Respiration restorer with built-in flow guide structure

Abstract

The invention discloses a breathing restorer with a built-in flow guide structure, which comprises an oxygen supply main body, the oxygen supply main body is mounted at the top of a movable base and is connected with an air treatment box for filtering, humidifying and heating air, and the air treatment box is connected with a main conveying pipe; the end of the main conveying pipe is connected with one side of an auxiliary flow guide structure used for assisting a user in breathing, and the other side of the auxiliary flow guide structure is connected with an auxiliary hose. According to the breathing restorer with the built-in flow guide structure, the triggering structure can be triggered by weak breathing force of a user, treated air can be accurately conveyed to the breathing mask for smooth breathing of the user by means of a pulley block without assistance of a motor or pump equipment, and equipment noise and complexity are reduced while energy conservation and emission reduction are achieved.

Description

Technical Field

[0001] The present invention relates to the technical field of medical devices, and particularly to a breathing recovery device with an internal diversion structure. Background Art

[0002] In the medical field, a breathing recovery device is a crucial medical device. It is mainly used to assist or replace the patient's spontaneous breathing to maintain normal gas exchange, ensuring that the body's tissues and organs can obtain sufficient oxygen supply and discharge carbon dioxide. The breathing recovery device is widely used in various scenarios such as the intensive care unit, operating room of the hospital, and home medical care. It plays an irreplaceable role for patient groups with respiratory failure, dyspnea, etc.

[0003] There are various types of existing breathing recovery devices, but most of the existing breathing recovery devices have similarities in working principles. They mainly operate through pumps or mechanical structures to intermittently supply air to help the user breathe.

[0004] However, this traditional breathing recovery device exposes some problems that need to be solved urgently in practical applications. First of all, when an emergency occurs that the user suddenly cannot breathe spontaneously during the use process, the existing breathing recovery device cannot issue an alarm in time to notify the medical staff to come to the rescue. This undoubtedly increases the risk of danger to the patient and may lead to delaying the best treatment opportunity. Secondly, during the process of driving breathing through pumps or mechanical structures, on the one hand, it is easy to cause damage to the user's lungs due to factors such as excessive air supply volume, affecting the patient's recovery process; on the other hand, such devices usually require continuous power supply to operate normally. This not only limits its use in power-free occasions, reducing the flexibility and convenience of use, but also is not energy-saving and environmentally friendly to a certain extent, which is contrary to the pursuit of green medical devices in modern society.

[0005] In summary, although the existing breathing recovery devices meet the patient's breathing support needs to a certain extent, there are still many deficiencies, and further technological innovation and improvement are urgently needed to improve their safety, reliability, and applicability. Summary of the Invention

[0006] The technical solution of the present invention provides a breathing recovery device with an internal diversion structure that is significantly different from the existing technical solutions for the technical problem of the overly single existing technical solutions, so as to solve the problems raised in the above background art.

[0007] To achieve the above object, the present invention provides the following technical solution: A breathing recovery device with a built-in diversion structure, including an oxygen supply main body, the oxygen supply main body is installed on the top of a mobile base, and the oxygen supply main body is connected to an air treatment box for filtering, humidifying and heating air. The air treatment box is connected to a main delivery pipe, and the end of the main delivery pipe is connected to one side of an auxiliary diversion structure for assisting the user's breathing. And the other side of the auxiliary diversion structure is connected to an auxiliary hose. The end of the auxiliary hose is connected to one side of a trigger structure, and the other side of the trigger structure is connected to a breathing mask through another group of auxiliary hoses.

[0008] Preferably, the auxiliary diversion structure includes a diversion part, a boosting part and a driving part. The diversion part includes a housing, an air inlet cavity, an air outlet cavity, a control cavity, a piston plate, a connecting rod, an inlet check valve and an outlet check valve. An air inlet cavity and an air outlet cavity are respectively opened at the upper and lower ends inside the housing, and a control cavity is opened in the middle area inside the housing. A piston plate is arranged in each of the air inlet cavity and the air outlet cavity, and a connecting rod passing through the control cavity is connected between the piston plates. Inlet check valves for air inlet are respectively installed on the offset sides of the air inlet cavity and the air outlet cavity, and outlet check valves for air outlet are respectively installed on the other offset sides of the air inlet cavity and the air outlet cavity.

