Rod-winding snakelike running training and examining device

Abstract

The utility model discloses a training and checking device for snakelike running around a pole, which comprises a starting gun wireless signal transmitting module and an end point RFID (Radio Frequency Identification) module, the starting gun wireless signal transmitting module is arranged on a starting line, and the end point RFID module is arranged on a finishing line; the plurality of obstacle rods are respectively arranged on the point positions; the monitoring bracelet is detachably worn on the wrist of a trainee and is in wireless connection with the starting gun wireless signal transmitting module and the terminal point RFID identification module; and the intelligent terminal is movably placed in the training ground. According to the utility model, multiple sensing devices are established among the starting line, the finishing line, the barrier rods on each point location, the monitoring bracelet worn by the trainee and the intelligent terminal, so that the accuracy of judgment, the scientificity of evaluation and the quality and efficiency of training are effectively improved.

Description

Technical Field

[0001] This utility model relates to the field of military physical training technology, specifically to a device for training and assessing serpentine running around poles. Background Technology

[0002] The 30m x 2 serpentine run is one of the basic physical fitness training assessment subjects in the military physical training syllabus. It is a very important exercise for improving speed and agility. The 30m x 2 serpentine run can enhance the strength of lower limb muscle groups, including the gluteal muscles, quadriceps, hamstrings, and gastrocnemius muscles, as well as core muscle stability. It not only improves soldiers' speed and agility, and trains their coordination and quick change of direction, but also helps soldiers to quickly advance in combat and effectively avoid enemy fire and obstacles.

[0003] The training venue requirements for the 30m x 2 serpentine run are as follows: On a standard athletic track or flat ground, draw two parallel lines 30 meters apart as the start / finish line and turnaround line. On the two lane lines 2.5 meters apart, place a pole 5 meters apart in a straight line, for a total of 6 poles, with a pole height of no less than 1.8 meters. The trainee stands with both feet on the starting line behind the left side of the first obstacle. Upon hearing the "Ready" signal, prepare for a standing start. Upon hearing the "Start" signal, run quickly towards the first obstacle, and run around it from the outside. Continue running around the poles from the outside until the last obstacle, then turn back and return to the finish line along the same route. The last 5 meters are a straight sprint.

[0004] In existing technologies, the 30m x 2 serpentine run is generally assessed manually, using manual stopwatches and visual observation to judge the trainee's training time and movements. This method is not only less accurate, affecting the authenticity and authority of the results, but also less scientific, making it difficult to conduct targeted scientific evaluations for all trainees individually. Utility Model Content

[0005] This invention provides a more accurate and scientific evaluation device for training and assessing serpentine running around poles, which can solve at least one of the above-mentioned technical problems.

[0006] To solve the above-mentioned technical problems, this utility model adopts the following technical solution: a training and assessment device for serpentine running around poles, comprising:

[0007] The starting pistol wireless signal transmitting module and the finish line RFID identification module are arranged in two parts. The starting pistol wireless signal transmitting module is set on the starting line and is used to issue "ready" and "start" commands. The finish line RFID identification module is set on the finish line and is wirelessly connected to the starting pistol wireless signal transmitting module. It is used to receive the command signals issued by the starting pistol wireless signal transmitting module and to keep time.

[0008] The obstacle bar has multiple obstacles, which are set at various points. Each obstacle bar is equipped with a high-definition strobe camera module for capturing the trainee's steps, a touch-sensitive membrane for determining whether the trainee has touched the bar, a human infrared sensor module for determining the direction of the trainee's crossing of the bar, and a signal light for displaying the judgment result.

[0009] The monitoring wristband is detachable and can be worn on the trainee's wrist. It is wirelessly connected to the starting pistol's wireless signal transmission module and the finish line RFID identification module. It contains a step collection module for detecting the trainee's steps, a human body base collection module for detecting the trainee's basic vital signs data, and an RFID timing chip for calculating the trainee's training time.

[0010] The intelligent terminal, which can be moved and placed in the training field, includes a face recognition module for recording the trainee's identity information and an analysis module for receiving detection signals and processing them to form training data packets.

