Body-building door frame

Abstract

The utility model provides a fitness door frame, and belongs to the technical field of fitness equipment. The problems that at present, most exclusive gymnasiums are large in occupied area and many in instrument type, and consequently a large amount of family space is occupied, and capital consumption is large are solved. Besides, even if an exclusive gymnasium is required to be built, a professional coach is still required to carry out action guidance during exercise, otherwise, the problem that a person is easy to be injured during exercise is solved. A fitness portal frame comprises an exercise platform, deformation supports are oppositely arranged on the two sides of the exercise platform respectively, the tops of the two deformation supports are connected with a terminal and a holding device, and the deformation supports can change the shape and simulate heavy objects to adapt to exercise of different parts of a user. The terminal and the holding device can monitor and correct the exercise posture of the user and provide the holding position. The multifunctional fitness equipment has the advantages of being small in occupied area, capable of meeting the requirements of different exercise parts in various forms and capable of conducting real-time fitness guidance.

Description

Technical Field

[0001] This utility model relates to the field of fitness equipment technology, specifically a fitness gate frame. Background Technology

[0002] Public gyms typically experience high foot traffic and frequent equipment use, which can raise hygiene concerns. Furthermore, during peak hours, waiting times for popular equipment can negatively impact workout efficiency and experience. Additionally, if the gym is far away, commuting time can be a significant drawback. Therefore, those who can afford it often choose to create their own private gym at home.

[0003] However, most dedicated gyms currently occupy a large area and have a wide variety of equipment, resulting in significant space occupation and financial expenditure for families. Furthermore, even if one has the resources to build a dedicated gym, professional instructors are still needed to guide movement during workouts; otherwise, injuries are a serious risk. Utility Model Content

[0004] (a) Technical problems to be solved

[0005] To address the shortcomings of existing technologies, this utility model provides a fitness gate frame that has the advantages of small footprint, multiple configurations to meet the needs of different exercise groups, and the ability to provide real-time fitness guidance. This solves the problem that most dedicated gyms currently occupy a large area, have many types of equipment, resulting in significant space consumption and financial expenditure in homes. Furthermore, even with the resources to build a dedicated gym, professional instructors are still needed to guide exercises, otherwise injuries are easily sustained.

[0006] (II) Technical Solution

[0007] To achieve the goals of small footprint, multiple forms to meet the needs of different exercise parts, and real-time fitness guidance, this utility model provides the following technical solution: a fitness gate frame, including an exercise platform, with deformable supports arranged opposite each other on both sides of the exercise platform, and a terminal and a gripping device connected to the top of the two deformable supports. The deformable supports can change shape and simulate weight to adapt to the user's exercise of different parts of the body, and the terminal and gripping device can monitor and correct the user's exercise posture and provide a gripping position.

[0008] Preferably, the exercise platform is provided with side platforms on both sides, and the side platforms are provided with mounting slots.

[0009] Preferably, the deformable bracket includes a base bracket, a main bracket, a brushless motor housing, and a slave bracket that are rotatably connected in sequence. The bottom of the base bracket is also provided with a fitting block, and the base bracket is installed in the mounting slot of the side platform through the fitting block.

[0010] Preferably, a rotary motor is provided at the rotatable connection between the main support and the bottom support. A rack is provided on the inner side of the main support, and a brushless motor pack is assembled at the top of the rack. The brushless motor pack is used to control the shape transformation of the deformable support and to infinitely adjust the weight. A drive shaft and a drive gear are provided on the brushless motor pack. The drive gear meshes with the rack. A first connection port and a second connection port are provided on the slave support, and the drive shaft is assembled in the second connection port of the slave support.

[0011] Preferably, an array of cameras is also fitted on the inner side of the main support, and a projection module is provided on the outer side of the main support.

[0012] Preferably, the bottom of the main support is further provided with a limiting device, and the limiting device is provided with a limiting block inside.

[0013] Preferably, the terminal and gripping device are installed in the first connection ports of two opposing secondary brackets. The terminal and gripping device include three parallel spliced ​​human-computer interaction modules, an AI data processing module and a central data processing module. Connectors are respectively provided on the outer ends of the human-computer interaction module and the central data processing module, and the connectors are assembled in the first connection ports of the secondary brackets.

