Various embodiments of a double cuff single lumen endotracheal tube device for lung isolation and protection and its method of use are described herein. A device for intubation providing for single lung isolation and a transition to ventilation of both lungs is described. In one example, the device can be used extend into a main bronchus of patient. A distal cuff and secondary cuff can be inflated for ventilation of one lung. An auxiliary conduit provides passive oxygenation to the non-ventilated or alternately evacuation of mucus or fluids above the distal cuff. The device can be repositioned for long term intubation and ventilation of both lungs.

A pulmonary isolation and ventilation apparatus (e.g., device, system, etc.) is disclosed. The apparatus may include a controller, a steerable outer member (e.g., outer sleeve body), configured to hold an inner member (e.g., endoscope) and a handpiece. The apparatus may be configured as a sleeve for use with any inner member or the apparatus may include the inner member. Through the handpiece, a user may position the outer sleeve body over an endoscope within a target region of the lungs. The position may be verified by the user using a camera of the endoscope. The endoscope may be removed without disrupting the lungs and the positioning within the lungs. The apparatus may provide improved ventilator functionality to the identified region of the lungs through outer member and may provide for isolating a selective targeted area of the lungs for treatment.

Methods and systems for accessing and diagnosing diseased lung compartments are disclosed. Methods may comprise introducing a diagnostic catheter with an occluding member at its distal end into a lung segment; inflating the occluding member to isolate the lung compartment; and performing a diagnostic procedure with the catheter. The proximal end of the diagnostic catheter is configured to be attached to a console. Methods may also include allowing air to enter the lung compartment through the passage in the catheter while the patient is inhaling and blocking air from being expelled from the lung compartment through the catheter passage while the patient is exhaling by using a one-way flow element adapted to be disposed within or in-line with the passage of the catheter so that flow in a proximal-to-distal direction is allowed and flow in a distal-to-proximal direction is inhibited or prevented.

A dual suction tube is provided that includes a lower section, an upper section, and a transitional zone. The lower section includes at least one eyelet disposed at a distal end of the lower section. The upper section includes at least one port configured to be connected to a vacuum source. The transitional zone is between the lower section and the upper section, and has a first cross-sectional area at a proximal end of the transitional zone and a second cross-sectional area at a distal end of the transitional zone. The first cross-sectional area is greater than the second cross-sectional area.

Ventilator system with multiple inspiratory lumens is provided. The inspiratory lumens are configured so that separate inspiratory lumens provide inspiratory gas mixtures to separate portions of a patient's airways, for instance to separate lungs and/or bronchi. The ventilator system can include one or more expiratory lumens to evacuate expiratory gases from airways. The use of separate inspiratory lumen(s), with expiratory lumen(s), allows for functional separation of structural portions of the lungs, and maintenance of continuous or almost continuous flow through at least part of respiratory cycle via inspiratory and expiratory lumens. This can further reduce dead space and clear suspended therein diseases causative agents with improvement in outcomes, reduce risk of cross-contamination or cross-infection between different parts of airways, for example such as cross-infection from one lung lobe to another lobe or. The ventilator system allows for independent titration of PEEP, pCO.sub.2 and pO.sub.2 with no need for permissive hypercapnia.

Devices systems and methods are disclosed for removing secretions from the lumen of a functional assessment catheter for the lungs. The system comprises a flushing unit configured to deliver a clearing fluid to the lumen of the pulmonary catheter to remove debris, secretions, or moisture from the lumen or sensors.

The tube has a first lumen with a proximal end and an open distal end to be placed inside a body cavity. An outer wall encloses the first lumen and a camera lumen. A camera module (10) is arranged in the camera lumen at a distal end thereof so that the camera module is positioned adjacent the distal end of the first lumen. An image transmission cable (13) attached to the camera module extends through the camera lumen to connect to an image display device. The camera module is fixed in the camera lumen by means of a camera housing (14) including a tubular housing part (17) surrounding the camera module and a distal end wall (18). The tubular housing part and the distal end wall are integrally moulded and form one single housing element (19). The tubular housing part fits tightly into the camera lumen of the tube.

Methods and systems for targeting, accessing and diagnosing diseased lung compartments are disclosed. The method comprises introducing a diagnostic catheter with an occluding member at its distal end into a lung segment via an assisted ventilation device; inflating the occluding member to isolate the lung segment; and performing a diagnostic procedure with the catheter while the patient is ventilated. The proximal end of the diagnostic catheter is configured to be attached to a console. The method may also comprise introducing the diagnostic catheter into the lung segment; inflating the occluding member to isolate the lung segment; and monitoring blood oxygen saturation. The method may further comprise introducing the diagnostic catheter into the lung segment; determining tidal flow volume in the lung segment; determining total lung capacity of the patient; and determining a flow rank value based on the tidal flow volume of the lung segment and the total lung capacity.

A surgical system including an endoscopic navigation catheter, at least one laparoscopic access port, a laparoscopic tool, and an endoscopic tool. The endoscopic navigation catheter is configured for navigation of a luminal network to an area of interest. The at least one laparoscopic access port is placed adjacent to the area of interest. The laparoscopic tool is configured for insertion through the at least one laparoscopic access port, and the endoscopic tool is configured for insertion through the endoscopic navigation catheter. The laparoscopic tool and endoscopic tool enable a combined laparoscopic and endoscopic approach to the area of interest.

A lung isolation tube assembly including a control valve that is adapted to be moved between a left lumen position, a right lumen position, and a both lumens position, a connector that is in fluid communication with the control valve, and a tube that is in fluid communication with the connector. The tube includes a left lumen that is in fluid communication with the connector and a right lumen that is in fluid communication with the connector. The assembly also includes a first cuff that is disposed around a portion of the right lumen and the left lumen and a second cuff that is disposed around the left lumen. The assembly is adapted to convey airflow or oxygen to a human lung via at least one of the left lumen and the right lumen. A method for isolating a human lung.