TW202036322A - Smart agility reaction trainer and training method thereof - Google Patents

Abstract

A smart agility reaction trainer and training method thereof are disclosed. The smart agility reaction trainer comprises: a host control device and a plurality of training sub-machines. The host control device wirelessly transmits a plurality of driving signals according to a training mode and a driving mode. The training sub-machines wirelessly receive the driving signals to perform at least one prompt mode selectively. The training sub-machines immediately and wirelessly transmit a plurality of feedback signals having a plurality of feedback data to the host control device while the prompt mode is turned off such that the host control device will wirelessly store the feedback data in a data library. Besides, the smart agility reaction training method provides training purpose by the smart agility reaction trainer.

Description

Intelligent agile reaction trainer and its training method

The invention relates to a training device and a method, in particular to an intelligent agility response training device and a training method.

Agility (agility) refers to the body's ability to move positions and directions quickly and maintain balance. Most people will start, stop, turn around, and restart when their body quickly changes position and direction. The main factors that constitute agility include muscle strength, reaction time, prompt force, movement speed, and coordination of special movements. In other words, a person's agility is significantly related to muscle strength, reaction time, prompt force, speed, and coordination. The constituent elements of agility cover almost all the athletic abilities required by the body. Therefore, agility is the maximum performance of physical fitness and has an index significance for athletes in any event.

In view of the above-mentioned technical problems, one of the objectives of the present invention is to provide an intelligent agility response trainer and its training method to provide the purpose of training athletes' agility.

To achieve the foregoing objective, the present invention provides an intelligent agility response training device, which at least includes: a main control device that wirelessly transmits a plurality of driving signals according to a training mode and a driving mode; and a plurality of training slaves that wirelessly receive the driving signals , To execute at least one prompt mode separately, and when the prompt mode is turned off, the training sub-machine instantly wirelessly transmits multiple feedback signals with multiple feedback data to the main control device, so that the main control device wirelessly stores the feedback data in a data In the database.

Wherein, the aforementioned plural driving signals correspond to plural codes, and the aforementioned plural training sub-machines respectively correspond to the aforementioned plural codes, so that the training sub-machines with corresponding codes execute the prompt mode.

Among them, the training mode is a counting training mode, a timing training mode or a simulated competition training mode.

Among them, the driving mode is a random mode or a designated mode.

The data database includes a user database, a county and city area database, a sports classification database, a training type database and/or a training result database.

Among them, each training sub-machine is equipped with a rechargeable battery to supply the power source of the training sub-machine.

Wherein, the main control device is installed with an application program and has a first wireless signal transceiver module, and each training sub-machine has a second wireless signal transceiving module, so that the main control device and the training sub-machine use the first wireless signal The transceiver module and the second wireless signal transceiver module send and receive driving signals and feedback signals.

In addition, the present invention further provides a smart agile response training method, which at least includes: providing the foregoing smart agile response trainer; performing a driving signal transmission step, and using an application program to make the main control device of the smart agile response trainer be trained according to Mode and driving mode wirelessly transmit a plurality of driving signals; perform a driving signal receiving step, wherein a plurality of training sub-machines wirelessly receive the aforementioned plurality of driving signals to execute at least one prompt mode respectively; perform a feedback data transmission step, wherein When the aforementioned plurality of training slaves are turned off in the prompt mode, they instantly wirelessly transmit a plurality of feedback signals with a plurality of feedback data to the main control device; perform a feedback data processing step, wherein the main control device obtains according to the aforementioned plurality of feedback data A training result; and performing a training result transmission step, wherein the main control device wirelessly transmits the training result through the application and stores it in the data database.

Wherein, the main control device wirelessly transmits a calibration drive signal to the aforementioned plurality of training sub-machines according to a training prescription, so that the training sub-machines execute a calibration prompt mode, wherein the training prescription includes comparing a standard with the aforementioned plurality of feedback data Data is the result of one data comparison.

Among them, the main control device obtains a grading result according to the training result and the data database, so that the main control device wirelessly transmits a grading driving signal to the plurality of training sub-machines according to the grading result, so that the training sub-machine executes a grading prompt mode.

