An experimental device for precise control of aerobic exercise intensity of a hypertensive patient

Abstract

The application provides a high blood pressure patient aerobic exercise intensity precision control experiment device, which comprises a frame, a rotating disc, a sensor, a pedal rod, an adjusting pad, a display, the frame determines the position of the rotating disc and the sensor carried by the frame is connected with the pedal rod, the adjusting pad and the display at the upper end of the frame have a safety distance, the frame is improved, the bottom block lower auxiliary wheel of the displacement structure can be used in combination with the adjusting structure of the balance bar position, so that the adjusting structure can be opened after purchase and directly contacted with the ground for pushing, the auxiliary wheel is driven to rotate, the displacement can be conveniently placed in a specific position, the limit ring determines the position of the special-shaped main machine, then the power connection piece on the power supply support rod is electrically connected with the wearing monitor, and the motion safety factor of the high blood pressure patient is ensured.

Description

Technical Field

[0001] This invention relates to the field of exercise intensity control and monitoring technology, and more specifically to an experimental device for precise control of aerobic exercise intensity in hypertensive patients. Background Technology

[0002] Aerobic exercise for hypertensive patients refers to a planned, rhythmic, long-duration exercise that involves large muscle groups throughout the body, performed by hypertensive patients under the premise of stable blood pressure control. Aerobic exercise can improve vascular elasticity, regulate the nervous system, and reduce weight. Therefore, while hypertensive patients are engaged in aerobic exercise, relevant monitoring personnel can use specialized control experimental devices (such as high-precision wearable sensors or standardized controllable exercise equipment) for hypertensive patients to use. This allows the device to monitor and record the patient's body data in real time during exercise, ensuring the patient's exercise safety. In summary, the inventors have found that the existing aerobic exercise intensity precision control experimental device has the following main defects: due to the overall weight of the current aerobic exercise intensity precision control experimental device, it is difficult to move when it needs to be moved. At the same time, in order to ensure the stability during use, the bottom will use anti-slip blocks to contact the ground, which will make it difficult to place the device in the required location after purchase, thus reducing the convenience of moving the current device. Summary of the Invention

[0003] The technical solution adopted by the present invention to achieve the technical objective is: an experimental device for precise control of aerobic exercise intensity in hypertensive patients, the structure of which includes: a frame, a turntable, a sensor, a pedal, an adjustment pad, and a display. The frame determines the position of the turntable and the sensor it carries is connected to the pedal. The adjustment pad and the display at the upper end of the frame are spaced apart by a safety distance.

[0004] As a further improvement of the present invention, the vehicle frame is provided with a displacement structure, the upper end of the displacement structure is connected to a limiting ring and the upper edge of the limiting ring is connected to a non-circular main unit, the upper end of the non-circular main unit is provided with an electric support rod, the edge of the electric support rod is equipped with an electric connector, and a force-bearing block is connected to the other side of the edge of the limiting ring.

[0005] As a further improvement of the present invention, the displacement structure is further provided with a connecting end, which is located at the upper end of the bottom block. An auxiliary wheel is provided on the lower layer of the bottom block, and a balance bar is connected to the left and right positions of the bottom block, with an adjustment structure provided at one end of the balance bar.

[0006] As a further improvement of the present invention, the position of the limiting ring is determined by the displacement structure of the frame through the connecting end of the bottom block. Then, the lower auxiliary wheel can rotate and move after the adjustment structure of the balance bar is unfolded. In this way, the force block of the limiting ring is connected and positioned with the adjustment pad. At the same time, the power-on support rod of the irregularly shaped host is electrically connected to the display. Meanwhile, the power-on connector can be connected and powered with other physiological monitoring devices worn on the device.

[0007] As a further improvement of the present invention, the turntable of the frame is circular and the sensor mounted thereon monitors the torque of the pedal and the central axis of the turntable in real time. The adjustment pad contains an adjustment rod, and the display has two screens: a sports performance evaluation information screen and a device basic information screen.

