Abstract: A method for concurrently performing multiple computations in an associative processing unit (APU) includes having data in two matrices, representing data in two portions of a memory array of the APU, creating a Tartan matrix by computing an outer product between a first bit vector indicating selected rows and a second bit vector indicating selected columns, the Tartan matrix representing data stored in a third portion of the memory array wherein all cells having a value 1 in the Tartan matrix indicate selected cells, concurrently activating all cells of the matrices and storing a result of Boolean operations therebetween in one of the two matrices, wherein a new value is obtained on cells located at a same row and a same column as the selected cells in the Tartan matrix and an original value remains on other cells.

Abstract: Directed audio-encoded data emissions systems and methods may include one or more sensors, one or more audio transmitters, and a controller configured to cause emission of directed audio-encoded data toward various objects, such as vehicles, user devices, audio input/output devices, or others. For example, responsive to detecting a potential safety situation and/or a potential intended communication situation associated with one or more detected objects, audio-encoded data having selected audio characteristics may be emitted toward the detected objects using selected audio transmitters. The audio characteristics may be selected to encode one or more instructions to be executed by the detected objects, and the instructions may cause emission of audio, visual, or haptic notifications and/or initiation of various functions or operations by the objects.

Abstract: Directed audio emissions systems and methods may include one or more sensors, one or more audio transmitters, and a controller configured to cause emission of directed audio output toward various objects, such as people, animals, vehicles, devices, or others. For example, responsive to detecting a potential safety situation and/or a potential intended communication situation associated with one or more detected objects, selected audio output having selected audio characteristics may be emitted toward the detected objects using selected audio transmitters. The audio characteristics may be selected to direct and/or accentuate the audio output at a particular location of a detected object, and the audio characteristics of the audio output may be customized based on a type and other characteristics of the detected object.

Abstract: Automated air traffic control systems and methods may include one or more sensors, such as radar sensors, that are positioned and oriented at opposite ends of a runway. The sensors may detect aerial vehicles on the runway, as well as aerial vehicles within approach corridors at opposite ends of the runway, and other aerial vehicles proximate the runway. Based on data received by the sensors, various characteristics of aerial vehicles can be determined, and instructions for the aerial vehicles can be determined based on the detected characteristics. Then, the aerial vehicles may utilize the determined instructions to coordinate their operations proximate the runway, which may include takeoff, taxiing, and/or landing operations. Further, speech-to-data processing may be used to translate between data and speech or audio input/output in order to enable coordination between unmanned aerial vehicles, manned aerial vehicles, and combinations thereof.

Abstract: Among other things, one or more techniques and/or systems are provided for annotating content based upon user reaction data and/or for maintaining a searchable content repository. That is, a user may request and/or opt-in for user reaction data to be detected while a user is experiencing content (e.g., watching a movie, walking through a park, interacting with a website, participating on a phone conversation, etc.). Metadata associated with the content may be used to determine when and/or what sensors to use to detect the user reaction data (e.g., metadata specifying an emotional part of a movie). The content may be annotated with a reaction annotation corresponding to the user reaction data, which may be used to organize, search, and/or interact with the content. A search interface may allow users to search for content based upon annotation data and/or aggregated annotation data of one or more users who experienced the content.

Abstract: An application programming interface is provided that allows applications to request and receive distance measurements from multiple proximity sensors arranged on a computing device such as a smart phone or tablet. Users can input ranges of values to the applications by moving objects such as hands and fingers towards and away one or more of the multiple proximity sensors. Applications can use the ranges of values provided by the proximity sensors to allow for more nuanced and precise user interfaces than what is typically available using the binary output associated with a capacitive display. The values provided by the proximity sensors can be combined with values from one or more other sensors such as accelerometers to provide additional user interface options.

Abstract: Among other things, one or more techniques and/or systems are provided for annotating content based upon user reaction data and/or for maintaining a searchable content repository. That is, a user may request and/or opt-in for user reaction data to be detected while a user is experiencing content (e.g., watching a movie, walking through a park, interacting with a website, participating on a phone conversation, etc.). Metadata associated with the content may be used to determine when and/or what sensors to use to detect the user reaction data (e.g., metadata specifying an emotional part of a movie). The content may be annotated with a reaction annotation corresponding to the user reaction data, which may be used to organize, search, and/or interact with the content. A search interface may allow users to search for content based upon annotation data and/or aggregated annotation data of one or more users who experienced the content.

