Abstract: A control system for a vehicle system includes a mechanically-adjustable valve having a plurality of positions, a position sensor, and a controller. The mechanically-adjustable valve is configured to be disposed onboard a rail vehicle that is coupled to at least one other rail vehicle in a consist. The position sensor is configured to be disposed in the rail vehicle to monitor a current position of the mechanically-adjustable valve. The position sensor is configured to generate an output signal that represents the current position of the mechanically-adjustable valve. The controller is configured to be communicatively coupled to the position sensor and to receive the output signal of the position sensor. The controller is configured to set an operational status of the rail vehicle in the consist based on the output signal and to adjust automatic engine shutdown and restart operations of the rail vehicle based on the operational status.

Abstract: A control system for a vehicle system includes a mechanically-adjustable valve having a plurality of positions, a position sensor, and a controller. The mechanically-adjustable valve is configured to be disposed onboard a rail vehicle that is coupled to at least one other rail vehicle in a consist. The position sensor is configured to be disposed in the rail vehicle to monitor a current position of the mechanically-adjustable valve. The position sensor is configured to generate an output signal that represents the current position of the mechanically-adjustable valve. The controller is configured to be communicatively coupled to the position sensor and to receive the output signal of the position sensor. The controller is configured to set an operational status of the rail vehicle in the consist based on the output signal and to adjust automatic engine shutdown and restart operations of the rail vehicle based on the operational status.

Abstract: A system for automated water drainage in a fuel system includes a fuel-water separator, a water sensor, first and second drain valves, a drain pressure sensor, and a control system, which is operably connected to the first and second drain valves, the water sensor, and the drain pressure sensor. The water sensor is disposed in the fuel-water separator for detecting the presence of water. The first drain valve is in fluid communication with the fuel-water separator, and the second drain valve is in fluid communication with the first drain valve; a fluid duct connects the first and second drain valves. The drain pressure sensor is positioned in the fluid duct, for detecting pressure levels in the fluid duct. The control system automatically operates the first and second drain valves, for removing purge liquid from the fuel-water separator, based on signal outputs of the water sensor and the drain pressure sensor.

Abstract: A system for automated water drainage in a fuel system includes a fuel-water separator, a water sensor, first and second drain valves, a drain pressure sensor, and a control system, which is operably connected to the first and second drain valves, the water sensor, and the drain pressure sensor. The water sensor is disposed in the fuel-water separator for detecting the presence of water. The first drain valve is in fluid communication with the fuel-water separator, and the second drain valve is in fluid communication with the first drain valve; a fluid duct connects the first and second drain valves. The drain pressure sensor is positioned in the fluid duct, for detecting pressure levels in the fluid duct. The control system automatically operates the first and second drain valves, for removing purge liquid from the fuel-water separator, based on signal outputs of the water sensor and the drain pressure sensor.

Abstract: A locomotive includes an engine (12), an intercooler (16), and an oil cooler (28), each having respective cooling passages formed therein. The locomotive also includes a cooling system (10) in selective communication with the respective cooling passages for selectively providing a first coolant (56) and a second coolant (52) at a higher temperature than the first coolant to the cooling passages. A method of operating the cooling system includes providing, in a first mode, a first coolant flow (26) to the intercooler and a second coolant flow (30) to the oil cooler at a first temperature different than the first coolant flow to achieve preferential cooling of the intercooler. The method also includes providing, in a second mode, the first coolant flow to the intercooler and the second coolant flow to the oil cooler at a second temperature different than the first coolant flow to achieve preferential cooling of the oil cooler.