Provided is a tracheal tube that can be easily inserted into the inside of a subject and enables real-time observation of a state after tracheal intubation. The tracheal tube (1) includes a hollow tube body (2), a lumen (2a), and a scope unit (3), wherein the tube body (2) is inserted into the subject, the lumen (2a) is mounted to the tube body (2), and the scope unit (3) includes a cable portion (4) inserted in the lumen (2a) and an imaging optical system mounted to the distal end of the cable portion (4), the imaging optical system including an imaging device configured to image the inside of the subject.

An endotracheal tube includes a main tubular portion including a distal end and a proximal end opposite the distal end, the main tubular portion including a central lumen at least in part defined by a wall of the main tubular portion; a wire lumen disposed within the wall of the main tubular portion, the wire lumen defined at least in part by a sidewall portion of the wire lumen and extending from about the proximal end of the main tubular portion to about the distal end of the main tubular portion; a wire disposed in the wire lumen; and one or more cutouts extending along a portion of the wall of the main tubular portion, the cutouts comprising openings in the sidewall portion of the wire lumen, wherein the cutouts are not in fluid communication with the central lumen.

A device used for oral intubation on a patient having a mouth and airway (or oropharynx) is disclosed. The device comprises a hard palate pivot support attached to a laryngoscope blade by a plurality of actuating arms, wherein the hard palate pivot support is used to push against the roof of a patient's mouth and consequently open a patient's airway in order to visualize the vocal chords. A method of use is further disclosed.

A method by which a planar scan videokymographic image generation server generates planar scan videokymographic images by using real-time or pre-stored ultra-high speed laryngeal endoscopy images. The method includes the steps of: (a) acquiring monochrome or color ultra-high speed laryngeal endoscopy images; (b) setting a target region and a unit pixel for generating the 2D scan videokymographic images from the ultra-high speed laryngeal endoscopy images; (c) extracting pixel information of each frame of the ultra-high speed laryngeal endoscopy images according to the unit pixel for the target region; (d) generating frames of the planar scan videokymographic images by combining the extracted pixel information of each frame; and (e) generating a planar scan videokymographic video by combining the frames of the planar scan videokymographic images.

A method involves using a camera tube in connection with a laryngeal mask. The camera tube cooperates with an intubation stylet. The camera tube is an elongate member having a length extending between opposite distal and proximal ends. The distal end of the camera tube has a camera. The camera tube has an exterior surface and an intubation stylet guide support surface extending radially outward from the exterior surface along a portion of the length adjacent to the distal end. The intubation stylet guide support surface is configured to cooperate with an intubation stylet. The user may manipulate the proximal end of the camera tube to change the orientation of the intubation stylet with in the laryngeal mask while using the camera to visualize the patient's laryngeal opening. Once the intubation stylet is aligned with the patient's laryngeal opening, the intubation stylet may be advanced therethrough.

An examination device for use with a mobile device comprises a housing removably coupled to the mobile device. The housing may be coupled to the mobile device by a rear surface, opposing side surfaces, a top surface, and a retention lip that extends over the front of the mobile device. A retention structure may be mechanically coupled to the housing and may also define a rectangular slot. A tongue depressor may be retained by the retention structure and may also extend away from the rectangular slot. A cutaway may be defined by a wall of the housing. The cutaway may be positioned on the housing to expose a camera of the mobile device facing towards the end of the tongue depressor. The examination device is configured to manipulate an oral feature of a mouth while the camera of the mobile device captures an image of the mouth.

A stimulation probe device including a first electrode, a stimulation module, a control module and a physical layer module. The stimulation module is configured to (i) wirelessly receive a payload signal from a console interface module or a nerve integrity monitoring device, and (ii) supply a voltage or an amount of current to the first electrode to stimulate a nerve or a muscle in a patient. The control module is configured to generate a parameter signal indicating the voltage or the amount of current supplied to the electrode. The physical layer module is configured to (i) upconvert the parameter signal to a first radio frequency signal, and (ii) wirelessly transmit the first radio frequency signal from the stimulation probe to the console interface module or the nerve integrity monitoring device.

A laryngoscope enhancement system (LES) and an intubation system including an LES are provided. The LES includes a holder and a video stylet. The holder includes an adjustable mount to releasably secure an electronic device with a display, and an end cap configured to removably attach the holder to an upper end of a laryngoscope handle. The video stylet includes a connecter removably attachable to the electronic device, a flexible segment, a malleable segment and a video camera.

A laryngoscope enhancement system (LES) and an intubation system including an LES are provided. The LES includes a holder and a video stylet. The holder includes an adjustable mount to releasably secure an electronic device with a display, and an end cap configured to removably attach the holder to an upper end of a laryngoscope handle. The video stylet includes a connecter removably attachable to the electronic device, a flexible segment, a malleable segment and a video camera.

A system and method for a laryngoscopic device which incorporates the electronic and imaging elements within the device with advanced functional iterations that incorporate mathematical pattern recognition/predictive modeling as well as parallel computing and supercomputing for data analysis as well as and integrating it with the patient's record and compiling images from multiple scopes in a cloud-based system for an AI platform to use in diagnosis and disease monitoring.