Caire Inc.

Other

Chart Sequal Technologies Inc.

Ronald F Richard

Paul LaRoy Edwards

Peter S Armstrong

Ningda Andy Dai

John Judson MacDonald

Patrick T Bird

Terrell Lee Rodman

Robert M Cram

Adrian Knight

Patrick Dunne

Disclosed are methods, systems, apparatus, and products, including a method for operating a respiratory care device that includes collecting at a respiratory care device data representative of operation of the respiratory care device, and communicating to a computing-based device external to the respiratory care device at least some of the collected data to control the operability of the respiratory care device. In some embodiments, the method may further include communicating to the respiratory care device data to controllably change one or more operation parameters of the respiratory care device to cause a change in the operation of the respiratory care device, changing the operation parameters of the respiratory care device according to the communicated data, and communicating to the external computing-based device resultant data representative of operation of the respiratory care device resulting from the controllable change to the one or more operation parameters.

Controlling and communicating with respiratory care devices

Devices, systems, and methods, include an oxygen delivery device that includes an oxygen delivery module, at least one sensor to detect patient breathing, and a controller configured to control the oxygen delivery module to cause the oxygen delivery module to deliver oxygen to the patient based on data from the at least one sensor such that in response to a determination, based on data from the at least one sensor, that no breathing is detected for a first pre-determined period of time, the controller causes the oxygen delivery module to deliver oxygen to the patient in continuous flow mode, and in response to a determination, based on additional data from the at least one sensor, that breathing is detected for a second period of time, the controller causes the oxygen delivery module to deliver oxygen to the patient in a pulse flow mode.

Portable oxygen delivery device

An oxygen delivery device includes an oxygen delivery module configured to deliver a pulse including greater than 100 mL of concentrated oxygen, and a controller configured to control the oxygen delivery module to cause the oxygen delivery module to deliver the pulse including greater than the 100 mL of the concentrated oxygen within approximately first 60% of a patient's inspiratory period. A device includes an oxygen delivery module, a piezoelectric valve coupled to an output of the oxygen delivery module to receive the concentrated oxygen, a driver to electrically actuate the piezoelectric valve, and a controller to control the driver to cause controllable actuation of the piezoelectric valve by the driver to cause controllable opening of the valve to enable oxygen flow to be directed for inhalation by a patient via the piezoelectric valve.

A method of controlling bolus delivery in a pulse flow oxygen concentration system for a patient includes providing a pulse flow oxygen concentration system that delivers concentrated oxygen gas to the patient in boluses having a pulse bolus duration, the pulse flow oxygen concentration system including an open control for controlling the pulse bolus duration of the boluses; determining one or more respiratory conditions of the patient; and adjusting the open control to adjust the pulse bolus duration of the boluses in accordance with the determined one or more respiratory conditions of the patient.

System and method for controlling bolus pulse duration based on inspiratory time in an oxygen concentation system

A method of titration using a combination continuous flow and pulse flow portable oxygen concentration system (system) with a patient includes: a) providing the system in a continuous flow mode and titrating the patient to a predetermined blood oxygen saturation using the system at one or more predetermined conditions in the continuous flow mode; b) providing the system in a pulse flow mode and titrating the patient to the same predetermined blood oxygen saturation as step a using the system at the same one or more predetermined conditions as in step a in the pulse flow mode; c) determining an Individualized Pulse Dose Equivalent (IPDE) correlation based on data obtained from steps a and b; d) providing the system with the IPDE correlation; and e) using the IPDE correlation to operate the concentrator in a more efficient manner.

Self-automated titration system and method

A method of supporting respiratory airways during ventilator-assisted respiration. The method includes applying two supplemental pressure supports. The first such supplemental pressure support includes applying pressure of a first magnitude upon initiation of and for the duration of an inspiratory phase. The second supplemental pressure support includes applying pressure of a second magnitude greater than the first magnitude of the first supplemental pressure support upon initiation of and for the duration of the expiratory phase. In this manner, full time pressure augmentation is applied to respiratory airways to thereby structurally support the airways and thus maintain in an open configuration the pathways in communication with lungs.

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Escondido, CA, United States of America

Ronald F Richard