Abstract: A socket security and authentication device is disclosed that has a socket configured to receive a verification module or plug, where the verification module or plug may include, but is not limited to, RFID and Near Field Communications (NFC), QR codes, bar codes, bluetooth communications, magnetic stripe, magnetic memory, fingerprint and biometric identification, as well as capacitively patterned stamps and devices. The socket may have a cradle for receiving and retaining the verification module or plug. The socket may also have a shell for mechanical retention as well as aesthetics.

Abstract: A user interface for an electronic calendar represents different locations or different users or different user calendars in different portions of the display. Calendar entries can be associated with one or more locations, one or more users, and with one or more user calendars. The different locations may reside in different time zones and a timeline for each time zone is displayed. The position of the calendar entry provides a visual identifier of the timeline with which the event is associated. Travel time to and from events in the calendar are calculated for calendared events and shown adjacent to the beginning and end of the event. A user's future location at a point in time is inferred from patterns in the user's locations and by analyzing the user's calendared events and correspondence in order to calculate travel time to calendared events.

Abstract: A user interface for an electronic calendar represents different locations or different users or different user calendars in different portions of the display. Calendar entries can be associated with one or more locations, one or more users, and with one or more user calendars. The different locations may reside in different time zones and a timeline for each time zone is displayed. The position of the calendar entry provides a visual identifier of the timeline with which the event is associated. Travel time to and from events in the calendar are calculated for calendared events and shown adjacent to the beginning and end of the event. A user's future location at a point in time is inferred from patterns in the user's locations and by analyzing the user's calendared events and correspondence in order to calculate travel time to calendared events.

Abstract: A user interface for an electronic calendar represents different locations or different users or different user calendars in different portions of the display. Calendar entries can be associated with one or more locations, one or more users, and with one or more user calendars. The different locations may reside in different time zones and a timeline for each time zone is displayed. The position of the calendar entry provides a visual identifier of the timeline with which the event is associated. Travel time to and from events in the calendar are calculated for calendared events and shown adjacent to the beginning and end of the event. A user's future location at a point in time is inferred from patterns in the user's locations and by analyzing the user's calendared events and correspondence in order to calculate travel time to calendared events.

Abstract: A user interface for an electronic calendar represents different locations or different users or different user calendars in different portions of the display. Calendar entries can be associated with one or more locations, one or more users, and with one or more user calendars. The different locations may reside in different time zones and a timeline for each time zone is displayed. The position of the calendar entry provides a visual identifier of the timeline with which the event is associated. Travel time to and from events in the calendar are calculated for calendared events and shown adjacent to the beginning and end of the event. A user's future location at a point in time is inferred from patterns in the user's locations and by analyzing the user's calendared events and correspondence in order to calculate travel time to calendared events.

Abstract: A user interface for a mobile device allows users to interact across applications with information relevant to known people, organizations, or locations, referred to herein as “recognized entities.” Every type of recognized entity has associated action options that populate a node menu for that type. The node menu options are selectable, for example, through a touchscreen interface, to rapidly execute the associated action. In another embodiment, a plurality of data windows, referred to as “spinners,” are viewed simultaneously on one display. Each spinner is a view of one or more data objects provided that are distinguished from one another by data type, context, parsing or sorting algorithms, or user interaction with this data. The spinners respond to user actions, to new information from the server, or external events by automatically visibly scrolling the data displayed in the spinner windows.

Abstract: A user interface for a mobile device allows users to interact across applications with information relevant to known people, organizations, or locations, referred to herein as “recognized entities.” Every type of recognized entity has associated action options that populate a node menu for that type. The node menu options are selectable, for example, through a touchscreen interface, to rapidly execute the associated action. In another embodiment, a plurality of data windows, referred to as “spinners,” are viewed simultaneously on one display. Each spinner is a view of one or more data objects provided that are distinguished from one another by data type, context, parsing or sorting algorithms, or user interaction with this data. The spinners respond to user actions, to new information from the server, or external events by automatically visibly scrolling the data displayed in the spinner windows.