[0009] Preferably, the boosting part includes a first connecting plate, a second connecting plate, a movable pulley, a fixed pulley, a connecting rope, a winding roller frame, a box body, a fan blade disc, a branch pipe and a collection box. One end of the connecting rod in the area of the control cavity is connected to a first connecting plate on the same side at both ends. And a second connecting plate is connected between the inner walls of the control cavity between the two first connecting plates. Each first connecting plate is connected to a movable pulley on the side close to the second connecting plate, and a fixed pulley is connected to each side of the second connecting plate. And a connecting rope is connected to each side of the second connecting plate. The end of each connecting rope passes through the corresponding movable pulley and fixed pulley and is wound and connected to the corresponding winding roller frame. And the winding roller frames are respectively installed on one side of the outer wall of the housing. A box body is installed on the outer wall of each winding roller frame, and a fan blade disc is arranged in each box body. And each fan blade disc is connected to the rotating shaft of the corresponding winding roller frame. A branch pipe is communicated with one side of each box body, and the end of the branch pipe is communicated with a collection box installed on the outer wall of the housing. The other side of each box body is connected to the trigger structure through another communicated branch pipe.

[0010] Preferably, the driving part includes a driving motor, an output shaft, a convex gear disc, a tooth block and a buffer spring. The driving motor is installed on the outer wall of the housing, and the output end of the driving motor is connected to the output shaft. And the end of the output shaft is rotatably connected to the inner wall of the control cavity. And a convex gear disc is connected to the outer wall of the area of the output shaft in the control cavity. A tooth block for meshing with the convex gear disc is arranged on the side of the connecting rod in the area of the control cavity away from the first connecting plate. And a buffer spring for buffering and resetting is connected between the outer wall of the connecting rod and the control cavity.

[0011] Preferably, the trigger structure includes a mounting block, an air inlet channel, an air outlet channel, a clamping groove, a floating plate rod, a cylinder body, a mounting frame, an adjusting spring, a movable plate, an adjusting screw rod, a piston rod, and a piston cylinder. The mounting block is symmetrically provided with an air inlet channel and an air outlet channel that penetrate through both end faces thereof, and the air inlet channel and the air outlet channel are used to connect auxiliary hoses. On the same side of the air inlet channel and the air outlet channel, a clamping groove is provided respectively, and a floating plate rod is arranged in each clamping groove. The upper end of each floating plate rod penetrates through the outer wall of the mounting block and is located in the corresponding cylinder body. The cylinder bodies are installed on both sides of the mounting frame, and the mounting frame is connected to the outer wall of the mounting block. An adjusting spring is arranged in each cylinder body. One end of each adjusting spring is connected to the end of the corresponding floating plate rod, and the other end of each adjusting spring is connected to the movable plate located in the corresponding cylinder body. A rotating adjusting screw rod is connected to each movable plate, and the end of each adjusting screw rod penetrates through and is threadedly connected to the mounting frame. In the middle area of the mounting frame, a piston cylinder is symmetrically connected respectively. One end of each piston cylinder is connected with a piston rod, and the end of the piston rod is connected to the corresponding floating plate rod. The other end of each piston cylinder communicates with the corresponding branch pipe.

[0012] Preferably, the floating plate rod is of a structure with a lower plate and an upper rod. The plate-shaped areas of the floating plate rod located on both sides in the air inlet channel and the air outlet channel are arranged as inclined surfaces, and the upper rod-shaped area of the floating plate rod is in sliding connection with the cylinder body.

[0013] Compared with the prior art, the beneficial effects of the present invention are as follows: For the breathing recovery device with the built-in diversion structure, after the air treatment box filters impurities in the air, it humidifies and heats the air, thereby avoiding dryness and discomfort during long-term use by the user.

[0014] Through the settings of the auxiliary diversion structure, the auxiliary hose, and the trigger structure, in normal use of the present device, the weak breathing force of the user can trigger the trigger structure. With the help of the pulley block, without the assistance of motor or pump equipment, the processed air can be accurately delivered to the breathing mask for the user to breathe smoothly, achieving energy conservation and emission reduction while reducing the equipment noise and complexity.

