Abstract: A system is provided for operating a railway network including a first railway vehicle during a trip along track segments. The system includes a first element for determining travel parameters of the first railway vehicle, a second element for determining travel parameters of a second railway vehicle relative to the track segments to be traversed by the first vehicle during the trip, a processor for receiving information from the first and the second elements and for determining a relationship between occupation of a track segment by the second vehicle and later occupation of the same track segment by the first vehicle and an algorithm embodied within the processor having access to the information to create a trip plan that determines a speed trajectory for the first vehicle. The speed trajectory is responsive to the relationship and further in accordance with one or more operational criteria for the first vehicle.

Abstract: One embodiment of the invention includes a system for operating a railway network comprising a first railway vehicle (400) during a trip along track segments (401/412/420).

Abstract: A system includes a location determination unit for determining a geographic location of a mobile asset having an engine that produces one or more emissions during use; a memory for storing a plurality of predetermined characteristic profiles, the characteristic profiles including information regarding geographic location and at least one of engine emission levels, noise emission levels, fuel usage levels, power output, load manifest, or speed level; a processor in communication with the memory for accessing the characteristic profile for the determined location of the mobile asset and generating a control command responsive to a selected characteristic profile; and a control unit on board the mobile asset controlling an operation of the mobile asset responsive to the control command. Associated methods are provided.

Abstract: A locomotive (10) is operable in two or more distinct configurations, with the change in configuration being response to a configuration input signal (35). A locomotive configuration is represented by the set of end use device control signals (13) that are generated by the locomotive control systems (22) in response to the respective set of operational input values (27). 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., 104).

Abstract: One embodiment of the invention includes a system for operating a railway network comprising a first railway vehicle (400) during a trip along track segments (401/412/420).

Abstract: A system for controlling, a response to an operator, a consist of at least first and second locomotives having discrete operating modes. The system comprises an operator control, a first controller, a second controller, and a communication link. Alternatively, the system and method includes control modules which may be retrofitted to an existing consist control. The power operating modes of the locomotives within a consist are selected to optimize the operation of the consist. The operation of the consist may be optimized for any number of factors including optimizing for braking capacity, as a function of the location, base on a performance parameter which is a function of a performance profile or the location of a crew member.

Abstract: The system and method for controlling a consist of at least first and second locomotives having discrete operating modes. The method comprises receiving a control command and determining a power operating mode of the first locomotive and a power operating mode of the second locomotive as a function of the control command and an optimization parameter. The power operating mode of the second locomotive is different as compared to the power operating mode of the first locomotive in at least one mode of operation of the method. The method further comprises controlling the first locomotive responsive to the power operating mode of the first locomotive and controlling the second locomotive responsive to the power operating mode of second locomotive.

Abstract: A method and system for an automatic engine stop and start system in a locomotive that includes deactivating the automatic engine stop system in response to receiving an instruction to prevent the automatic engine stop system from automatically shutting down the locomotive without otherwise disabling the continued operation of the automatic engine stop system. The invention is also an apparatus for controlling a locomotive equipped with an automatic engine stop system. The apparatus includes a receiving interface for receiving a deactivation command from the automatic engine stop system. The apparatus also includes an input device for receiving an instruction to override the received deactivation command. The apparatus further includes a transmitting interface coupled to the input device for transmitting a control command.

Abstract: A method and system for an automatic engine stop and start system in a locomotive that includes deactivating the automatic engine stop system in response to receiving an instruction to prevent the automatic engine stop system from automatically shutting down the locomotive without otherwise disabling the continued operation of the automatic engine stop system. The invention is also an apparatus for controlling a locomotive equipped with an automatic engine stop system. The apparatus includes a receiving interface for receiving a deactivation command from the automatic engine stop system. The apparatus also includes an input device for receiving an instruction to override the received deactivation command. The apparatus further includes a transmitting interface coupled to the input device for transmitting a control command.

Abstract: A system for controlling, a response to an operator, a consist of at least first and second locomotives having discrete operating modes. The system comprises an operator control, a first controller, a second controller, and a communication link. Alternatively, the system and method includes control modules which may be retrofitted to an existing consist control. The power operating modes of the locomotives within a consist are selected to optimize the operation of the consist. The operation of the consist may be optimized for any number of factors including optimizing for braking capacity, as a function of the location, base on a performance parameter which is a function of a performance profile or the location of a crew member.