[0011] Furthermore, it is applied to a 30m x 2 serpentine running system, wherein the 30m x 2 serpentine running system is configured as follows:

[0012] Two parallel lines, 30 meters apart horizontally: the starting line / finish line and the turnaround line, wherein the starting line and the finish line are on the same horizontal line and are 2.5 meters apart to the left and right;

[0013] Two parallel lines, 2.5 meters apart vertically to the left and right: lane lines, located on the right lane line, with a point set every meter from the finish line to the turnaround line, namely: point 1, point 3, and point 5; and located on the left lane line, with a point set every meter from the turnaround line to the starting line, namely: point 6, point 4, and point 2.

[0014] Furthermore, the starting pistol wireless signal transmitting module includes at least a wireless electronic starting pistol, a loudspeaker, and an electronic starting host device, and the finish line RFID identification module includes at least an RFID electronic timing host, timing management software, and a computer device. The finish line RFID identification module can identify the "ready" command issued by the starting pistol wireless signal transmitting module and trigger the ready timing state. The finish line RFID identification module can identify the "start" command issued by the starting pistol wireless signal transmitting module and trigger the start timing state.

[0015] Furthermore, the monitoring wristband is equipped with a dial, which is used to display the step count changes collected by the step count acquisition module, the changes in basic human vital signs data collected by the human body baseline acquisition module, and the training time detected by the RFID timing chip. The dial is also equipped with a power switch, which is used to control the monitoring wristband to be turned on or off.

[0016] Furthermore, the height of the obstacle pole is not less than 1.8 meters, and it includes a weighted base and a pole body. The weighted base has a frustum-shaped structure, and the pole body is vertically installed on the weighted base. An outward marking strip is provided on one side of the pole body along its length, and the outward marking strip points to the outer side of the lane divider line.

[0017] Furthermore, the high-definition strobe camera module is embedded in the weighted base, and the shooting range covers the adjacent points of the current location, with the shooting direction facing the trainee's lower leg to foot;

[0018] The touch-sensitive membrane covers the outside of the rod and is used to detect whether the trainee touches the rod when passing the current point.

[0019] The human infrared sensor module is centrally mounted on the pole and located on the external marker strip, and is used to detect whether the trainee has passed around the outside of the obstacle pole at the current point.

[0020] The signal light is fixed to the top of the pole and includes an indicator light and a warning light. The indicator light is connected to the human infrared sensor module and is used to change the flashing color according to the detection signal sent by the human infrared sensor module. Different colors represent different pole crossing states. The warning light is connected to the touch sensing membrane and is used to turn on or off according to the detection signal sent by the touch sensing membrane.

[0021] Furthermore, the face recognition module is used to identify the facial information features of the current trainee and search and compare them in the system library. If an existing assessment information file of the current trainee is matched in the system library, there is no need to create another assessment information file. If no existing assessment information file of the current trainee is matched in the system library, the assessment information file needs to be recreated. The assessment information file of the trainee is bound to the training data package of the trainee.

[0022] Furthermore, the analysis module is used to receive and process the detection signals of various indicators sent by the starting gun wireless signal transmission module, the finish line RFID identification module, the high-definition strobe camera module, the touch sensing film, the human infrared sensing module, the monitoring wristband and the face recognition module, and determine the current training data package of the trainee. The training data package includes the detection data obtained by converting various detection signals, the deficiencies that failed to meet the standards and the corresponding solutions.

[0023] Furthermore, the smart terminal also includes a display module, a printing module, and a speaker;

[0024] The display module is connected to the face recognition module and the analysis module, and is used to receive and display the current trainee's assessment information file and training data package sent by the face recognition module and the analysis module;

[0025] The printing module is connected to the face recognition module and the analysis module, and is used to receive and print the current trainee's assessment information file and training data package sent by the face recognition module and the analysis module;

[0026] The speaker is connected to the face recognition module and the analysis module, and is used to receive and broadcast the current trainee's assessment information file and training data package sent by the face recognition module and the analysis module.

[0027] The beneficial effects of this utility model are reflected in:

[0028] 1. In this utility model, by establishing multiple sensing devices between the starting line, the finish line, obstacle bars at various points, the monitoring wristband worn by the trainee, and the smart terminal, the system can automatically calculate the trainee's training time, as well as automatically detect whether the trainee's movements and postures are standardized and whether their physical and mental qualities meet the standards. It can also generate a comprehensive report that integrates training results, deficiencies that do not meet the standards, and corresponding suggested solutions, effectively improving the accuracy of judgment, the scientific nature of evaluation, and the quality and effectiveness of training.