Abstract: Among other things, one or more techniques and/or systems are provided for annotating content based upon user reaction data and/or for maintaining a searchable content repository. That is, a user may request and/or opt-in for user reaction data to be detected while a user is experiencing content (e.g., watching a movie, walking through a park, interacting with a website, participating on a phone conversation, etc.). Metadata associated with the content may be used to determine when and/or what sensors to use to detect the user reaction data (e.g., metadata specifying an emotional part of a movie). The content may be annotated with a reaction annotation corresponding to the user reaction data, which may be used to organize, search, and/or interact with the content. A search interface may allow users to search for content based upon annotation data and/or aggregated annotation data of one or more users who experienced the content.

Abstract: An application programming interface is provided that allows applications to request and receive distance measurements from multiple proximity sensors arranged on a computing device such as a smart phone or tablet. Users can input ranges of values to the applications by moving objects such as hands and fingers towards and away one or more of the multiple proximity sensors. Applications can use the ranges of values provided by the proximity sensors to allow for more nuanced and precise user interfaces than what is typically available using the binary output associated with a capacitive display. The values provided by the proximity sensors can be combined with values from one or more other sensors such as accelerometers to provide additional user interface options.

Abstract: An application programming interface is provided that allows applications to request and receive distance measurements from multiple proximity sensors arranged on a computing device such as a smart phone or tablet. Users can input ranges of values to the applications by moving objects such as hands and fingers towards and away one or more of the multiple proximity sensors. Applications can use the ranges of values provided by the proximity sensors to allow for more nuanced and precise user interfaces than what is typically available using the binary output associated with a capacitive display. The values provided by the proximity sensors can be combined with values from one or more other sensors such as accelerometers to provide additional user interface options.

Abstract: Embodiments enable the evaluation of injected queries within a monad. One or more operators with closures are received from a first process. The operators with closures represent one or more functions to be applied by a second process. The second process evaluates the received operators with closures to apply the functions within the monad. During evaluation, the second process converts the closures to simply typed closures. Further, the second process binds the converted closures within the monad to restrict execution of the functions. In some embodiments, the queries (e.g., sequences of one or more operators with closures) are composed using a set of query operators from the language integrated query (LINQ) framework encoded in uniform resource locators (URLs) in the representational state transfer (REST) style.

Abstract: Among other things, one or more techniques and/or systems are provided for pushing a recommendation to a user. That is, a recommendation may be pushed to a device of the user based upon a triggering event associated with the user. The recommendation may be provided, for example, without user solicitation for the recommendation. In one example, a recommendation component may observe that the user frequently stops for ice cream on Fridays after work (e.g., based upon prior social network check-ins). Accordingly, on the following Friday, the recommendation component may push a recommendation to the user's device to visit a particular grocery store on the way home from work that is within 10 minutes of the user's home so that the user can avoid melting ice cream (e.g., a location constraint may be applied to choose a grocery store that is relatively close to the user's home).

Abstract: Among other things, one or more techniques and/or systems are provided for pushing a recommendation to a user. That is, a recommendation may be pushed to a device of the user based upon a triggering event associated with the user. The recommendation may be provided, for example, without user solicitation for the recommendation. In one example, a recommendation component may observe that the user frequently stops for ice cream on Fridays after work (e.g., based upon prior social network check-ins). Accordingly, on the following Friday, the recommendation component may push a recommendation to the user's device to visit a particular grocery store on the way home from work that is within 10 minutes of the user's home so that the user can avoid melting ice cream (e.g., a location constraint may be applied to choose a grocery store that is relatively close to the user's home).

