Abstract:
An apparatus includes an internal information circuit structured to receive internal information of a vehicle; a static information circuit structured to receive static information external to the vehicle; a dynamic information circuit structured to receive dynamic information external to the vehicle; an aftertreatment system goal determination circuit structured to determine a goal for an aftertreatment system of the vehicle based on at least one of the internal information, the static information, and the dynamic information; and a powertrain configuration circuit structured to configure a powertrain component of the vehicle to achieve the goal.
Abstract:
Systems, apparatuses, and methods disclosed herein provide for receiving internal vehicle information, external static information, and external dynamic information; controlling the operation of one or more electronic accessories of the vehicle based on the received information; and managing a power supply for the one or more electronic accessories based on the energy usage and the operation of the electronic accessories.
Abstract:
Disclosed are various techniques to optimize mining operations efficiency in which the mine utilizes mine trucks over a mine route. One such technique includes optimizing engine speed from a speed and torque management system. Such engine speed changes can be determined using information such as road grade data and mine stop locations, or whether the engine is in a retarder mode. Mine operation efficiency can be improved through use of adjustments made to a load acceptance curve. Changes to the load acceptance curve can be made through use of information such as road grade data and target truck speed. Improvements can be made through dynamically adjusted vehicle speed, such as through average route speed adjustments, or route segment adjustments in light of average route speed. A dynamic torque management system can provide efficiencies as limits are applied to torque using look ahead information.
Abstract:
Systems, apparatuses, and methods disclosed herein provide for receiving internal hybrid vehicle information, external static information, and external dynamic information; determining a propulsion power for the hybrid vehicle at a particular location at a particular time based on at least one of the internal hybrid vehicle information, the external static information, and the external dynamic information; determining a current state of charge of a battery, wherein the battery is operatively coupled to an electric motor in the hybrid vehicle; and managing a state of charge of the battery at the particular location at the particular time based on the current state of charge and the determined propulsion power.
Abstract:
Systems, apparatuses, and methods disclosed provide for receiving internal hybrid vehicle information, external static information, and external dynamic information; determining a propulsion power for the hybrid vehicle at a particular location at a particular time based on at least one of the internal hybrid vehicle information, the external static information, and the external dynamic information, and wherein in response to the determined potential propulsion power, predicting a shift event at the particular location at the particular time; determining a current state of charge of a battery, wherein the battery is operatively coupled to an electric motor in the hybrid vehicle; and managing the state of charge of the battery at the particular location at the particular time based on the current state of charge and the determined propulsion power to eliminate the need for the potential shift event at the particular location at the particular time.
Abstract:
A system comprises a platoon controller operably coupled to a first controller of a first vehicle and a second controller of a second vehicle included in a vehicle platoon. The platoon controller is configured to determine a geolocation of each vehicle. The platoon controller determines a plurality of route parameters of a vehicle platoon route ahead of a current geolocation of each vehicle, and also determines an engine speed and a powertrain load of the vehicles for reducing an energy consumption based on the plurality of route parameters. Furthermore, the platoon controller instructs at least one of the first controller and the second controller to selectively adjust the engine speed and the powertrain load of the vehicles based on the geolocation of each vehicle on the vehicle platoon route.
Abstract:
Disclosed are various techniques to optimize mining operations efficiency in which the mine utilizes mine trucks over a mine route. One such technique includes optimizing engine speed from a speed and torque management system. Such engine speed changes can be determined using information such as road grade data and mine stop locations, or whether the engine is in a retarder mode. Mine operation efficiency can be improved through use of adjustments made to a load acceptance curve. Changes to the load acceptance curve can be made through use of information such as road grade data and target truck speed. Improvements can be made through dynamically adjusted vehicle speed, such as through average route speed adjustments, or route segment adjustments in light of average route speed. A dynamic torque management system can provide efficiencies as limits are applied to torque using look ahead information.