[0008] As a further improvement of the present invention, the irregularly shaped host at the edge of the limiting ring of the displacement structure includes an electric connection end, the electric support rod supports the bottom of the display, the electric connector is set at the edge of the electric support rod and connected to other wearable physiological monitoring devices, and the force block is solid and fixedly connected to the adjustment pad.

[0009] As a further improvement of the present invention, the connecting end is arc-shaped, the auxiliary wheel of the lower layer of the bottom block is a small sphere and is set in a horizontal position, and the balance bar is set in a symmetrical position and carries an adjustment structure.

[0010] As a further improvement of the present invention, the adjustment structure is provided with a slide rail, which is opened at the center of the surface of the support block. A control block is provided on the surface of the support block to slide at the position of the slide rail to control the lower anti-slip block. A rotating screw is also connected to the center of the inside of the support block, and a moving wheel is connected to the lower end of the rotating screw.

[0011] As a further improvement of the present invention, the slide rail is opened vertically and integrated with the support block, the control block and the anti-slip block are perpendicular to each other, the anti-slip block is made of rubber, the rotating screw is connected vertically to the center of the support block and is spaced together with the slide rail and the control block, and the moving wheel at the lower end of the rotating screw can enter the interior of the support block and push downward to contact the ground.

[0012] As a further improvement of the present invention, the control block is also provided with a central groove, which is opened at the center of the slider. An adsorption block is also provided in the central groove, and a connector is connected to the lower end of the slider, with a central block provided at the center of the lower end of the connector.

[0013] As a further improvement of the present invention, the central groove is opened in a horizontal direction and extends through the left and right ends of the slider. The adsorption block enters the inside of the slider through the central groove, and the connecting body is set in a vertical direction and embedded in the anti-sliding block through the central block.

[0014] As a further improvement of the present invention, the limiting ring is provided with a ring body, the inner wall of the ring body is provided with a positioning ring, the positioning ring is provided with a ball and communicates with the rotating cavity, and an anti-deviation body is also provided at the center of the rotating cavity.

[0015] As a further improvement of the present invention, the inner wall of the ring is in contact with the positioning ring and the positioning ring is provided with multiple balls that are in contact with the edge of the turntable, and the anti-deviation body of the rotating cavity is located at the center of the turntable.

[0016] As a further improvement of the present invention, the anti-deviation body is also provided with a slot, which is opened at the surface edge of the solid disk, and a balance bar is connected to the edge of the solid disk.

[0017] As a further improvement of the present invention, the slot is arc-shaped and triangularly distributed on the surface of the solid disk, and the number of balance bars of the solid disk is the same as that of the ball bearings.

[0018] Compared with the prior art, the present invention has the following beneficial effects: 1. This invention, through the improvement of the frame, utilizes the auxiliary wheel on the lower layer of the displacement structure to combine with the adjustment structure of the balance bar position. After purchase, the adjustment structure can be opened to directly contact the ground for pushing, while simultaneously driving the auxiliary wheel to rotate, facilitating displacement and placement in a specific position. The limiting ring then determines the position of the irregularly shaped main unit, and the power connector on the power-conducting support rod is used to electrically connect with the wearable monitor, ensuring the patient's movement safety.

[0019] 2. With the improved adjustment structure, the control block can drive the anti-sliding block to slide up and down via the slide rail on the support block. This allows the rotating screw to drive the moving wheel through the center of the support block to contact the ground. The anti-sliding block then slides up through the control block, ensuring that they do not obstruct each other's use. Furthermore, the slider of the control block can slide and contact the support block surface for reinforcement using the adsorption block at the center groove, preventing automatic sliding down or instability after contact with the ground.

[0020] 3. The present invention improves upon the limiting ring by using an internal positioning ring to determine the position of multiple balls, thereby improving the smoothness of rotation after the balls contact the edge of the turntable. At the same time, the anti-deviation body at the center position can improve the connection stability with the inside of the turntable by using the groove on the surface of the solid disc, and then the balance bar ensures the stability during rotation. Attached Figure Description

[0021] Figure 1 This is a schematic diagram of an experimental device for precisely controlling the intensity of aerobic exercise in hypertensive patients.