[0029] 2. This utility model can analyze and identify problems in the training process and provide solutions and suggestions, which not only makes the training results more intuitive and convenient, but also makes the improvement direction more targeted, ensuring that every trainee can fully master the key points of the 30m×2 serpentine run. Attached Figure Description

[0030] The accompanying drawings, which are provided to further illustrate this application and form part of this application, illustrate exemplary embodiments of this application and are used to explain this application, but do not constitute an undue limitation of this application.

[0031] Figure 1 This is a schematic diagram of the deployment and application of the 30-meter × 2 pole-circling serpentine run according to an embodiment of this utility model.

[0032] Figure 2 This is a schematic diagram of the overall structure of the obstacle rod according to an embodiment of the present utility model.

[0033] Figure 3 This is a schematic diagram of the overall structure of the monitoring wristband according to an embodiment of the present invention.

[0034] Figure 4 This is an overall structural block diagram of an embodiment of the present utility model.

[0035] The components in the attached diagram are labeled as follows: 1. First point; 2. Second point; 3. Third point; 4. Fourth point; 5. Fifth point; 6. Sixth point; 7. Starting line; 8. Finish line; 9. Lane lines; 10. Starting pistol wireless signal transmission module; 11. Finish line RFID identification module; 12. Obstacle pole; 13. Weighted base; 14. Pole body; 1401. External marking strip; 15. High-definition strobe camera module; 16. Touch sensing film. ; 17. Human body infrared sensor module; 18. Signal light; 1801. Indicator light; 1802. Warning light; 19. Monitoring wristband; 1901. Dial; 1902. Power switch; 20. Step count acquisition module; 21. Human body baseline acquisition module; 22. RFID timing chip; 23. Smart terminal; 24. Face recognition module; 25. Analysis module; 26. Display module; 27. Printing module; 28. Speaker; 29. ​​Turnaround line. Detailed Implementation

[0036] The technical solutions of the present utility model will be clearly and completely described below with reference to the accompanying drawings of the embodiments. Obviously, the described embodiments are only a part of the embodiments of the present utility model, and not all of them. Unless otherwise specified, the embodiments and features in the embodiments of this application can be combined with each other. Based on the embodiments of the present utility model, all other embodiments obtained by those skilled in the art without creative effort are within the scope of protection of the present utility model.

[0037] It should be noted that if the embodiments of this utility model involve descriptions such as "first" or "second," these descriptions are for descriptive purposes only and should not be construed as indicating or implying their relative importance or implicitly specifying the number of technical features indicated. Therefore, a feature defined with "first" or "second" may explicitly or implicitly include at least one of those features. Furthermore, the meaning of "and / or" throughout the text includes three parallel solutions; for example, "A and / or B" includes solution A, solution B, or a solution where both A and B are satisfied. Additionally, "multiple" refers to two or more.

[0038] See Figure 1 and Figure 4 This utility model provides a training and assessment device for serpentine running around poles, comprising:

[0039] The starting pistol wireless signal transmitting module 10 and the finish line RFID identification module 11 are arranged on the starting line 7 and used to issue "ready" and "start" commands. The finish line RFID identification module 11 is arranged on the finish line 8 and is wirelessly connected to the starting pistol wireless signal transmitting module 10. It is used to receive the command signals issued by the starting pistol wireless signal transmitting module 10 and to keep time.

[0040] The obstacle pole 12 has multiple poles, which are respectively set at various points. The obstacle pole 12 is equipped with a high-definition strobe camera module 15 for capturing the trainee's steps, a touch sensing film 16 for determining whether the trainee touches the pole, a human infrared sensor module 17 for determining the direction of the trainee crossing the pole, and a signal light 18 for displaying the judgment result.

[0041] The monitoring wristband 19 is detachably worn on the trainee's wrist and is wirelessly connected to the starting gun wireless signal transmission module 10 and the finish line RFID identification module 11. It includes a step acquisition module 20 for detecting the trainee's steps, a human body base acquisition module 21 for detecting the trainee's basic vital signs data, and an RFID timing chip 22 for calculating the trainee's training time.

[0042] The intelligent terminal 23 is movable and can be placed in the training field. It includes a face recognition module 24 for recording the identity information of the trainees and an analysis module 25 for receiving detection signals and processing them to form training data packets.