[0014] Preferably, the human-computer interaction module and the central data processing module are each provided with a slide bar, and an electrostatic induction handle is slidably mounted on the slide bar.

[0015] Preferably, the bottom of the human-computer interaction module and the central data processing module are respectively provided with foot fixation devices. The foot fixation device includes a fixed base that is fitted into the human-computer interaction module and the central data processing module. The fixed base is provided with a sliding groove. Sliding limiters are slidably provided at both ends of the sliding groove. Rotation limiters are rotatably provided on both sides of the end of the sliding limiters.

[0016] Preferably, a thermal imaging camera is provided on the front side of the AI ​​data processing module.

[0017] (III) Beneficial Effects

[0018] Compared with the prior art, the present invention provides a fitness gate frame with the following beneficial effects:

[0019] This fitness gate utilizes the coordinated use of an exercise platform, a deformable support frame, and end caps and grip devices. When using this fitness gate, the reverse torque function of the brushless motor and the rotation function of the rotary motor alter the angles between the main support and the exercise platform, as well as between the main support and the secondary support, thereby achieving the goal of exercising different muscle groups. Mode 1: (Example...)Figure 1 When both the main support and the slave support are fixed vertically by the rotary motor and brushless motor, the electrostatic induction handle is located above the user, allowing the user to perform exercises such as pull-ups and hanging leg raises. Mode Two: Controlling the movement of the main support and slave support to... Figure 9 In the position shown, the user can perform weighted squats. At this point, the support frame is fixedly connected to the brushless motor pack. The main support frame and the brushless motor pack are connected through the reverse torque capability between the brushless motor packs. That is, the drive gear and rack generate a certain resistance through the brushless motor pack, making the user feel as if a heavy weight is supporting their shoulders during the squat. Mode 3: As shown... Figure 10 Similar to Mode 2, this mode allows for dumbbell presses. Mode 4: (The text abruptly ends here, likely due to an incomplete sentence or a formatting error.) Figure 11 This allows for dumbbell curls. Mode 5, such as... Figure 12 This allows for seated forward bends. Mode Five, such as... Figure 13 It allows for backward leg presses. It supports a total of 20 fitness movements, covering 80% of the body's muscle groups.

[0020] While the user exercises, the camera emits an infrared light matrix that scans the human body and reflects it into a structured light receiver. By recording the speed at which each light point reaches the receiver, the distance between the light point and the camera is recorded, thus generating a 3D model of the human body. The AI ​​data processing module removes redundant sampling from the camera and duplicate scanned human body segments. Simultaneously, it reduces the dimensionality of tens of millions of light points and continuously merges similar light points until a rough outline of the human body is formed.

[0021] When a user exercises, the projection module projects the correct movements to help the user find the correct feeling of exertion. During projection, the image is synchronized with the user's movements, making it convenient for the user to self-correct.

[0022] The human-computer interaction module displays the user's physical condition during exercise, allowing the user to understand their exercise results in real time. It can also upload data to a mobile app via Wi-Fi, making it more convenient for users to check their physical condition.

[0023] This achieves the effect of having a small footprint, multiple forms to meet the needs of different exercise parts, and real-time fitness guidance. Attached Figure Description

[0024] Figure 1 This is a schematic diagram of a fitness gate structure according to the present invention;

[0025] Figure 2 This is a schematic diagram of a fitness gate exercise platform structure according to the present invention;

[0026] Figure 3 This is a schematic diagram of a deformable support structure for a fitness gate according to the present invention;

[0027] Figure 4 This is a schematic diagram of the main support structure of a fitness gate frame according to the present invention;

[0028] Figure 5 This is a schematic diagram of the structure of a brushless motor package for a fitness gate according to the present invention;

[0029] Figure 6 This is a schematic diagram of the structure of a fitness gantry terminal and grip module according to the present invention. Figure I ;

[0030] Figure 7 This is a schematic diagram of the structure of a fitness gantry terminal and grip module according to the present invention. Figure II ;

[0031] Figure 8 This is an enlarged schematic diagram of the structure at point A of a fitness gate frame according to this utility model;

[0032] Figure 9 This is a schematic diagram of a fitness gate frame in a weighted squat position according to the present invention.