[0022] Figure 2 This is a cross-sectional structural diagram of a modified vehicle frame.

[0023] Figure 3 This is a cross-sectional schematic diagram of a type of displacement structure improvement.

[0024] Figure 4 This is a cross-sectional schematic diagram of an improved adjustment structure.

[0025] Figure 5 This is a cross-sectional structural diagram of an improved control block.

[0026] Figure 6 This is a frontal view of a modified limiting ring.

[0027] Figure 7 This is a schematic diagram of the front view of an improved anti-deviation body.

[0028] In the diagram: Frame-1, Turntable-2, Sensor-3, Pedal-4, Adjustment Pad-5, Display-6; Displacement structure-11, limiting ring-12, irregularly shaped main unit-13, energized support rod-14, energized connector-15, force-bearing block-16; Connecting end-111, base block-112, auxiliary wheel-113, balance bar-114, adjustment structure-115; Slide rail-1151, support block-1152, control block-1153, anti-slip block-1154, rotating screw-1155, moving wheel-1156; Center groove-1531, slider-1532, adsorption block-1533, connector-1534, center block-1535; Ring body-121, positioning ring-122, ball bearing-123, rotating cavity-124, anti-deviation body-125; Card slot-1251, solid plate-1252, stabilizer bar-1253. Detailed Implementation

[0029] The present invention will be further described below with reference to the accompanying drawings: Example 1: Figures 1 to 5 As shown: This invention provides an experimental device for precise control of aerobic exercise intensity in hypertensive patients. Its structure includes: frame 1, turntable 2, sensor 3, pedal 4, adjustment pad 5, and display 6. The frame 1 determines the position of the turntable 2 and the sensor 3 it carries is connected to the pedal 4. The adjustment pad 5 and the display 6 at the upper end of the frame 1 are spaced apart.

[0030] The frame 1 is provided with a displacement structure 11. The upper end of the displacement structure 11 is connected to a limiting ring 12 and the upper edge of the limiting ring 12 is connected to a non-standard host 13. The upper end of the non-standard host 13 is provided with an electric support rod 14. The edge of the electric support rod 14 is equipped with an electric connector 15. A force-bearing block 16 is connected to the other side of the edge of the limiting ring 12.

[0031] The displacement structure 11 is further provided with a connecting end 111, which is located at the upper end of the bottom block 112. An auxiliary wheel 113 is provided on the lower layer of the bottom block 112. A balance bar 114 is connected to the left and right positions of the bottom block 112, and an adjustment structure 115 is provided at one end of the balance bar 114.

[0032] The position of the limiting ring 12 is determined by the displacement structure 11 of the frame 1 through the connecting end 111 of the bottom block 112. Then, the lower auxiliary wheel 113 can rotate and move after the adjustment structure 115 of the balance bar 114 is unfolded. Then, the force block 16 of the limiting ring 12 is connected and positioned with the adjustment pad 5. At the same time, the power-connecting support rod 14 of the irregular host 13 is electrically connected to the display 6. Meanwhile, the power-connecting connector 15 can be connected and powered with other physiological monitoring devices worn on the device.

[0033] The frame 1 has a circular turntable 2, and the sensor 3 on it monitors the torque of the pedal 4 and the central axis of the turntable 2 in real time. The adjustment pad 5 contains an adjustment rod, and the display 6 has two screens: a sports performance evaluation information screen and a device basic information screen.

[0034] The irregularly shaped host 13 at the edge of the limiting ring 12 of the displacement structure 11 includes a power connection end, the power support rod 14 supports the bottom of the display 6, the power connector 15 is set at the edge of the power support rod 14 and connects to other wearable physiological monitoring devices, and the force block 16 is solid and fixedly connected to the adjustment pad 5.

