Intelligent digital display type high experience degree respiratory pressure load resistance training device

Abstract

The utility model provides a kind of intelligent digital display type high experience degree breathing pressure load resistance training device, including training device shell, at least one breathing weight in the training device shell inside and breathing gum, the inside in the training device shell is communicated;The bottom of the weight moving cavity is connected with the breathing gum by trachea, gas is guided into the weight moving cavity;Still include the training device upper cover being set in the one end of the training device shell;The inside of the training device upper cover is close to the one side of the weight moving cavity and is provided with hall sensor, and in the breathing weight, there is magnet unit for forming inductive sensing correlation with the hall sensor;Still include the digital display screen being set in the outside of the training device upper cover, for the digital display of training frequency;In practical application, the display of display screen and the inductive sensing of internal sensor unit can be better, training frequency is recorded and shows, and use experience is improved.

Description

[Technical Field]

[0001] This utility model relates to the field of breathing training product technology, and in particular to an intelligent digital display high-experience breathing pressure load resistance trainer with reasonable structural design and outstanding application effect. [Background Technology]

[0002] Vital capacity is the maximum ventilation in a single breath, and to a certain extent, it reflects the potential capacity of the human respiratory function. As one of the items in physical examination, in actual testing, a low vital capacity value compared to the normal value indicates poor oxygen uptake and waste gas expulsion capacity of the body, resulting in insufficient oxygen supply within the body. Under such circumstances, some bodily functions cannot function properly. Based on this, exercising a user's lungs can improve their respiratory capacity. Just like swimmers and marathon runners, training can improve oxygen intake and the cardiovascular system.

[0003] Currently widely used respiratory pressure threshold resistance training involves training individuals to generate sufficient respiratory pressure to complete a breathing activity. Studies have shown that such training devices can improve respiratory muscle strength in healthy adults and patients with COPD and multiple sclerosis, and enhance their overall endurance performance. A US patent publication (US10722748B1) discloses a method and apparatus for training muscles in the lungs, diaphragm, and surrounding areas, including at least one weight, a hollow cylinder with a bottom and a top, wherein the weight is located within the hollow cylinder, and a tube, wherein the distal end of the tube is connected to the hollow cylinder. The bottom of the cylinder is connected, and the user exhales into the proximal end of the tube. In practical applications, when the air exhaled from the user's lungs flows into the hollow cylinder through the tube, it applies pressure to the counterweight. When the user increases the amount of air inhaled into the tube, the force applied to the counterweight increases. When the air force inside the cylinder exceeds the weight of the counterweight, the counterweight will move radially along the cylinder. The aforementioned US patent technology proposes to adjust the training difficulty by adjusting the weight of the counterweight, but it cannot quantify and evaluate the user's expiratory pressure. On the other hand, the aforementioned technology only targets expiratory muscle strength training and does not achieve training of inspiratory muscle strength.

[0004] A utility model patent with patent number CN202321879085.6, entitled "A Respiratory Pressure Load Type Resistance Training Device," discloses a respiratory pressure load type resistance training device. It includes a breathing trainer, breathing weights, an air delivery tube, and a breathing mouthpiece. The breathing trainer comprises a breathing apparatus body, a breathing apparatus cover, and a breathing apparatus base. The breathing apparatus body has a breathing chamber inside, where the breathing weights are placed. The surface of the breathing apparatus body has graduations. The top of the breathing apparatus body is connected to the breathing apparatus cover, and the bottom of the breathing apparatus body is connected to the breathing apparatus base. The breathing apparatus cover has an air hole, and the breathing apparatus base has an airflow pipe. One end of the airflow pipe connects to the breathing chamber, and the other end of the airflow pipe connects to one end of the air delivery tube, and the other end of the air delivery tube connects to the breathing mouthpiece. The device uses the weight of the breathing weights and airflow resistance to regulate the user's breathing, thereby strengthening lung muscle strength and increasing lung control and capacity. The addition of quantitative graduations overcomes the shortcomings of the original device, which could not quantitatively assess and train inhalation.

[0005] However, it does not provide a detailed description of the specific structural design and scheme of the counting mechanism, which is rather vague for those skilled in the art. [Utility Model Content]

[0006] The problem addressed by this application in the prior art is:

[0007] The technical features related to counting in existing breathing trainers are poorly disclosed and difficult for those skilled in the art to implement, making it impossible to improve or enhance the existing technology.

