Self-adaptive bronchofiberscope and trachea operating deviceTechnical Field
The invention relates to the field of trachea cannula operation, in particular to a self-adaptive bronchofiberscope and trachea operating device.
Background
Endotracheal intubation refers to the insertion of a specially made tracheal tube into the trachea of a patient through the oral or nasal cavity. Is a technique for narcotizing in trachea and rescuing patients, and is the most reliable means for keeping the upper respiratory tract unobstructed.
Endotracheal or bronchial tubes are a safety measure for performing anesthesia. The respiratory tract cleaning device has the advantages of keeping the respiratory tract smooth, being convenient to clear the endocrine of the trachea and the bronchus, being convenient to implement auxiliary respiration and artificial respiration, being capable of enabling an anaesthetist to be far away from an operation area, reducing the respiratory failure of a patient respiratory tract invalid cavity, being convenient for oxygen inhalation and auxiliary respiration, and the like.
At present, no special intubation equipment exists, and a doctor is required to manually complete trachea insertion under the assistance of a bronchofiberscope. The physician needs to control the rotation of the distal end of the catheter by holding the proximal end of the bronchofiberscope with the display screen in one hand while advancing or rotating the catheter forward with the other hand to bring the catheter to the desired position, and inserting the trachea along the catheter. During the operation, the doctor needs to operate smoothly in the whole process, the completion time is short, and secondary damage to the patient is avoided. Therefore, doctors need to quickly identify each characteristic part of the human body, accurately, stably and quickly feed the catheter, and the whole operation is difficult.
Disclosure of Invention
The invention aims to overcome the defects and provides a self-adaptive bronchofiberscope and trachea operating device.
The invention solves the technical problem by adopting the scheme that the self-adaptive bronchofiberscope and trachea operating device comprises a bronchofiberscope operating part, a front end feeding device and a tail end feeding device;
the bronchofiberscope operation part comprises a bronchofiberscope support and a bronchofiberscope body, the bronchofiberscope body comprises a display, a bronchofiberscope body and an optical fiber, the display, the bronchofiberscope body and the optical fiber are sequentially connected from front to back, the bronchofiberscope body is sleeved on the bronchofiberscope support and is in rotating fit with the bronchofiberscope support, a bending impeller is arranged beside the front end of the bronchofiberscope body, a bending steering engine is arranged on the bronchofiberscope support, an output shaft of the bending steering engine is provided with a swing rod, and;
the front end feeding device comprises a rack, an upper screw rod and a lower screw rod which are longitudinally arranged on the rack, a polished rod is longitudinally arranged beside the upper screw rod, a gear A is arranged at the front end of the upper screw rod, a motor A and a motor B are arranged on the rack, a gear which is in meshing transmission with the gear A is arranged on an output shaft of the motor A, an output shaft of the motor B is in transmission connection with the front end of the lower screw rod, an upper nut seat and a lower nut seat which are in threaded fit with the upper screw rod and the lower screw rod are respectively arranged on the upper screw rod and the lower screw rod, a mirror support is fixedly arranged on the upper nut seat, an air pipe clamp which is in sliding fit with the mirror support is arranged;
the tail end feeding device comprises a base arranged at the rear end of the rack and a pipe clamping steering engine arranged on the base, a flange is arranged on an output shaft of the pipe clamping steering engine, a guide rail is transversely arranged above the flange, two wheel frames in sliding fit with the guide rail are symmetrically arranged on the guide rail left and right, the wheel frames are hinged with the flange, an interval for clamping a guide and feed air pipe is formed between the two wheel frames, two vertical rollers are arranged on the wheel frames at intervals front and back, a motor C is arranged on one of the wheel frames, and the motor C is connected with a wheel shaft of one vertical roller on the wheel frame for;
the front end of the air pipe is clamped and fixed by the air pipe clamp, the front end of the air pipe penetrates through the interval, and the optical fiber penetrates through the air pipe.