In summary, according to the intelligent agility response trainer and training method of the present invention, it can have one or more of the following advantages:

(1) The main control device and the training sub-machine use wireless means to transmit data, so the training place does not need to be wired, so it has the advantages of easy installation, clean environment, and the training sub-machine can be arranged at will.

(2) The application APP can be downloaded from a smart phone to be used as the main control device, saving the cost of the host, and it can provide three training modes: counting, timing or simulated competition, and the training results can be uploaded to the data database in real time for users to view View.

(3) Two or more training sub-machines can be combined with multiple master control devices to achieve the purpose of simultaneous multi-person training depending on the number of training players.

(4) The training sub-machine is equipped with a rechargeable battery, which can support any place to build, and the shell has the advantages of withstanding impact, non-slip and beautiful.

(5) The data database can be built according to the type of training, and provide a query and comparison mechanism. In addition to understanding your own agile response rankings, it is also convenient for future data analysis for various sports classifications, and training prescriptions can be provided to further understand the individual The advantages and disadvantages of agile response.

In order to enable Junshen to have a further understanding and understanding of the technical features of the present invention and the technical effects that can be achieved, a preferred embodiment and detailed description are provided below.

In order to help understand the technical features, content and advantages of this creation and its achievable effects, this creation is combined with the diagrams, and detailed descriptions are given in the form of embodiments as follows, and the diagrams used therein are only To illustrate and supplement the manual, it may not be the true proportions and precise configuration after the implementation of this creation. Therefore, the proportion and configuration relationship of the attached drawings should not be interpreted or limited to the scope of rights of the creation in actual implementation. In addition, in order to facilitate understanding, the same elements in the following embodiments are indicated by the same symbols.

In addition, the terms used in the entire specification and the scope of the patent application, unless otherwise specified, usually have the usual meaning of each term used in the field, in the content disclosed here, and in the special content. Some terms used to describe this creation will be discussed below or elsewhere in this specification to provide those skilled in the art with additional guidance on the description of this creation.

Regarding the use of "first", "second", "third", etc. in this article, it does not specifically refer to the order or sequence, nor is it used to limit the creation, but only to distinguish components described in the same technical terms Or operation only.

Secondly, if the terms "including", "including", "having", "containing", etc. are used in this article, they are all open terms, which means including but not limited to.

Please refer to FIGS. 1 and 2 together. FIG. 1 is a schematic diagram of the intelligent agility response trainer of the present invention, and FIG. 2 is a three-dimensional schematic diagram of the training sub-machine of the present invention. As shown in FIG. 1 and FIG. 2, the intelligent agility response trainer of the present invention at least includes a main control device 10 and a plurality of training sub-machines 20. The training sub-machine 20 can be placed in an appropriate position of the training field F during training. For example, four training sub-machines 20 can be placed in the four corners of the training field F respectively. In addition, six training sub-machines 20 can also be used and placed at six o'clock positions on the left and right sides of the training field F, such as the front, middle and back, and a smart phone can be used as the main control device 10 to perform agility training of the rice-shaped footwork. Alternatively, four training sub-machines 20 can be placed at four o'clock positions on the left and right sides of the training field F, and the other two training sub-machines 20 can be used as agility training for turning back to allow one coach to train two at the same time Players or let two coaches train two players at the same time (depending on the number of main control devices 10 and how to use them). The placement position and number of the training sub-machines 20 are not limited to the above, and the user can choose a suitable number and placement settings according to actual needs.

The main control device 10 wirelessly transmits a plurality of driving signals according to a training mode and a driving mode. A plurality of training sub-machines 20 wirelessly receive driving signals to execute at least one prompt mode respectively, and the training sub-machine 20 wirelessly transmits a plurality of feedback signals with a plurality of feedback data to the main control device 10 when the prompt mode is turned off. The main control device 10 wirelessly stores the feedback data in the data database 30.

