Salter Labs

Broncus Technologies, Inc.

Keravision, Inc.

Addition Technology, Inc.

Nellcor Incorporated

Innovasis, Inc.

Spineworks, LLC

Oak Tree Engineering LLC

James M Davenport

Bryan E Loomas

Mark L Mathis

Peter W Salter

James N Curti

Douglas Neary

Barry Crandall

Don Akira Tanaka

Gary S Kaplan

Michael J Biggs

James Chua

Dave Haugaard

Joel D Cooper

Roger Denis Sung

Gerald John Alexander

Susan Kay Bain

Michael D Laufer

David P Thompson

Thomas A Silvestrini

Keith M Burger

Steven P Masterson

Glendon E French

Kyle L Adriance

Ross F Flewelling

John A Culver

John Arthur Ross

Charles E Stuart

John M Farbarik

An enhanced pedicle rod clamp device for connecting two or more pedicle rods in spinal surgery is disclosed. The device may include an arm, an upper clamp, and a lower clamp, which are configured for coupling to a pedicle rod. The upper clamp may be coupled to the arm, and the lower clamp may be coupled to the upper clamp. The upper clamp may be rotationally and/or translationally movable with respect to at least one of the arm and the lower clamp. The lower clamp may be rotationally and/or translationally movable with respect to at least one of the arm and the upper clamp.

Enhanced pedicle rod clamp device

Methods, systems, and devices for pulling a spinal vertebra toward a spinal rod are provided. One spinal rod persuasion system includes a cord configured to engage a pedicle screw installed in a spinal vertebra. The system also includes a tensioner configured to engage the cord and a spinal rod, and to apply tension to the cord to pull the pedicle screw toward the spinal rod. One method includes installing a pedicle screw in a spinal vertebra, affixing a cord to the pedicle screw, coupling the cord to a tensioner, coupling a spinal rod to the tensioner, and pulling the pedicle screw toward the spinal rod.

Spinal rod persuader

A nasal cannula for supplying a respiratory gas to a patient and a method of treating a patient with sleep disorder. The nasal cannula comprises a pair of spaced apart supply lines which each have a head at one end thereof with a discharge opening located therein. The opposite end of each supply line is connectable to a high flow respiratory gas source. Each head is sized to be snugly received and retained within one of the nasal cavities of the patient while forming a sufficient leakage passage, between a portion of inwardly facing nasal cavity skin of a patient and a portion of an exterior surface of the head, to facilitate exhausting of any excess respiratory gas supplied to the patient through the leakage passage and also facilitate inhalation of any room air required in excess of the respiratory gas to be supplied to the patient.

Respiratory therapy system including a nasal cannula assembly

A nasal cannula, for supplying a respiratory gas to a patient, comprising: a pair of spaced apart supply lines which each have a head at one end thereof with a discharge opening therein. The opposite end of each supply line is connectable to a respiratory gas source. Each head is sized to be snugly received and retained within one of the nasal cavities of the patient while forming a sufficient leakage passage, between a portion of inwardly facing nasal cavity skin of a patient and a portion of an exterior surface of the head, to facilitate exhausting of any excess respiratory gas supplied to the patient through the leakage passage and also facilitate inhalation of any room air required in excess of the respiratory gas to be supplied to the patient. The invention also relates to a respiratory therapy system incorporating the nasal cannula, a method of treating a patient with sleep disorder by using the nasal cannula, a diagnostic tool for measuring nasal cavity pressure of a patient, and a method of using the diagnostic tool for measuring nasal cavity pressure of a patient.

The devices and methods of placement of such devices disclosed herein are directed to altering gaseous flow within a lung to improve the expiration cycle of, for instance, an individual having Chronic Obstructive Pulmonary Disease. More particularly, these devices produce and maintain collateral openings or channels through the airway wall so that oxygen depleted/carbon dioxide rich air is able to pass directly out of the lung tissue to facilitate both the exchange of oxygen ultimately into the blood and/or to decompress hyper-inflated lungs. The medical kits disclosed herein are also directed to produce and maintain collateral openings through airway walls.

Devices and methods for maintaining collateral channels in tissue

A bubble humidifier for adding humidity to supplied oxygen. The bubble humidifier has a humidifier base, for containing a quantity of liquid, and a cover for the humidifier base. The bubble humidifier has an oxygen inlet for supplying oxygen to the bubble humidifier and an moisturized oxygen outlet for connection to a moisturized oxygen supply conduit for supplying humidified oxygen to a patient, and the oxygen inlet being connected to a diffuser for diffusing the supplying oxygen within the bubble humidifier. The bubble humidifier has a pressure relief device for relieving excess pressure generated within the bubble humidifier during operation thereof. The bubble humidifier defining a longitudinal axis and the diffuser is arranged to discharge the oxygen from the diffuser substantially at an angle normal to the longitudinal axis of the bubble humidifier to minimize flow of liquid, contained within the humidifier base, from entering the moisturized oxygen outlet during operation of the bubble humidifier.