[0008] The solution to the technical problem of this utility model is:

[0009] A smart, digitally displayed, high-experience respiratory pressure resistance training device is provided, comprising a training device housing, at least one breathing weight inside the training device housing, and a breathing nozzle connected to the training device housing. The training device housing has a central opening to form a weight movement cavity for providing space for the breathing weight to move vertically. The bottom of the weight movement cavity is connected to the breathing nozzle via a tracheal tube to introduce gas into the weight movement cavity. The device also includes a training device cover located at one end of the training device housing. A Hall sensor is located inside the training device cover near the weight movement cavity, and a magnetic unit is located in the breathing weight for sensing and correlation with the Hall sensor. A digital display screen is located on the outside of the training device cover for digitally displaying the number of training sessions. The weight movement cavity has a vent or is a fully open structure at the end facing the training device cover to expel air when the breathing weight moves towards the training device cover.

[0010] Preferably, the bottom of the trainer housing is connected to a lower cover; the breathing nozzle is connected to a ring through the air tube; the ring is fitted on the outside of the lower cover; it also includes a ventilation connecting post extending outward from the lower cover; the ring has a ventilation tube hole that communicates with the air tube and can be inserted into the ventilation connecting post.

[0011] Preferably, the lower cover of the trainer has a connecting groove on its upper part for embedding and connecting one end of the trainer housing; the bottom of the connecting groove has a connecting groove vent that communicates with the ventilation connecting column; and it also includes a silicone pad disposed on the inner side of the lower cover of the trainer to ensure a sealed connection between one end of the trainer housing and the lower cover of the trainer.

[0012] Preferably, the two ends of the trainer housing are respectively provided with threaded connectors for threaded connection with the upper cover and the lower cover of the trainer.

[0013] Preferably, the upper cover of the trainer includes an upper cover base, an upper cover plate that is matched and connected to the upper cover base, and an upper cover shell that covers the outside of the upper cover plate; the upper cover base is matched and connected to the trainer shell; the Hall sensor is located inside the portion between the upper cover base and the upper cover plate; it also includes a control circuit board and a rechargeable battery or button battery disposed inside the upper cover plate; the Hall sensor, the rechargeable battery or button battery, the digital display screen, and the control circuit board are electrically connected.

[0014] Preferably, the upper cover housing is provided with a transparent lens; the digital display screen is mounted on the upper side of the control circuit board and contacts the back of the transparent lens; it also includes a battery holder fixedly connected to the control circuit board for accommodating the button battery.

[0015] Preferably, the upper cover base and the upper cover plate are connected by screws; a plurality of screw posts for connecting are provided on the upper part of the upper cover base; a screw groove for inserting the screw posts is integrally formed on the inner side of the upper cover plate; and a screw hole for locking screws is provided at the top of the screw groove.

[0016] Preferably, the upper cover shell is also provided with multiple control buttons or reset buttons.

[0017] Preferably, the inner side of the upper cover base is provided with an internal thread for threaded connection with one end of the trainer housing, and the gas in the trainer housing can be discharged from the threaded connection part by adjusting the tightness of the threaded connection.

[0018] Preferably, the outer shell of the trainer is cylindrical, and the weight moving cavity is a circular pipe structure; the outer diameter of the breathing weight is smaller than the inner diameter of the circular pipe structure; the outer shell of the trainer is made of plastic, acrylic, or plexiglass.

[0019] The technical effects achieved by this application in solving the technical problem are as follows:

[0020] Compared with the prior art, this utility model discloses an intelligent digital display high-experience breathing pressure load resistance trainer. It simultaneously includes a trainer housing 11, at least one breathing weight 16 located inside the training housing 11, and a breathing nozzle 12 connected to the training housing 11. The training housing 11 has a central opening, forming a weight movement cavity to provide vertical movement space for the breathing weight 16. The bottom of the weight movement cavity is connected to the breathing nozzle 12 via a tracheal tube 131, allowing gas to be introduced into the weight movement cavity. It also includes a trainer top cover located at one end of the training housing 11. The top cover contains... A Hall sensor 182 is provided near the side of the weight moving cavity, and a magnet unit is provided in the breathing weight 16 for forming a sensing association with the Hall sensor 182. It also includes a digital display screen 191 located on the outside of the upper cover of the trainer for digitally displaying the number of training sessions. The weight moving cavity has a vent hole at the end facing the upper cover of the trainer to expel air when the breathing weight moves toward the upper cover of the trainer. In practical applications, the number of training sessions can be recorded and displayed well through the display screen and the sensing of the internal sensor unit, improving the user experience. [Image Description]

[0021] Figure 1 This is a three-dimensional structural diagram of an intelligent digital display high-experience respiratory pressure load resistance training device according to this utility model.

