Abstract: In various embodiments, a user interacts with remotely executing mobile applications from a vehicle. The vehicle may include at least one computer that includes a human machine interface (HMI) for control by the user. The mobile applications may be executing on an application server that is remote from the vehicle and communicating with the at least one computer. Further, the mobile applications may be configured to receive inputs from and transmit outputs to the at least one computer. An HMI application executing on the at least one computer may enable the provisioning of one or more services of the HMI to the mobile applications so that inputs and/or outputs to the mobile applications may be exchanged. Vehicle-based operation of the mobile applications from the at least one computer via the HMI may thus be enabled.

Abstract: A rollover meter device is disclosed that prevents vehicle rollover and minimizes the harm and damage caused if a rollover occurs. The rollover meter device comprises a meter housing component and a digital display component that displays the current angle of the vehicle. The meter housing component comprises microelectromechanical sensors (MEMS), such as a gyro component and two tri-axial accelerometer components which are mounted on a printed circuit board (PCB), along with LED warning lights, which is then secured behind the digital display inside the meter housing component. Furthermore, the meter housing component can be in electrical communication with a vehicle's gas supply, ignition, blade rotation, Power Take Off (PTO), and/or wireless device.

Abstract: A rollover meter device is disclosed that prevents vehicle rollover and minimizes the harm and damage caused if a rollover occurs. The rollover meter device comprises a meter housing component and a digital display component that displays the current angle of the vehicle. The meter housing component comprises microelectromechanical sensors (MEMS), such as a gyro component and two tri-axial accelerometer components which are mounted on a printed circuit board (PCB), along with LED warning lights, which is then secured behind the digital display inside the meter housing component. Furthermore, the meter housing component can be in electrical communication with a vehicle's gas supply, ignition, blade rotation, Power Take Off (PTO), and/or wireless device.

Abstract: A computer-implemented tracking method includes receiving a tracking request at a vehicle associated computing system (VACS). The method also includes authenticating the tracking request and determining a vehicle location via a GPS in communication with the VACS. The method further includes transmitting the vehicle location from the VACS to a tracking request associated computing system (TRACS). The method also includes monitoring the vehicle for at least one delay-event. The method additionally includes transmitting data corresponding to the delay event to the TRACS, contingent on the occurrence of at least one delay-event.

Abstract: A rollover meter device is disclosed that prevents vehicle rollover and minimizes the harm and damage caused if a rollover occurs. The rollover meter device comprises a meter housing component and a gauge face component that displays current angle of the vehicle. The meter housing component comprises at least one weighted pendulum assembly and a pair of limit switches positioned on opposing sides of the pendulum, such that swinging of the pendulum contacts cams which actuate one of the limit switches, which then alerts a user that a critical angle has been reached. The pendulum assembly is held in place by a rotation rod and a pair of outer bushing assemblies that are secured to the ends of the rotation rod to allow it to rotate. Furthermore, the meter housing component can be in electrical communication with a vehicle's gas supply, ignition, blade rotation, and/or Power Take Off (PTO).

Abstract: A computer-implemented method includes recognizing the initiation of a vehicle journey. The method further includes periodically storing vehicle speed data, GPS coordinate data and time data. This method also includes providing at least one option for reporting the stored speed data, GPS data and time data. The method additionally includes outputting the stored speed data, GPS data and time data for at least one portion of the vehicle journey, responsive to input requesting the reporting.

Abstract: A computer-implemented tracking method includes receiving a tracking request at a vehicle associated computing system (VACS). The method also includes authenticating the tracking request and determining a vehicle location via a GPS in communication with the VACS. The method further includes transmitting the vehicle location from the VACS to a tracking request associated computing system (TRACS). The method also includes monitoring the vehicle for at least one delay-event. The method additionally includes transmitting data corresponding to the delay event to the TRACS, contingent on the occurrence of at least one delay-event.

Abstract: A computer-implemented tracking method includes receiving a tracking request at a vehicle associated computing system (VACS). The method also includes authenticating the tracking request and determining a vehicle location via a GPS in communication with the VACS. The method further includes transmitting the vehicle location from the VACS to a tracking request associated computing system (TRACS). The method also includes monitoring the vehicle for at least one delay-event. The method additionally includes transmitting data corresponding to the delay event to the TRACS, contingent on the occurrence of at least one delay-event.

Abstract: A computer-implemented method includes recognizing the initiation of a vehicle journey. The method further includes periodically storing vehicle speed data, GPS coordinate data and time data. This method also includes providing at least one option for reporting the stored speed data, GPS data and time data. The method additionally includes outputting the stored speed data, GPS data and time data for at least one portion of the vehicle journey, responsive to input requesting the reporting.

Abstract: A computer-implemented tracking method includes receiving a tracking request at a vehicle associated computing system (VACS). The method also includes authenticating the tracking request and determining a vehicle location via a GPS in communication with the VACS. The method further includes transmitting the vehicle location from the VACS to a tracking request associated computing system (TRACS). The method also includes monitoring the vehicle for at least one delay-event. The method additionally includes transmitting data corresponding to the delay event to the TRACS, contingent on the occurrence of at least one delay-event.

Abstract: In various embodiments, a user interacts with remotely executing mobile applications from a vehicle. The vehicle may include at least one computer that includes a human machine interface (HMI) for control by the user. The mobile applications may be executing on an application server that is remote from the vehicle and communicating with the at least one computer. Further, the mobile applications may be configured to receive inputs from and transmit outputs to the at least one computer. An HMI application executing on the at least one computer may enable the provisioning of one or more services of the HMI to the mobile applications so that inputs and/or outputs to the mobile applications may be exchanged. Vehicle-based operation of the mobile applications from the at least one computer via the HMI may thus be enabled.