Bubble humidifier with improved diffuser and pressure relief device

The devices and methods disclosed herein are directed to altering gaseous flow within a lung to improve the expiration cycle of, for instance, an individual having Chronic Obstructive Pulmonary Disease. More particularly, these devices and methods produce and to maintain collateral openings or channels through the airway wall so that expired air is able to pass directly out of the lung tissue to facilitate both the exchange of oxygen ultimately into the blood and/or to decompress hyper-inflated lungs. The devices and methods also disclose locating and selecting a site for creation of a collateral opening.

Methods and devices for creating collateral channels in the lungs

Corneal vacuum centering guide and dissector

This invention is a surgical device for producing a generally circular, interlamellar pathway within the corneal stroma of the eye. The device is made up of three major components: a vacuum centering guide having an inner bore which fits at one end against the front of the eye, a barrel which fits within the inner bore of the centering guide and to which is attached the third major component, a generally circular dissecting ring. The dissecting ring is shaped in such way that when an eye surgeon twists the barrel to which the ring is attached, the ring moves through the interlamellar space in the stroma producing the desired channel or pathway. The centering guide may optionally include a ring having one or more pins which firmly engage the cornea's epiphilium. The constituent parts of the surgical device, particularly the dissecting ring, also form a part of this invention. A split ring, or intracorneal ring (&ldquo;ICR&rdquo;), is inserted into the intrastromal passageway produced by the inventive device. The ICR changes the shape of the cornea and, in doing so, provides a chosen measure of visual correction.

Methods and assemblies for reducing the volume of a lung. A plurality of anchors are anchored at different positions in the lung. A cord is attached to each of the anchors. The anchors are drawn towards one another via the cords to cause the lung to collapse, thus compressing the tissue in the lung and establishing a reduction in lung volume.

Method and assembly for lung volume reduction

Respiratory equipment coupled in interruptible fluid communication between a recipient and a source of pressurized respiratory gas and adapted for controlling delivery of the pressurized gas to the recipient as the recipient inhales and exhales. The equipment includes a supply valve and a sensing valve cooperable to intermittently deliver pressurized gas to the recipient responsive to the recipient's inhalation and exhalation. A regulator mechanism is disposed between and in fluid communication with the pressurized gas source and the supply valve. The equipment may include a control device for controlling flow of pressurized gas from the pressurized gas source to the supply valve and from the pressurized gas source to the regulator mechanism. The control device also controls the pressure of pressurized gas discharged by the regulator mechanism. At least one adjustable device limits movement of a sensing valve diaphragm member responsive to the recipient's inhalation.

Sensing valve motion limiting mechanism for respiratory equipment

Pneumatically operated gas demand equipment coupled in interruptible fluid communication between a recipient and a source of pressurized respiratory gas and adapted for controlling delivery of the pressurized gas to the recipient as the recipient inhales and exhales. The equipment includes a supply valve and a sensing valve cooperable to intermittently deliver pressurized gas to the recipient responsive to the recipient's inhalation and exhalation. A regulator mechanism is disposed between and in fluid communication with the pressurized gas source and the supply valve. The equipment additionally includes a control device for controlling flow of pressurized gas from the pressurized gas source to the supply valve and from the pressurized gas source to the regulator mechanism. The control device also controls the pressure of pressurized gas discharged by the regulator mechanism.

Variable pressure and flow control for a pneumatically-operated gas demand apparatus

A supply valve for a pneumatically-operated gas demand apparatus or an intermittent gas delivery device disposed between a source of pressurized respiratory gas and a patient. The valve includes first and second housing parts defining a chamber and having first and second cooperating fluid passageways. A flexible diaphragm member is disposed in the chamber. The diaphragm member includes a central sealing portion and a radial projection integral with the central sealing portion for enabling fluid communication between the first and second fluid passageways and for sealing the first and second passageways against leakage.

Supply valve and diaphragm for a pneumatically-operated gas demand apparatus

A pneumatically-operated gas delivery device coupled in interruptible fluid communication between a recipient and at least one course of pressurized respiratory gas controls delivery of the respiratory gas to the recipient as the recipient inhales and exhales. The device includes a regulator mechanism, a supply valve and a sensing valve, wherein the supply valve delivers the respiratory gas to the recipient responsive to movement of the sensing valve. Gas flow to the supply valve is communicated from the gas source, the regulator mechanism and through a plurality of bolus chambers each of which chambers communicates a portion of the recipient's demand gas flow rate from the regulator mechanism to the supply valve. The bolus chambers allow a high-flow pulse of respiratory gas to be delivered to the patient upon initiation of inhalation coupled with steady state flow for the remainder of inhalation. Distribution of the recipient's gas flow rate among the several bolus chambers improves the dynamic performance of the device.

Growing community of inventors

Fallbrook, CA, United States of America

James M Davenport