Abstract: Described are luminescent components with excellent performance and stability. The luminescent components comprise a first element including first luminescent crystals from the class of perovskite crystals, embedded a first polymer P1 and a second element comprising a second solid polymer composition, said second polymer composition optionally comprising second luminescent crystals embedded in a second polymer P2. Polymers P1 and P2 differ and are further specified in the claims. Also described are methods for manufacturing such components and devices comprising such components.

Abstract: Techniques for providing adaptive virtual function (VF) drivers capable of operating with physical devices having a plurality of different hardware configurations are described. In one embodiment, for example, an apparatus may include logic to implement a virtual machine (VM), the logic to initialize an adaptive virtual function (VF) driver to facilitate communication between the VM and a physical device to be virtualized, establish communication between the adaptive VF driver and a physical function (PF) driver of the hypervisor for the physical device, activate a standard feature set for the adaptive VF driver to execute on a PF of the physical device, and negotiate activation of an advanced feature set for the adaptive VF driver to execute on the PF, the adaptive VF driver to provide the advanced feature set to the PF, the PF activate each feature of the advanced feature set supported by the PF.

Abstract: An apparatus that modifies display settings of image data is provided. The apparatus stores one or more spectral mappings and receives display data for an image. The received display data includes a plurality of colors and each of the colors includes a plurality of attributes. A spectral mapping, of the one or more spectral mappings, is identified based on a detected user visual limitation. Each of the spectral mappings maps a set of spectral colors to an adjusted set of spectral colors and provides attribute adjustments for the set of spectral colors of image data so an image can be displayed in a manner that mitigates the user's visual limitation. The mapped and adjusted plurality of colors of the image data that mitigate the visual limitation when displayed on a display may mitigate, for example, viewer color blindness, eye strain, biometric measurements and/or other visual limitations.

Abstract: Described are luminescent components with excellent performance and stability. The luminescent components comprise a first element including first luminescent crystals from the class of perovskite crystals, embedded a first polymer P1 and a second element comprising a second solid polymer composition, said second polymer composition optionally comprising second luminescent crystals embedded in a second polymer P2. Polymers P1 and P2 differ and are further specified in the claims. Also described are methods for manufacturing such components and devices comprising such components.

Abstract: An apparatus that modifies display settings of image data is provided. The apparatus stores one or more spectral mappings and receives display data for an image. The received display data includes a plurality of colors and each of the colors includes a plurality of attributes. A spectral mapping, of the one or more spectral mappings, is identified based on a detected user visual limitation. Each of the spectral mappings maps a set of spectral colors to an adjusted set of spectral colors and provides attribute adjustments for the set of spectral colors of image data so an image can be displayed in a manner that mitigates the user's visual limitation. The mapped and adjusted plurality of colors of the image data that mitigate the visual limitation when displayed on a display may mitigate, for example, viewer color blindness, eye strain, biometric measurements and/or other visual limitations.

Abstract: In an embodiment, a mobile device is equipped with an application processor configured to execute a HLOS and a secondary processor(s) configured to control sensor(s) coupled to the mobile device. The mobile device monitors the sensor(s) while the mobile device is operating in a low power mode that is characterized by one or more cores of the application processor being in a power collapse state or dormant state. The mobile device identifies a user action based on the monitoring and communicates, while the mobile device continues to operate in the low power mode, with detected proximate device(s) over a local wireless communications interface to request that at least one device action changing a user interface output feature and/or a user environment feature be implemented at the detected proximate device(s).

Abstract: Augmented reality user interaction methods, computing devices, and articles of manufacture are disclosed according to some aspects of the description. In one aspect, an augmented reality user interaction method includes executing an augmented reality browser application, displaying a camera view of a computing device wherein images generated by a camera are displayed using a touch sensitive display, during the displaying the camera view, displaying an icon interface comprising a pathway and a plurality of icons with respect to the pathway using the touch sensitive display, first detecting a user input moving in a direction of the pathway, moving the icons along the pathway in the direction of the user input as a result of the first detecting, second detecting a user input selecting one of the icons, and depicting augmented reality content with respect to at least one of the images as a result of the second detecting.