[0033] Figure 10 This is a schematic diagram of a fitness bench in the form of dumbbell press according to the present invention.

[0034] Figure 11 This is a schematic diagram of a fitness gate frame in the form of dumbbell curls according to the present invention.

[0035] Figure 12 This is a schematic diagram of a fitness gate frame in a seated forward bend position according to the present invention;

[0036] Figure 13 This is a schematic diagram of a fitness gate frame in a backward kicking state according to the present invention.

[0037] In the picture:

[0038] 1. Exercise platform; 11. Side platform; 111. Installation slot;

[0039] 2. Deformable bracket; 21. Slave bracket; 211. First connection port; 212. Second connection port; 22. Brushless motor housing; 221. Drive shaft; 222. Drive gear; 23. Main bracket; 231. Projection module; 232. Camera; 233. Rack; 234. Limiting device; 235. Limiting block; 236. Rotary motor; 24. Base bracket; 241. Fitting block;

[0040] 3. Terminal and gripping device; 31. Human-computer interaction module; 32. AI data processing module; 33. Central data processing module; 34. Electrostatic induction handle; 35. Slide bar; 36. Foot retainer; 361. Fixed base; 362. Sliding limit component; 363. Rotation limit component; 364. Slide groove; 37. Connector; 38. Thermal camera; Detailed Implementation

[0041] 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 some embodiments of the present utility model, and not all embodiments. Based on the embodiments of the present utility model, all other embodiments obtained by those of ordinary skill in the art without creative effort are within the protection scope of the present utility model.

[0042] Please see Figure 1-13 A fitness gantry includes an exercise platform 1, which serves as a platform for users to stand or lie down during exercise. The platform provides a stable support surface, allowing users to safely perform various movements, and is compact in size, occupying minimal floor space. Deformable supports 2 are positioned opposite each other on both sides of the exercise platform 1. These supports 2 can change shape and simulate weights to accommodate different muscle groups being exercised. By changing the shape of the supports, the angle, height, or position of the exercise can be adjusted to target specific muscle groups. A terminal and grip device 3 is connected to the top of the two deformable supports 2. The terminal and grip device 3 monitors and corrects the user's exercise posture and provides a grip position. The terminal and grip device 3 is a multi-functional device that monitors the user's exercise posture to ensure correct posture and prevent injury. If incorrect posture is detected, the device provides feedback to help the user adjust their posture. The device also provides a grip position for stable holding during exercise, increasing the stability and safety of the movement.

[0043] The exercise platform 1 has side platforms 11 on both sides, and each side platform 11 has a mounting slot 111. The side platforms 11 are located on both sides of the exercise platform 1 and are used to support two deformable supports 2 respectively. The mounting slots 111 are used to install the bottom support 24 of the deformable support 2, thereby supporting the deformable support 2.

[0044] The deformable support 2 includes a base support 24, a main support 23, a brushless motor housing 22, and a slave support 21, which are rotatably connected in sequence. The deformable support 2 is formed by the mutual rotatable connection of the base support 24, the main support 23, the brushless motor housing 22, and the slave support 21. Through the rotatable connection of multiple components, the degree of freedom is greatly improved, thereby greatly increasing the number of shapes that the deformable support 2 can change, and correspondingly, more different muscle groups can be exercised. The bottom of the base support 24 is also provided with a fitting block 241, and the base support 24 is installed in the mounting slot 111 of the side platform 11 through the fitting block 241.

[0045] A rotary motor 236 is installed at the rotatable connection between the main support 23 and the bottom support 24. During the transformation of the deformable support 2, the bottom support 24, as the base, does not need to rotate, but the main support 23, the brushless motor housing 22, and the slave support 21 above it all need to change their angles. The rotary motor 236 is used to drive the rotation of the main support 23, thereby changing the angle of the main support 23.

