Abstract: Adaptive Control Driven System/ACDS 99, supports visual enhancement, mitigation of challenges and with basic image modification algorithms and any known hardware from contact lenses to IOLs to AR hardware glasses, and enables users to enhance vision with user interface based on a series of adjustments that are applied to move, modify, or reshape image sets and components with full advantage of the remaining useful retinal area, thus addressing aspects of visual challenges heretofore inaccessible by devices which learn needed adjustments.

Abstract: Various embodiments relate to a syringe for separating nucleic acids from a blood sample and systems that include the syringe and a portable PGR device. The syringe may include a shell defining a central aperture extending through a longitudinal axis of the syringe, a plunger disposed within the central aperture of the shell, and a core rotatably disposed within the central aperture. The syringe may further include a needle fluidically connectable to the inlet of the shell. Various embodiments relate to a method for separating nucleic acids from a blood sample, the method comprising drawing the blood sample from a patient using the syringe according to any of the embodiments described herein.

Abstract: In a method modifying a user's virtual environment, a tracking module identifies a user identity and determines the location of the user. The tracking module retrieves historical user data associated with the user identity and the user location and identifies one or more patterns of user behavior using an analytical technique based on the historical user data. Upon determining one or more patterns from the data, the tracking module predicts user behavior associated with at least one parameter associated with the location and modifies at least one of a user virtual environment and a user avatar characteristics based on the predicted user behavior.

Abstract: Systems and methods disclosed herein create or modify a personalized mixed reality environment by taking into consideration both a user preferences and the actual location characteristics of the user.

Abstract: A light-emitting device includes a backplane, light-emitting diodes (LEDs) located over a front side of the backplane, and microlenses respectively disposed over the LEDs. Each microlens includes a back surface having a first surface area and configured to receive light emitted from a corresponding LED, an opposing front surface having a second surface area and configured to emit the received light, and at least one sidewall extending from the front surface to the back surface. The second surface area is greater than the first surface area.

Abstract: In a method of distributing augmented reality workloads, a task module receives an augmented reality task. The task module identifies at least one workload and at least one workload parameter, wherein the workload comprises sensor data from one or more sensors. The task module determines whether a local processor is available and meets the workload parameters associated with the augmented reality task. If task module determines that the local processor does not meet at least one workload parameter, task module determines whether one or more remote processors meet the at least one workload parameter. The task module sends one or more workloads to any capable remote processors.

Abstract: Methods, systems, apparatus and computer program products for implementing machine learning within control systems are disclosed. An industrial facility setting slate can be received from a machine learning system and a determination can be made as to whether to adopt the settings in the industrial facility setting slate. The machine learning model can be a neural network, e.g., a deep neural network, that has been trained, e.g., using reinforcement learning to predict a data setting slate that is predicted to optimize an efficiency of a data center.

Abstract: In a method of distributing augmented reality workloads, a task module receives an augmented reality task. The task module identifies at least one workload and at least one workload parameter, wherein the workload comprises sensor data from one or more sensors. The task module determines whether a local processor is available and meets the workload parameters associated with the augmented reality task. If task module determines that the local processor does not meet at least one workload parameter, task module determines whether one or more remote processors meet the at least one workload parameter. The task module sends one or more workloads to any capable remote processors.

Abstract: A light emitting device includes a backplane, an array of light emitting diodes attached to a front side of the backplane, a transparent conductive layer contacting front side surfaces of the light emitting diodes, an optical bonding layer located over a front side surface of the transparent conductive layer, a transparent cover plate located over a front side surface of the optical bonding layer, and a black matrix layer including an array of openings therethrough, and located between the optical bonding layer and the transparent cover plate.

