A system and method for monitoring failure of a train within a tunnel is disclosed. The method comprises receiving, by the central server, an estimated crossing time for the train to cross the tunnel and the latest location of the train from a telemetry system onboard the train. The telemetry system comprises a Head-of-Train device communicatively coupled to an End-of-Train device. The method further comprises detecting a failure event associated with the train, by the central server, if an attempt to establish communication with the telemetry system is unsuccessful after the estimated crossing time. The method further comprises broadcasting, by the central server, an emergency alert message indicating the failure event to one or more receiving devices based on the latest location of the train. The receiving device is associated with at least one of an operator control station and an adjacent train.

A train control method is provided for a vehicle on-board controller (VOBC) configured on one end of a train. The method includes: performing a train awakening process; acquiring a running plan sent by an automatic train supervision (ATS) system after the train is successfully awakened; setting, according to a direction indicated by the running plan, a running direction of the train to be downward or upward; when the running direction is set to downward, using, as a head for train positioning, one end of the train not configured with the VOBC, to acquire positioning information of the train; when the running direction is set to upward, using, as the head for train positioning, one end of the train configured with the VOBC, to acquire the positioning information of the train; and controlling, according to the positioning information of the train, the train to pull out of a parking garage.

The present invention relates to a cloud simulation apparatus and method for verifying a rail transit-oriented full-automatic unmanned driving scene, where the apparatus includes a cloud access terminal and a cloud server terminal. The cloud server terminal includes a central dispatching module, a station control module, a rail-mounted module, an interface logic management layer, and a device base layer, the cloud access terminal is connected to the central dispatching module, the central dispatching module is connected to the station control module and the rail-mounted module respectively, every two of the station control module, the rail-mounted module, and the interface logic management layer are connected, and the interface logic management layer is connected to the device base layer. Compared with the prior art, the present invention has the advantages that a fault injection test can be performed flexibly, a function test under degradation and emergency operation scenes can be performed more comprehensively, and a large-scale verification work on site can be avoided, and the like.

A simulation system, device, and method for testing a train management system on a road-rail vehicle is provided. The simulation system includes: a brake pressure simulation device adapted to be connected to a first input of the train management computer, the brake pressure simulation device including at least one circuit configured to output signals representative of at least one brake pipe pressure; and a speed simulation device adapted to be connected to a second input of the train management computer, the speed simulation device configured to detect a speed of the road-rail vehicle and output signals representative of the speed. Also disclosed is a simulation system wherein the at least one circuit of the brake pressure simulation device is configured to have variable resistances.

A system and method for simulating a train management computer on a road-rail vehicle are provided. The system includes at least one portable enclosure, a power source disposed in the at least one portable enclosure, and a train management computer disposed in the at least one portable enclosure, the train management computer adapted to be connected to the power source.

There is provided an information processing apparatus including an extraction section which extracts, out of pieces of detection information each including position information and motion detection data acquired by terminal devices of respective users, detection information of a user on a specific train, based on the position information, and an estimation section which estimates distribution of people on the train based on the motion detection data included in the detection information extracted by the extraction section.

A method for managing a railway vehicle which comprises a motor (6) connected to a chassis (2), a first (3) and a second axle (4) functionally connected to the motor (6); a first transmission member (7) of hydrostatic type and a second transmission member (8) of hydrodynamic type (generally defined “gear”, which can be of hydrodynamic or mechanical type) for connecting the motor to the first and second axle; the method comprising the steps of selecting a configuration for managing the vehicle (1) and switching said vehicle between a first operative condition, in which the first transmission member (7) or the second transmission member (8) is active, and a second operative condition, in which both the first transmission member (7) and the second transmission member (8) are simultaneously active, at least as a function of the vehicle (1) management configuration.

A signaling system includes an on-board device provided for a moving vehicle traveling on a track, and a station interface device provided for a station, and a branch provided on the track. A second moving vehicle transmits different moving vehicle related data of itself to a first on-board device of a first moving vehicle. The first station interface device transmits station related data of the branch to the first on-board device. The first on-board device outputs a command which instructs to switch the branch, to the first station interface based on the different moving vehicle related data and the station related data, to secure the traveling route. The first station interface device switches the branch and secures the traveling route. The first on-board device determines the traveling of the first moving vehicle of the secured traveling route based on the different moving vehicle related data.

A system for managing the transportation of crude oil by rail includes a user terminal having a display screen and a processing system coupled to the user terminal through a communications link. The processing system is operable to generate a user interface on the display screen of the user terminal receiving input information from a user, including information indicating a loading facility for loading a selected set of railcars and an unloading facility for unloading the selected set of railcars. The processing system is further operable to forecast an arrival time for the set of cars at the loading facility and an arrival time for the set of cars at the unloading facility and display the forecasted arrival times at the loading and unloading facilities on the display screen of the user terminal.

A method for carrying out a test process relating to a rail vehicle achieves a fast-working, flexible, and in the event of a misdetection, precise monitoring environment, in particular without complex system or architectural adjustments to the rail vehicle. A stationary control unit and a simulation unit are provided on the land side. A data connection is established between the stationary control unit and the rail vehicle. A data connection is established between the stationary control unit and the simulation unit. The test process includes providing data traffic between the stationary control unit and the rail vehicle and the simulation unit. A device for carrying out a test process relating to a rail vehicle is also provided.