[0046] A rack 233 is provided on the inner side of the main support 23. A brushless motor housing 22 is mounted on the top of the rack 233. The brushless motor housing 22 has a drive shaft 221 and a drive gear 222, which mesh with the rack 233. The brushless motor housing 22 has a reverse torque function, used to control the shape transformation of the deformable support 2 and to infinitely adjust the weight. It can accurately simulate the weight and movement trajectory of dumbbells during exercise. Whether it is light warm-up training or high-intensity strength challenge, it can be achieved by adjusting the reverse torque, providing users with a resistance feeling that is almost identical to real dumbbell exercises. The brushless motor housing contains two brushless motors. The brushless motors simulate the movement trajectory of different equipment by rotating and reciprocating linearly, and simulate different training weights by applying reverse torque to increase or decrease resistance. In addition, the brushless motor pack 22 also controls the shape changes of the deformable support 2. The brushless motor pack 22 can change its relative position on the main support 23, as well as the relative position and angle between the support 21 and the main support 23, thereby achieving full shape transformation of the deformable support 2 to meet the needs of different exercise areas. When the user wants to exercise upper limb muscles, the brushless motor pack 22 operates, causing the deformable support 2 to quickly adjust to a posture suitable for upper limb training; while when the user shifts their focus to lower limb exercise, the brushless motor pack 22 operates, allowing the deformable support 2 to transform into the optimal lower limb exercise form.

[0047] The bracket 21 has a first connection port 211 and a second connection port 212. The drive shaft 221 is assembled in the second connection port 212 of the bracket 21. The drive shaft 221 and the second connection port 212 are fixedly connected. The shape and angle of the bracket 21 can be changed by the brushless motor in the brushless motor package 22 driving the drive shaft 221.

[0048] An array of cameras 232 is also embedded on the inner side of the main support 23. These cameras are TrueDepth cameras 232. The TrueDepth (real-time modeling) camera system works by projecting a specific pattern of light onto the surface of an object, and then acquiring the object's three-dimensional shape and contour information based on the deformation and reflection of the light. When applied to human body modeling in motion, the TrueDepth camera 232 can capture the posture, joint angles, and muscle movement trajectories of the human body in various fitness movements in real time. During user workouts, the TrueDepth camera 232 can accurately analyze every movement of the user. Whether it's arm extension during weightlifting or stride length during running, it provides detailed data. For fitness enthusiasts, this means more accurate movement assessment. Users can clearly understand whether their movements are standard, correct improper postures in time, thereby reducing the risk of injury and maximizing the effectiveness of each exercise. In strength training, the TrueDepth camera 232 helps users identify muscle activation points and load distribution, optimizing training plans and enabling more targeted training of target muscle groups to improve the efficiency of strength gains. For aerobic exercises, such as running or skipping rope, it can analyze the user's exercise rhythm and body balance, helping users improve exercise skills and enhance endurance performance. Furthermore, the TrueDepth camera 232 can track the user's fitness progress over a long period. Through multiple measurements and comparisons, users can intuitively see changes in body shape, muscle growth, and fat reduction, providing strong motivation and clear direction for their fitness journey. Specifically, the camera 232 emits an infrared light matrix that scans the human body, reflecting it into a structured light receiver. By recording the speed of each light point to the receiver, the distance between the light point and the camera 232 is recorded, thus creating a 3D model of the human body. The AI ​​data processing module 32 removes redundant sampling from the camera 232 and duplicate scanned human body segments. Simultaneously, it reduces the dimensionality of tens of millions of light points and continuously merges similar light points until a rough human outline is formed.

[0049] A projection module 231 is installed on the outer surface of the main support 23. When a user makes a mistake in their movements during exercise, the projection module 231 projects the correct movement image, and the projected image matches the user's movement in real time. This allows the user to directly compare their own movements with the standard movements from the same perspective, thus quickly identifying and correcting errors. This intuitive visual guidance significantly enhances the user's understanding and mastery of proper movement, facilitating more efficient and safer fitness training. When the fitness support frame is not in use, the projector can also be used to play movies and other entertainment videos for the user.