Abstract: A device comprising monolithic substrates forming a chip including a wireless, battery-less monolithically-integrated neural interface (MINI) device. The chip comprises an integrated circuit (IC) being embedded in a first monolithic substrate and comprising a plurality of amplifiers configured to amplify received neural signals from a monitored subject, and a radio data signal generator configured to process the amplified neural signals and generate a multiplexed digital signal. The chip includes radio-frequency (RF) planar coils embedded in a second monolithic substrate, being electrically connected to the IC through the first monolithic substrate, being configured for wireless transmission of the multiplexed digital signal to a remote wireless device and being configured to receive wireless power signals to power the IC. A plurality of on-chip electrodes is included to directly sense the neural signals of the subject and provide the neural signals to the plurality of amplifiers.

Abstract: Adaptive Control Driven System/ACDS 99, supports visual enhancement, mitigation of challenges and with basic image modification algorithms and any known hardware from contact lenses to IOLs to AR hardware glasses, and enables users to enhance vision with user interface based on a series of adjustments that are applied to move, modify, or reshape image sets and components with full advantage of the remaining useful retinal area, thus addressing aspects of visual challenges heretofore inaccessible by devices which learn needed adjustments.

Abstract: A light emitting device includes a backplane, an array of light emitting diodes attached to a front side of the backplane, a transparent conductive layer contacting front side surfaces of the light emitting diodes, an optical bonding layer located over a front side surface of the transparent conductive layer, a transparent cover plate located over a front side surface of the optical bonding layer, and a black matrix layer including an array of openings therethrough, and located between the optical bonding layer and the transparent cover plate.

Abstract: Adaptive Control Systems and methods are provided for an electronic visual aid, which may be wearable, hand held or fixed mount, including autonomous hands free control integrated with artificial intelligence tunable to user preferences and environmental conditions.

Abstract: An eye-mountable device is provided that includes an eyelid occlusion sensor. The eyelid occlusion sensor is used to detect winks, squints, downwards glances or looks, blinks, or other eye-based gestures generated by the user. Based on the detected gestures, an optical power of an adjustable lens of the device may be changed or some other operations could be performed by the eye-mountable device. Such operations could include toggling the optical power of the lens between first and second power levels due to the user squinting, looking downward, or performing some other gesture. Additionally or alternatively, such operations could include setting the optical power of the lens to a first optical power unless the user is looking downward, in which case the optical power of the lens could be set to a second optical power.

Abstract: The present invention provides methods for treating pruritus in a subject in need thereof comprising administering a therapeutically effective amount of a JAK1 inhibitor. Also provided are methods of administering JAK1 inhibitors for use in treating pruritus.

Abstract: A computer-implemented virtual pop-up space comprises a traversable 3D representation of a real-world location, wherein the traversable 3D representation renders a first avatar of a first user. The inventive concept further provides a virtual interface configured to enable a user transaction through the first avatar within the traversable 3D representation of the real-world location.

Abstract: Interactive systems using adaptive control software and hardware from known and later developed eyepieces to later developed head-wear to lenses, including implantable, temporarily insertable and contact and related film based types of lenses including thin film transparent elements for housing cameras lenses and projector and functional equivalent processing tools. Simple controls, real-time updates and instant feedback allow implicit optimization of a universal model while managing complexity.

Abstract: Systems and methods for a modular building are disclosed. A modular building system includes a multitude of rods that are configured to connect to each other to form a frame where one or more u-shaped channel pieces are attached to at least one of the multitude of rods. The modular building system includes panels that are shaped to be inserted within the u-shaped channel pieces to form a side.

Abstract: In a method modifying a user's virtual environment, a filtration module receives an avatar filtration parameter, updates location parameters with the avatar filtration parameter, and determines a physical target area about the user. The filtration module identifies an avatar of a second user in the target area and determines whether the avatar meets the avatar filtration parameter. Responsive to determining that the avatar does not meet at least one of the avatar filtration parameters, the filtration module modifies the avatar to comply with all of the avatar filtration parameters.

Abstract: Systems and methods disclosed herein create or modify a personalized mixed reality environment by taking into consideration both a user preferences and the actual location characteristics of the user.