Abstract: The present disclosure describes systems and methods that utilize a multi-lumen tube with an integral visualization apparatus, such as a camera. The multi-lumen tracheal tube system may include a camera apparatus that is positioned to facilitate left or right bronchial intubation. In addition, the camera apparatus may be a unitary assembly that functions to hold and position the camera relative to the tube and provides an acceptable profile for comfortable intubation. The camera apparatus may include additional components, such as integral light sources and flushing or cleaning devices to remove any buildup from the camera or optical components.

Abstract: The present disclosure describes systems and methods that utilize a multi-lumen tube with an integral visualization apparatus, such as a camera. The multi-lumen tracheal tube system may include a camera apparatus that is positioned to facilitate left or right bronchial intubation. In addition, the camera apparatus may be a unitary assembly that functions to hold and position the camera relative to the tube and provides an acceptable profile for comfortable intubation. The camera apparatus may include additional components, such as integral light sources and flushing or cleaning devices to remove any buildup from the camera or optical components.

Abstract: The present disclosure describes systems and methods that utilize a multi-lumen tube with an integral visualization apparatus, such as a camera. The multi-lumen tracheal tube system may include a camera apparatus that is positioned to facilitate left or right bronchial intubation. In addition, the camera apparatus may be a unitary assembly that functions to hold and position the camera relative to the tube and provides an acceptable profile for comfortable intubation. The camera apparatus may include additional components, such as integral light sources and flushing or cleaning devices to remove any buildup from the camera or optical components.

Abstract: According to various embodiments, a tracheal tube may include a cuff assembly that relies on mechanical pressure rather than inflation pressure to form a seal against a patient's trachea. Such cuff assemblies may include cone or umbrella-shaped structures that may form seals at substantially lower pressures than traditional inflation cuffs. One or more of such cuff assemblies may be used instead of or in addition to an inflation cuff to provide an improved seal.

Abstract: A device and method for tissue engineering is disclosed. More particularly this invention relates to a bioabsorbable device and a method of its use which promotes controlled new tissue in-growth into voids or cavities occupied by the device as portions of the device are selectively absorbed within a host thereby minimizing collapse of surrounding, pre-existing host tissue into the engineered site.

Abstract: A device and method for tissue engineering is disclosed. More particularly this invention relates to a bioabsorbable device and a method of its use which promotes controlled new tissue in-growth into voids or cavities occupied by the device as portions of the device are selectively absorbed within a host thereby minimizing collapse of surrounding, pre-existing host tissue into the engineered site.

Abstract: An article, such as a tissue bonding article, includes a flexible material, a polymerization initiator or rate modifier disposed in or on the flexible material, and a polymerizable adhesive composition permeated throughout at least a portion of the flexible material, where the polymerization initiator or rate modifier is a polymerization initiator or rate modifier for the polymerizable adhesive composition.

Abstract: The present invention includes methods and materials for soft tissue implant formed from biologically-compatible polymeric matrixes. The matrixes may have pores sized for in-growth of soft tissue. The material may be utilized with collagen or other matrix materials. This material may be used in a method of reforming soft tissues by implanting the material within soft body tissues to modify soft tissue defects such as wrinkles or biopsy tissue defects and to reshape soft tissue.

Abstract: A device for tissue engineering is formed of a porous bioabsorbable bag containing at least two bioabsorbable materials having different rates of bioabsorption such as beads of different degrading rates and a bioabsorbable binding gel such as fibrin that binds the bioabsorbable materials in relation to each other. Slow degrading beads and the bag may be made of a copolymer of poly(L-lactide) and poly(glycolide), and fast degrading beads may be made of gelatin. The bag may contain cells and/or wound healing stimulants such as growth factors. Hydrolyzing enzymes may be used to enhance biodegradation of polymers. The device can be used to promote in-growth of host tissue into a void by inserting the bag with its contents into the void and conforming the bag to a desired shape. The binding gel may be injected into the bag after being placed in the void .

Abstract: A device and method for tissue engineering is disclosed. More particularly this invention relates to a bioabsorbable device and a method of its use which promotes controlled new tissue in-growth into voids or cavities occupied by the device as portions of the device are selectively absorbed within a host thereby minimizing collapse of surrounding, pre-existing host tissue into the engineered site.