[0050] A limiting device 234 is also provided at the bottom of the main support 23, and a limiting block 235 is provided inside the limiting device 234. The limiting device 234 is used to prevent the motor from being driven when not in operation. The limiting device 234 can detect abnormal operation of the brushless motor pack 22 and the rotary motor 236, such as abnormal starting of the brushless motor pack 22 and the rotary motor 236 caused by software failure or other unexpected factors. At this time, the limiting block 235 will quickly pop down, limiting the main support 23 and preventing it from rotating, effectively avoiding sudden movement of the deformable support 2 and reducing the risk of accidental injury to the user.

[0051] The terminal and grip device 3 are installed in the first connection ports 211 of two opposing brackets 21. The terminal and grip device 3 includes three parallelly spliced ​​human-computer interaction modules 31, AI data processing modules 32, and central data processing modules 33. The human-computer interaction module 31 is equipped with a display screen that can display various human body data and physical conditions in real time. This module can display the user's key movement data in real time. During the user's exercise, the display screen clearly tells the user how many calories have been burned, allowing the user to have a clear understanding of their energy consumption. In addition, the display screen will intelligently display the next training plan based on the user's fitness goals and progress. Whether it's increasing strength, improving endurance, or shaping the body, these personalized training plans will accurately match the user's needs, ensuring that the user's exercise is scientific and efficient. Finally, the user can also switch the shape of the deformable bracket 2 through the display screen to adapt to the user's diverse fitness needs.

[0052] The AI ​​data processing module 32 is primarily used to process and analyze various collected human body data, which is then transmitted to the human-computer interaction module 31 or to the user's mobile phone. This module is based on deep learning and computer vision technologies. First, the AI ​​model is trained using a large amount of human structured light data. This data includes human structured light information under different body shapes, postures, and environments. During processing, the AI ​​first employs a dimensionality reduction algorithm to map high-dimensional structured light data to a low-dimensional space, removing a large amount of duplicate sampling or structured light that is irrelevant to the human body. Then, the AI ​​uses feature extraction technology to gradually merge millions of structured light data until the general outline of the human body can be seen. Once a precise model of the user is established through the camera system 232, the user's muscle training status can be analyzed from multiple aspects. First, by analyzing the model's geometry and proportions, the changes in muscle volume and dimensionality can be assessed. By comparing models from different time periods, the thickening or lengthening of muscle groups can be observed to determine the degree of muscle growth or extension. Second, motion capture data and mechanical simulations are used to analyze the muscle contraction and extension patterns during various exercise movements. It's possible to identify which muscle groups play a major role in a specific movement, as well as their activity intensity and duration. Furthermore, by applying biomechanical principles, the force and load borne by the muscles during exercise can be calculated. If a muscle consistently experiences excessively high or low loads across multiple workouts, it can be inferred that it may be over-fatigued or under-trained. Additionally, assessing the model's posture and movement fluidity can indirectly reflect muscle coordination and strength balance. Unsmooth movements or abnormal postures may indicate that certain muscle groups are overly tense or weak. Furthermore, knowledge of muscle fiber types can be used to infer the activation and development of different types of muscle fibers (such as fast-twitch and slow-twitch fibers) based on the user's exercise type and intensity.

[0053] The central data processing module 33 is used to receive various types of data.

[0054] Connectors 37 are respectively provided on the outer ends of the human-computer interaction module 31 and the central data processing module 33. The connectors 37 are assembled in the first connection port 211 of the bracket 21. The connectors 37 and the first connection port 211 are also fixedly connected. When the shape and angle of the bracket 21 change, the terminal and gripping device 3 set in the middle can also change shape.

[0055] Both the human-computer interaction module 31 and the central data processing module 33 are equipped with slide bars 35, on which electrostatic induction handles 34 are slidably mounted. The electrostatic induction handles 34 can slide left and right on the slide bars 35 to correspond to changes in hand position during exercise. For example, during a dumbbell press, grip the electrostatic induction handles 34 on both sides, positioning your hands slightly above your shoulders with a distance of approximately two shoulder widths between them. As you press upwards, the distance between your hands gradually decreases, causing the electrostatic induction handles 34 to slide from the sides towards the center until the press is complete. Then, as you lower your hands, the electrostatic induction handles 34 will move from the center to the sides, repeating the cycle.