The aforementioned main control device 10 may be, for example, a mobile device such as a mobile phone, a smart phone, or a smart tablet, or an electronic device having a function of receiving, sending, and processing signals, such as a computer. In addition, the main control device 10 may have a display unit, a processing unit, and an input unit to facilitate the player/coach to input and set training parameters or view the training results. For example, a smart phone has a display screen, a processor, an input interface or keyboard, and a wireless signal transceiver module such as Bluetooth or WiFi. The smart phone can set training parameters (such as training mode or drive mode) and send drive signals To the training sub-machine 20, receive the feedback signal sent by the training sub-machine 20, process the feedback data in the calculation feedback signal, display the training result, send the training result to the data database 30, and download the data from the data database 30, etc. Wait.

The main control device 10 can be installed with an application APP and has a first wireless signal transceiver module, and each training sub-machine 20 has a second wireless signal transceiver module, so that the main control device 10 and the training sub-machine 20 can use The first wireless signal transceiver module and the second wireless signal transceiver module send and receive driving signals and feedback signals. The wireless signal transceiver module is not limited to Bluetooth or WiFi, but can also be GSM or zigbee or GPRS. Store or read data in the data database 30 (such as a cloud database) through the operating interface of the APP (for example, by touching or pressing a button option on the operating interface), so that multiple master devices 10 are The data in the data database 30 can be read, and the training data/results of the players can be downloaded or shared. How to write an APP to perform the required functions is a mature technology, so I will not repeat it here. For example, a person with ordinary knowledge should be able to understand how to store or read data in the data database 30 and provide shared data through the application APP based on the foregoing disclosure.

The data database 30 may include a user database, a county and city area database, a sports classification database, a training type database, and/or a training result database. The user database is, for example, a member database. Players/coachs can store and register basic information in the member database to log in to the member database for use. The county and city regional database, which players/coachs can use when registering. The sports classification database is a classification database for various sports, such as badminton, basketball or tennis. When players receive training, they can select the sports classification first, and then save it to facilitate future data analysis for various sports classifications. In the training type database, the player/coach can record training data according to the training mode (for example, counting training mode, timing training mode or simulated competition training mode) or adding training methods in the future. Similarly, when players receive training, they can also select the type of training first, and then save it to facilitate data recording and analysis of various types of training in the future. The training result database system stores the training results (which can include results) into the training result database together with member data, classification, sports classification data, and training type data. Through the above, the results of various training statistics are stored in various databases first, and they will be updated regularly after training to facilitate the presentation of data. There is no need to recalculate the training statistics every time the system is displayed, which can save server Work time and speed up the rendering of the page. In addition, you can also update immediately after training, so that you can view the training results at any time.

In addition, each training sub-machine 20 is provided with a rechargeable battery (not shown) to supply the power source of the training sub-machine 20. Therefore, it can support any place to be built. The internal training sub-machine 20 takes a microprocessor as the core and is equipped with a second wireless signal transceiver module 22 such as a WiFi antenna, a multi-segment display 24 (such as a seven-segment display), and a buzzer. The device 26, LEDs, keys or buttons 28, and the shell material of the training sub-machine 20 is, for example, metal, plastic, plastic steel or other suitable materials, which have the advantages of being able to withstand blows, non-slip and beautiful. In addition, the training sub-machine 20 can also be provided with a switch 29 to turn on or off the operation of the training sub-machine 20. The rechargeable battery of the training sub-machine 20 can be electrically connected to the mains or mobile power source through the charging jack 27 to charge the rechargeable battery.

In the present invention, the prompt mode executed by the training sub-machine 20 may include, for example, prompting methods such as lighting, sounding, etc. Therefore, after hearing or seeing the prompt, the player can know which training sub-machine 20 should be turned off at this time. And move in this direction. In addition, the prompt mode executed by the training sub-machine 20 can be pattern-oriented, so the player can know which one of the training sub-machines 20 to be turned off next is and in this direction after seeing the prompt of the pattern pointing. mobile. In addition, the pattern direction can, for example, actually point to the next training sub-machine 20 that should be turned off, or falsely point to the next training sub-machine 20 that should be turned off, so as to achieve the effect of deception training. The aforementioned prompt mode may be turned off by the player or the prompt mode may be closed automatically when the time is up. For example, when the player reaches the target training sub-machine 20, he can press the button 28 on the training sub-machine 20 to cancel/close the prompt mode. At this time, the training sub-machine 20 will wirelessly transmit the feedback signal to the main control device 10. . Alternatively, the reminder mode can also be automatically turned off after a specific time (for example, 5 seconds) has passed (for example, the main control device 10 is used to set the time for each or a single training sub-machine 20 to execute the reminder mode), which not only prevents the players from being delayed The delay in pressing the button 28 on the training sub-machine 20 causes the noisy and confusion of the prompt lights/sounds on the training field F, and it can also prevent the next training sub-machine 20 and the previous training sub-machine 20 from executing the prompt mode at the same time. The players are confused. In other words, the coach/player can use the main control device 10 to set the time and sequence for each training sub-machine 20 to execute the prompt mode. In addition, by staggering the time when each training sub-machine 20 executes the prompt mode, agility training can be performed more efficiently.

