Abstract: A method and apparatus providing a health phone utilizing a pedometer or accelerometer incorporated into a cellular telephone. The system is designed to receive activity data from the pedometer or accelerometer, and communicate the activity data to a remote server, the cellular telephone further designed to receive suggestions from the server, the suggestions generated based on the activity data received from the cellular telephone.

Abstract: A method comprising monitoring a user's movements and determining when the user is falling asleep into a sleep session. The method further comprising identifying the sleep session as a power nap or a longer sleep, and waking up the user at a predetermined time, based on a combination of user preferences and measured information regarding the sleep session.

Abstract: A method or apparatus to provide a display of friends in a local area to a user, receive a request to meet, and calculate an optimal location for a meeting is described. In one embodiment, the system provides guidance to the user to the optimal location.

Abstract: A method and apparatus to provide a user interface for a multi-purpose band is described. The user interface includes two shapes, in one embodiment, each shape made up of a plurality of LEDs or other light sources. Multiple types of information may be provided to the user through the lights, including activity statistics, sleep statistics, and current time.

Abstract: A method or apparatus to provide a map display is disclosed.

Abstract: A method comprising monitoring a user's movements and determining when the user is falling asleep into a sleep session. The method further comprising identifying the sleep session as a power nap or a longer sleep, and waking up the user at a predetermined time, based on a combination of user preferences and measured information regarding the sleep session.

Abstract: A method or apparatus to provide a global positioning system receiver is described. The Personal navigation system includes at least one motion sensor, the motion sensor capable of identifying a user activity, and distinguishing between walking and driving, or other manual v. mechanical locomotion. The system automatically switches modes to the appropriate format.

Abstract: An mobile device to monitor human activity using multiple sensors comprising a processing unit to provide a first estimation user activity data based on data from a first sensor, the first estimation having a first accuracy estimation, and to provide a second estimation of user activity data based on data from a second sensor, the second estimation having a second accuracy estimation, and the processor to calculate the user activity statistic based on the first estimation and the second estimation, wherein the calculated user activity statistic is a result of a weighted combination of the first estimation and the second estimation.

Abstract: An electronic device monitors accelerations using a motion sensor. The electronic device determines a current motion state based on the accelerations. The electronic device identifies a plurality of applications that subscribe to a motion state identification service and notifies a subset of the applications of the current motion state, the subset meeting notification criteria associated with the current motion state.

Abstract: A method and apparatus to provide a global positioning system receiver is described. The Personal navigation system includes at least one motion sensor, the motion sensor capable of identifying a user activity, and distinguishing between walking and driving, or other manual v. mechanical locomotion. The system automatically switches modes to the appropriate format.

Abstract: An electronic device monitors accelerations using an inertial sensor. The electronic device identifies a current motion state based on the accelerations. The electronic device determines an application that subscribes to a motion state identification service and notifies the application of the current motion state.

Abstract: A method or apparatus for monitoring human activity using an inertial sensor is described. The method includes monitoring accelerations, and identifying a current user activity from a plurality of user activities based on the accelerations. In one embodiment, each of the plurality of user activities is associated with one of a plurality of types of periodic human motions that are detectable by the portable electronic device, and wherein the identification of the current user activity is made based on detecting two or more instances of the periodic human motion associated with the user activity. The method further includes counting periodic human motions appropriate to the current user activity.

Abstract: A method and apparatus for utilizing gestures for navigating.

Abstract: A method and apparatus to provide easier pairing based on motion data is described. The method of associating two devices comprises receiving a signal to enter into pairing mode, and detecting a motion indicating a pairing. The method further comprises establishing a secure connection with another device for pairing, the secure connection established based on the motion, and exchanging data.

Abstract: A mobile device monitors accelerations using one or more inertial sensors. A user activity is identified based on the accelerations. A first estimation is made of a user activity statistic associated with the user activity based on the accelerations. Location information is obtained by one or more location based sensors. A second estimation is made of the user activity statistic based on the location information. The user activity statistic is calculated based on the first estimation and the second estimation.

Abstract: An electronic Personal Information Manager (PIM) including a calendar/scheduling system with an EarthTime™ module is described. In operation, the system tracks different types of times: “local” time, “home” time, and “remote” time. Home time is the time zone of where the user typically spends most of his or her time; this is usually the time zone for the user's home office. Local time is the time for the locality where the user is located physically at any particular instance in time. “Remote” time represents the time zones of the other individuals (i.e., other than the user). The system may show events and appointments in the user's own “local” time (or other user-selected type of time), regardless of where the user is presently located. Using these three types of time (i.e., “local” time, “home” time, and “remote” time), the system provides improved interface and methods for scheduling and managing activities, such a phone conference, across multiple time zones.

Abstract: A synchronization system may include: A Source (outbound). An “Accessor” communicating with a device's data store. A corresponding Target Accessor is provided for inbound data. Both Accessors work in conjunction with a “Conduit,” which is provided for understanding the data that is being read so that the data can be mapped to a universal schema or “unirecord” or to a target dataset. The Conduit serves to broker the services of the Source Accessor and the Target Accessor and to provide field mapping and conversion. Core synchronization functionality is provided by a Synchronizer or “Sync Core” (engine). The Synchronizer performs its specific functionality on a per record or per data item basis, such as determining which records need to be inserted, deleted, updated, or the like.

Abstract: An aircraft collision avoidance system utilizing video signals of the air space surrounding the aircraft for determining whether an object, such as another aircraft, is too close. Use is made of various types of monitors to display the on coming object and its location relative to the protected aircraft. An audio alarm is provided for alerting the pilot of the danger as well as providing localization information. Video recordings store information for accident and near miss studies. The video signals can also be used for the entertainment of airline passengers. One preferred embodiment of the invention permits ground based experts to point out interesting objects that are visible due to the improved view provided passengers.

Abstract: An electronic Personal Information Manager (PIM) including a calendar/scheduling system with an EarthTime™ module is described. In operation, the system tracks different types of times: “local” time, “home” time, and “remote” time. Home time is the time zone of where the user typically spends most of his or her time; this is usually the time zone for the user's home office. Local time is the time for the locality where the user is located physically at any particular instance in time. “Remote” time represents the time zones of the other individuals (i.e., other than the user). The system may show events and appointments in the user's own “local” time (or other user-selected type of time), regardless of where the user is presently located. Using these three types of time (i.e.