[0043] In this invention, multiple sensing devices are established between the starting line, the finish line, obstacle bars at various points, the monitoring wristband worn by the trainee, and the smart terminal. While automatically calculating the trainee's training time, it can also automatically detect whether the trainee's movements and postures are standardized and whether their physical and mental qualities meet the standards. It can also generate a comprehensive report that integrates training results, deficiencies that do not meet the standards, and corresponding suggested solutions, effectively improving the accuracy of judgment, the scientific nature of evaluation, and the quality and effectiveness of training.

[0044] See Figure 1 In this embodiment, it is applied to a 30m×2 serpentine running system, wherein the 30m×2 serpentine running system is configured as follows:

[0045] Two parallel lines with a horizontal distance of 30 meters between them: the starting line 7 / finish line 8 and the turnaround line 29. The starting line 7 and the finish line 8 are on the same horizontal line and are 2.5 meters apart to the left and right.

[0046] Two parallel lines, 2.5 meters apart vertically to the left and right: lane line 9, located on the right lane line 9, with a point set every 5 meters from the finish line 8 to the turnaround line 29, namely: point 1, point 3 and point 5; and lane line 9, located on the left lane line 9, with a point set every 5 meters from the turnaround line 29 to the starting line 7, namely: point 6, point 4 and point 2.

[0047] During the assessment, the trainee stands with both feet on the starting line 7. After hearing the "Ready" command from the starting gun wireless signal transmitter module 10, the trainee assumes a standing start posture. After hearing the "Start" command from the starting gun wireless signal transmitter module 10, the trainee quickly runs towards the first point 1 and runs around the obstacle bar 12 from the outside. The trainee runs around each obstacle bar 12 in the following order: first point 1 → second point 2 → third point 3 → fourth point 4 → fifth point 5 → sixth point 6. When the trainee reaches the turnaround line 29, the trainee returns to the finish line 8 along the same route. The last 5 meters are a straight sprint from the first point 1 to the finish line 8.

[0048] See Figure 1 and Figure 4 In this embodiment, the starting pistol wireless signal transmitting module 10 includes at least a wireless electronic starting pistol, a loudspeaker, and an electronic starting host device. The finish line RFID identification module 11 includes at least an RFID electronic timing host, timing management software, and a computer device. The finish line RFID identification module 11 can identify the "ready" command issued by the starting pistol wireless signal transmitting module 10 and trigger the ready timing state. The finish line RFID identification module 11 can identify the "start" command issued by the starting pistol wireless signal transmitting module 10 and trigger the start timing state. This design, utilizing radio frequency identification technology, automatically times the entire training process, featuring rapid response, accurate timing, ease of use, low cost, and easy promotion.

[0049] See Figure 3 and Figure 4In this embodiment, the monitoring wristband 19 is provided with a dial 1901, which is used to display the step count changes collected by the step count acquisition module 20, the changes in basic human vital signs data collected by the human body baseline acquisition module 21, and the training time detected by the RFID timing chip 22. The dial 1901 is provided with a power switch 1902, which is used to control the monitoring wristband 19 to be turned on or off. With this design, before the assessment, trainees receive and correctly wear the monitoring wristband 19 on their wrists. At the check-in point, they write an RFID tag onto the smart terminal 23 to calculate training time during the training process. Simultaneously, the training time data is uploaded to the system database. During the assessment, the step counting module 20 monitors and calculates the trainee's total steps. The step counting module 20 includes at least a vibration sensor, a gravity sensor, and an acceleration sensor. The human body baseline data collection module 21 monitors the trainee's basic vital signs data in real time, such as heart rate and blood pressure, and uploads the above basic vital signs data to the smart terminal 23. This generates a distribution chart of the trainee's various basic vital signs data, thereby reflecting the trainee's current physical fitness indicators.

[0050] See Figure 1 and Figure 2 In this embodiment, the height of the obstacle pole 12 is not less than 1.8 meters, and includes a weighted base 13 and a pole body 14. The weighted base 13 has a frustum-shaped structure, and the pole body 14 is vertically installed on the weighted base 13. An outward marking strip 1401 is provided on one side of the pole body 14 along its length, and the outward marking strip 1401 points outward from the lane line 9. With this design, the height of the obstacle pole 12 should not be lower than the average height of the trainees. The frustum-shaped weighted base 13 can make the pole body 14 stand stably. Each obstacle pole 12 is placed at the first point 1, the second point 2, the third point 3, the fourth point 4, the fifth point 5, and the sixth point 6, respectively. The outward marking strip 1401 must point outward from the lane line 9 to remind all trainees to walk around the pole from the outside. Moreover, the obstacle pole 12 can be moved away by itself after training without affecting the normal use of the training field.

