Abstract: A cushion for use in providing a regimen of respiratory therapy to a patient includes a base that defines a main cavity therein an aperture for receiving a flow of breathing gas. A pair of nasal pillows each extend from the base, each having a cone-shaped head that tapers inward and upward from a base portion, that extends directly from the base, to a top opening. Each head is formed to engage an inner portion of a nare of the patient. Each head defines a passage extending between the main cavity and the top opening for further conveying the flow of breathing gas from the main cavity to a nasal passage of the patient. Each base portion includes an inner edge positioned near the center of the cushion that merges with the hollow base and an opposite outer edge spaced upward from an outer surface of the hollow base.

Abstract: Securement arrangements for use in securing a patient interface to the skin of a patient include a substrate material having a first surface and an adhesive material disposed on the first surface. The locations of the adhesive material are varied so as to minimize repetitious adherence of the adhesive material to the patient during repeated applications.

Abstract: A system for capturing a 3D image of a subject includes a detection device which is structured to capture images of the subject and surrounding environment, a projection device which is structured to provide a source of structured light, and a processing unit in communication with the detection device and the projection device. The processing unit is programmed to: analyze an image of the subject captured by the detection device; modify one or more of: the output of the projection device or the intensity of a source of environmental lighting illuminating the subject based on the analysis of the image; and capture a 3D image of the subject with the detection device and the projection device using the modified one or more of the output of the projection device or the intensity of the source of environmental lighting illuminating the subject.

Abstract: A patient-contacting element for a patient interface for delivering a flow of gas to a user is being configured to provide a substantially air-tight seal with the user's skin during use. The patient-contacting element includes an inlet for receiving at least part of the flow of gas, at least one gas-permeable element that is disposed within the patient-contacting element and arranged in fluidic communication with the inlet, and a first layer of an air-tight material that is arranged between the at least one gas-permeable element and an inner space of the patient-contacting element for receiving a nose and/or a mouth of the user. The air-tight material has at least one opening therein.

Abstract: A method for identifying a mask for a patient includes: receiving a plurality of images of a patient's face; analyzing the plurality of images to generate a temporal model of the patient's face, determining a mask for the patient using the temporal model of the patient's face, and identifying the mask to the patient.

Abstract: A method of identifying a particular mask for a patient for use in delivering a flow of breathing gas to the patient includes capturing with a visual presentation and interaction component a plurality of images of the patient; receiving with the visual presentation and interaction component a number of responses from the patient to questions presented to the patient, eliminating one or more masks from a pool of potential masks for the patent based on at least one of the responses, utilizing at least some images of the plurality of images to determine the particular mask for the patient from the pool of potential masks, and identifying the particular mask to the patient.

Abstract: A respiratory interface device, a cushion body and a cushion support assembly is provided. The respiratory interface device cushion body includes a nose bridge engagement portion structured to engage a user's nose bridge, the cushion nose bridge engagement portion movable between an un-deformed first configuration and a deformed second configuration. The cushion support assembly includes a faceplate and a pressure distributing assembly. A faceplate perimeter nose bridge portion defines a recessed tapered contour. A pressure distributing assembly includes a number of pressure distributing members. A pressure distributing member is disposed at the faceplate perimeter nose bridge portion and is structured to move between a first position, wherein the pressure distributing member maintains the cushion in the first cushion configuration, and a second position wherein the pressure distributing member maintains the cushion in the second cushion configuration.

Abstract: A pressure support system includes a pressure generating device, an airflow path, and a control system. The control system is structured to determine a first measurement indicative of an amount of water vapor in the airflow path or an amount of condensation in the airflow path and generate a number of control signals structured to control an environmental control device structured to control an environmental parameter in an environment including the pressure support system, wherein the control signals are generated based on at least the first measurement and are configured to cause the environmental control device to adjust the environmental parameter in a manner that will reduce a degree or a likelihood of rainout in the airflow path, and transmit the control signals to the environmental control device so that it may be controlled to reduce the degree or likelihood of rainout.

Abstract: A wearable device (8,60,70,86) structured to exert a contact pressure between the wearable device and a skin surface of a wearer, such as a patient interface device for delivering a flow of breathing gas to a patient, includes a first member (18,72,96), such as a faceplate member, structured to have a first pressure applied thereto, a contact member (14,74), such as a sealing cushion, structured to exert the contact pressure against the skin surface in response to the first pressure, and a support member (20,62,78) positioned between the first member and the contact member, the support member including a plurality of compression members (40,52,54,64,84), wherein each of the compression members is structured to buckle in response to a compression force having at least a first predetermined level being applied to the support member.

