Abstract: Techniques are described for seamlessly transitioning from a map that displays out-of-doors elements to a map that displays indoor elements, in response to detecting a transition event. The transition event may be, for example, that a navigation system that is generating the out-of-doors map has moved to an indoors location. Techniques are also provided for navigating to a parking spot in a parking structure. Specifically, users may search for parking spots that satisfy specific criteria. The search for a parking spot that satisfies the criteria may be initiated at the time a trip begins, or may be automatically triggered by some event. For example, a search for available parking spots near a designated destination may be automatically initiated as a user comes within a predetermined distance of the designated destination.

Abstract: Techniques are described for seamlessly transitioning from a map that displays out-of-doors elements to a map that displays indoor elements, in response to detecting a transition event. The transition event may be, for example, that a navigation system that is generating the out-of-doors map has moved to an indoors location. Techniques are also provided for navigating to a parking spot in a parking structure. Specifically, users may search for parking spots that satisfy specific criteria. The search for a parking spot that satisfies the criteria may be initiated at the time a trip begins, or may be automatically triggered by some event. For example, a search for available parking spots near a designated destination may be automatically initiated as a user comes within a predetermined distance of the designated destination.

Abstract: Techniques are described for seamlessly transitioning from a map that displays out-of-doors elements to a map that displays indoor elements, in response to detecting a transition event. The transition event may be, for example, that a navigation system that is generating the out-of-doors map has moved to an indoors location. Techniques are also provided for navigating to a parking spot in a parking structure. Specifically, users may search for parking spots that satisfy specific criteria. The search for a parking spot that satisfies the criteria may be initiated at the time a trip begins, or may be automatically triggered by some event. For example, a search for available parking spots near a designated destination may be automatically initiated as a user comes within a predetermined distance of the designated destination.

Abstract: Described herein are methods and apparatus for controlling wireless scans used to determine the location of a portable electronic device. In described embodiments, the portable electronic device determines if user notifications are currently suppressed (i.e., if the device is operating in a “do not disturb” mode). In the case that user notifications are currently suppressed on the portable electronic device, the interval between the wireless scans used to determine the location of the portable electronic device is increased. Furthermore, in described embodiments, the portable electronic device determines its location. Then based on its location, it determines a travel time to a boundary (e.g., a geo-fence) and adjusts the frequency of wireless scans used to determine the location of the portable electronic device based on the travel time.

Abstract: The disclosed embodiments provide a system that processes data from a user. During operation, the system obtains, at a cloud computing system, a set of data-sharing preferences for the user. Next, the system creates a set of virtual storage partitions for the user with the cloud computing system based on the data-sharing preferences. Upon receiving data from the user to the cloud computing system, the system associates the data with a virtual storage partition from the set of virtual storage partitions based on the data-sharing preferences and a set of data attributes for the data. Finally, the system manages access to the virtual storage partition by one or more other users based on the data-sharing preferences.

Abstract: The disclosed embodiments provide a system that processes data from a user. During operation, the system obtains, at a cloud computing system, a set of data-sharing preferences for the user. Next, the system creates a set of virtual storage partitions for the user with the cloud computing system based on the data-sharing preferences. Upon receiving data from the user to the cloud computing system, the system associates the data with a virtual storage partition from the set of virtual storage partitions based on the data-sharing preferences and a set of data attributes for the data. Finally, the system manages access to the virtual storage partition by one or more other users based on the data-sharing preferences.

Abstract: The disclosed embodiments provide a system that processes data from a user. During operation, the system obtains, at a cloud computing system, a set of data-sharing preferences for the user. Next, the system creates a set of virtual storage partitions for the user with the cloud computing system based on the data-sharing preferences. Upon receiving data from the user to the cloud computing system, the system associates the data with a virtual storage partition from the set of virtual storage partitions based on the data-sharing preferences and a set of data attributes for the data. Finally, the system manages access to the virtual storage partition by one or more other users based on the data-sharing preferences.

Abstract: Techniques are described for seamlessly transitioning from a map that displays out-of-doors elements to a map that displays indoor elements, in response to detecting a transition event. The transition event may be, for example, that a navigation system that is generating the out-of-doors map has moved to an indoors location. Techniques are also provided for navigating to a parking spot in a parking structure. Specifically, users may search for parking spots that satisfy specific criteria. The search for a parking spot that satisfies the criteria may be initiated at the time a trip begins, or may be automatically triggered by some event. For example, a search for available parking spots near a designated destination may be automatically initiated as a user comes within a predetermined distance of the designated destination.

Abstract: Described herein are methods and apparatus for controlling wireless scans used to determine the location of a portable electronic device. In described embodiments, the portable electronic device determines if user notifications are currently suppressed (i.e., if the device is operating in a “do not disturb” mode). In the case that user notifications are currently suppressed on the portable electronic device, the interval between the wireless scans used to determine the location of the portable electronic device is increased. Furthermore, in described embodiments, the portable electronic device determines its location. Then based on its location, it determines a travel time to a boundary (e.g., a geo-fence) and adjusts the frequency of wireless scans used to determine the location of the portable electronic device based on the travel time.

Abstract: The disclosed embodiments provide a system that processes data from a user. During operation, the system obtains, at a cloud computing system, a set of data-sharing preferences for the user. Next, the system creates a set of virtual storage partitions for the user with the cloud computing system based on the data-sharing preferences. Upon receiving data from the user to the cloud computing system, the system associates the data with a virtual storage partition from the set of virtual storage partitions based on the data-sharing preferences and a set of data attributes for the data. Finally, the system manages access to the virtual storage partition by one or more other users based on the data-sharing preferences.