Abstract: Embodiments enable the evaluation of injected queries within a monad. One or more operators with closures are received from a first process. The operators with closures represent one or more functions to be applied by a second process. The second process evaluates the received operators with closures to apply the functions within the monad. During evaluation, the second process converts the closures to simply typed closures. Further, the second process binds the converted closures within the monad to restrict execution of the functions. In some embodiments, the queries (e.g., sequences of one or more operators with closures) are composed using a set of query operators from the language integrated query (LINQ) framework encoded in uniform resource locators (URLs) in the representational state transfer (REST) style.

Abstract: An application programming interface is provided that allows applications to request and receive distance measurements from multiple proximity sensors arranged on a computing device such as a smart phone or tablet. Users can input ranges of values to the applications by moving objects such as hands and fingers towards and away one or more of the multiple proximity sensors. Applications can use the ranges of values provided by the proximity sensors to allow for more nuanced and precise user interfaces than what is typically available using the binary output associated with a capacitive display. The values provided by the proximity sensors can be combined with values from one or more other sensors such as accelerometers to provide additional user interface options.

Abstract: Among other things, one or more techniques and/or systems are provided for configuring a route-planning module using one or more configuration plug-ins. The route-planning module may be configured to create a driving route, an internet packet route, a social event route, and/or a variety of other routes. A graph used by the route-planning module to create a route may be modified by a graph configuration plug-in, which may add, remove, and/or modify nodes and/or edges within the graph. Attributes associated with edges and/or nodes within the graph may be added, removed, and/or modified by an attribute configuration plug-in. Costs associated with edges and/or turns from a first edge to a second edge at a node may be modified by a cost configuration plug-in. In this way, the route-planning module may be customized using one or more configuration plug-ins (e.g., to accommodate user preferences).

Abstract: Embodiments enable the evaluation of injected queries within a monad. One or more operators with closures are received from a first process. The operators with closures represent one or more functions to be applied by a second process. The second process evaluates the received operators with closures to apply the functions within the monad. During evaluation, the second process converts the closures to simply typed closures. Further, the second process binds the converted closures within the monad to restrict execution of the functions. In some embodiments, the queries (e.g., sequences of one or more operators with closures) are composed using a set of query operators from the language integrated query (LINQ) framework encoded in uniform resource locators (URLs) in the representational state transfer (REST) style.

Abstract: Among other things, one or more techniques and/or systems are provided for configuring a route-planning module using one or more configuration plug-ins. The route-planning module may be configured to create a driving route, an internet packet route, a social event route, and/or a variety of other routes. A graph used by the route-planning module to create a route may be modified by a graph configuration plug-in, which may add, remove, and/or modify nodes and/or edges within the graph. Attributes associated with edges and/or nodes within the graph may be added, removed, and/or modified by an attribute configuration plug-in. Costs associated with edges and/or turns from a first edge to a second edge at a node may be modified by a cost configuration plug-in. In this way, the route-planning module may be customized using one or more configuration plug-ins (e.g., to accommodate user preferences).

Abstract: Among other things, one or more techniques and/or systems are provided for pushing a recommendation to a user. That is, a recommendation may be pushed to a device of the user based upon a triggering event associated with the user. The recommendation may be provided, for example, without user solicitation for the recommendation. In one example, a recommendation component may observe that the user frequently stops for ice cream on Fridays after work (e.g., based upon prior social network check-ins). Accordingly, on the following Friday, the recommendation component may push a recommendation to the user's device to visit a particular grocery store on the way home from work that is within 10 minutes of the user's home so that the user can avoid melting ice cream (e.g., a location constraint may be applied to choose a grocery store that is relatively close to the user's home).

Abstract: Architecture that employs crowd-sourced parking-related information to compute the probability of finding parking spots at specific road segments, parking lots, and/or in larger geographic areas. The crowd-sourced parking-related information can be obtained from geolocation (geographical location) traces. This approach utilizes a method of mining location traces to compute the probability of finding parking spots at specific road segments, parking lots, and/or in larger geographic areas. The location traces can be mined to classify parking areas as public, private, and semi-private (e.g., only for company employees in certain area that also include public parking areas). The location traces can be mined to infer the times and dates (e.g., hours of the day and the days of the week) during which a vehicle is allowed to park at a given location.