Abstract: A vehicle communication system facilitates hands-free interaction with a mobile device in a vehicle or elsewhere. Users interact with the system by speaking to it. The system processes text and processes commands. The system supports Bluetooth wireless technology for hands-free use. The system handles telephone calls, email, and SMS text messages. The user can customize the device via a user profile stored on an Internet web server.

Abstract: An opportunistic calibration method continuously monitors a smartphone orientation and compensates for its variation, as necessary. The method relies on the probabilistic fusion of built-in sensors; in particular, the GPS, accelerometer, gyroscope, and magnetometer. The calibration method may utilize a state-machine approach along with an orientation stability detection algorithm to keep track of the smartphone orientation over time and to coordinate the calibration process in an opportunistic manner. An orientation calibration method may rely mainly on the probabilistic fusion of GPS and magnetometer sensory data.

Abstract: A vehicle monitoring system includes at least one sensor in the vehicle. A processor receiving information from the at least one sensor, the processor programmed to automatically identify a driver of the vehicle based upon the information from the at least one sensor.

Abstract: A system enables the user to customize the temporal and/or spatial behaviour aspects of desired things with respect to one or more target platforms. The desired things include objects, actions, and media files and can be associated with a time (T-thing), a location (L-thing), a time and location (LT-thing), a platform (P-thing), and combinations thereof. The user can pick and assemble multiple things into meta-things and create meta things of various types. The target platforms include any devices or systems that can be programmed to perform behaviors. The user programs a set of rules, which are then used to specify the behavioral aspects exercised by the system on the target platforms. The user interacts with the system through a portal and/or a mobile application. The portal is an intuitive GUI that enables the user to program the system in a simple pick-drag-and-drop fashion.

Abstract: A mobile or in-vehicle communication system and method facilitate communication among groups. The system and method also facilitate the creation of such groups. The system and method may convert speech from one member of the group to text for distribution to other members of the group, for whom the text is converted to audible speech.

Abstract: A system enables the user to customize the temporal and/or spatial behaviour aspects of desired things with respect to one or more target platforms. The desired things include objects, actions, and media files and can be associated with a time (T-thing), a location (L-thing), a time and location (LT-thing), a platform (P-thing), and combinations thereof. The user can pick and assemble multiple things into meta-things and create meta things of various types. The target platforms include any devices or systems that can be programmed to perform behaviors. The user programs a set of rules, which are then used to specify the behavioral aspects exercised by the system on the target platforms. The user interacts with the system through a portal and/or a mobile application. The portal is an intuitive GUI that enables the user to program the system in a simple pick-drag-and-drop fashion.

Abstract: A vehicle communication system facilitates hands-free interaction with a mobile device in a vehicle or elsewhere. Users interact with the system by speaking to it. The system processes text and processes commands. The system supports Bluetooth wireless technology for hands-free use. The system handles telephone calls, email, and SMS text messages. The user can customize the device via a user profile stored on an Internet web server.

Abstract: This vehicle monitoring system provides a plurality of sensors in the vehicle recording performance of the vehicle. A processor (remote or on-board) receives data from the sensors. The processor classifies the data from the at least one sensor as an event in one of a plurality of classifications. The processor associates at least one parameter with the classification.

Abstract: A mobile device includes an inertial sensor generating inertia signals based upon motion of the mobile device. The mobile device further includes a high power module that consumes more power than the inertial sensor. A processor is programmed to determine whether the mobile device is being carried by a user who is walking based upon the inertia signals. The processor deactivates the high power module or maintains the high power module in a low power mode based upon a determination that the mobile device is being carried by a user who is walking.

Abstract: A vehicle communication system facilitates hands-free interaction with a mobile device in a vehicle or elsewhere. Users interact with the system by speaking to it. The system processes text and processes commands. The system supports Bluetooth wireless technology for hands-free use. The system handles telephone calls, email, and SMS text messages. The user can customize the device via a user profile stored on an Internet web server.