[0035] The connecting end 111 is arc-shaped, the auxiliary wheel 113 under the bottom block 112 is a small sphere and is set in a horizontal position, and the balance bar 114 is set in a symmetrical position and carries an adjustment structure 115.

[0036] The adjustment structure 115 is provided with a slide rail 1151, which is located at the center of the surface of the support block 1152. A control block 1153 is provided on the surface of the support block 1152 to control the lower anti-slip block 1154 by sliding at the position of the slide rail 1151. A rotating screw 1155 is also connected to the center of the support block 1152, and a moving wheel 1156 is connected to the lower end of the rotating screw 1155.

[0037] The slide rail 1151 is vertically oriented and integrated with the support block 1152. The control block 1153 and the anti-slip block 1154 are perpendicular to each other. The anti-slip block 1154 is made of rubber. The rotating screw 1155 is vertically connected to the center of the support block 1152 and is spaced together with the slide rail 1151 and the control block 1153. The moving wheel 1156 at the lower end of the rotating screw 1155 can enter the support block 1152 and move downward to contact the ground.

[0038] The control block 1153 is also provided with a central groove 1531, which is opened at the center of the slider 1532. An adsorption block 1533 is also provided in the central groove 1531. A connector 1534 is connected to the lower end of the slider 1532, and a central block 1535 is provided at the center of the lower end of the connector 1534.

[0039] The central groove 1531 is opened in a horizontal direction and passes through the left and right ends of the slider 1532. The adsorption block 1533 enters the interior of the slider 1532 through the central groove 1531. The connecting body 1534 is set in a vertical direction and is embedded in the anti-sliding block 1154 through the central block 1535.

[0040] The specific functions and operation procedures of this embodiment are as follows: In this invention, the experimental device for precise control of aerobic exercise intensity in hypertensive patients uses a frame 1 as the main body. A display 6 controls a sensor 3 at the center of a turntable 2. When the patient performs aerobic exercise using the adjustment pad 5 and pedal 4, the sensor 3 feeds back data such as intensity, rotation speed, and time to the display 6. Simultaneously, the displacement structure 11 of the frame 1 facilitates the transport and placement of the entire device. A limiting ring 12 then determines the position of the turntable 2. After the limiting ring 12 determines the position of the irregularly shaped main unit 13, the display 6 controls the overall program of the irregularly shaped main unit 13, thereby controlling the weight of the turntable 2. The system achieves precise intensity control. Simultaneously, the energized connector 15 on the energized support rod 14 can be electrically connected to the wearable monitor, enabling precise monitoring of the patient's condition. This data is then fed back to the display 6, which has two screens: a motion ability assessment information screen and a device basic information screen, achieving precise monitoring of patient data. Meanwhile, the force-bearing block 16 supports the weight of the adjustment pad 5 and the patient, ensuring safe movement. Subsequently, the bottom block 112 of the displacement structure 11 can be connected to the limiting ring 12 via the connecting end 111. Simultaneously, the lower spherical auxiliary wheel 113 can be combined with the bottom block 112... The adjustment structure 115 at one end of the balance bar 114 at both ends moves. For this purpose, the support block 1152 of the adjustment structure 115 can allow the control block 1153 to slide upwards via the slide rail 1151, driving the anti-slip block 1154. Simultaneously, the slider 1532 of the control block 1153 will adhere and reinforce the suction block 1533, which passes through the central groove 1531, to the surface of the support block 1152, preventing the anti-slip block 1154 from automatically sliding down after it detaches from the ground. Conversely, to prevent unstable swaying during movement after contact with the ground, the central block 1535 of the connecting body 1534 can be used to raise the anti-slip block 1154. After the anti-slip block 1154 slides up, the rotating screw 1155 of the support block 1152 will drive the moving wheel 1156 to descend and directly contact the ground, so that the moving wheel 1156 and the auxiliary wheel 113 are pushed at the same time. Therefore, the device can achieve a pushable effect, replacing the original handling process. This improves the actual displacement convenience of the overall device and prevents the difficulty of displacement caused by weight. Furthermore, the thread self-locking property of the rotating screw 1155 ensures the stability of the moving wheel 1156 sliding down and contacting the ground, as well as the stability of the suspended placement after resetting. Therefore, the strength of the device can be further improved.