[0015] If an emergency situation where the user is unable to breathe independently occurs during the use process, the trigger structure will immediately transmit a signal to the electrically connected PLC controller. On the one hand, the PLC controller quickly issues a warning to remind medical staff to provide timely treatment. On the other hand, it immediately issues an instruction to control the driving motor to start, and through the periodic engagement of the convex gear disc and the tooth block, the air processed by the air treatment box is forcibly supplied to the breathing mask to provide timely breathing rescue for the user, ensuring that the user can also obtain continuous and stable breathing support in case of emergencies. Description of the Drawings

[0016] Figure 1 It is a front view structural schematic diagram of the present invention;

[0017] Figure 2 This is the front view sectional structure diagram of the intake state housing of the present invention;

[0018] Figure 3 This is the front view sectional structure diagram of the outlet state housing of the present invention;

[0019] Figure 4 This is the front view structure diagram of the housing of the present invention;

[0020] Figure 5 This is the front view sectional structure diagram of the mounting block of the present invention;

[0021] Figure 6 This is the front view structure diagram of the mounting block of the present invention;

[0022] Figure 7 This is the side view structure diagram of the fan blade disc of the present invention;

[0023] Figure 8 This is the three-dimensional structure diagram of the fan blade disc of the present invention.

[0024] In the figure: 1, oxygen supply main body; 2, moving base; 3, air treatment box; 4, main delivery pipe; 5, auxiliary diversion structure; 501, housing; 502, intake cavity 503; outlet cavity; 504, control cavity; 505, piston plate; 506, connecting rod; 507, inlet one-way valve; 508, outlet one-way valve; 509, first connecting plate; 510, second connecting plate; 511, movable pulley; 512, fixed pulley; 513, connecting rope; 514, winding roller frame; 515, box body; 516, fan blade disc; 517, branch pipe; 518, collection box; 519, drive motor; 520, output shaft; 521, convex gear disc; 522, tooth block; 523, buffer spring; 6, auxiliary hose; 7, trigger structure; 701, mounting block; 702, intake passage; 703, outlet passage; 704, card slot; 705, float rod; 706, cylinder body; 707, mounting frame; 708, adjusting spring; 709, movable plate; 710, adjusting screw; 711, piston rod; 712, piston cylinder; 8, breathing mask. Detailed implementation manners

[0025] Next, the technical solutions in the embodiments of the present invention will be clearly and completely described in conjunction with the accompanying drawings in the embodiments of the present invention. Obviously, the described embodiments are only a part of the embodiments of the present invention, rather than all the embodiments. Based on the embodiments of the present invention, all other embodiments obtained by those of ordinary skill in the art without creative efforts shall fall within the protection scope of the present invention.

[0026] Please refer to Figure 1-8, the present invention provides a technical solution: a breathing recovery device with a built-in diversion structure, including an oxygen supply main body 1, a moving base 2, an air treatment box 3, a main delivery pipe 4, an auxiliary diversion structure 5, a housing 501, an intake chamber 502, an exhaust chamber 503, a control chamber 504, a piston plate 505, a connecting rod 506, an intake check valve 507, an exhaust check valve 508, a first connecting plate 509, a second connecting plate 510, a movable pulley 511, a fixed pulley 512, a connecting rope 513, a winding roller frame 514, a box body 515, a fan blade disc 516, a branch pipe 517, a collection box 518, a driving motor 519, an output shaft 520, a convex gear disc 521, a tooth block 522, a buffer spring 523, an auxiliary hose 6, a trigger structure 7, a mounting block 701, an intake passage 702, an exhaust passage 703, a card slot 704, a floating plate rod 705, a cylinder body 706, a mounting bracket 707, an adjusting spring 708, a movable plate 709, an adjusting screw 710, a piston rod 711, a piston cylinder 712, and a breathing mask 8. The oxygen supply main body 1 is installed on the top of the moving base 2, and the oxygen supply main body 1 is connected to an air treatment box 3 for filtering, humidifying and heating air. The air treatment box 3 is connected to the main delivery pipe 4, and the end of the main delivery pipe 4 is connected to one side of an auxiliary diversion structure 5 for assisting the user's breathing. The other side of the auxiliary diversion structure 5 is connected to an auxiliary hose 6. The end of the auxiliary hose 6 is connected to one side of a trigger structure 7, and the other side of the trigger structure 7 is connected to a breathing mask 8 through another group of auxiliary hoses 6.

[0027] The auxiliary diversion structure 5 includes a diversion part, a boosting part and a driving part. The diversion part includes a housing 501, an intake chamber 502, an exhaust chamber 503, a control chamber 504, a piston plate 505, a connecting rod 506, an intake check valve 507 and an exhaust check valve 508. An intake chamber 502 and an exhaust chamber 503 are respectively opened at the upper and lower ends inside the housing 501, and a control chamber 504 is opened in the middle area inside the housing 501. A piston plate 505 is provided in each of the intake chamber 502 and the exhaust chamber 503, and a connecting rod 506 passing through the control chamber 504 is connected between the piston plates 505. Intake check valves 507 for intake are respectively installed on the misaligned sides of the intake chamber 502 and the exhaust chamber 503, and exhaust check valves 508 for exhaust are respectively installed on the other misaligned sides of the intake chamber 502 and the exhaust chamber 503.

