents, comprising a detection device interface (10) installed on a preset sports equipment, wherein the detection device interface (10) has a built-in computing unit that stores the motion coefficient data of the corresponding sports equipment and connects to a cloud network (C), a sensor (21), and a monitoring device (30) via a signal device. The sensor (21) reads information such as the number of repetitions and resistance during the operator's (U) exercise process and calculates the exercise result. The detection device interface (10) is connected to the monitoring device (30) via a signal device to read the heart rate information signal of the operator (U) during the exercise process. The signal from the monitoring device (30) is fed into the built-in program for calculation. The program reads information such as the number of times and resistance during the operator's (U) exercise and calculates the exercise results. The detection device interface (10) runs a training module (S2) and a test module (S3). The test module (S3) at least runs: an exercise test (S31) option, which provides the operator (U) with the ability to estimate the optimal exercise intensity of oxygen uptake before exercising. After selecting, a test setting (S31A) interface is entered. In the test setting (S31A) interface, a test selection (S312) is displayed for selecting different test modes; a test value setting (S313) provides warm-up. The target values ​​for the exercise and cool-down phases include setting target values ​​such as exercise time and wattage for each phase, thereby providing calculation parameters for the operator (U) to follow during each phase of testing. The detection device interface (10) has a built-in metabolic equivalent calculation unit, which detects and calculates the following data and displays the calculated data on the control screen for the operator (U) to read: Estimated maximum oxygen uptake * (%HRR) / test time / 3.5 = METs / sec: When exercise begins (warm-up phase), the change in heart rate per second from resting heart rate is calculated as maximum oxygen uptake * ((heart rate - resting heart rate) / (maximum heart rate - resting heart rate)). ) / test time / 3.5); Calculate metabolic equivalent per minute: estimated maximum oxygen uptake * ((heart rate - resting heart rate) / (maximum heart rate - resting heart rate) / test time / 3.5) = METs / sec (metabolic equivalent per second). 60 seconds, the average METs obtained from the test time are summed to get METs per minute; Calories per minute (kcal): METs per second * 3.5 * body weight / 200 (ml / kg / min = L / min × 1000 ÷ body weight kg → L / min = [ml / kg / min] ÷ 1000 × body weight kg), calculate the calories consumed per second, and the average test time seconds are summed to get the calories per minute (kcal / min).

2. The exercise equipment detection system for calculating exercise equivalent as described in claim 1, wherein the test module (S3) runs at least one start test (S314) to perform an exercise test, wherein after the start test (S314), a test detection (S31B) interface can be selected, and the test detection (S31B) interface displays a window for measuring resting heart rate (S316). Before the start of the exercise test, the operator (U) is prompted to set a resting preset time and the remaining time is displayed, and the resting heart rate is measured after the preset time (S316). Before the start of the exercise test (S31), the operator (U) is prompted, and the start test (S314) displays a corresponding test heart rate bar (S3173) and a test heart rate zone bar. (S31731), the heart rate test bar (S3173) and heart rate test zone bar (S31731) are the results of the signal from the monitoring device (30) obtained through the detection device interface (10) and input into the built-in program. If the heart rate exceeds the danger value of 85% for more than 30 seconds, it will be forced to enter the relief phase. The start test (S314) displays the test information (S31C) interface and performs the exercise test. The test information (S31C) interface displays a test speed bar (S3171). During the start exercise test, the test speed bar (S3171) cannot be adjusted to the target speed. If it is not maintained at the test speed within the preset time, it will be forced to enter the relief phase exercise test.

3. The exercise equipment detection system for calculating exercise equivalent as described in claim 1, wherein the test value setting (S313) calculates the calorie consumption during exercise: (total metabolic equivalent × 3.5 × body weight) / 200 (ml / kg / min = liter / min × 1000 ÷ body weight kg → liter / min = [ml / kg / min] ÷ 1000 × body weight kg).

4. The exercise equipment detection system for calculating exercise equivalent as described in claim 1, wherein the time of the warm-up and cool-down phases is freely adjustable, the target wattage is freely adjustable, and the wattage value increases every minute during exercise testing, providing the operator with numerical exercise resting heart rate.

5. The exercise equipment detection system for calculating exercise equivalent as described in claim 2, wherein after the test is started (S314), the system can display a test information (S31C) interface, which displays: a test wattage bar (S3172) and a corresponding test resistance value bar (S3177), and a test chart (S3176) that displays the current data in real time, wherein the test wattage bar (S3172) cannot be adjusted by the user during the test, and displays reminder lines for the start and end of the exercise test, as well as the selected self-perceived exercise intensity level per minute during the test; a test metabolic equivalent bar (S3174) and a test data bar (S3175), wherein the test data bar (S3175) displays information such as the test exercise distance and calories burned; and a test mode bar (S3178), which provides the operator (U) with the option to select the desired exercise mode when there are more than one exercise test operation mode on the exercise equipment.

6. The exercise equipment detection system for calculating exercise equivalent as described in claim 1, wherein the test setting (S31A) interface displays a start test (S314), and after the start test (S314) is started and the exercise test is completed, a test perception (S31D) interface is displayed. The test perception (S31D) interface provides a self-assessment column for perceived exercise intensity (S318) and a comparison table for perceived exercise intensity level (S3181). The self-assessment column for perceived exercise intensity (S318) provides the operator (U) with a wattage value that increases once per minute after the start of the exercise test. The operator selects the exercise intensity of the self-assessment column for perceived exercise intensity (S318) based on the information from comparing the perceived exercise intensity level comparison table (S3181) during the exercise test.