[0051] See Figure 1 and Figure 2 In this embodiment, the high-definition strobe camera module 15 is embedded in the weighted base 13, and the shooting range includes the adjacent points of the current location, and the shooting direction is towards the trainee's lower leg to foot.

[0052] The touch-sensitive film 16 covers the outside of the rod body 14 and is used to detect whether the trainee touches the rod when passing the current point;

[0053] The human infrared sensing module 17 is centrally mounted on the pole 14 and located on the external marker strip 1401, and is used to detect whether the trainee has passed around the outside of the obstacle pole 12 at the current point.

[0054] The signal light 18 is fixed to the top of the pole 18 and includes an indicator light 1801 and a warning light 1802. The indicator light 1801 is connected to the human infrared sensor module 17 and is used to change the flashing color according to the detection signal sent by the human infrared sensor module 17. Different colors represent different pole crossing states. The warning light 1802 is connected to the touch sensing film 16 and is used to turn on or off according to the detection signal sent by the touch sensing film 16.

[0055] This design utilizes the high-definition strobe camera module 15 to capture the trainee's gait and step count at various points. Combined with the step count acquisition module 20, the smart terminal 23 comprehensively analyzes the trainee's distance from the pole 14 and the actual number of steps taken between adjacent points (ideally 5 steps). The touch-sensitive film 16 embeds a touch-sensitive circuit, which can be in the form of a sliding rheostat or transformer. Changes in resistance or turns ratio at the touch location trigger voltage changes, thereby determining whether the trainee has touched the pole. If the pole has been touched, the warning light 1802 on the pole 14 illuminates. If no contact is made with the barrier, the warning light on the current barrier 14 will not illuminate, making it easy to visually check the results. Signals indicating whether or not the barrier has been touched at all points will be sent to the smart terminal 23. When the trainee does not pass the barrier 12, the indicator light 1801 at that point will not illuminate. When the trainee correctly passes the barrier 12 from the outside, the indicator light 1801 at that point will illuminate with color A. When the trainee incorrectly passes the barrier 12 from the inside, the indicator light 1801 at that point will illuminate with color B. This also facilitates visually checking the results, and signals indicating the direction of the barrier pass at all points will be sent to the smart terminal 23.

[0056] See Figure 4 In this embodiment, the smart terminal 23 includes a face recognition module 24, an analysis module 25, a display module 26, a printing module 27, and a speaker 28;

[0057] The face recognition module 24 is used to identify the facial information features of the current trainee and search and compare them in the system library. If the system library matches the established assessment information file of the current trainee, there is no need to establish the assessment information file again. If the system library does not match the established assessment information file of the current trainee, the assessment information file needs to be established again. The assessment information file of the trainee is bound to the training data package of the trainee.

[0058] The analysis module 25 is used to receive and process the detection signals of various indicators sent by the starting gun wireless signal transmitting module 10, the finish line RFID identification module 11, the high-definition strobe camera module 15, the touch sensing film 16, the human infrared sensing module 17, the monitoring wristband 19 and the face recognition module 24, and determine the current training data package of the trainee. The training data package includes the detection data obtained by converting various detection signals, the deficiencies that failed to meet the standards and the corresponding solutions.

[0059] The display module 26 is connected to the face recognition module 24 and the analysis module 25, and is used to receive and display the current trainee's assessment information file and training data package sent by the face recognition module 24 and the analysis module 25;

[0060] The printing module 27 is connected to the face recognition module 24 and the analysis module 25, and is used to receive and print the current trainee's assessment information file and training data package sent by the face recognition module 24 and the analysis module 25.

[0061] The speaker 28 is connected to the face recognition module 24 and the analysis module 25, and is used to receive and broadcast the current trainee's assessment information file and training data package sent by the face recognition module 24 and the analysis module 25.

