Abstract: A train control device includes a train position detector, a storage, and an in-vehicle controller. The train position detector detects a traveling position of a train. The storage stores therein a traveling position of the train when a loss of contact of the current collector occurs, as a loss-of-contact position. When the train travels in a predetermined section including the loss-of-contact position with reference to the traveling position of the train and the storage, the in-vehicle controller causes the train to perform coasting traveling in the predetermined section.

Abstract: A train control device, according to one embodiment, includes a storage unit, an acquiring unit, and a control unit. The storage unit is configured to store therein information of a plurality of limit speeds corresponding to a plurality of respective blocks and being determined based on a block on which a preceding train traveling at least one ahead is located. The acquiring unit is configured to acquire schedule information of the preceding train indicating a time at which the preceding train exits each of the blocks. The control unit is configured to determine a limit speed in each of the blocks associated with a travel of a train, based on the acquired schedule information and the information of the limit speeds; and to create a travel plan of the train using the determined limit speed.

Abstract: According to an embodiment, a train control device includes an acceleration detection unit and a train control unit. The acceleration detection unit detects acceleration of a train along a rotation radius direction, when the train is turning and passing a curved section of a rail line with a cant. The train control unit sets a passing speed of the train passing through the curved section so that a state of the train is placed in a balanced cant, based on a direction of the detected acceleration.

Abstract: According to a train control device, generally, a train-speed position detector that detects a speed and a position of a train that includes a driving and braking control device for controlling driving and braking. A control-command calculator calculates a positional deviation of the train on the basis of a result of the detection the train-speed position detector, a train-speed estimate being an estimated value of the speed of the train after a certain length of time, a train-position estimate being an estimated value of the position of the train after the certain length of time, and a certain target deceleration pattern for stopping the train at a certain position, and selects a control command for the driving and braking control device on the basis of the calculated positional deviation.

Abstract: According to an embodiment, a train control device includes an acceleration detection unit and a train control unit. The acceleration detection unit detects acceleration of a train along a rotation radius direction, when the train is turning and passing a curved section of a rail line with a cant. The train control unit sets a passing speed of the train passing through the curved section so that a state of the train is placed in a balanced cant, based on a direction of the detected acceleration.

Abstract: A train control device includes a train position detector, a storage, and an in-vehicle controller. The train position detector detects a traveling position of a train. The storage stores therein a traveling position of the train when a loss of contact of the current collector occurs, as a loss-of-contact position. When the train travels in a predetermined section including the loss-of-contact position with reference to the traveling position of the train and the storage, the in-vehicle controller causes the train to perform coasting traveling in the predetermined section.

Abstract: A train control device, according to one embodiment, includes a storage unit, an acquiring unit, and a control unit. The storage unit is configured to store therein information of a plurality of limit speeds corresponding to a plurality of respective blocks and being determined based on a block on which a preceding train traveling at least one ahead is located. The acquiring unit is configured to acquire schedule information of the preceding train indicating a time at which the preceding train exits each of the blocks. The control unit is configured to determine a limit speed in each of the blocks associated with a travel of a train, based on the acquired schedule information and the information of the limit speeds; and to create a travel plan of the train using the determined limit speed.

Abstract: A train control device includes a detector that detects the current location and speed of the train, a clock unit that tracks the current time, a schedule input section by which the schedule data including the scheduled arrival time of the train at each station on the line is input, and a computing unit that computes an operating schedule according to which the train runs at the detected location and the detected speed to the next station, based on a target operation time that is obtained by subtracting the current time from the scheduled arrival time at the next station, operation characteristics of the train and a condition of the line.

Abstract: According to one embodiment, a train control system for a train is disclosed, the control system includes a speed detection unit configured to detect the train speed, a position detecting unit configured to detect position information of the train, a signal aspect speed receiver to receive signal aspect speed information from outside the train, an automatic train operation (ATO) unit that is configured to output a first throttle notch command to drive the train between stations and to stop the train at a target position, a specification notch pattern output unit configured to selectively output a second throttle notch control command. The signal aspect speed information includes a speed limit for a location. The first output throttle notch command is based, at least in part, on the signal aspect speed information.

Abstract: According to one embodiment, a train control system for a train is disclosed, the control system includes a speed detection unit configured to detect the train speed, a position detecting unit configured to detect position information of the train, a signal aspect speed receiver to receive signal aspect speed information from outside the train, an automatic train operation (ATO) unit that is configured to output a first throttle notch command to drive the train between stations and to stop the train at a target position, a specification notch pattern output unit configured to selectively output a second throttle notch control command. The signal aspect speed information includes a speed limit for a location. The first output throttle notch command is based, at least in part, on the signal aspect speed information.

Abstract: A rail vehicle internal information network device has modulating transmission devices (11) that transmit modulated signals in accordance with the characteristics of the transmission wire and that demodulate received signals, and a transmission wire (12) that transmits signals and connects the modulating transmission devices (11), wherein the modulating transmission devices (11) have transmission output adjustment means (20) constituted by means for preventing lowering of transmission performance by avoiding the effect of external noise or the effect of signal interference. In this way, a high-speed information network in a rail vehicle can be constructed without employing coaxial cable or shielded wire as transmission wires for high-frequency communication.

Abstract: A distributed control device in a decentralized supervisory control system comprises an I/O interface, a data storage section for storing PIO data from a controller and additional information such as data obtention time, a time obtention section for adding a time to the data when the data is stored in the data storage section, a data distribution section for distributing the PIO data and other supervisory information, a supervisory control section for carrying out supervisory control using the PIO data from the controller, a network interface for communicating with other distributed control devices and the supervisory device, and a communication section for connecting this distributed control device to the other distributed control devices and the supervisory device.