Abstract: A lavatory includes a partition wall movable along a defined path between a deployed position in which the partition wall divides the lavatory into two discrete areas and a stowed position that defines a combined area in place of the two discrete areas. The partition wall translates along the defined path between the deployed position and the stowed position.

Abstract: Methods, systems, and devices for operating a user device are described. A user device may identify a health-related condition of a user based on a user input, PPG data for the user, or both. The user device may display instructions for performing a wellness routine that is configured to alleviate the health-related condition. The user device may acquire an additional user input, additional PPG data, or both, during a trial period for the wellness routine. The user device may display information associated with the wellness routine that is based on the additional user input, the additional PPG data, or both.

Abstract: The present invention is directed to anti-PVRIG antibodies and stable liquid pharmaceutical formulations thereof. The present invention is directed to monotherapy and combination treatments with anti-PVRIG antibodies and anti-PD-1 antibodies, in particular nivolumab, using stable liquid pharmaceutical formulations thereof. The present invention also provides biomarkers for use in determining populations for treatment with anti-PVRIG antibodies and such biomarkers include, for example PVRIG and/or PVRL2 expression.

Abstract: A medical imaging system is configured to receive and securely store medical image data for patients, while providing sufficient access to view, review, and access image data. A care provider uses a cloud imaging hub and security token to receive medical image data produced by an image data source. The hub associates an arbitrary identifier with the medical image data based on patient information and the security token. The patient information is locally stored on the hub and not transmitted to any other device or server, and is scrubbed from the device after the UID is generated. The UID serves as an anonymous identifier for any medical image data associated with the patient, and may also be used to identify and access anonymous medical image data. The UID may be provided to the patient as a QR code, and is usable by the patient to access their anonymized image data and/or provide such access to another care provider.

Abstract: An ear nose and throat (ENT) imaging and analysis system includes an endoscope usable to capture images of the nasal canal and other aspects of patient anatomy. Endoscopic images may be presented to a user via a touchscreen display, and the software may provide different imaging modes that aid in identifying particular anatomical structures or areas within the nasal canal. In one mode, the system uses an object recognition process to identify the nasal valve opening within the images at a relaxed state, and during forceful inhalation, and then calculates the difference between the two states, which may be suggestive of nasal valve collapse. In other modes, the system is configured to identify abnormalities of the inferior turbinate, septum, or other anatomy, as well as empty spaces within the nasal canal, as well as areas and volumes of empty space and user defined boundaries.

Abstract: A removable and replaceable sheath may be coupled to a medical instrument used during a procedure, and may enable one or more functional features of the medical instrument while maintaining a sterile barrier between the instrument itself and the treatment site. The sheath may be replaced prior to a subsequent use, and sterilization of the medical instrument is not required due to the sterile barrier. Sheaths may include an embedded memory that stores procedure configurations and procedure results, longitudinal channels for delivering power or irrigation, optical elements for providing procedure specific endoscopic views, and other features. One sheath may be fitted to an endoscope for imaging and tissue ablation. Another sheath includes a balloon usable during sinuplasty procedures. Yet another sheath may be fitted to a sonic ablation instrument to provide improved transmission of sonic power to tissue.

Abstract: A system and method for measuring light within a boundary of an image includes an instrument configured to capture the image; a display; a user input device; and a processor configured to: receive the image from the instrument; obtains a light intensity value of each image pixel around the boundary of the image, wherein at least one light illuminator on the instrument stimulates the each image pixel, wherein the each image pixel reflects a magnitude of light that is captured by one or more spotting devices on the instrument; create a pixel intensity map along the boundary of the image that relates to the light intensity value of the each image pixel; and present a graphical user interface via the display based on the pixel intensity map.

Abstract: An ear nose and throat (ENT) imaging and analysis system includes an endoscope usable to capture images of the nasal canal and other aspects of patient anatomy. Endoscopic images may be presented to a user via a touchscreen display, and the software may provide different imaging modes that aid in identifying particular anatomical structures or areas within the nasal canal. In one mode, the system uses an object recognition process to identify the nasal valve opening within the images at a relaxed state, and during forceful inhalation, and then calculates the difference between the two states, which may be suggestive of nasal valve collapse. In other modes, the system is configured to identify abnormalities of the inferior turbinate, septum, or other anatomy, as well as empty spaces within the nasal canal, as well as areas and volumes of empty space and user defined boundaries.

Abstract: An endoscope based system is configured to provide one or more procedure guidance features. The endoscope is paired with an image processing device that performs object detection and other analysis on captured images, and displays an interface to users that includes various visual guidance combined with endoscopic images. Interfaces displayed in different modes may indicate the location and extent of energy delivery tracked by the system, may guide placement of implant devices, may identify the location of nerves within tissue, and may provide step-by-step guidance for navigating the endoscope to certain anatomy. In some implementations, a removable and replaceable sheath may be coupled to the endoscope, and may enable one or more functional features of the endoscope while maintaining a sterile barrier. Sheaths may include an embedded memory that stores procedure configurations and procedure results.

Abstract: A removable and replaceable sheath may be coupled to a medical instrument used during a procedure, and may enable one or more functional features of the medical instrument while maintaining a sterile barrier between the instrument itself and the treatment site. The sheath may be replaced prior to a subsequent use, and sterilization of the medical instrument is not required due to the sterile barrier. Sheaths may include an embedded memory that stores procedure configurations and procedure results, longitudinal channels for delivering power or irrigation, optical elements for providing procedure specific endoscopic views, and other features. One sheath may be fitted to an endoscope for imaging and tissue ablation. Another sheath includes a balloon usable during sinuplasty procedures. Yet another sheath may be fitted to a sonic ablation instrument to provide improved transmission of sonic power to tissue.