Abstract: A vehicle communication system provides several ways of choosing destinations for the navigation system outside the vehicle. The user can choose a destination using the mobile device in one of several ways such as by typing an address, or choosing an address or phone number from a contact list, so that the navigation system can obtain the destination information from the mobile device. Destination information can also be sent to the mobile device via email, so that the navigation system can pull the destination information from the email. In another feature, traffic updates are provided to the navigation system.

Abstract: A system enables the user to customize the temporal and/or spatial behavior aspects of desired things with respect to one or more target platforms. The desired things include objects, actions, and media files and can be associated with a time (T-thing), a location (L-thing), a time and location (LT-thing), a platform (P-thing), and combinations thereof. The user can pick and assemble multiple things into meta-things and create meta things of various types. The target platforms include any devices or systems that can be programmed to perform behaviors. The user programs a set of rules, which are then used to specify the behavioral aspects exercised by the system on the target platforms. The user interacts with the system through a portal and/or a mobile application. The portal is an intuitive GUI that enables the user to program the system in a simple pick-drag-and-drop fashion.

Abstract: A vehicle monitoring system includes at least one sensor in the vehicle. A processor receiving information from the at least one sensor, the processor programmed to automatically identify a driver of the vehicle based upon the information from the at least one sensor.

Abstract: A vehicle communication system facilitates hands-free interaction with a mobile device in a vehicle or elsewhere. Users interact with the system by speaking to it. The system processes text and processes commands. The system supports Bluetooth wireless technology for hands-free use. The system handles telephone calls, email, and SMS text messages. The user can customize the device via a user profile stored on an Internet web server.

Abstract: A vehicle communication system includes a plurality of user accounts, each user account corresponding to a user. A server is programmed to receive communication invitations from inviting vehicles, and is programmed to transmit the communication invitations to invitee vehicles to facilitate inter-vehicle communication.

Abstract: The system described in this invention can be used for monitoring and analyzing real time visual and non-visual information pertaining to the occupant, vehicle, and surroundings prior to, during and post eccentric operating conditions for a given period of time. The system stores vehicle and occupant data from sensors throughout the vehicle and also makes use of existing vehicle sensors that may already be present in the vehicle. The invention also includes a video recording module that makes use of a fish-eye camera to capture video from the inside and the outside of the vehicle. Real-time data analysis is performed to detect and to recognize vehicle occupants, and recognize impending eccentric events. Vehicle, occupant, and video data are stored in circular buffers. When an eccentric event, a collision for example, has been detected, the device continues to record data and video for a fixed period of time.

Abstract: A vehicle communication system facilitates hands-free interaction with a mobile device in a vehicle or elsewhere. Users interact with the system by speaking to it. The system processes text and processes commands. The system supports Bluetooth wireless technology for hands-free use. The system handles telephone calls, email, and SMS text messages. The user can customize the device via a user profile stored on an Internet web server.

Abstract: A vehicle communication system facilitates hands-free interaction with a mobile device in a vehicle or elsewhere. Users interact with the system by speaking to it. The system processes text and processes commands. The system supports wireless technology for hands-free use. The system handles telephone calls, email, and SMS text messages. The user can customize the device via a user profile stored on an Internet web server. The system also includes a plurality of power conservation features.

Abstract: The invention provides a internet radio interface for use in vehicles. The interface allows a device unit, with wireless capability and voice interface technology, to communicate with a vehicle, mobile phone, and portal in order to manage and upload various user preferences to the device unit as set out by the user prior to getting into the vehicle. The device unit interacts with the user to permit various functions and access preferable channels as well as managing secondary functions of the user, including cell phone communications.

Abstract: A vehicle monitoring system includes at least one sensor in the vehicle. A processor receiving information from the at least one sensor, the processor programmed to automatically identify a driver of the vehicle based upon the information from the at least one sensor.