[0041] Example 2: Figures 6 to 7 As shown: This invention provides an experimental device for precise control of aerobic exercise intensity in hypertensive patients. Its structure includes a limiting ring 12 having a ring body 121, a positioning ring 122 being provided on the inner wall of the ring body 121, a ball bearing 123 being provided in the positioning ring 122 and communicating with the rotating cavity 124, and an anti-deviation body 125 being provided at the center of the rotating cavity 124.

[0042] The inner wall of the ring 121 is in contact with the positioning ring 122, and the positioning ring 122 is provided with multiple balls 123 that are in contact with the edge of the turntable 2. The anti-deviation body 125 of the rotating cavity 124 is located at the center of the turntable 2.

[0043] The anti-deviation body 125 is also provided with a slot 1251, which is opened at the surface edge of the solid disk 1252, and a balance bar 1253 is connected to the edge of the solid disk 1252.

[0044] The slot 1251 is arc-shaped and triangularly distributed on the surface of the solid disk 1252. The number of balance bars 1253 of the solid disk 1252 is the same as that of the ball bearings 123.

[0045] The specific functions and operation procedures of this embodiment are as follows: In this invention, the ring body 121 of the limiting ring 12 can determine the position of multiple balls 123 through the inner wall positioning ring 122. Then, the balls 123 will communicate with the rotating cavity 124, so that after the turntable 2 is embedded and positioned, its edge will contact the balls 123, thus achieving a smooth rotation effect and avoiding wear and damage caused by direct surface contact. At the same time, the anti-deviation body 125 set at the position of the rotating cavity 124 can complete the splicing with the inside of the turntable 2 through the slot 1251 on the surface of the solid disk 1252, improving the stability of use after connection. Furthermore, the balance bar 1253 set at the edge can improve the stability of rotation, ensuring smooth cooperation with the balls 123 and avoiding jamming and instability.

[0046] Any technical solution that achieves the above-mentioned technical effects by utilizing the technical solutions described in this invention, or by designing similar technical solutions by those skilled in the art under the inspiration of the technical solutions described in this invention, falls within the protection scope of this invention.

Claims

1. An experimental device for precise control of aerobic exercise intensity in hypertensive patients, comprising: The bicycle includes a frame (1), a turntable (2), a sensor (3), a pedal (4), an adjustment pad (5), and a display (6). The frame (1) determines the position of the turntable (2), and the sensor (3) it carries is connected to the pedal (4). The adjustment pad (5) and the display (6) at the upper end of the frame (1) have a safe distance between them. The bicycle is characterized by: The frame (1) is provided with a displacement structure (11). The upper end of the displacement structure (11) is connected to a limiting ring (12), and a non-standard main unit (13) is connected to the upper edge of the limiting ring (12). A power-conducting support rod (14) is provided on the upper end of the non-standard main unit (13). A power-conducting connector (15) is mounted on the edge of the power-conducting support rod (14). A force-bearing block (16) is connected to the other side of the edge of the limiting ring (12). The displacement structure (11) is also provided with a connecting end (111), which is located at the upper end of the bottom block (112). An auxiliary wheel (113) is provided on the lower layer of the bottom block (112). A balance bar (114) is connected to the left and right positions of the bottom block (112), and an adjustment structure (115) is provided at one end of the balance bar (114). The position of the limiting ring (12) is determined by the displacement structure (11) of the frame (1) through the connecting end (111) of the bottom block (112). Then, the lower auxiliary wheel (113) can rotate and move after the adjustment structure (115) of the balance bar (114) is unfolded. Then, the force block (16) of the limiting ring (12) is connected and positioned with the adjustment pad (5). At the same time, the power support rod (14) of the irregular host (13) is connected to the display (6) for support and electrical connection. Meanwhile, the power connection piece (15) can be connected and powered with other physiological monitoring devices worn.