Furthermore, two turntables are installed at the front and the rear of the rack at intervals, two ends of the upper screw rod and the polish rod are respectively connected and fixed with the turntables on two sides, the gear A and the motor A are both installed on the front-end turntable, the turntables are installed on the rack through bearing seats, the motor D is installed at the front end of the rack, and an output shaft of the motor D is connected with the front-end turntable.
Furthermore, a slide rail is longitudinally arranged on the rack, and the air pipe clamp is in sliding fit with the slide rail.
Further, the display is hinged with the mirror body.
Furthermore, a fixing plate is arranged in the middle of the lower end of the rack.
Further, a handle is mounted on the frame.
Compared with the prior art, the invention has the following beneficial effects: simple structure, reasonable in design can simulate the doctor and carry out trachea cannula operation, realizes automatic, quick, accurate, insert predetermined position with the trachea steadily, has guaranteed the security of operation.
Drawings
The invention is further described with reference to the following figures.
Fig. 1 is a schematic structural view of the present apparatus.
Fig. 2 is a schematic structural view of the bronchofiberscope operating unit.
Fig. 3 is a schematic structural view of the front end feeding device.
Fig. 4 is a schematic view of the structure of the tip feeding device.
In the figure: 1-bronchofiberscope operating part; 100-a display; 101-bending wave wheel; 102-a mirror body; 103-an optical fiber; 104-a mirror support; 105-bending steering engine; 106-oscillating bar; 2-front end feeding device; 200-a frame; 201-fixing plate; 202-a tracheal clamp; 203-upper screw rod; 204-lower screw rod; 205-a polish rod; 206-a slide rail; 207-motor a; 208-motor B; 209-upper nut seat; 210-lower nut seat; 211-a turntable; 212-Motor D; 3-a terminal feeding device; 300-a base; 301-pipe clamping steering engine; 302-a flange; 303-wheel carrier; 304-a guide rail; 305-vertical rollers; 306-motor D; 4-trachea.
Detailed Description
The invention is further described with reference to the following figures and detailed description.
As shown in fig. 1-4, an adaptive bronchofiberscope and trachea operation device comprises abronchofiberscope operation part 1, a front end feeding device 2 and a tailend feeding device 3;
the bronchofiberscope operation part comprises abronchofiberscope support 104 and a bronchofiberscope body, the bronchofiberscope body comprises adisplay 100, abronchofiberscope body 102 and anoptical fiber 103 which are sequentially connected from front to back, the bronchofiberscope body is sleeved on the bronchofiberscope support and is in rotating fit with the bronchofiberscope support, abending impeller 101 is arranged beside the front end of the bronchofiberscope body, abending steering engine 105 is arranged on the bronchofiberscope support, an output shaft of the bending steering engine is provided with aswing rod 106, the bending impeller is arranged at the tail end of the swing rod, and the bending impeller rotates the impeller by driving the swing rod, so that;
the front end feeding device comprises arack 200, anupper screw rod 203 and alower screw rod 204 which are longitudinally arranged on the rack, apolish rod 205 is longitudinally arranged beside the upper screw rod, the front end of the upper screw rod is provided with a gear A, the rack is provided with a motor A207 and a motor B208, the output shaft of the motor A is provided with a gear which is in meshing transmission with the gear A, the output shaft of the motor B is in transmission connection with the front end of the lower screw rod, the upper screw rod and the lower screw rod are respectively provided with anupper nut seat 209 and alower nut seat 210 which are in threaded fit with the upper screw rod and the lower screw rod, a mirror bracket is fixedly arranged on the upper nut seat, the rear part of the rack is provided with anair pipe clamp 202 which is in; the front end feeding device divides the feeding action into two parts, the first step is the feeding of the bronchofiberscope, the motor A drives the upper screw rod to rotate through gear transmission, and then the upper nut seat drives the bronchofiberscope operating part to feed; secondly, when the bronchofiberscope is fed to a preset position, the motor B drives the lower screw rod to clamp the trachea and insert the trachea into the human body along the bronchofiberscope through the lower nut seat and the trachea on the lower nut seat;
