Abstract: Methods of treating a skin disorder or condition, including psoriasis, atopic dermatitis, and seborrheic dermatitis, in a patient by topically administering to the patient a pharmaceutical composition comprising roflumilast. The methods rapidly (e.g., within 24 or 48 hours) reduce itch experienced by a patient, for example itch as measured by the Worst Itch Numerical Rating Scale (WI-NRS). The method can also reduce itch as measured by the WI-NRS by 4 or more points.

Abstract: Methods of treating a skin disorder or condition, including psoriasis, atopic dermatitis, and seborrheic dermatitis, in a patient by topically administering to the patient a pharmaceutical composition comprising roflumilast. The methods rapidly (e.g., within 24 or 48 hours) reduce itch experienced by a patient, for example itch as measured by the Worst Itch Numerical Rating Scale (WI-NRS). The method can also reduce itch as measured by the WI-NRS by 4 or more points.

Abstract: Methods of treating a skin disorder or condition in a patient by topically administering to the patient a pharmaceutical composition comprising roflumilast. The methods of treatment include administering the roflumilast composition once a day for a period of time followed by administering the roflumilast composition twice weekly as a maintenance dosing regimen.

Abstract: A server transmits an encoded game frame over a network to a respective client system as a set of packets. In response to transmitting the set of packets, the server determines a bandwidth estimate based on the size of the encoded game frame and the timing data associated with the transmitted set of packets. The server then compares the bandwidth estimate to a current video bitrate of the game stream being transmitted from the server to the respective client device. In response to the comparison indicating an underutilization of the network, the server increases the encoding bitrate. Further, in response to the comparison indication an overutilization of the network, the server decreases the encoding bitrate.

Abstract: A server transmits an encoded game frame over a network to a respective client system as a set of packets. In response to transmitting the set of packets, the server determines a bandwidth estimate based on the size of the encoded game frame and the timing data associated with the transmitted set of packets. The server then compares the bandwidth estimate to a current video bitrate of the game stream being transmitted from the server to the respective client device. In response to the comparison indicating an underutilization of the network, the server increases the encoding bitrate. Further, in response to the comparison indication an overutilization of the network, the server decreases the encoding bitrate.

Abstract: A method for a patient to identify and select a health care provider to service the patient's particular need and subsequently schedule an appointment with the health care provider is described. Data regarding the patient and data regarding the provider are used to determine matching physicians to the patient's needs. The patient has the ability to select among matching physicians, rank ordered based on a combination of patient and other criteria, and the patient is offered an average rating for each physician, where the rating is based on reliable reviews of at least other patients.

Abstract: A method includes obtaining a first frame of image data including a plurality of pixels. Each pixel of the plurality of pixels is associated with a respective color value and a respective depth value. The first frame renders a scene from a first point of view. The method includes generating a three-dimensional (3D) polygon mesh using the plurality of pixels and the respective depth values. The 3D polygon mesh includes a plurality of portions. Each respective portion defines a respective plurality of vertices defining a respective mesh density representative of a density of the respective plurality of vertices. Each vertex is associated with a corresponding pixel of the first frame of image data. The method includes generating a second frame of image data via reprojection using the generated 3D polygon mesh. The second frame of image data has a second point of view different from the first point of view.

Abstract: A method for a patient to identify and select a health care provider to service the patient's particular need and subsequently schedule an appointment with the health care provider is described. Data regarding the patient and data regarding the provider are used to determine matching physicians to the patient's needs. The patient has the ability to select among matching physicians, rank ordered based on a combination of patient and other criteria, and the patient is offered an average rating for each physician, where the rating is based on reliable reviews of at least other patients.

Abstract: An example apparatus includes a first line buffer and a second line buffer, where each memory location in the first line buffer and the second line buffer corresponds to a row or column of a palette token block. The first line buffer may store two of the neighboring palette token values (e.g., above and left palette token values), and the second line buffer may store one of the neighboring palette token value (e.g., above-left). As a video coder is coding palette token values, the video coder may shift values stored in the first line buffer to the overwrite a memory location in the second line buffer, and overwrite values stored in the first line buffer based in part on the row or column of the palette token block to which the memory locations in the first and second line buffer correspond.

Abstract: An example apparatus includes a first line buffer and a second line buffer, where each memory location in the first line buffer and the second line buffer corresponds to a row or column of a palette token block. The first line buffer may store two of the neighboring palette token values (e.g., above and left palette token values), and the second line buffer may store one of the neighboring palette token value (e.g., above-left). As a video coder is coding palette token values, the video coder may shift values stored in the first line buffer to the overwrite a memory location in the second line buffer, and overwrite values stored in the first line buffer based in part on the row or column of the palette token block to which the memory locations in the first and second line buffer correspond.

Abstract: A method includes, at an edge location, receiving one or more threshold settings associated with a sensor, configuring a rule specifying a trigger condition for a task, wherein the trigger condition is based on the one or more threshold settings, receiving a sensor data stream from the sensor, determining that the trigger condition has been satisfied, and responsive to the determination that the trigger condition has been satisfied, automatically executing the task specified by the rule.