[0022] Figure 2 and Figure 3 This is a schematic diagram of the exploded state structure of an intelligent digital display high-experience respiratory pressure load resistance training device according to this utility model.

[0023] In the picture:

[0024] Trainer housing 11; threaded connector 111; silicone pad 112; breathing nozzle 12; collar 13; air tube 131; airway hole 132; trainer lower cover 14; airway connecting post 141; connecting groove 142; upper cover housing 15; control button or reset button 151; transparent lens 152; breathing weight 16; upper cover base 17; screw post 171; upper cover plate 18; Hall sensor 182; rechargeable battery or button battery 183; battery holder 184; control circuit board 19; digital display screen 191. [Detailed Implementation]

[0025] To make the objectives, technical solutions, and advantages of this utility model clearer, the present utility model will be further described in detail below with reference to the accompanying drawings and embodiments.

[0026] It should be understood that the specific embodiments described herein are merely for explaining the present invention and are not intended to limit the present invention.

[0027] Based on the embodiments of this utility model, all other embodiments obtained by those skilled in the art without creative effort are within the scope of protection of this utility model.

[0028] It should be noted that when a component is said to be "fixed" to another component, it can be directly on the other component or it can be in a middle component. When a component is said to be "connected" to another component, it can be directly connected to the other component or it may be in a middle component.

[0029] Unless otherwise defined, all technical and scientific terms used herein have the same meaning as commonly understood by one of ordinary skill in the art to which this invention pertains.

[0030] The terminology used herein is for the purpose of describing particular embodiments only and is not intended to be limiting of the invention. The term "and / or" as used herein includes any and all combinations of one or more of the associated listed items.

[0031] The following detailed description, in conjunction with the accompanying drawings, outlines some embodiments of the present invention. Unless otherwise specified, the following embodiments and features can be combined with each other.

[0032] Please see Figure 1 and Figure 3 This utility model discloses an intelligent digital display high-experience respiratory pressure load resistance trainer 1, which includes a trainer housing 11, at least one breathing weight 16 located inside the trainer housing 11, and a breathing nozzle 12 connected to the trainer housing 11. The trainer housing 11 has a central opening to form a weight movement cavity for providing vertical movement space for the breathing weight 16. The number of breathing weights 16 can be multiple, such as the five shown in the attached drawings of this application.

[0033] The bottom of the weight moving chamber is connected to the breathing nozzle 12 via an air tube 131, allowing gas to be introduced into the weight moving chamber. The breathing nozzle 12 and the air tube 131 are detachably connected. The device also includes a trainer cover located at one end of the trainer housing 11. A Hall sensor 182 is located inside the trainer cover near the weight moving chamber. A magnet unit is located in the breathing weight 16 to form a sensing association with the Hall sensor 182. The position of the Hall sensor 182 is mainly to improve the sensing accuracy.

[0034] It also includes a digital display screen 191 located on the outside of the upper cover of the trainer for displaying the number of training sessions; the weight moving cavity is provided with a vent or is configured as a fully open structure at the end facing the upper cover of the trainer for discharging air when the breathing weight moves toward the upper cover of the trainer.

[0035] This application includes a training device housing 11, at least one breathing weight 16 inside the training device housing 11, and a breathing nozzle 12 connected to the training device housing 11. The training device housing 11 is internally open, forming a weight movement cavity to provide vertical movement space for the breathing weight 16. The bottom of the weight movement cavity is connected to the breathing nozzle 12 via an air tube 131 to introduce gas into the weight movement cavity. It also includes a training device top cover located at one end of the training device housing 11, with a Hall sensor 1 disposed inside the top cover near the weight movement cavity. 82, and the breathing weight 16 is provided with a magnet unit for forming a sensing association with the Hall sensor 182. It also includes a digital display screen 191 disposed on the outside of the upper cover of the trainer for digitally displaying the number of training sessions. The weight moving cavity is provided with a vent hole or is configured as a fully open structure at the end facing the upper cover of the trainer, so as to expel air when the breathing weight moves towards the upper cover of the trainer. In practical applications, the number of training sessions can be recorded and displayed well through the display screen and the sensing of the internal sensor unit, thereby improving the user experience.

[0036] This application does not involve specific software program settings or data processing methods for sensing data.