Abstract: A minimal weight patient interface device that delivers breathing gas to a user includes a cushion assembling including a support cushion assembly and a sealing member is described herein. In one exemplary embodiment, the support cushion assembly includes a wedge that is made of a high density foam received within a wedge receiving portion of the support cushion assembly. In the exemplary embodiment, the cushion assembly is formed by the sealing member fitting over the support cushion assembly. The sealing member, in one embodiment, is made of silicone, for example, having a low durometer value (e.g., between 5-10 Shore 00). Furthermore, in one embodiment, the patient interface device also includes a faceplate that is placed over the cushion assembly and is made of a thermoform, such as a high density foam laminated between two pieces of fabric, such as polyester.

Abstract: A method of selecting or generating a design for a component of a patient interface device, the method including receiving a scan of at least a portion of a patient's face, receiving preference information about the patient, and generating a custom design or selecting a preexisting design for the component of the patient interface device based on the scan of at least a portion of the patient's face and the preference information, wherein a size or shape of the generated custom design for the component or selected preexisting design for the component is based on the preference information.

Abstract: An apparatus including a patient interface device formed from a flat substrate that is folded, wherein the patient interface device includes a plurality of seams where sections of the substrate are joined together, and wherein one or more of the plurality of seams form a shape that corresponds to a perimeter of a bottom side of a nose from a first alare corner of the nose to a tip of the nose to a second alare corner of the nose.

Abstract: A back strap for a patient interface device having a headgear component including a first strap member and a second strap member attached to the first strap member and structured to wraparound a back of the patient's head. The back strap member includes a first portion having a first attachment mechanism structured to couple the first portion to the second strap member, a connecting portion extending from the first portion, and a second portion having a second attachment mechanism structured to couple the second portion to at least one of the first strap member, a patient sealing assembly, or skin, hair, neck or clothing of the patient in a manner wherein the back strap member is configured to hold the second strap member and prevent it from riding up on a head of the patient during use.

Abstract: A respiratory interface device is provided. The respiratory interface device includes a patient interface device, a patient circuit, and a pressure generating assembly. Pressure generating assembly includes a first pressure generating device and a second pressure generating device. Patient circuit includes a reduced conduit.

Abstract: The present disclosure pertains to a system configured to enhance deep sleep in a subject during positive airway pressure therapy. A pressure generator is configured to generate a pressurized flow of breathable gas for delivery to an airway of the subject. Sensors are configured to generate output signals conveying information related to breathing of the subject. One or more hardware processors are configured to cause the pressure generator to generate the pressurized flow of breathable gas in accordance with a positive airway pressure therapy regime based on the information in the output signals; determine sleep stages of the subject based on the information in the output signals; and responsive to the sleep stages indicating the subject is in deep sleep, cause the pressure generator to adjust the pressurized flow of breathable gas to deliver a stimulus to the subject, the stimulus configured to enhance deep sleep in the subject.

Abstract: A method for the concurrent treatment of obstructive sleep apnea and hypertension in a patient comprises providing a flow of treatment gas to the airway of the patient in accordance with a first set of flow parameters. Determining that the patient has achieved stable breathing while receiving the provided flow of treatment gas in accordance with the first set of parameters. Determining a set of target patient breath parameters from breath data collected from the patient. Adjusting the flow of treatment gas to a different set of flow parameters. Determining that the new patient breath data, collected from the patient, accords with the target patient breath parameters and providing the flow of treatment gas to the patient in accordance with the different set of flow parameters. The target patient breath parameters include a target tidal volume of the patient which is greater than a first tidal volume of the patient.

Abstract: A method for increasing adherence of a patient to a therapy provided by a pressure support device includes: collecting data regarding a number of attributes of the patient along with time information thereof; determining the occurrence of a sleep-related event from the data; determining a condition of the pressure support device; and providing an indication to the patient responsive to determining the occurrence and determining the condition.

Abstract: A system for obtaining and providing enhanced PAP metrics of a patient's sleep period includes: a pressure support device for use in providing a flow of breathing gas to the patient; a processing unit; and a number of auxiliary devices in wireless communication with the processing unit. Each auxiliary device of the number of auxiliary devices is structured to detect and collect sleep-related data of the patient. The processing unit is programmed to: receive data obtained by a number of sensors of the pressure support device during operation of the pressure support device in providing the flow of breathing gas to the patient; receive supplemental data obtained by the number of auxiliary devices while the pressure support device is not providing the flow of breathing gas to the patient; and determine the enhanced PAP metrics of the sleep period of the patient utilizing the data and the supplemental data.

Abstract: A headgear assembly includes a first arm member and a second arm member each having a first end and a second, opposing end. The first end of the first arm member has a structure sized and configured to engage a first rotation-resistant coupling of a frame in a manner which prohibits rotation of the first arm member with respect to the frame in a first plane in which the first arm member is located. The first end of the second arm member has a structure sized and configured to engage a second rotation-resistant coupling of the frame in a manner which prohibits rotation of the second arm member with respect to the frame in a second plane in which the second arm member is located. The assembly further includes a strap member coupled to the first and second arm members.