the tail end feeding device comprises abase 300 arranged at the rear end of the rack and a pipeclamping steering engine 301 arranged on the base, aflange 302 is arranged on an output shaft of the pipe clamping steering engine, aguide rail 304 is transversely arranged above the flange, twowheel frames 303 in sliding fit with the guide rail are symmetrically arranged on the guide rail left and right, the wheel frames are hinged with the flange, an interval for clamping a guide and delivery air pipe is formed between the two wheel frames, twovertical rollers 305 are arranged on the wheel frames at intervals front and back, a motor C306 is arranged on one of the wheel frames and is connected with a wheel shaft of one vertical roller on the wheel frame for transmission, 4 rollers are provided, 1 is a driving wheel, 3 are driven wheels, the air pipe is driven by friction force to move through a pipe clamping steering engine control flange to rotate, the wheel frames are driven to slide along the guide rail, the rollers on the two wheel frames are close to and away from each other, the clamping and the loosening of, thereby adapting to air pipes with different sizes and providing proper pretightening force, and ensuring the reliability and stability of driving;
the front end of theair pipe 4 is clamped and fixed by an air pipe clamp, the front end of the air pipe passes through the interval, and the optical fiber penetrates through the air pipe;
twoturntables 211 are installed at the front and the back of the rack at intervals, two ends of the upper screw rod and the polish rod are respectively connected and fixed with the turntables at two sides, the gear A and the motor A are both installed on the front turntable, the turntables are installed on the rack through bearing seats, the motor D212 is installed at the front end of the rack, an output shaft of the motor D is connected with the front turntable, and the motor D drives the turntables to swing left and right, so that the bronchofiberscope swings left and right;
by simulating the operation action of the trachea cannula of a doctor, holding the bronchofiberscope body with one hand, operating the impeller by fingers to control the tail end of the bronchofiberscope to bend, and realizing the swing of the bronchofiberscope through the wrist, wherein the operation is simulated by the bronchofiberscope operating part and the front end feeding device, and the tail end of the bronchofiberscope is twisted and supported by the other hand to assist the bronchofiberscope in feeding and swinging; after the bronchofiberscope reaches the target position, inserting the trachea along the bronchofiberscope to complete the operation; the above operation is simulated by the end-feed device.
In this embodiment, the frame is provided with aslide rail 206 along the longitudinal direction, and the tracheal clamp is slidably engaged with the slide rail.
In this embodiment, the display is hinged to the mirror.
In this embodiment, afixing plate 201 is installed in the middle of the lower end of the frame.
In this embodiment, the frame is provided with a handle.
If this patent discloses or refers to parts or structures that are fixedly connected to each other, the fixedly connected may be understood as: a detachable fixed connection (for example using bolts or screws) is also understood as: non-detachable fixed connections (e.g. riveting, welding), but of course, fixed connections to each other may also be replaced by one-piece structures (e.g. manufactured integrally using a casting process) (unless it is obviously impossible to use an integral forming process).
In the description of this patent, it is to be understood that the terms "longitudinal," "lateral," "upper," "lower," "front," "rear," "left," "right," "vertical," "horizontal," "top," "bottom," "inner," "outer," and the like are used in the orientations and positional relationships indicated in the drawings for convenience in describing the patent, and are not intended to indicate or imply that the referenced devices or elements must have a particular orientation, be constructed and operated in a particular orientation, and are not to be considered limiting of the patent.
The above-mentioned preferred embodiments, further illustrating the objects, technical solutions and advantages of the present invention, should be understood that the above-mentioned are only preferred embodiments of the present invention and should not be construed as limiting the present invention, and any modifications, equivalents, improvements and the like made within the spirit and principle of the present invention should be included in the protection scope of the present invention.