The training mode may be, for example, a counting training mode, a timing training mode or a simulated competition training mode. The counting training mode is the time it takes for the player to complete agility training under a specific number of training sessions (for example, the time spent by the player in 20 agility reaction training sessions, for example, player A spends 3 minutes, player B spends 3 minutes and 20 seconds , Then player A has better agility). Timing training mode is the number of times the player completes agility training within a specific training time (for example, the number of times the player completes within 3 minutes of agility response training. For example, player A completes 20 times and player B completes 18 times, then player A is agile Better sex). The simulated game training mode is, for example, a third person (such as a coach) randomly pressing or regular pressing (ie, for example, according to a training prescription or according to historical training data in the data database 30 or according to historical sports game records) manual pressing To wirelessly transmit the driving signal to the training sub-machine 20. As shown in Figure 4, the player/coach can tap the button options of "Count" or "Time" or "Simulation Competition" (not shown) in the app to make the smartphone follow the training mode and timing The training mode or the simulated competition training mode is used to wirelessly transmit the driving signal to the training sub-machine 20. Alternatively, the player/coach can also set the desired training mode by clicking the "Settings" button option in the app. When the player/coach selects the "Count" button option, the application will display the screen shown in Figure 5. In this example, the player will perform 12 times of agility training, and then press the "Start" button. Start the agility training, and when the 12 agility training is completed, you can know the time spent by the players. After multiple training sessions, coaches/players can view the player’s training status by watching the app’s record screen (see Figure 6).

The driving mode may be, for example, a random mode or a designated mode. In the present invention, the designated mode is a preset coding mode, and the preset coding mode can be set through the input unit of the main control device 10, for example, the order in which the training slave 20 executes the prompt mode can be specified. For example, through the input unit (input interface/panel or keyboard) of the main control device (such as a smart phone), the training slave 20 of codes 1, 2, and 3 can be set to execute the prompt mode sequentially, or code 1 The training sub-machines 20 of, 3, and 5 execute the prompt mode in sequence. The above coding sequence is only an example, and the coach/player can set the prompt sequence of the training sub-machine 20 by themselves. In addition, the random mode is a random coding mode, for example, an algorithm is used to make the training sub-machine 20 randomly perform the prompt mode. For example, the order in which the training sub-machine 20 performs the prompt mode is not specified, but a random number. Therefore, the player cannot know in advance which training sub-machine 20 will perform the prompt mode, and cannot go to a specific training sub-machine 20 in advance. When the training sub-machine 20 issues a prompt, it can start to move, so it can better train the player's agile reaction.

The plurality of driving signals sent by the aforementioned main control device 10 may, for example, correspond to a plurality of codes, and the plurality of training sub-machines 20 respectively correspond to the aforementioned plurality of codes, so that the training sub-machines 20 with corresponding codes can execute Prompt mode. For example, if the multiple drive signals sent by the main control device 10 according to the drive mode are signals that drive the training sub-machines 20 with codes 1, 3, and 5 to execute the prompt mode, these drive signals will be sent to all training sub-machines 20. Since each training sub-machine 20 is provided with a decoder for decoding, if the code of the driving signal corresponds to the code of the training sub-machine 20 after decoding, the training sub-machine 20 will execute the prompt mode. Since code 1 of the driving signal corresponds to code 1 of the training sub-machine 20, the training sub-machine 20 of code 1 will execute the prompt mode; similarly, the code 3 of the driving signal corresponds to the code 3 of the training sub-machine 20, then the code The training slave 20 of 3 will execute the prompt mode; the code 5 of the driving signal corresponds to the code 5 of the training slave 20, and the training slave 20 of the code 5 will execute the prompt mode. In this way, the training sub-machine 20 can issue a prompt mode according to whether the received driving signal corresponds to its own code.