[0056] The user's skin, acting as a conductive medium, alters the capacitance value of the sensor on the electrostatic induction handle 34. The sensor continuously monitors these changes, and only when the capacitance reaches a certain threshold, indicating sufficient contact between the electrostatic induction handle 34 and the skin, will the motor be activated. This achieves a safety sensing and contact-activated start effect, enhancing safety.

[0057] The bottom of the human-computer interaction module 31 and the central data processing module 33 are also equipped with foot fixation devices 36. When performing leg training such as leg kicks, the user needs to lie down, raise both legs, and place both feet in the foot fixation devices 36 for training. The foot fixation devices 36 fix the user's feet, prevent slipping, and ensure training safety.

[0058] The foot stabilizer 36 includes a fixed base 361 fitted onto the human-computer interaction module 31 and the central data processing module 33. The fixed base 361 has the same shape as the outline of the foot, but is slightly larger, and is used to place both feet. The fixed base 361 is provided with a sliding groove 364, and sliding limit members 362 are slidably provided at both ends of the sliding groove 364. The sliding limit members 362 can slide in the sliding groove 364. When the user places both feet on the fixed base 361, the toes and heels will step on the two sliding limit members 362 respectively, and then the sliding limit members 362 will move closer to each other, clamping the user's toes and heels together.

[0059] Rotational limiting components 363 are rotatably provided on both sides of the end of the sliding limiting component 362. The rotational limiting components 363 are located on both sides of the toes and the heels, respectively. When the user's foot is clamped from the front and back, the rotational limiting components 363 on both sides will wrap around the foot from the left and right, thereby further fixing the foot and allowing the user to perform leg training movements such as leg kicks more stably and safely.

[0060] A thermal imaging camera 38 is located on the front of the AI ​​data processing module 32. The thermal imaging camera 38 is used to detect whether there are living organisms in the surrounding area. Once a living organism is detected entering its detection range, the thermal imaging camera 38 will immediately send a signal to the system to forcibly prevent the machine from changing its form and avoid causing accidental damage to the living organism entering the frame during the transformation process.

[0061] Working Principle: When using this fitness gantry, the reverse torque function of the brushless motor 22 and the rotation function of the rotary motor 236 can change the angle between the main support 23 and the exercise platform 1, and between the main support 23 and the secondary support 21, thereby achieving the purpose of exercising different muscle groups. Mode 1: As shown in the image... Figure 1 When the main support 23 and the slave support 21 are both fixed in a vertical position by the rotary motor 236 and the brushless motor housing 22, the electrostatic induction handle 34 is located above the user, allowing the user to perform exercises such as pull-ups and hanging leg raises. Mode Two: Controlling the movement of the main support 23 and the slave support 21 to... Figure 9 In the indicated position, the user can perform weighted squats. At this time, the support 21 is fixedly connected to the brushless motor housing 22. The main support 23 and the brushless motor housing 22 are connected through the reverse torque capability between the brushless motor housing 22. That is, the drive gear 222 and the rack 233 generate a certain resistance through the brushless motor housing 22, making the user feel as if a heavy object is supporting their shoulders during the squat. Mode 3: As shown Figure 10 Similar to Mode 2, this mode allows for dumbbell presses. Mode 4: (The text abruptly ends here, likely due to an incomplete sentence or a formatting error.) Figure 11 This allows for dumbbell curls. Mode 5, such as... Figure 12 This allows for seated forward bends. Mode Five, such as... Figure 13 It allows for leg presses. It supports a total of 20 fitness movements, covering 80% of the body's muscle groups.

[0062] When a user exercises, camera 232 emits an infrared light matrix that scans the human body and reflects it into a structured light receiver. By recording the speed at which each light point reaches the receiver, the distance between the light point and camera 232 is recorded, thus generating a 3D model of the human body. AI data processing module 32 removes redundant sampling from camera 232 and duplicate scanned human body segments. Simultaneously, it reduces the dimensionality of tens of millions of light points and continuously merges similar light points until a rough outline of the human body is formed.

[0063] When a user exercises, the projection module 231 will project the correct movements to help the user find the correct feeling of exertion. During projection, the image will be synchronized with the user's movements, making it convenient for the user to self-correct.