Abstract: A system and method for controlling, a response to an operator, a consist of at least first and second locomotives having discrete operating modes. The system and method comprises an operator control, a first controller, a second controller, and a communication link. Alternatively, the system and method includes control modules which may be retrofitted to an existing consist control. The power operating modes of the locomotives within a consist are selected to optimize the operation of the consist. The operation of the consist may be optimized for any number of factors including optimizing for braking capacity, as a function of the location, base on a performance parameter which is a function of a performance profile or the location of a crew member.

Abstract: A locomotive monitoring system defines several mutually exclusive operating states for a locomotive. The amount of time the locomotive operates in each state is preferably determined and recorded. This recorded information can then be evaluated with a view towards improving locomotive operations. For example, a plurality of mutually exclusive idle states can be defined and monitored to determine how long a locomotive idles under certain conditions instead of automatically shutting down for the purpose of conserving fuel. In this manner, the sources of lost fuel savings can be readily identified, quantified and addressed. An event log is also provided for chronicling certain operating events of interest over time, such as those relating to the starting, stopping and/or idling of the locomotive's engine.

Abstract: The system and method for controlling a consist of at least first and second locomotives having discrete operating modes. The method comprises receiving a control command and determining a power operating mode of the first locomotive and a power operating mode of the second locomotive as a function of the control command and an optimization parameter. The power operating mode of the second locomotive is different as compared to the power operating mode of the first locomotive in at least one mode of operation of the method. The method further comprises controlling the first locomotive responsive to the power operating mode of the first locomotive and controlling the second locomotive responsive to the power operating mode of second locomotive.

Abstract: An automatic start/stop system for locomotive engines which takes into account operator needs and concerns by enabling operators to locally prevent automatic shutdowns of their locomotives without disabling their AESS systems. Thus, operators can maintain their lead (and/or other) units running (i.e., for peace of mind, climate control, etc.) without prohibiting other locomotives in consist from automatically shutting down. The system preferably includes an inhibit switch located in each locomotive control cabin which, when actuated by an operator, prevents that locomotive (and only that locomotive) from automatically shutting down within a predefined duration of time. Techniques for reminding and prompting an operator to enable an AESS system include sounding an alarm, displaying and recording fault data, and inhibiting motoring of the locomotive when the AESS system is disabled and the operator calls for braking or motoring capability.

Abstract: A system and method for controlling, a response to an operator, a consist of at least first and second locomotives having discrete operating modes. The system and method comprises an operator control, a first controller, a second controller, and a communication link. Alternatively, the system and method includes control modules which may be retrofitted to an existing consist control. The power operating modes of the locomotives within a consist are selected to optimize the operation of the consist. The operation of the consist may be optimized for any number of factors including optimizing for braking capacity, as a function of the location, base on a performance parameter which is a function of a performance profile or the location of a crew member.

Abstract: A locomotive monitoring system defines several mutually exclusive operating states for a locomotive. The amount of time the locomotive operates in each state is preferably determined and recorded. This recorded information can then be evaluated with a view towards improving locomotive operations. For example, a plurality of mutually exclusive idle states can be defined and monitored to determine how long a locomotive idles under certain conditions instead of automatically shutting down for the purpose of conserving fuel. In this manner, the sources of lost fuel savings can be readily identified, quantified and addressed. An event log is also provided for chronicling certain operating events of interest over time, such as those relating to the starting, stopping and/or idling of the locomotive's engine.

Abstract: An automatic start/stop system for locomotive engines which takes into account operator needs and concerns by enabling operators to locally prevent automatic shutdowns of their locomotives without disabling their AESS systems. Thus, operators can maintain their lead (and/or other) units running (i.e., for peace of mind, climate control, etc.) without prohibiting other locomotives in consist from automatically shutting down. The system preferably includes an inhibit switch located in each locomotive control cabin which, when actuated by an operator, prevents that locomotive (and only that locomotive) from automatically shutting down within a predefined duration of time. Techniques for reminding and prompting an operator to enable an AESS system include sounding an alarm, displaying and recording fault data, and inhibiting motoring of the locomotive when the AESS system is disabled and the operator calls for braking or motoring capability.