Abstract:
In one aspect, the present invention relates to identifying locomotive consists within train consists, and determining the order of the locomotives within the identified locomotive consists. By identifying locomotive consists and the order of locomotives within such consists, a railroad can better manage it locomotive fleet. In one exemplary embodiment, an on-board tracking system for being mounted to each locomotive of a train includes locomotive interfaces for interfacing with other systems of the particular locomotive, and a computer coupled to receive inputs from the interface, and a GPS receiver and a satellite communicator (transceiver) coupled to the computer. Generally, the onboard tracking systems determine the absolute position of the locomotive on which it is mounted and additionally, obtain information regarding specific locomotive interfaces that relate to the operational state of the locomotive. Each equipped locomotive operating in the field determines its absolute position and obtains other information independently of other equipped locomotives. Position is represented as a geodetic position, i.e., latitude and longitude. As locomotives provide location and discrete information from the field, a central data processing facility receives the raw locomotive data. The data center processes the locomotive data and determines locomotive consists.
Abstract:
A method for identifying locomotive consists within train consists determines an order and orientation of the locomotives within the identified locomotive consists. An on-board tracking system is mounted to each locomotive and includes locomotive interfaces for interfacing with other systems of the particular locomotive, a computer for receiving inputs from the interface, a GPS receiver, and a satellite communicator (transceiver). As locomotives provide location and discrete information from the field, a central data processing facility receives the raw locomotive data. The data center processes the locomotive data and determines locomotive consists.
Abstract:
A method for identifying locomotive consists within train consists determines an order and orientation of the locomotives within the identified locomotive consists. An on-board tracking system is mounted to each locomotive and includes locomotive interfaces for interfacing with other systems of the particular locomotive, a computer for receiving inputs from the interface, a GPS receiver, and a satellite communicator (transceiver). As locomotives provide location and discrete information from the field, a central data processing facility receives the raw locomotive data. The data center processes the locomotive data and determines locomotive consists.
Abstract:
An automatic identification system having a storage device mounted on the car, which includes the car identification data. A reading device is connected to a local communication node which communicates with the locomotive in a network. The local communication node communicates the read identification data to the controller at the locomotive. The identification data includes at least the serial number, brake ratio, light weight and gross rail weight of the car. The storage device is permanently mounted on the car, preferably at a junction box or pipe bracket. A current sensor is also connected to the local communication node. The storage device and current sensor are part of a subsidiary communication node under the control of the communication node.
Abstract:
A method of serialization including establishing a parameter along a length of the train between a node on one of the cars and one end of the train. The presence of the parameter at each node is determined and the parameter is removed. The sequence is repeated for each node on the train. Finally, serialization of the cars is determined as a function of the number of determined presences of the parameter for each node. The parameter can be established by providing at the individual node, one at a time, an electric load across an electric line running through the length of the train and measuring an electrical property, either current or voltage, at each node. To determine the orientation of a car, each node include two subnodes. The operability of each node is determined by counting the presence and then the absence of a parameter along the whole train.
Abstract:
A vehicle initialization system for a control system that includes a vehicle, such as a train that is to be initialized, a vehicle track, a first reader, an onboard computer and a tachometer. The vehicle is adapted to coact with the track. At least two spaced apart position identifiers are positioned along the track. The first reader attaches to the vehicle and is adapted to read information from the position identifiers and relay the information to the onboard computer. The tachometer is also interfaced with the onboard computer, so that as the vehicle passes the position identifiers, the tachometer can be calibrated and the vehicle direction of travel and the vehicle orientation can be determined. The system also includes a vehicle identifier adapted to identify the vehicle characteristics. A second reader is positioned along the track and is adapted to read the vehicle identifier as the vehicle travels along the track. A wayside computer interfaces with the second reader. A wheel detector and a trip stop for preventing the vehicle from proceeding along the track are provided along the track and are interfaced with the wayside computer. The trip stop prevents the vehicle from proceeding on the track if information transmitted by the vehicle identifier is not verified by the wheel detector.
Abstract:
Train monitoring equipment for a train formed by coupling a plurality of sets of cars of fixed formations, comprising monitoring stations mounted in the respective cars of the train and connected serially by transmission lines. Presetting switches are provided in the respective monitoring stations for presetting the formation numbers of the sets of cars in which the respective monitoring stations are located. One of the monitoring stations which serves as the control station transmits its formation number to the other monitoring stations which then register their station numbers on the basis of conformity or non-conformity of the preset formation numbers with the received formation numbers.
Abstract:
Described herein are techniques for determining motion characteristics of trains traveling along a train track. In some embodiments, a processor may determine an estimated position of a train using an observed position obtained using one or more UWB antennas and an observed position obtained using one or more GNSS receivers. In some embodiments, a processor may access information specifying a geometry of a train track and determining the position of a train along the train track using an observed position determined using one or more UWB antennas and/or GNSS receiver(s) and the information specifying the geometry of the train track. In some embodiments, a processor may determine estimated positions of a train using the geometry of the train track and at least one observation of the train obtained using one or more positioning devices and select the position of the train from among the estimated positions.
Abstract:
The present disclosure generally relates to work block encroachment warning systems for providing protection for rail workers working in a mobile or fixed work block. For example, a vehicle (V)-aware unit installed on a moving rail vehicle and a work block limit encroachment unit mounted on a railroad may wirelessly communicate with each other to determine a distance between them. When a vehicle is moving toward an occupied work block, the distance may be used to identify potential hazards.
Abstract:
A communication system and method receive, at an energy management system disposed onboard a vehicle system formed from a lead vehicle and one or more remote vehicles, trip data that represents one or more characteristics of an upcoming trip of the vehicle system along a route. A selected portion of the trip data is communicated from the energy management system to a distributed power system disposed onboard the vehicle system. The selected portion includes identifying information and one or more orientations of the one or more remote vehicles. Using the distributed power system, communication links between the lead vehicle and the one or more remote vehicles are established using the identifying information and the one or more orientations.