Abstract: An ear nose and throat (ENT) imaging and analysis system includes an endoscope usable to capture images of the nasal canal and other aspects of patient anatomy. Endoscopic images may be presented to a user via a touchscreen display, and the software may provide different imaging modes that aid in identifying particular anatomical structures or areas within the nasal canal. In one mode, the system uses an object recognition process to identify the nasal valve opening within the images at a relaxed state, and during forceful inhalation, and then calculates the difference between the two states, which may be suggestive of nasal valve collapse. In other modes, the system is configured to identify abnormalities of the inferior turbinate, septum, or other anatomy, as well as empty spaces within the nasal canal, as well as areas and volumes of empty space and user defined boundaries.

Abstract: In one embodiment, a processor comprises a plurality of hardware resources, each hardware resource having a clock cycle. The processor also comprises a plurality of work stores, each work store assigned into one of a plurality of virtual functions if a mode of the processor is set to a virtual function mode, and each work store assigned into one physical function if the mode of the processor is set to a physical function mode. The processor further comprises dispatch logic configured to dispatch work from any work store corresponding to any virtual function or physical function to any released hardware resources.

Abstract: In one embodiment, a processor comprises a plurality of hardware resources, each hardware resource having a clock cycle. The processor also comprises a plurality of work stores, each work store assigned into one of a plurality of virtual functions if a mode of the processor is set to a virtual function mode, and each work store assigned into one physical function if the mode of the processor is set to a physical function mode. The processor further comprises dispatch logic configured to dispatch work from any work store corresponding to any virtual function or physical function to any released hardware resources.

Abstract: A user interface screen is displayed on a gaming device that provides both a first selectable item that indicates the ability to download games to the gaming device and a second selectable item that indicates the ability to view games that are stored on at least one storage device in the gaming device. The user interface is associated with the gaming device instead of with an individual application.

Abstract: Automatic downloading of digital content to a computing device is provided. Digital content that is available from a remote content server is checked to determine if any digital content matches criteria specified for downloading. If a match is found, and the user has not previously downloaded the digital content, or a previous version of the digital content, then the digital content is added to a download queue. The digital content specified in the download queue is transferred to the computing device.

Abstract: Automatic downloading of game content to a game console is provided. A user enables automatic downloading, and thereafter, game content available from a game server is periodically checked to determine if any content matches criteria specified for downloading. If a match is found, and the user has not previously downloaded the content, or a previous version of the content, then the game content is added to a download queue. The content specified in the download queue is transferred to the game console.

Abstract: Resource allocation techniques for robust optimization of a set of assets. In these techniques, a user defines or selects scenarios that model investment conditions including normal and/or extreme conditions. The set of assets is optimized across the scenarios to produce weights for the assets in the set that optimize the worst-case value of the assets. A resource allocation system is disclosed which first selects a reliable set of assets for optimization and then optimizes the reliable set of assets. Optimization of the set of assets may involve robust or non-robust optimization, many different kinds of constraints and/or multiple constraints, different objective functions, and different adjustments for the objective functions. Selection of the set of assets and selection of the kind of optimization, of the constraints, of the objective function, and of the adjustments to the objective function is done using a graphical user interface.

Abstract: Intelligent routing may be provided. First, a second peer via home relay may receive presence information indicating that a first peer is connected to a first foreign relay. Then the second peer may update, in response to the presence information, a routing table to indicate that a primary place to send data to the first peer is the first foreign relay. Next, the second peer may determine from the routing table that the primary place to send the data to the first peer is the first foreign relay. Next, the home relay may receive a request from a second peer to send data to the first peer via the first foreign relay. Then, in response to determining from the routing table that the primary place to send the data to the first peer is the first foreign relay, the data may be sent to the first foreign relay.

Abstract: An improved resource allocation system comprising a reliability decision engine (323), which allocates the portfolio's assets as required for the desired reliability portfolio. The reliability decision engine including two reliability decision engines, a basic reliability decision engine (325) and a robust reliability decision engine (327). The use of robust optimization makes it possible to determine the sensitivity of the optimized portfolio. Scenarios can be specified directly by the user or automatically generated by the system in response to a selection by the user. Inputs (329, 331) are applied to basic the basic reliability decision engine (325) and inputs (311) are applied to robust reliability decision engine (327).

Abstract: A tool implemented in a computer system for analyzing the performance of a set of investment opportunities (FIG. 2). The tool operates in a screening mode whose displayed results permit the user to compare performance of the investment opportunities over time (211) and in a fitting mode whose displayed results permit the user to compare performance of pairs of the investment opportunities with regard to diversity of risk (213). In the screening mode, the investments are compared with regard to a number of different metrics. Included in the metrics is the Hunter Ratio, a pseudo-reliability metric. In the fitting mode, the correlation coefficient and Blend Anxiety of the returns of pairs of investment opportunities are measured. The Blend Anxiety is computed using the covariance of the returns. A graphical user interface for the tool permits the user to select investment opportunities, asset classes, benchmarks, kinds of calculations, and periods of time over which the calculations are to be performed (201).