[0037] Furthermore, the related Hall sensor 182 and other functional components are also conventional functional components, and their close-range sensing of the magnet is a technical content well known to those skilled in the art.

[0038] In some other embodiments, the bottom of the trainer housing 11 is connected to a trainer lower cover 14; the breathing nozzle 12 is connected to a collar 13 through the air tube 131; the collar 13 is sleeved on the outside of the trainer lower cover 14, and in combination with the material characteristics, it is easy to disassemble and clean the breathing nozzle 12.

[0039] It also includes a ventilation connecting post 141 extending outward from the lower cover 14 of the trainer; a ventilation tube hole 132 is provided on the collar 13 to communicate with the air tube 131 and to be inserted into the ventilation connecting post 141.

[0040] The lower cover 14 of the trainer has a connecting groove 142 on its upper part for embedding and connecting one end of the outer shell 11 of the trainer; the bottom of the connecting groove 142 has a connecting groove air hole that communicates with the ventilation connecting column 141; it also includes a silicone pad 112 disposed on the inner side of the lower cover 14 of the trainer to ensure a sealed connection between one end of the outer shell 11 of the trainer and the lower cover 14 of the trainer.

[0041] The training device housing 11 has threaded connectors 111 at both ends for threaded connection with the upper cover and the lower cover 14 of the training device.

[0042] The training device cover includes a cover base 17, a cover plate 18 that is matched and connected to the cover base 17, and a cover shell 15 that covers the outside of the cover plate 18; the cover base 17 is matched and connected to the training device shell 11; the Hall sensor 182 is located inside the portion between the cover base 17 and the cover plate 18; it also includes a control circuit board 19 and a rechargeable battery or button battery 183 disposed inside the cover plate 18; the Hall sensor 182, the rechargeable battery or button battery 183, the digital display screen 191 and the control circuit board 19 are electrically connected.

[0043] A transparent lens 152 is provided on the upper cover shell 15; the digital display screen 191 is mounted on the upper side of the control circuit board 19 and contacts the back of the transparent lens 152; it also includes a battery holder 184 fixedly connected to the control circuit board 19 for accommodating the button battery 183.

[0044] The upper cover base 17 is connected to the upper cover plate 18 by screws; a plurality of screw posts 171 for connecting are provided on the upper part of the upper cover base 17; the inner side of the upper cover plate 18 is integrally formed with a screw groove for inserting the screw posts 171; the top of the screw groove is provided with a screw hole for locking the screw.

[0045] The upper cover shell 15 is also provided with multiple control buttons or reset buttons 151.

[0046] The inner side of the upper cover base 17 is provided with an internal thread for threaded connection with one end of the trainer housing 11. By adjusting the tightness of the threaded connection, gas from the trainer housing 11 can be discharged from the threaded connection, and external air can enter the weight moving chamber.

[0047] The training device housing 11 has a cylindrical structure, and the weight moving cavity has a circular pipe structure; the outer diameter of the breathing weight 16 is smaller than the inner diameter of the circular pipe structure; the training device housing 11 is made of plastic, acrylic, or plexiglass.

[0048] The distance between the diameter of the breathing weight 16 and the inner cylindrical surface is defined as the air gap. The force required for the user to exhale is related to the size of the air gap. The larger the air gap, the greater the breathing force required by the user. However, the air gap should not be too large. If the air gap exceeds a certain value, the maximum air force generated by the user will be insufficient to move the breathing weight 16.

[0049] The technical effects achieved by this application in solving the technical problem are as follows:

[0050] Compared with the prior art, the present invention provides an intelligent digital display high-experience breathing pressure load resistance trainer 1, which simultaneously includes a trainer housing 11, at least one breathing weight 16 located inside the trainer housing 11, and a breathing nozzle 12 connected to the trainer housing 11. The trainer housing 11 is internally open, forming a weight movement cavity for providing vertical movement space for the breathing weight 16. The bottom of the weight movement cavity is connected to the breathing nozzle 12 through a trachea 131 to introduce gas into the weight movement cavity. The invention also includes a trainer top cover located at one end of the trainer housing 11, the interior of which is close to the breathing pressure load resistance trainer 1. A Hall sensor 182 is provided on one side of the weight moving cavity, and a magnet unit is provided in the breathing weight 16 for forming a sensing association with the Hall sensor 182. It also includes a digital display screen 191 located on the outside of the upper cover of the trainer for digitally displaying the number of training sessions. The end of the weight moving cavity facing the upper cover of the trainer has a vent hole or is set as a fully open structure to expel air when the breathing weight moves towards the upper cover of the trainer. In practical applications, the number of training sessions can be recorded and displayed well through the display screen and the sensing of the internal sensor unit, improving the user experience.

