Abstract: Established user habits in carrying multiple wirelessly detectable devices are used to provide or substantiate authentication. In some embodiments, simply detecting that expected devices are co-located within a limited spatial region is sufficient to establish that the devices are being carried by a single individual. In other embodiments, particularly where the potential for spoofing by multiple individuals is a concern, single-user possession of the devices may be confirmed by various corroborative techniques. This approach affords convenience to users, who may be working at a device that lacks the necessary modality (e.g., a fingerprint or vein reader) for strong authentication.

Abstract: Firmware updates for, e.g., thin client devices may be achieved in a seamless, non-disruptive manner using a two-stage firmware loader, including a base loader pre-installed on the device and a caching loader downloaded, by the base loader, from a firmware server and thereafter responsible for downloading and updating other firmware application packages.

Abstract: Embodiments of the present invention analyze multiple factors—such as user input events, device motion data, other data from the endpoint, or data from an external system (such as a real-time location system)—to make a probabilistic determination whether a walkaway event has occurred.

Abstract: In various embodiments, the predicted location of a user within an institutional space is associated with a node at or near that location, and a virtual desktop is prepared before a user has actually logged on and authenticated. Although users are not accorded access to applications and sensitive data until they have properly authenticated themselves, the virtual desktop and associated data are assembled and retrieved in the background in order to eliminate delay following log-on.

Abstract: Embodiments of the present invention analyze multiple factors—such as user input events, device motion data, other data from the endpoint, or data from an external system (such as a real-time location system)—to make a probabilistic determination whether a walkaway event has occurred.

Abstract: Methods and systems facilitate continuous processing of incoming data while one or more software components are updated and/or are temporarily unavailable. Computing tasks may be divided into idempotent steps with the computational state exchanged between steps saved in a persistent manner. In various embodiments, these steps are assembled into one or more computation pipelines.

Abstract: Firmware updates for, e.g., thin client devices may be achieved in a seamless, non-disruptive manner using a two-stage firmware loader, including a base loader pre-installed on the device and a caching loader downloaded, by the base loader, from a firmware server and thereafter responsible for downloading and updating other firmware application packages.

Abstract: Methods and systems facilitate continuous processing of incoming data while one or more software components are updated and/or are temporarily unavailable. Computing tasks may be divided into idempotent steps with the computational state exchanged between steps saved in a persistent manner. In various embodiments, these steps are assembled into one or more computation pipelines.

Abstract: Embodiments of the present invention analyze multiple factors—such as user input events, device motion data, other data from the endpoint, or data from an external system (such as a real-time location system)—to make a probabilistic determination whether a walkaway event has occurred.

Abstract: Firmware updates for, e.g., thin client devices may be achieved in a seamless, non-disruptive manner using a two-stage firmware loader, including a base loader pre-installed on the device and a caching loader downloaded, by the base loader, from a firmware server and thereafter responsible for downloading and updating other firmware application packages.

Abstract: Embodiments of the present invention analyze multiple factors—such as user input events, device motion data, other data from the endpoint, or data from an external system (such as a real-time location system)—to make a probabilistic determination whether a walkaway event has occurred.

Abstract: Established user habits in carrying multiple wirelessly detectable devices are used to provide or substantiate authentication. In some embodiments, simply detecting that expected devices are co-located within a limited spatial region is sufficient to establish that the devices are being carried by a single individual. In other embodiments, particularly where the potential for spoofing by multiple individuals is a concern, single-user possession of the devices may be confirmed by various corroborative techniques. This approach affords convenience to users, who may be working at a device that lacks the necessary modality (e.g., a fingerprint or vein reader) for strong authentication.

Abstract: Embodiments of the present invention analyze multiple factors—such as user input events, device motion data, other data from the endpoint, or data from an external system (such as a real-time location system)—to make a probabilistic determination whether a walkaway event has occurred.

Abstract: Established user habits in carrying multiple wirelessly detectable devices are used to provide or substantiate authentication. In some embodiments, simply detecting that expected devices are co-located within a limited spatial region is sufficient to establish that the devices are being carried by a single individual. In other embodiments, particularly where the potential for spoofing by multiple individuals is a concern, single-user possession of the devices may be confirmed by various corroborative techniques. This approach affords convenience to users, who may be working at a device that lacks the necessary modality (e.g., a fingerprint or vein reader) for strong authentication.

Abstract: Firmware updates for, e.g., thin client devices may be achieved in a seamless, non-disruptive manner using a two-stage firmware loader, including a base loader pre-installed on the device and a caching loader downloaded, by the base loader, from a firmware server and thereafter responsible for downloading and updating other firmware application packages.

Abstract: Firmware updates for, e.g., thin client devices may be achieved in a seamless, non-disruptive manner using a two-stage firmware loader, including a base loader pre-installed on the device and a caching loader downloaded, by the base loader, from a firmware server and thereafter responsible for downloading and updating other firmware application packages.

Abstract: The locations of electronic devices in an institutional facility are determined based on crowdsourced location reporting by users in an institutional setting and responding to device location queries.

Abstract: In various embodiments, the predicted location of a user within an institutional space is associated with a node at or near that location, and a virtual desktop is prepared before a user has actually logged on and authenticated. Although users are not accorded access to applications and sensitive data until they have properly authenticated themselves, the virtual desktop and associated data are assembled and retrieved in the background in order to eliminate delay following log-on.

Abstract: Firmware updates for, e.g., thin client devices may be achieved in a seamless, non-disruptive manner using a two-stage firmware loader, including a base loader pre-installed on the device and a caching loader downloaded, by the base loader, from a firmware server and thereafter responsible for downloading and updating other firmware application packages.

Abstract: Firmware updates for, e.g., thin client devices may be achieved in a seamless, non-disruptive manner using a two-stage firmware loader, including a base loader pre-installed on the device and a caching loader downloaded, by the base loader, from a firmware server and thereafter responsible for downloading and updating other firmware application packages.