2. The experimental device for precise control of aerobic exercise intensity in hypertensive patients according to claim 1, characterized in that: The turntable (2) of the frame (1) is circular and the sensor (3) mounted thereon monitors the torque of the central axis between the pedal (4) and the turntable (2) in real time. The adjustment pad (5) contains an adjustment rod. The display (6) has two screens, namely the sports ability evaluation information screen and the device basic information screen.

3. The experimental device for precise control of aerobic exercise intensity in hypertensive patients according to claim 1, characterized in that: The irregular host (13) at the edge of the limiting ring (12) of the displacement structure (11) includes an electric connection end, the electric support rod (14) supports the bottom of the display (6), the electric connector (15) is set at the edge of the electric support rod (14) and connected to other wearable physiological monitoring devices, and the force block (16) is solid and fixedly connected to the adjustment pad (5).

4. The experimental device for precise control of aerobic exercise intensity in hypertensive patients according to claim 1, characterized in that: The connecting end (111) is arc-shaped, the auxiliary wheel (113) under the bottom block (112) is a small sphere and is set in a horizontal position, and the balance bar (114) is set in a symmetrical position and carries an adjustment structure (115).

5. The experimental device for precise control of aerobic exercise intensity in hypertensive patients according to claim 1, characterized in that: The adjustment structure (115) is provided with a slide rail (1151), which is open at the center of the surface of the support block (1152). A control block (1153) is provided on the surface of the support block (1152) to control the lower anti-slip block (1154) by sliding in the position of the slide rail (1151). A rotating screw (1155) is also connected to the center of the support block (1152), and a moving wheel (1156) is connected to the lower end of the rotating screw (1155). The slide rail (1151) is vertically oriented and integrated with the support block (1152). The control block (1153) and the anti-slip block (1154) are perpendicular to each other. The anti-slip block (1154) is made of rubber. The rotating screw (1155) is vertically connected to the center of the support block (1152) and is spaced together with the slide rail (1151) and the control block (1153). The moving wheel (1156) at the lower end of the rotating screw (1155) can enter the support block (1152) and push downward to contact the ground.

6. The experimental device for precise control of aerobic exercise intensity in hypertensive patients according to claim 5, characterized in that: The control block (1153) is also provided with a central groove (1531), which is opened at the center of the slider (1532). An adsorption block (1533) is also provided in the central groove (1531). A connector (1534) is connected to the lower end of the slider (1532), and a central block (1535) is also provided at the center of the lower end of the connector (1534). The central groove (1531) is opened in a horizontal direction and passes through the left and right ends of the slider (1532). The adsorption block (1533) enters the interior of the slider (1532) through the central groove (1531). The connecting body (1534) is set in a vertical direction and is embedded in the anti-sliding block (1154) through the central block (1535).

7. The experimental device for precise control of aerobic exercise intensity in hypertensive patients according to claim 1, characterized in that: The limiting ring (12) is provided with a ring body (121), and a positioning ring (122) is provided on the inner wall of the ring body (121). A ball bearing (123) is provided in the positioning ring (122) and communicates with the rotating cavity (124). An anti-deviation body (125) is also provided at the center of the rotating cavity (124). The inner wall of the ring (121) is in contact with the positioning ring (122), and the positioning ring (122) is provided with multiple balls (123) that are in contact with the edge of the turntable (2). The anti-deviation body (125) of the rotating cavity (124) is located at the center of the turntable (2).

8. The experimental device for precise control of aerobic exercise intensity in hypertensive patients according to claim 7, characterized in that: The anti-deviation body (125) is also provided with a slot (1251), which is opened at the surface edge of the solid disk (1252), and a balance bar (1253) is connected to the edge of the solid disk (1252). The slot (1251) is arc-shaped and is triangularly distributed on the surface of the solid disk (1252). The number of balance bars (1253) of the solid disk (1252) is the same as that of the balls (123).

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