[0028] The boosting part includes a first connecting plate 509, a second connecting plate 510, a movable pulley 511, a fixed pulley 512, a connecting rope 513, a winding roller frame 514, a box body 515, a fan blade disc 516, a branch pipe 517, and a collection box 518. One first connecting plate 509 is connected to each of the two ends of the inner area of the control cavity 504 on the same side, and a second connecting plate 510 is connected between the two first connecting plates 509 on the inner wall of the control cavity 504. One movable pulley 511 is connected to each side of each first connecting plate 509 close to the second connecting plate 510, and one fixed pulley 512 is connected to each side of the second connecting plate 510. Also, one connecting rope 513 is connected to each side of the second connecting plate 510. The end of each connecting rope 513 passes through the corresponding movable pulley 511 and fixed pulley 512 and is wound and connected to the corresponding winding roller frame 514. The winding roller frames 514 are respectively installed on one side of the outer wall of the housing 501. One box body 515 is installed on the outer wall of each winding roller frame 514, and one fan blade disc 516 is provided in each box body 515. Each fan blade disc 516 is connected to the rotating shaft of the corresponding winding roller frame 514. One branch pipe 517 is communicated with one side of each box body 515, and the end of the branch pipe 517 is communicated with a collection box 518 installed on the outer wall of the housing 501. The other side of each box body 515 is connected to the triggering structure 7 through another communicated branch pipe 517.

[0029] The driving part includes a driving motor 519, an output shaft 520, a convex gear disc 521, a tooth block 522, and a buffer spring 523. The driving motor 519 is installed on the outer wall of the housing 501, and the output end of the driving motor 519 is connected to the output shaft 520. The end of the output shaft 520 is rotatably connected to the inner wall of the control cavity 504. A convex gear disc 521 is connected to the outer wall of the output shaft 520 in the inner area of the control cavity 504. A tooth block 522 for meshing and cooperating with the convex gear disc 521 is provided on the side of the connecting rod 506 in the inner area of the control cavity 504 away from the first connecting plate 509. A buffer spring 523 for buffering and resetting is connected between the outer wall of the connecting rod 506 and the control cavity 504.

[0030] The trigger structure 7 includes a mounting block 701, an air inlet passage 702, an air outlet passage 703, a card slot 704, a floating plate rod 705, a cylinder body 706, a mounting bracket 707, an adjusting spring 708, a movable plate 709, an adjusting screw 710, a piston rod 711, and a piston cylinder 712. The mounting block 701 is symmetrically provided with an air inlet passage 702 and an air outlet passage 703 that penetrate through both side end faces thereof, and the air inlet passage 702 and the air outlet passage 703 are used to connect the auxiliary hose 6. On the same side in the air inlet passage 702 and the air outlet passage 703, a card slot 704 is respectively provided, and a floating plate rod 705 is provided in each card slot 704. And the upper end of each floating plate rod 705 penetrates through the outer wall of the mounting block 701 and is located in the corresponding cylinder body 706. The cylinder bodies 706 are installed on both sides of the mounting bracket 707, and the mounting bracket 707 is connected to the outer wall of the mounting block 701. An adjusting spring 708 is provided in each cylinder body 706. One end of each adjusting spring 708 is connected to the end of the corresponding floating plate rod 705, and the other end of each adjusting spring 708 is connected to the movable plate 709 located in the corresponding cylinder body 706. A rotatable adjusting screw 710 is connected to each movable plate 709, and the end of each adjusting screw 710 penetrates through and is threadedly connected to the mounting bracket 707. In the middle area of the mounting bracket 707, a piston cylinder 712 is symmetrically connected to each side. And one end of each piston cylinder 712 is internally connected with a piston rod 711, and the end of the piston rod 711 is connected to the corresponding floating plate rod 705. The other end of each piston cylinder 712 communicates with the corresponding branch pipe 517.

[0031] The floating plate rod 705 is of a structure with a lower plate and an upper rod. The plate-like areas of the floating plate rod 705 located on both sides in the air inlet passage 702 and the air outlet passage 703 are arranged as inclined surfaces, and the upper rod-like area of the floating plate rod 705 is in sliding connection with the cylinder body 706.