[0064] The human-computer interaction module 31 will display the user's physical condition during exercise, allowing the user to understand their exercise effect in real time. It can also upload data to the mobile app via Wi-Fi, making it more convenient for the user to check their physical condition.

[0065] This achieves the effect of having a small footprint, multiple forms to meet the needs of different exercise parts, and real-time fitness guidance.

[0066] It should be noted that, in this document, relational terms such as "first" and "second" are used only to distinguish one entity or operation from another, and do not necessarily require or imply any such actual relationship or order between these entities or operations. Furthermore, the terms "comprising," "including," or any other variations thereof are intended to cover non-exclusive inclusion, such that a process, method, article, or apparatus that comprises a list of elements includes not only those elements but also other elements not expressly listed, or elements inherent to such a process, method, article, or apparatus. Without further limitations, an element defined by the phrase "comprising one..." does not exclude the presence of other identical elements in the process, method, article, or apparatus that includes said element.

[0067] Although embodiments of the present invention have been shown and described, it will be understood by those skilled in the art that various changes, modifications, substitutions and alterations can be made to these embodiments without departing from the principles and spirit of the present invention, the scope of which is defined by the appended claims and their equivalents.

Claims

1. An exercise gantry, characterized by: The exercise platform (1) is provided with deformation supports (2) on both sides, and the top of the two deformation supports (2) is connected with a terminal and holding device (3), which can monitor and correct the exercise posture of the user and provide a holding position.

2. The fitness gantry of claim 1, wherein: The exercise platform (1) is provided with side platforms (11) on both sides, and the side platforms (11) are provided with mounting slots (111).

3. The fitness gantry of claim 1, wherein: The deformation support (2) comprises a bottom support (24), a main support (23), a brushless motor package (22) and a slave support (21) connected in sequence, and the bottom of the bottom support (24) is further provided with an embedded block (241).

4. The fitness gantry of claim 3, wherein: The rotation connection part of the main support (23) and the bottom support (24) is provided with a rotary motor (236), the inner side of the main support (23) is provided with a rack (233), the top end of the rack (233) is fitted with a brushless motor package (22), the brushless motor package (22) is used for controlling the shape change of the deformation support (2) and stepless adjusting the weight, the brushless motor package (22) is provided with a driving shaft (221) and a driving gear (222), the driving gear (222) and the rack (233) are meshed with each other, the slave support (21) is provided with a first connection port (211) and a second connection port (212), and the driving shaft (221) is fitted in the second connection port (212) of the slave support (21).

5. The fitness gantry of claim 3, wherein: The inner side of the main support (23) is further embedded with an array of cameras (232), and the outer side of the main support (23) is provided with a projection module (231).

6. The fitness gantry of claim 3, wherein: The bottom of the main support (23) is further provided with a limiting device (234), and the limiting device (234) is provided with a limiting block (235) inside.

7. The fitness gantry of claim 1, wherein: The terminal and holding device (3) is installed in the first connection port (211) of the two opposite slave supports (21), and the terminal and holding device (3) comprises three human-computer interaction modules (31) spliced in parallel, an AI data processing module (32) and a central data processing module (33), the outer ends of the human-computer interaction module (31) and the central data processing module (33) are respectively provided with connecting pieces (37), and the connecting pieces (37) are fitted in the first connection port (211) of the slave support (21).

8. The fitness gantry of claim 7, wherein: The human-computer interaction module (31) and the central data processing module (33) are respectively provided with slide rods (35), and the slide rods (35) are slidably fitted with electrostatic induction handles (34).

9. The fitness gantry of claim 7, wherein: The bottom of the human-computer interaction module (31) and the central data processing module (33) is also respectively provided with a foot sole fixer (36), the foot sole fixer (36) comprises a fixed base (361) embedded on the human-computer interaction module (31) and the central data processing module (33), a sliding groove (364) is arranged on the fixed base (361), sliding limiting pieces (362) are slidably arranged at the two ends of the sliding groove (364), and rotating limiting pieces (363) are rotatably arranged at the two sides of the end of the sliding limiting piece (362).

10. The fitness gantry of claim 7, wherein: The front side of the AI data processing module (32) is provided with a thermal camera (38).

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