General Electric Company

Leonard Hill

Steven Andrew Kellner

Ajith Kuttannair Kumar

James Glen Corry

Wolfgang Daum

Glenn Robert Shaffer

Daniel F Wolf

Ning Zhang

Scott Sexauer

Mirza Aref Ahmed Baig

Richard L Evans

Christopher E Pallo

Bruce M Sweeley

Robert Dean King

Mark Bradshaw Kraeling

Daniel Malachi Ballesty

Glen Paul Peltonen

James Kiss

Bradley Charles Hendrickson

Chi-Houng Eddie Lu

Gerald James Hess

Steven Matthew Pelkowski

Method for controlling the level of tractive efforts in a train having a first locomotive at a head end of the train, constituting a lead locomotive, and a second locomotive positioned in the train behind the lead locomotive, constituting a remote locomotive, with the remote locomotive being configured to selectively operate in either of two modes of operation, such as a first mode in which the locomotive operates at a full tractive effort level of operation and a second mode in which the locomotive operates in a partial tractive effort level of operation producing a tractive effort which is less than the full tractive effort of the locomotive. The method allows selecting (e.g., at the lead locomotive) one of the two modes of operation for producing a level of tractive effort appropriate for conditions as the train moves along a length of track. The method further allows transmitting a signal indicative of the selected mode of operation from the lead locomotive to the remote locomotive. The signal is received at the remote locomotive. The tractive effort generated at the remote locomotive is controlled so as not to exceed the selected level.

System and method for selectively limiting tractive effort to facilitate train control

A locomotive () is operable in two or more distinct configurations, with the change in configuration being response to a configuration input signal (). A locomotive configuration is represented by the set of end use device control signals () that are generated by the locomotive control systems () in response to the respective set of operational input values (). For a given set of operational input values, a first set of end use device control signals is generated when a configuration input has a first value, and a second set of end use device control signals is generated when a configuration input has a second value. The configuration input variable is responsive to an emission profile associated with the locomotive location. A value of a locomotive emission parameter corresponding to the emission profile is monitored and saved in a storage device (e.g.,).

System and method for managing emissions from mobile vehicles

A hybrid power locomotive system has a plurality of combustion engines for driving a plurality of electric power generators that supply electric power to at least one traction battery. The battery is connected to supply power to a plurality of electric traction motors coupled in driving relationship to respective ones of a plurality of wheel-axle sets of the locomotive. At least one traction motor drive is connected for controlling power to the electric traction motors. An electric power controller is arranged for coupling electric power from the power generators to the battery and senses the available energy in the battery and the power demand from the traction drives for activating selected ones of the plurality of combustion engines for charging the battery.

Multiple engine hybrid locomotive

A locomotive () is operable in two or more distinct configurations, with the change in configuration being response to a configuration input signal (). A locomotive configuration is represented by the set of end use device control signals () that are generated by the locomotive control systems () in response to the respective set of operational input values (). For a given set of operational input values, a first set of end use device control signals is generated when a configuration input has a first value, and a second set of end use device control signals is generated when a configuration input has a second value. The configuration input variable may be responsive to the locomotive location, a wayside device signal, an operator action or the health of the locomotive, for example. Locomotive configuration changes may include peak horsepower rating, number of engine cylinders fueled, number of throttle notch settings, adhesion limits, mission priorities or emission profile, for example.

Configurable locomotive

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Erie, PA, United States of America

Leonard Hill