[0032] Working principle: As shown in Figure 1 , first, move the oxygen supply main body 1 to the working area through the moving base 2. After the air is processed by the oxygen supply main body 1 and the air treatment box 3, driving heating is carried out. Wear the breathing mask 8 on the user's face. As the user breathes, when the user's breathing becomes weak due to poor breathing, during the process that the gas passes through the auxiliary hose 6 and penetrates through the air inlet passage 702 and the air outlet passage 703, the air flow is small and cannot effectively lift the floating plate rod 705 into the card slot 704. The adjusting spring 708 pushes the floating plate rod 705 to move downward, driving the piston rod 711 to move downward from the piston cylinder 712, generating a suction force, and sucking half of the hydraulic oil in the collection box 518 into the piston cylinder 712 through the branch pipe 517. The movable plate in the collection box 518 does not contact the trigger switch, and a warning is issued;

[0033] During this process, when the hydraulic oil passes through the branch pipe 517 and the box body 515, it drives the fan blade disc 516 to rotate. The fan blade disc 516 drives the winding roller frame 514 to rotate. The winding roller frame 514 winds the connecting rope 513. The connecting rope 513 pulls the movable pulley 511. Cooperating with the fixed pulley 512, with a relatively small force, the second connecting plate 510 can be pulled to move, thereby driving the connecting rod 506 and the piston plate 505 to displace in the air inlet cavity 502 and the air outlet cavity 503, so as to assist the user in breathing and ventilation, without the need for additional pumps, motor equipment, etc. for driving, saving energy and reducing emissions;

[0034] When the user is unable to breathe independently during use, the floating plate rods 705 in both the air inlet cavity 502 and the air outlet cavity 503 move outward from the cylinder body 706 under the action of the adjusting spring 708, driving the two piston rods 711 to move outward from the piston cylinder 712 at the same time. Therefore, all the hydraulic oil in the collection box 518 is pumped out. The movable plate in the collection box 518 will contact the trigger switch, send a signal to the external PLC control, issue a warning, and call for medical staff for rescue. At the same time, a command is sent to start the drive motor 519. The output shaft 520 drives the cam gear disc 521 to rotate. The cam gear disc 521 periodically meshes with the tooth block 522, driving the connecting rod 506 to move downward. At the same time, the buffer spring 523 is compressed. After the cam gear disc 521 disengages from the tooth block 522 on the connecting rod 506, the buffer spring 523 will push the connecting rod 506 to reset. This process repeats to achieve the rescue of the patient. This is the working principle of the breathing recovery device with the built-in diversion structure.

[0035] Although the embodiments of the present invention have been shown and described, for those of ordinary skill in the art, it can be understood that various changes, modifications, substitutions, and variations can be made to these embodiments without departing from the principles and spirit of the present invention. The scope of the present invention is defined by the appended claims and their equivalents.

Claims

1. A breathing recovery device with a built-in flow guiding structure, comprising an oxygen supply body (1), characterized in that: The oxygen supply body (1) is installed on the top of the mobile base (2), and the oxygen supply body (1) is connected to an air processing box (3) for filtering, humidifying and heating the air, the air processing box (3) is connected to a main delivery pipe (4), and the end of the main delivery pipe (4) is connected to one side of an auxiliary flow guiding structure (5) for assisting the user's breathing, and the other side of the auxiliary flow guiding structure (5) is connected to an auxiliary hose (6), the end of the auxiliary hose (6) is connected to one side of a trigger structure (7), and the other side of the trigger structure (7) is connected to a breathing mask (8) through another set of auxiliary hoses (6).

2. A breathing recovery device with a built-in flow guide structure according to claim 1, characterized in that: The auxiliary flow guiding structure (5) comprises a flow guiding part, a power assisting part and a driving part. The flow guiding part comprises a shell (501), an air inlet cavity (502), an air outlet cavity (503), a control cavity (504), a piston plate (505), a connecting rod (506), an inlet check valve (507) and an outlet check valve (508). The upper and lower ends of the shell (501) are respectively provided with an inlet cavity (502) and an outlet cavity (503), and the middle area of ​​the shell (501) is provided with a control cavity (504). 504), a piston plate (505) is provided in each of the air inlet chamber (502) and the air outlet chamber (503), and a connecting rod (506) penetrating the control chamber (504) is connected between the piston plates (505), an inlet check valve (507) for air intake is respectively installed on both sides of the air inlet chamber (502) and the air outlet chamber (503), and an outlet check valve (508) for air outlet is respectively installed on the other two sides of the air inlet chamber (502) and the air outlet chamber (503).

