Abstract: A system and method includes determining, with a sensor assembly disposed onboard a first aerial vehicle, a direction in which a fluid flows within or through the first aerial vehicle, and determining an orientation of the first aerial vehicle relative to a second aerial vehicle based at least in part on the direction in which the fluid flows within or through the first aerial vehicle.

Abstract: A system and method for determining an orientation of a vehicle are provided. The system and method determine (with a sensor assembly disposed onboard a first vehicle) a direction in which a fluid flows within the first vehicle. The first vehicle is included in a vehicle consist with a second vehicle. The orientation of the first vehicle relative to the second vehicle is determined based at least in part on the direction in which the fluid flows within the first vehicle. The fluid may be air in an air brake pipe of the vehicle consist.

Abstract: A method and system for identifying cargo-carrying vehicles (CCV) to be included in a vehicle system that are non-propulsion-generating vehicles scheduled to depart from a vehicle yard and travel to one or more destination locations at a predetermined departure time. Further includes, calculating a minimum tractive effort threshold required by one or more propulsion-generating vehicles (PGV) to propel the vehicle system to the one or more destination locations along a route within a predetermined time period. And selecting a set of one or more PGV from a larger group of PGV within the vehicle yard to be included in the vehicle system. The set of one or more PGV produce a tractive effort of at least the minimum tractive effort threshold, and having at least one of a lower fuel consumption or lower emissions than selecting one or more of the remaining PGV from the larger group of PGV, respectively.

Abstract: A terminal operating system includes one or more processors configured to obtain one or more parameters of non-propulsion-generating cargo vehicles and to determine which of the non-propulsion-generating cargo vehicles are to be included in a vehicle system assembled in a terminal or yard based on the one or more parameters. The one or more parameters include one or more of an earliest time of availability at which cargo equipment will be available in the terminal or yard, a safety operational characteristic, an efficiency operational characteristic of the one or more non-propulsion-generating cargo vehicles, and/or a priority parameter of the one or more non-propulsion-generating cargo vehicles. The one or more processors are configured to automatically direct equipment within the terminal or yard to assemble the vehicle system based on the one or more parameters.

Abstract: A system and method for determining an orientation of a vehicle are provided. The system and method determine (with a sensor assembly disposed onboard a first vehicle) a direction in which a fluid flows within the first vehicle. The first vehicle is included in a vehicle consist with a second vehicle. The orientation of the first vehicle relative to the second vehicle is determined based at least in part on the direction in which the fluid flows within the first vehicle. The fluid may be air in an air brake pipe of the vehicle consist.

Abstract: A system and method for determining an orientation of a vehicle are provided. The system and method determine (with a sensor assembly disposed onboard a first vehicle) a direction in which a fluid flows within the first vehicle. The first vehicle is included in a vehicle consist with a second vehicle. The orientation of the first vehicle relative to the second vehicle is determined based at least in part on the direction in which the fluid flows within the first vehicle. The fluid may be air in an air brake pipe of the vehicle consist.

Abstract: A terminal operating system includes one or more processors configured to obtain one or more parameters of non-propulsion-generating cargo vehicles and to determine which of the non-propulsion-generating cargo vehicles are to be included in a vehicle system assembled in a terminal or yard based on the one or more parameters. The one or more parameters include one or more of an earliest time of availability at which cargo equipment will be available in the terminal or yard, a safety operational characteristic, an efficiency operational characteristic of the one or more non-propulsion-generating cargo vehicles, and/or a priority parameter of the one or more non-propulsion-generating cargo vehicles. The one or more processors are configured to automatically direct equipment within the terminal or yard to assemble the vehicle system based on the one or more parameters.

Abstract: A control system includes an onboard controller, a location determination system, and a speed sensor. The controller identifies a designated area along a route that includes a downhill section, an airflow restricted area, a banked section, a section to be cleaned, an adverse environmental area, an adverse vehicular condition area, and/or a section where travel is restricted. The designated area is associated with an operating rule that requires the vehicle to travel at least as fast as a lower speed limit. The location determination system monitors actual locations of the vehicle as the vehicle travels along the route. The speed sensor obtains speed data representative of an actual velocity of the vehicle. The controller restricts control of the vehicle such that the actual velocity of the vehicle is at least as fast as the lower speed limit of the designated area when the vehicle is in the designated area.

Abstract: A method and system for identifying cargo-carrying vehicles (CCV) to be included in a vehicle system that are non-propulsion-generating vehicles scheduled to depart from a vehicle yard and travel to one or more destination locations at a predetermined departure time. Further includes, calculating a minimum tractive effort threshold required by one or more propulsion-generating vehicles (PGV) to propel the vehicle system to the one or more destination locations along a route within a predetermined time period. And selecting a set of one or more PGV from a larger group of PGV within the vehicle yard to be included in the vehicle system. The set of one or more PGV produce a tractive effort of at least the minimum tractive effort threshold, and having at least one of a lower fuel consumption or lower emissions than selecting one or more of the remaining PGV from the larger group of PGV, respectively.

Abstract: A method and system for identifying cargo-carrying vehicles (CCV) to be included in a vehicle system that are non-propulsion-generating vehicles scheduled to depart from a vehicle yard and travel to one or more destination locations at a predetermined departure time. Further includes, calculating a minimum tractive effort threshold required by one or more propulsion-generating vehicles (PGV) to propel the vehicle system to the one or more destination locations along a route within a predetermined time period. And selecting a set of one or more PGV from a larger group of PGV within the vehicle yard to be included in the vehicle system. The set of one or more PGV produce a tractive effort of at least the minimum tractive effort threshold, and having at least one of a lower fuel consumption or lower emissions than selecting one or more of the remaining PGV from the larger group of PGV, respectively.