[0051] The embodiments of this utility model described above do not constitute a limitation on the scope of protection of this utility model. Any modifications, equivalent substitutions, and improvements made within the spirit and principles of this utility model should be included within the scope of protection of the claims of this utility model.

Claims

1. A smart digital display high-experience respiratory pressure load resistance trainer, comprising a trainer housing, at least one breathing weight located inside the trainer housing, and a breathing nozzle connected to the trainer housing, characterized in that: The training device has a central opening inside, forming a weight movement cavity to provide space for the breathing weight to move up and down; the bottom of the weight movement cavity is connected to the breathing nozzle through an air tube to introduce gas into the weight movement cavity; It also includes a trainer cover disposed at one end of the trainer housing; a Hall sensor is disposed inside the trainer cover near the weight moving cavity, and a magnet unit for forming a sensing association with the Hall sensor is disposed in the breathing weight. It also includes a digital display screen located on the outside of the upper cover of the trainer for displaying the number of training sessions; the weight moving cavity has a vent or is configured as a fully open structure at the end facing the upper cover of the trainer for discharging air when the breathing weight moves toward the upper cover of the trainer.

2. The intelligent digital display high-experience respiratory pressure resistance training device as described in claim 1, characterized in that: The bottom of the trainer housing is connected to a lower cover; the breathing nozzle is connected to a ring through the air tube; the ring is fitted on the outside of the lower cover; it also includes a ventilation connection post extending outward from the lower cover; the ring has a ventilation tube hole that communicates with the air tube and can be inserted into the ventilation connection post.

3. The intelligent digital display high-experience respiratory pressure load resistance training device as described in claim 2, characterized in that: The lower cover of the trainer has a connecting groove on its upper part for embedding and connecting one end of the trainer housing; the bottom of the connecting groove has a connecting groove vent that communicates with the ventilation connecting column; it also includes a silicone pad disposed on the inner side of the lower cover of the trainer to ensure a sealed connection between one end of the trainer housing and the lower cover of the trainer.

4. The intelligent digital display high-experience respiratory pressure load resistance training device as described in claim 3, characterized in that: The training device housing is provided with threaded connectors at both ends for threaded connection with the upper cover and the lower cover of the training device.

5. A smart digital display high-experience respiratory pressure resistance training device as described in any one of claims 1 to 4, characterized in that: The trainer's upper cover includes an upper cover base, an upper cover plate that matches and connects to the upper cover base, and an upper cover outer shell that covers the outside of the upper cover plate; the upper cover base is matched and connected to the trainer outer shell; the Hall sensor is located inside the portion between the upper cover base and the upper cover plate; it also includes a control circuit board and a rechargeable battery or button battery disposed inside the upper cover plate; the Hall sensor, the rechargeable battery or button battery, the digital display screen, and the control circuit board are electrically connected.

6. The intelligent digital display high-experience respiratory pressure load resistance training device as described in claim 5, characterized in that: The upper cover is provided with a transparent lens; the digital display screen is mounted on the upper side of the control circuit board and is in contact with the back of the transparent lens; it also includes a battery holder fixedly connected to the control circuit board for accommodating the button battery.

7. The intelligent digital display high-experience respiratory pressure load resistance training device as described in claim 5, characterized in that: The upper cover base and the upper cover plate are connected by screws; a plurality of screw posts for connecting are provided on the upper part of the upper cover base; the inner side of the upper cover plate is integrally formed with a screw groove for inserting the screw posts; the top of the screw groove is provided with a screw hole for locking the screw.

8. The intelligent digital display high-experience respiratory pressure load resistance training device as described in claim 5, characterized in that: The upper cover shell is also equipped with multiple control buttons or reset buttons.

9. A smart digital display high-experience respiratory pressure resistance training device as described in claim 7 or 8, characterized in that: The inner side of the upper cover base is provided with an internal thread for threaded connection with one end of the trainer shell. By adjusting the tightness of the threaded connection, the gas in the trainer shell can be discharged from the threaded connection.

10. The intelligent digital display high-experience respiratory pressure resistance training device as described in claim 1, characterized in that: The training device has a cylindrical outer shell and a circular tube structure for moving the weights; the outer diameter of the breathing weight is smaller than the inner diameter of the circular tube structure; the outer shell of the training device is made of plastic, acrylic, or plexiglass.

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