Please refer to FIG. 3, which is a schematic flow diagram of the smart agile reaction training method of the present invention. As shown in FIG. 3, the smart agile reaction training method of the present invention includes at least steps S10, S20, S30, S40, S50, and S60. In step S10, an intelligent agility reaction trainer is provided, and the intelligent agility reaction trainer may be, for example, the aforementioned intelligent agility reaction trainer of the present invention, which will not be repeated here. In step S20, a driving signal transmission step is performed, and the main control device 10 of the intelligent agile response trainer is wirelessly transmitted with a plurality of driving signals according to the training mode and the driving mode with the application program. In step S30, a driving signal receiving step is performed, in which a plurality of training sub-machines 20 wirelessly receive the aforementioned plurality of driving signals to execute at least one prompt mode respectively. In step S40, a feedback data transmission step is performed, in which the aforementioned plurality of training sub-machines 20 wirelessly transmit a plurality of feedback signals with a plurality of feedback data to the main control device 10 when the prompt mode is turned off. In step S50, a feedback data processing step is performed, in which the main control device 10 obtains a training result according to the aforementioned plural pieces of feedback data. In step S60, a training result transmission step is performed, wherein the master control device 10 wirelessly transmits and stores the training result in the data database 30 through the application program.

In addition, the main control device 10 can also automatically or passively wirelessly transmit the calibration driving signal to the plurality of training sub-machines 20 according to the training prescription, so that the training sub-machines 20 execute the calibration prompt mode. The so-called passive means that a third person, such as a coach, manually presses the input unit (input interface/panel or keyboard) on the main control device 10 according to the training prescription to transmit the driving signal to the training slave 20. The training prescription may, for example, include a data comparison result obtained by comparing a plurality of feedback data with a standard data. For example, the feedback data and training results of a player after agility training shows that the feedback data of the training sub-machine 20 of this player in the northeast position is too different from the standard data (for example, the standard data is that the prompt can be turned off within 3 seconds Mode, but the player must take 4 seconds to turn off the prompt mode), that is to say, the player's agility in the northeast direction is not good. At this time, the main control device 10 will provide training prescriptions based on the player’s feedback data and the data comparison results obtained from the training results. In this example, the training prescriptions will focus on the northeast orientation. For example, this direction will be given multiple times in subsequent exercises. /Frequent agility training. The main control device 10 wirelessly transmits the correction driving signal to the training sub-machine 20, so that the training sub-machine 20 located in the northeast position can execute the prompt mode multiple times/frequently, so as to strengthen the problem of poor agility of the training player in a specific position. The aforementioned standard data can come from the data in the data database 30. Through multiple training result records, the average reaction time of the player can be calculated, so as to determine the position of the player to strengthen training.

In addition, the main control device 10 can further score the grading result according to the training result and the data database 30, so that the main control device 10 wirelessly transmits the grading driving signal to the plurality of training sub-machines 20 according to the grading result, so as to make the training sub-machine 20 Perform hierarchical prompt mode. For example, after a player has undergone agility training, by comparing and grading the feedback data and training results obtained with the data and training results in the data database 30, the level of the player can be determined to provide appropriate training. .

In summary, the intelligent agility response trainer and the training method of the present invention can have one or more of the following advantages: (1) The main control device and the training sub-machine are wirelessly used to transmit data, Therefore, the training place does not need to be wired, so it can have the advantages of easy installation, clean environment and arbitrarily arranged training sub-machines; (2) You can download the application APP from the smart phone and use it as the main control device, which saves the host cost and can provide calculations. There are three training modes: time, time or simulated competition, and the training results can be uploaded to the data database in real time for users to check and inspect; (3) Two or more training sub-machines can be used with multiple master control devices. Depending on the number of training players to achieve the purpose of simultaneous multi-person training; (4) The training sub-machine is equipped with a rechargeable battery, which can support any place to build, and the shell has the advantages of withstanding impact, non-slip and beautiful; and (5) data database It can be built according to the type of training, and provides a query and comparison mechanism. In addition to understanding your own agile response rankings, it is also convenient for future data analysis for various sports classifications, and training prescriptions can be provided to further understand the advantages and disadvantages of individual agile responses.

