Abstract: A system is provided including a data module, a classification module and a control module. The data module is configured to receive at least one of acceleration data and gravity data from an accelerometer or a mobile network device, where the acceleration data and the gravity data are indicative of accelerations experienced by the mobile network device. The classification module is configured to classify a location of the mobile network device on a person based on the at least one of the acceleration data and the gravity data and generate a location classification output. The control module is configured to perform an operation based on the location classification output.

Abstract: A system is provided including a data module, a classification module and a control module. The data module is configured to receive at least one of acceleration data and gravity data from an accelerometer or a mobile network device, where the acceleration data and the gravity data are indicative of accelerations experienced by the mobile network device. The classification module is configured to classify a location of the mobile network device on a person based on the at least one of the acceleration data and the gravity data and generate a location classification output. The control module is configured to perform an operation based on the location classification output.

Abstract: A system for, and method of, providing e-assist on a route. A determination may be made of whether terrain data for the route is available. A rider effort level may be determined. The terrain data may be read when available. Whether a change in slope has occurred, or is anticipated to occur, corresponding to a need for an additional input to the rider effort level may be determined. The e-assist level may be adjusted to provide a level that offsets the need for the additional input, or the rider may be informed to provide an increased effort level.

Abstract: A system for, and method of, providing e-assist on a route. A determination may be made of whether terrain data for the route is available. A rider effort level may be determined. The terrain data may be read when available. Whether a change in slope has occurred, or is anticipated to occur, corresponding to a need for an additional input to the rider effort level may be determined. The e-assist level may be adjusted to provide a level that offsets the need for the additional input, or the rider may be informed to provide an increased effort level.

Abstract: A connectivity device is provided. The connectivity device includes at least one network transceiver that communicates with a vehicle network. At least one wireless communication module communicates with a remote device. A message manager module manages communications between the at least one network transceiver and the at least one wireless communication module.

Abstract: A method of remotely starting a vehicle using a remote device is provided. The method includes: receiving a first temperature associated with the vehicle; evaluating the first temperature at the remote device; and initiating the starting of the vehicle by generating a signal to the vehicle based on the start request and the first temperature.

Abstract: A vehicle communication method comprises receiving a first wireless communication that is transmitted from a first remote device and managing a transmission of the first wireless communication over a vehicle network using a configurable message list. The receiving a first wireless communication is performed by a connectivity device coupled to a communication port of the vehicle network. The managing a transmission of the first wireless communication is performed by a message manager module of the connectivity device.

Abstract: Remote application of vehicle control settings includes detecting a vehicle in proximity of the mobile communication device, authenticating the vehicle via a secured pairing between an identifier of the vehicle and an identifier of the mobile communication device, retrieving driver preference settings assigned to the identifier of the vehicle and the identifier of the mobile communication device, and transmitting the driver preference settings to the vehicle.

Abstract: Remote application of vehicle control settings includes detecting a vehicle in proximity of the mobile communication device, authenticating the vehicle via a secured pairing between an identifier of the vehicle and an identifier of the mobile communication device, retrieving driver preference settings assigned to the identifier of the vehicle and the identifier of the mobile communication device, and transmitting the driver preference settings to the vehicle.

Abstract: A connectivity device is provided. The connectivity device includes at least one network transceiver that communicates with a vehicle network. At least one wireless communication module communicates with a remote device. A message manager module manages communications between the at least one network transceiver and the at least one wireless communication module.

Abstract: A method of remotely starting a vehicle using a remote device is provided. The method includes: receiving a first temperature associated with the vehicle; evaluating the first temperature at the remote device; and initiating the starting of the vehicle by generating a signal to the vehicle based on the start request and the first temperature.

Abstract: A vehicle communication method is provided. The method includes receiving a first wireless communication that is transmitted from a remote device; and managing a transmission of the first wireless communication over a vehicle network using a configurable message list.