Abstract: A system and method for determining an orientation of a vehicle are provided. The system and method determine (with a sensor assembly disposed onboard a first vehicle) a direction in which a fluid flows within the first vehicle. The first vehicle is included in a vehicle consist with a second vehicle. The orientation of the first vehicle relative to the second vehicle is determined based at least in part on the direction in which the fluid flows within the first vehicle. The fluid may be air in an air brake pipe of the vehicle consist.

Abstract: A method and system for identifying cargo-carrying vehicles (CCV) to be included in a vehicle system that are non-propulsion-generating vehicles scheduled to depart from a vehicle yard and travel to one or more destination locations at a predetermined departure time. Further includes, calculating a minimum tractive effort threshold required by one or more propulsion-generating vehicles (PGV) to propel the vehicle system to the one or more destination locations along a route within a predetermined time period. And selecting a set of one or more PGV from a larger group of PGV within the vehicle yard to be included in the vehicle system. The set of one or more PGV produce a tractive effort of at least the minimum tractive effort threshold, and having at least one of a lower fuel consumption or lower emissions than selecting one or more of the remaining PGV from the larger group of PGV, respectively.

Abstract: A method for communicating data in a rail vehicle consist includes transmitting first data at a first rail vehicle of the consist over a power supply conductor to a second, different rail vehicle in the consist, where at least one rail vehicle of the consist receives direct electrical power from the power supply conductor. The method also includes monitoring the power supply conductor for second data at the first rail vehicle and receiving the second data over the power supply conductor at the first rail vehicle for use by a first system onboard the first rail vehicle. In one aspect, the transmitting step comprises transmitting the first data over one or more of a catenary line or a third rail that supplies the electrical power.

Abstract: A method for communicating data in a rail vehicle consist includes transmitting, at a first rail vehicle in the consist, first data over a running rail to a second, different rail vehicle in the consist, where the running rail guides and supports the rail vehicles of the consist as the rail vehicles travel along the running rail. The method also includes monitoring the running rail for second data and receiving the second data over the running rail for use by a first system onboard the first rail vehicle.

Abstract: A system, method and device for controlling a rail vehicle consist configured to traverse a rail system is provided. In one embodiment, the system may include a second module configured to receive environmental data from a first module having one or more sensors, wherein the environmental data is indicative of one or more environmental conditions for a portion of the rail system; wherein the second module is further configured to conduct an assessment of the environmental data in relation to a first control parameter; the second module is further configured to communicate one or more control signals of one of the first control parameter or a different, second control parameter based on the assessment; each of the first and second control parameters relates to controlling tractive effort of the rail vehicle consist over the portion of the rail system; and the second module is further configured to communicate the one or more control signals to a third module for control of the rail vehicle consist.

Abstract: A control system includes an onboard controller, a location determination system, and a speed sensor. The controller identifies a designated area along a route that includes a downhill section, an airflow restricted area, a banked section, a section to be cleaned, an adverse environmental area, an adverse vehicular condition area, and/or a section where travel is restricted. The designated area is associated with an operating rule that requires the vehicle to travel at least as fast as a lower speed limit. The location determination system monitors actual locations of the vehicle as the vehicle travels along the route. The speed sensor obtains speed data representative of an actual velocity of the vehicle. The controller restricts control of the vehicle such that the actual velocity of the vehicle is at least as fast as the lower speed limit of the designated area when the vehicle is in the designated area.

Abstract: A system for communicating data in a train is provided. The system includes at least one respective router transceiver unit positioned in each of at least two rail vehicles of the train. Each router transceiver unit is coupled to a trainline that extends between the rail vehicles. The trainline is an existing cable bus used in the train for transferring propulsion control data between the rail vehicles that controls at least one of tractive effort or braking effort of the rail vehicles. The router transceiver units are configured to communicate network data over the trainline. In one embodiment, the trainline is an Electrically Controlled Pneumatic (ECP) trainline and the propulsion control data is ECP brake data used to control operations of brakes in the train.

Abstract: A system, method and device for controlling a rail vehicle consist configured to traverse a rail system is provided. In one embodiment, the system may include a second module configured to receive environmental data from a first module having one or more sensors, wherein the environmental data is indicative of one or more environmental conditions for a portion of the rail system; wherein the second module is further configured to conduct an assessment of the environmental data in relation to a first control parameter; the second module is further configured to communicate one or more control signals of one of the first control parameter or a different, second control parameter based on the assessment; each of the first and second control parameters relates to controlling tractive effort of the rail vehicle consist over the portion of the rail system; and the second module is further configured to communicate the one or more control signals to a third module for control of the rail vehicle consist.

Abstract: A method for communicating data in a rail vehicle consist includes transmitting first data at a first rail vehicle of the consist over a power supply conductor to a second, different rail vehicle in the consist, where at least one rail vehicle of the consist receives direct electrical power from the power supply conductor. The method also includes monitoring the power supply conductor for second data at the first rail vehicle and receiving the second data over the power supply conductor at the first rail vehicle for use by a first system onboard the first rail vehicle. In one aspect, the transmitting step comprises transmitting the first data over one or more of a catenary line or a third rail that supplies the electrical power.

Abstract: A method for communicating data in a rail vehicle consist includes transmitting, at a first rail vehicle in the consist, first data over a running rail to a second, different rail vehicle in the consist, where the running rail guides and supports the rail vehicles of the consist as the rail vehicles travel along the running rail. The method also includes monitoring the running rail for second data and receiving the second data over the running rail for use by a first system onboard the first rail vehicle.