The above description is only illustrative, and not restrictive. Any equivalent modifications or alterations that do not depart from the spirit and scope of the present invention should be included in the scope of the attached patent application.

10: Master control device 20: Training handset 30: Data Library F: training ground 22: The second wireless signal transceiver module 24: display 26: Buzzer 27: Charging jack 28: Button 29: switch S10, S20, S30, S40, S50, S60: steps

Figure 1 is a schematic diagram of the intelligent agile reaction training device of the present invention.

Figure 2 is a three-dimensional schematic diagram of the training sub-machine of the present invention.

Fig. 3 is a schematic flow diagram of the smart agile reaction training method of the present invention.

Figures 4 to 6 are the presentation screens of the smart phone through the application in the present invention.

10: Master control device

20: Training handset

30: Data Library

F: training ground

Claims (10)

An intelligent agile response trainer, which contains at least: A master control device wirelessly transmits a plurality of driving signals according to a training mode and a driving mode; and A plurality of training sub-machines wirelessly receive the driving signals to execute at least one prompt mode respectively, and when the prompt modes are turned off, the training sub-machines wirelessly transmit a plurality of feedback signals with a plurality of feedback data to the The main control device allows the main control device to wirelessly store the feedback data in a data database. For the intelligent agile reaction training device described in the first item of the patent application, the driving signals correspond to a plurality of codes, and the training sub-machines correspond to the codes respectively, so that the codes are corresponding The training sub-machine executes the prompt mode. Such as the intelligent agility response trainer described in item 1 of the scope of patent application, wherein the training mode is a counting training mode, a timing training mode or a simulated competition training mode. Such as the intelligent agile reaction trainer described in item 2 or 3 of the scope of patent application, wherein the driving mode is a random mode or a designated mode. For example, the intelligent agile response trainer described in item 1 of the scope of patent application, wherein the data database includes a user database, a county and city area database, a sports classification database, a training type database and/or A database of training results. For the smart agile reaction training device described in the first item of the patent application, each of the training sub-machines is provided with a rechargeable battery to supply the power source of the training sub-machine. The smart agile response training device described in the first item of the patent application, wherein the main control device is installed with an application program and has a first wireless signal transceiver module, and each of the training sub-machines has a second wireless The signal transceiver module enables the main control device and the training sub-machines to send and receive the driving signals and the feedback signals through the first wireless signal transceiver module and the second wireless signal transceiver module. A method of smart and agile response training, including at least: Provide an intelligent agile reaction trainer as described in item 1 of the scope of patent application; Performing a driving signal transmission step, and using an application program to make the master control device of the smart agile response trainer wirelessly transmit the driving signals according to the training mode and the driving mode; Performing a driving signal receiving step, wherein the training sub-machines receive the driving signals wirelessly to execute the at least one prompt mode respectively; Perform a feedback data transmission step, in which the training sub-machines wirelessly transmit a plurality of feedback signals with a plurality of feedback data to the main control device when the prompt modes are turned off; Performing a feedback data processing step, wherein the main control device obtains a training result according to the feedback data; and A training result transmission step is performed, wherein the master control device wirelessly transmits and stores the training result in the data database through the application program. For example, the intelligent agile response training method described in the scope of patent application, wherein the main control device wirelessly transmits a calibration driving signal to the training sub-machines according to a training prescription, so that the training sub-machines execute a calibration prompt mode , Wherein the training prescription includes a data comparison result obtained by comparing the feedback data with a standard data. For example, in the smart agile response training method described in item 8 of the patent application, the main control device obtains a classification result according to the training result and the data database, so that the main control device wirelessly transmits a classification according to the classification result Drive signals to the training sub-machines, so that the training sub-machines execute a hierarchical prompt mode.

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