Abstract:
A system for determining the movement properties of a guided vehicle along a section adapted for a lane signaling control. The vehicle includes at least four onboard transponders that are arranged in pairs. The two transponders of each pair are aligned in parallel to the longitudinal axis of the vehicle, with at least one pair downstream and at least one pair upstream from the vehicle, and providing distinct identification means. At least one transponder reader is provided on the ground at each end of the section. A ground calculator communicates with the readers and determines, upon the passage of at least two transponders of a vehicle, a driving direction and a front/rear intrinsic orientation of the vehicle relative to the lane.
Abstract:
A train system that includes a plurality of coupled train units. Each train unit includes a controller VOBC configured to independently determine the location of each VOBC, and a configuration of the train system by comprising a plurality of inputs, a plurality of train lines spanning each train unit and coupled with the controllers at the plurality of inputs and configured to transmit two communication signals between a front end and a rear end of the train system, and a plurality of sets of relay devices connected in series along the plurality of train lines, and each set of relay devices corresponding to each input of the plurality of inputs, and configured to transmit the two communication signals between the front end and the rear end of the train system.
Abstract:
A system for verifying a route segment that a vehicle is traveling along includes a magnetic sensor and a control unit. The magnetic sensor generates an output signal based on an orientation of the sensor relative to an external magnetic field. The control unit receives an operator-designated route segment. The operator-designated route segment represents a selected route segment of the route segments that is identified by the operator as being the route segment on which the vehicle is traveling. The control unit identifies a directional heading of the vehicle based on the output signal from the magnetic sensor and determines an actual route segment of the routes segments in the network that the vehicle is actually traveling along based on the directional heading of the vehicle. The control unit verifies that the actual route segment on which the vehicle is actually traveling is the selected route segment.
Abstract:
A method of identifying an anomalous orientation definition condition of a remote locomotive (12) of a train includes monitoring an operating condition of the remote locomotive of the train, the remote locomotive configured to operate according to a defined orientation with respect to a lead locomotive of the train. The method also includes identifying an operating condition of the remote locomotive indicative of the remote locomotive operating contrary to an operating condition of the lead locomotive.
Abstract:
The present invention relates to a method and system for automatically identifying various information of a train. The method comprises using sensors to collect wheelbase information, processing the information by signal data processing devices, thereby providing information of a train, namely: arranging a plurality of sensors along the rail in the incoming direction of the train, dividing the sensors into at least three groups, each group comprising at least two sensors; analyzing and processing the signal data stream obtained from the sensors and collected when a train vehicle passes by, thereby acquiring the speed and wheelbase of the train, and further acquiring the train segmentation information; determining the vehicle type; acquiring hook locating information; determining the train arrival; determining the train departure; acquiring vehicle number. The present invention further comprises a system for carrying out the information method for automatically identifying information of a train. The present invention can provide a plurality of types of train information with high accuracy, and is easy to be carried out.
Abstract:
A system for determining number of cars within a train consist includes one or more cars, at least one automatic train controller (ATC) for the one or more cars, and a train line spanning the consist. Each car comprises a frequency generator and a frequency modifier. Each frequency modifier in each of the one or more cars is adapted to receive an input signal at an input frequency and generate an output signal at an output frequency different from the input frequency. A frequency generator in at least one of the cars provides a predetermined input signal at a predetermined input frequency to the frequency modifier in the at least one car when the at least one car is designated as a lead car and at least one frequency modifier in at least one of the one or more cars provides its output signal to the train line.
Abstract:
A method for controlling a railroad train (10) comprising a lead unit (14), a remote unit (12A) and a communications system communicating information between the lead unit (14) and the remote unit (12A), wherein the lead unit (14) and the remote unit (12A) are each operable in a traction operational mode and a dynamic brake operational mode. The method comprises determining operability of the communications system; determining a direction of train travel; determining an operational mode of the lead unit (14) and the remote unit (12A); and indicating a train condition responsive to the operability of the communications system, the direction of train travel and the operational mode of the lead (14) and remote units (12A).
Abstract:
A system for determining number of cars within a train consist includes one or more cars, at least one automatic train controller (ATC) for the one or more cars, and a train line spanning the consist. Each car comprises a frequency generator and a frequency modifier. Each frequency modifier in each of the one or more cars is adapted to receive an input signal at an input frequency and generate an output signal at an output frequency different from the input frequency. A frequency generator in at least one of the cars provides a predetermined input signal at a predetermined input frequency to the frequency modifier in the at least one car when the at least one car is designated as a lead car and at least one frequency modifier in at least one of the one or more cars provides its output signal to the train line.
Abstract:
A method for controlling a railroad train (10) comprising a lead unit (14), a remote unit (12A) and a communications system communicating information between the lead unit (14) and the remote unit (12A), wherein the lead unit (14) and the remote unit (12A) are each operable in a traction operational mode and a dynamic brake operational mode. The method comprises determining operability of the communications system; determining a direction of train travel; determining an operational mode of the lead unit (14) and the remote unit (12A); and indicating a train condition responsive to the operability of the communications system, the direction of train travel and the operational mode of the lead (14) and remote units (12A).