[0062] In this design, before the assessment, trainees use the facial recognition module 24 to identify their facial features at the check-in point using the smart terminal 23 to input their personal identity information into the system database for later statistical analysis of their training performance. During the assessment, various detection signals are wirelessly transmitted in real time to the analysis module 25. After the assessment, the analysis module 25 analyzes and calculates the data through a preset algorithm program, and then uses simulation to determine the results. Finally, it obtains the various indicator data obtained from the entire training process, the deficiencies that failed to meet the standards, and the corresponding solutions for each deficiency. This data is then packaged into a training data package. The training data package is sent to the display module 26 for presentation, centrally displaying the posture of all trainees' legs and feet. By setting it to display multiple trainees' training data packages at a time and simultaneously, it can be used for the intuitive presentation and summarization of problems during classroom teaching. It can also rely on this system to accurately point out training problems and provide targeted improvement methods, thereby improving trainees' enthusiasm and participation in class. The training data package is also sent to the printing module 27 for printing, such as invoices, supermarket receipts, etc., and there are no specific restrictions here. The training data package can also be read aloud by the speaker 28.

[0063] It should be noted that those skilled in the art will understand that all or part of the steps implemented in the embodiments of this utility model can be implemented entirely or partially by software, hardware, firmware, or any combination thereof. When implemented using software, it can be implemented entirely or partially in the form of a computer program product. The computer program product includes one or more computer instructions. When implemented using hardware, such as a starting pistol wireless signal transmitter, a finish line RFID identification module, a monitoring wristband, a high-definition strobe camera module, a touch sensing film, a human infrared sensing module, a signal light, or a smart terminal, it can be implemented entirely or partially in a form that is commercially available through purchase. When the computer program instructions are loaded and executed on a computer, all or part of the processes or functions described in the embodiments of this application are generated. The computer can be a general-purpose computer, a special-purpose computer, a computer network, or other programmable devices. The computer instructions can be stored in a computer-readable storage medium or transmitted from one computer-readable storage medium to another. For example, the computer instructions can be transmitted from one website, computer, server, or data center to another via wired (e.g., coaxial cable, fiber optic, digital subscriber line (DSL)) or wireless (e.g., infrared, wireless, microwave, etc.) means. The computer-readable storage medium can be any available medium that a computer can access, or a data storage device such as a server or data center that integrates one or more available media. The available medium can be a magnetic medium (e.g., floppy disk, hard disk, magnetic tape), an optical medium (e.g., DVD), or a semiconductor medium (e.g., a solid state disk (SSD)).

[0064] In summary, this utility model, on the one hand, establishes multiple sensing devices between the starting line, finish line, obstacle bars at various points, the monitoring wristband worn by the trainee, and the smart terminal. While automatically calculating the trainee's training time, it can also automatically detect whether the trainee's movements and postures are standardized and whether their physical and mental fitness meets the standards. It can generate a comprehensive report integrating training results, deficiencies that did not meet the standards, and corresponding suggested solutions, effectively improving the accuracy of judgment, the scientific nature of evaluation, and the quality and effectiveness of training. On the other hand, it can analyze and identify problems in the training process and provide solutions and suggestions. This not only makes the training results more intuitive and convenient but also makes the improvement direction more targeted, ensuring that every trainee can fully master the key points of the 30m x 2 serpentine run.

[0065] It should be understood that the examples and embodiments described herein are for illustrative purposes only and are not intended to limit the present invention. Those skilled in the art can make various modifications or changes based on them. Any modifications, equivalent substitutions, improvements, etc., made within the spirit and principles of the present invention should be included within the protection scope of the present invention.

Claims

1. A training and assessment device for serpentine running around poles, characterized in that, include: The starting pistol wireless signal transmitting module (10) and the finish line RFID identification module (11) are provided. The starting pistol wireless signal transmitting module (10) is set on the starting line (7) and is used to issue "ready" and "start" commands. The finish line RFID identification module (11) is set on the finish line (8) and is wirelessly connected to the starting pistol wireless signal transmitting module (10) to receive the command signals issued by the starting pistol wireless signal transmitting module (10) and to keep time. The obstacle pole (12) has multiple poles, which are respectively set at various points. The obstacle pole (12) is equipped with a high-definition strobe camera module (15) for capturing the trainee's steps, a touch sensing film (16) for judging whether the trainee touches the pole, a human infrared sensor module (17) for judging the direction of the trainee passing the pole, and a signal light (18) for displaying the judgment result. The monitoring wristband (19) is detachable and can be worn on the wrist of the trainee. It is wirelessly connected to the starting gun wireless signal transmission module (10) and the finish line RFID identification module (11). It is equipped with a step collection module (20) for detecting the number of steps taken by the trainee, a human body base collection module (21) for detecting the basic vital signs data of the trainee, and an RFID timing chip (22) for calculating the training time of the trainee. The intelligent terminal (23) can be moved and placed in the training field, including a face recognition module (24) for recording the identity information of the trainees and an analysis module (25) for receiving detection signals and processing them to form training data packets.