Abstract: A method and device implementing a downloadable operatively connected to a plurality of gaming machines either by a direct communications link or through the use of one or more site controllers or PCs. Each gaming machine and site controller or PC contains two executable spaces, one of which typically contains the software image currently being implemented by the device. The other executable space is designated to receive from the central system a new software image that will be utilized by the device. The central system transfers a new image to be executed, via packet encrypted communications, to a networked device which stores the image in an executable space, while continuing to run the currently designated image. Upon instruction from the central system, the device switches over to the new image, allowing one or more machines to implement a software upgrade on a continuous basis.

Abstract: A breakaway device for locking connected objects in relation to one another comprises a first magnetic field structure attached to a first object and a second magnetic field structure attached to a second object. The first magnetic field structure becoming attached to the second magnetic field structure when substantially aligned. The first structure and the second structure becoming detached when subjected to a force that overcomes a spatial force between the first magnetic field structure and the second magnetic field structure. The first magnetic field structure and the second magnetic field structure having magnetic field sources with polarities and positions in accordance with a code corresponding to a desired spatial force function.

Abstract: A breakaway device for locking connected objects in relation to one another comprises a first magnetic field structure attached to a first object and a second magnetic field structure attached to a second object. The first magnetic field structure becoming attached to the second magnetic field structure when substantially aligned. The first structure and the second structure becoming detached when subjected to a force that overcomes a spatial force between the first magnetic field structure and the second magnetic field structure. The first magnetic field structure and the second magnetic field structure having magnetic field sources with polarities and positions in accordance with a code corresponding to a desired spatial force function.

Abstract: First and second components may be precisely attached to form an apparatus. In an example embodiment, a first component includes a first field emission structure, and a second component includes a second field emission structure. The first and second components are adapted to be attached to each other with the first field emission structure in proximity to the second field emission structure such that the first and second field emission structures have a predetermined alignment with respect to each other. Each of the first and second field emission structures include multiple field emission sources having positions and polarities relating to a predefined spatial force function that corresponds to the predetermined alignment of the first and second field emission structures within a field domain. The first and second field emission structures are configured responsive to at least one precision criterion to enable a precision attachment.

Abstract: A fixture is provided for a bag rack. The fixture has a wire frame with two mounting plates on it for mounting the fixture to two alternative locations on a bag rack. Two fixtures are mounted to each bag rack. Each fixture includes multiple rows of posts, with two posts in each row. Handles for a reusable bag are extended over arms on the bag rack and below the posts on the fixtures to keep the reusable bag open during filling.

Abstract: First and second components may be precisely attached to form an apparatus. In an example embodiment, a first component includes a first field emission structure, and a second component includes a second field emission structure. The first and second components are adapted to be attached to each other with the first field emission structure in proximity to the second field emission structure such that the first and second field emission structures have a predetermined alignment with respect to each other. Each of the first and second field emission structures include multiple field emission sources having positions and polarities relating to a predefined spatial force function that corresponds to the predetermined alignment of the first and second field emission structures within a field domain. The first and second field emission structures are configured responsive to at least one precision criterion to enable a precision attachment.

Abstract: A system and method is provided for obtaining calibration curves for CO and CO2 during laboratory calibration of one or more remote emissions sensing (RES) instruments, and for self-calibration of on-road RES instruments to compensate for changes in background CO and CO2 column densities.

Abstract: A method and device implementing a downloadable operatively connected to a plurality of gaming machines either by a direct communications link or through the use of one or more site controllers or PCs. Each gaming machine and site controller or PC contains two executable spaces, one of which typically contains the software image currently being implemented by the device. The other executable space is designated to receive from the central system a new software image that will be utilized by the device. The central system transfers a new image to be executed, via packet encrypted communications, to a networked device which stores the image in an executable space, while continuing to run the currently designated image. Upon instruction from the central system, the device switches over to the new image, allowing one or more machines to implement a software upgrade on a continuous basis.

Abstract: A technique includes selecting a boot image for a remote client from a plurality of boot images based at least in part on an identification of a model of the remote client.

Abstract: A method and device implementing a downloadable operatively connected to a plurality of gaming machines either by a direct communications link or through the use of one or more site controllers or PCs. Each gaming machine and site controller or PC contains two executable spaces, one of which typically contains the software image currently being implemented by the device. The other executable space is designated to receive from the central system a new software image that will be utilized by the device. The central system transfers a new image to be executed, via packet encrypted communications, to a networked device which stores the image in an executable space, while continuing to run the currently designated image. Upon instruction from the central system, the device switches over to the new image, allowing one or more machines to implement a software upgrade on a continuous basis.