Abstract: A server may be configured to receive first pose data from a virtual reality device, generate second pose data, including a pose prediction, based at least on the first pose data, render a map representation based at least on the pose prediction, determine regions of the map representation based on a likelihood of view of each of the regions, perform foveation in each of the regions and generate an encoded frame based on the regions and a network parameter, and send the encoded frame and second pose data to the device. The encoding may associate each of the regions with a quality level and base the foveation on each region's associated quality level. The foveation may use different quantization parameters for each of the regions and/or use rendering foveation for each of regions. Network conditions such as latency, bandwidth, and/or jitter may be considered for bit allocation in the foveation.

Abstract: Systems, methods, and computer program products are described for receiving a request for a head pose prediction for an augmented reality experience, identifying at least one positional indicator and at least one rotational indicator associated with the augmented reality experience, and providing the at least one positional indicator and the at least one rotational indicator to a Recurrent Neural Network (RNN) comprising a plurality of cells. The RNN may include a plurality of recurrent steps that each include at least one of the plurality of cells and at least one fully connected (FC) layer. The RNN may be used to generate at least one pose prediction corresponding to head pose changes for the augmented reality experience for at least one upcoming time period, provide the at least one pose prediction and trigger display of augmented reality content based on the at least one pose prediction.

Abstract: Systems, methods, and computer program products are described for receiving a request for a head pose prediction for an augmented reality experience, identifying at least one positional indicator and at least one rotational indicator associated with the augmented reality experience, and providing the at least one positional indicator and the at least one rotational indicator to a Recurrent Neural Network (RNN) comprising a plurality of cells. The RNN may include a plurality of recurrent steps that each include at least one of the plurality of cells and at least one fully connected (FC) layer. The RNN may be used to generate at least one pose prediction corresponding to head pose changes for the augmented reality experience for at least one upcoming time period, provide the at least one pose prediction and trigger display of augmented reality content based on the at least one pose prediction.

Abstract: Processing methods may be performed to produce semiconductor structures that may include a high-k dielectric material. The methods may include delivering a nitrogen-containing precursor or an oxygen-containing precursor to a substrate contained in a semiconductor processing chamber. The methods may include forming reactive ligands on an exposed surface of the substrate with the nitrogen-containing precursor or the oxygen-containing precursor. The methods may also include forming a high-k dielectric material overlying the substrate.

Abstract: Processing methods may be performed to produce semiconductor structures that may include a high-k dielectric material. The methods may include delivering a nitrogen-containing precursor or an oxygen-containing precursor to a substrate contained in a semiconductor processing chamber. The methods may include forming reactive ligands on an exposed surface of the substrate with the nitrogen-containing precursor or the oxygen-containing precursor. The methods may also include forming a high-k dielectric material overlying the substrate.

Abstract: A server may be configured to receive first pose data from a virtual reality device, generate second pose data, including a pose prediction, based at least on the first pose data, render a map representation based at least on the pose prediction, determine regions of the map representation based on a likelihood of view of each of the regions, perform foveation in each of the regions and generate an encoded frame based on the regions and a network parameter, and send the encoded frame and second pose data to the device. The encoding may associate each of the regions with a quality level and base the foveation on each region's associated quality level. The foveation may use different quantization parameters for each of the regions and/or use rendering foveation for each of regions. Network conditions such as latency, bandwidth, and/or jitter may be considered for bit allocation in the foveation.

Abstract: A method includes, at an edge location, receiving one or more threshold settings associated with a sensor, configuring a rule specifying a trigger condition for a task, wherein the trigger condition is based on the one or more threshold settings, receiving a sensor data stream from the sensor, determining that the trigger condition has been satisfied, and responsive to the determination that the trigger condition has been satisfied, automatically executing the task specified by the rule.

Abstract: A server may be configured to receive first pose data from a virtual reality device, generate second pose data, including a pose prediction, based at least on the first pose data, render a map representation based at least on the pose prediction, determine regions of the map representation based on a likelihood of view of each of the regions, perform foveation in each of the regions and generate an encoded frame based on the regions and a network parameter, and send the encoded frame and second pose data to the device. The encoding may associate each of the regions with a quality level and base the foveation on each region's associated quality level. The foveation may use different quantization parameters for each of the regions and/or use rendering foveation for each of regions. Network conditions such as latency, bandwidth, and/or jitter may be considered for bit allocation in the foveation.

Abstract: Provided are gas distribution apparatus with a delivery channel having an inlet end, an outlet end and a plurality of apertures spaced along the length. The inlet end is connectable to an inlet gas source and the outlet end is connectable with a vacuum source. Also provided are gas distribution apparatus with spiral delivery channels, intertwined spiral delivery channels, splitting delivery channels, merging delivery channels and shaped delivery channels in which an inlet end and outlet end are configured for rapid exchange of gas within the delivery channels.