2. The training and assessment device for serpentine running around poles as described in claim 1, characterized in that, Applied to a 30m x 2 serpentine running system, the 30m x 2 serpentine running system is configured as follows: Two parallel lines with a horizontal distance of 30 meters between them: the starting line (7) / finish line (8) and the turnaround line (29), wherein the starting line (7) and the finish line (8) are on the same horizontal line and are 2.5 meters apart to the left and right; Two parallel lines with a vertical spacing of 2.5 meters: lane line (9), located on the right lane line (9), from the finish line (8) to the turnaround line (29), with a point set every 5 meters, in the order of: first point (1), third point (3) and fifth point (5); and lane line (9) located on the left lane line (9), from the turnaround line (29) to the starting line (7), with a point set every 5 meters, in the order of: sixth point (6), fourth point (4) and second point (2).

3. The training and assessment device for serpentine running around poles as described in claim 1, characterized in that, The starting pistol wireless signal transmitting module (10) includes at least a wireless electronic starting pistol, a loudspeaker, and an electronic starting host device. The finish line RFID identification module (11) includes at least an RFID electronic timing host, timing management software, and a computer device. The finish line RFID identification module (11) can identify the "ready" command issued by the starting pistol wireless signal transmitting module (10) and trigger the ready timing state. The finish line RFID identification module (11) can identify the "start" command issued by the starting pistol wireless signal transmitting module (10) and trigger the start timing state.

4. The training and assessment device for serpentine running around poles as described in claim 1, characterized in that, The monitoring wristband (19) is provided with a dial (1901), which is used to display the step count changes collected by the step count acquisition module (20), the changes in basic human vital signs data collected by the human body base acquisition module (21), and the training time detected by the RFID timing chip (22). The dial (1901) is provided with a power switch (1902), which is used to control the opening or closing of the monitoring wristband (19).

5. The training and assessment device for serpentine running around poles as described in claim 2, characterized in that, The height of the obstacle pole (12) is not less than 1.8 meters, including a weighted base (13) and a pole body (14). The weighted base (13) has a frustum-shaped structure. The pole body (14) is vertically installed on the weighted base (13). An external marking strip (1401) is provided on one side of the pole body (14) along the length direction. The external marking strip (1401) points to the outside of the lane divider (9).

6. The training and assessment device for serpentine running around poles as described in claim 5, characterized in that, The high-definition strobe camera module (15) is embedded in the weighted base (13), and the shooting range covers the adjacent points of the current location, with the shooting direction facing the trainee's lower leg to foot. The touch-sensitive membrane (16) covers the outside of the rod (14) and is used to detect whether the trainee touches the rod when passing the current point; The human infrared sensor module (17) is centrally mounted on the pole (14) and located on the external marker strip (1401) to detect whether the trainee passes around the outside of the obstacle pole (12) at the current point. The signal light (18) is fixed to the top of the pole (14) and includes an indicator light (1801) and a warning light (1802). The indicator light (1801) is connected to the human infrared sensor module (17) and is used to change the flashing color according to the detection signal sent by the human infrared sensor module (17). Different colors represent different pole crossing states. The warning light (1802) is connected to the touch sensing membrane (16) and is used to turn on or off according to the detection signal sent by the touch sensing membrane (16).

7. The training and assessment device for serpentine running around poles as described in claim 1, characterized in that, The face recognition module (24) is used to identify the facial information features of the current trainee and search and compare them in the system library. If the system library matches the established assessment information file of the current trainee, there is no need to establish the assessment information file again. If the system library does not match the established assessment information file of the current trainee, the assessment information file needs to be re-established. The assessment information file of the trainee is bound to the training data package of the trainee.

8. The training and assessment device for serpentine running around poles as described in claim 1, characterized in that, The analysis module (25) is used to receive and process the detection signals of various indicators sent by the starting gun wireless signal transmitting module (10), the finish line RFID identification module (11), the high-definition strobe camera module (15), the touch sensing film (16), the human infrared sensing module (17), the monitoring wristband (19) and the face recognition module (24), and determine the current training data package of the trainee. The training data package includes the detection data obtained by converting various detection signals, the deficiencies that failed to meet the standards and the corresponding solutions.

Images