3. A breathing recovery device with a built-in flow guide structure according to claim 2, characterized in that: The power-assisting part comprises a first connecting plate (509), a second connecting plate (510), a movable pulley (511), a fixed pulley (512), a connecting rope (513), a winding roller frame (514), a box body (515), a fan blade disc (516), a branch pipe (517), and a collecting box (518); the connecting rod (506) is located in the control chamber (504), and the same side of both ends of the area is connected to a first connecting plate (509), and the inner wall of the control chamber (504) is connected to a second connecting plate (510) between the two first connecting plates (509); each of the first connecting plates (509) is connected to a movable pulley (511) on one side close to the second connecting plate (510), and both sides of the second connecting plate (510) are connected to a fixed pulley (512), and both sides of the second connecting plate (510) are connected to a connecting rod (506). A connecting rope (513), each end of the connecting rope (513) passes through the corresponding movable pulley (511) and the fixed pulley (512) and is then wound around and connected to the corresponding winding roller frame (514), and the winding roller frames (514) are respectively installed on one side of the outer wall of the shell (501), and each of the winding roller frames (514) is installed on the outer wall of a box body (515), and each box body (515) is provided with a blade disc (516), and each blade disc (516) is connected to the rotating shaft of the corresponding winding roller frame (514), one side of each box body (515) is connected to a branch pipe (517), and the end of the branch pipe (517) is connected to a collection box (518) installed on the outer wall of the shell (501), and the other side of each box body (515) is connected to the trigger structure (7) through another connected branch pipe (517).

4. A breathing recovery device with a built-in flow guide structure according to claim 2, characterized in that: The driving part comprises a driving motor (519), an output shaft (520), a cam gear plate (521), a tooth block (522), and a buffer spring (523); the driving motor (519) is installed on the outer wall of the housing (501); the output end of the driving motor (519) is connected to the output shaft (520); the end of the output shaft (520) is rotatably connected to the inner wall of the control chamber (504); the output shaft (520) is located in the control chamber (504) and is connected to the cam gear plate (521) on the outer wall; the connecting rod (506) is located in the control chamber (504) and is far away from the first connecting plate (509) and is provided with a tooth block (522) for meshing with the cam gear plate (521); and a buffer spring (523) for buffering and resetting is connected between the outer wall of the connecting rod (506) and the control chamber (504).

5. A breathing recovery device with a built-in flow guide structure according to claim 3, characterized in that: The trigger structure (7) comprises a mounting block (701), an air inlet (702), an air outlet (703), a slot (704), a floating plate rod (705), a cylinder (706), a mounting frame (707), an adjustment spring (708), a movable plate (709), an adjustment screw (710), a piston rod (711), and a piston cylinder (712). The mounting block (701) is symmetrically provided with air inlet (702) and air outlet (703) penetrating both side end surfaces thereof. The air inlet (702) and the air outlet (703) are used to connect the auxiliary hose (6), and a card slot (704) is respectively provided on the same side of the air inlet (702) and the air outlet (703), and each card slot (704) is provided with a floating plate rod (705), and the upper end of each floating plate rod (705) passes through the outer wall of the mounting block (701) and is located in the corresponding cylinder (706), and the cylinder (706) is mounted on the mounting frame ( The mounting frame (707) is connected to the outer wall of the mounting block (701), each of the cylinders (706) is provided with an adjusting spring (708), one end of each adjusting spring (708) is connected to the end of the corresponding floating plate rod (705), and the other end of each adjusting spring (708) is connected to the corresponding movable plate (709) located in the cylinder (706), each of the movable plates (709) is rotatably connected to an adjusting screw rod (710), and the end of each adjusting screw rod (710) passes through and is threadedly connected to the mounting frame (707), a piston cylinder (712) is symmetrically connected to the middle area of ​​the mounting frame (707), and a piston rod (711) is connected to one end of each piston cylinder (712), and the end of the piston rod (711) is connected to the corresponding floating plate rod (705), and the other end of each piston cylinder (712) is connected to the corresponding branch pipe (517).

6. A breathing recovery device with a built-in flow guide structure according to claim 5, characterized in that: The floating plate rod (705) is configured as a lower plate upper rod structure, and both sides of the plate-shaped area of ​​the floating plate rod (705) located in the air inlet (702) and the air outlet (703) are configured as inclined surfaces, and the upper rod-shaped area of ​​the floating plate rod (705) and the cylinder (706) are slidably connected.

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