A train control method includes: acquiring a current control level of the train and outputting the current control level to a train traction control system; acquiring current train operation data and calculating an evaluation score according to the current train operation data by the train traction control system; and inputting the current train operation data and the evaluation score into a neural network learning system to adjust the current control level of the train to obtain a final outputted control level.

A railroad personnel scheduling and management system is disclosed. The system may include a personnel database storing qualification data associated with a plurality of railroad personnel and a controller comprising a personnel management module and a communication module. The controller may be configured to receive railroad asset data and personnel location data via the communication module and select a primary personnel from the plurality of railroad personnel in conjunction with the personnel management module and based on the qualification data, the railroad asset data, and the personnel location data. The controller may also be configured to generate a dispatch signal based on the railroad asset data and communicate the dispatch signal to the primary personnel via the communication module.

In order to simplify the troubleshooting in a cableway during operation of the cableway, a unique car identification is assigned to each car, with the car identification of each car being known by the cableway control system. At least one function monitoring unit transmits malfunctions triggered by cars during the operation of the cableway to the cableway control system in a function status message FSi. The cableway control system assigns a malfunction that was received to the triggering car and the malfunctions together with the car identification of the triggering car are stored and evaluated in the cableway control system.

In order to simplify the troubleshooting in a cableway during operation of the cableway, a unique car identification is assigned to each car, with the car identification of each car being known by the cableway control system. At least one function monitoring unit transmits malfunctions triggered by cars during the operation of the cableway to the cableway control system in a function status message FSi. The cableway control system assigns a malfunction that was received to the triggering car and the malfunctions together with the car identification of the triggering car are stored and evaluated in the cableway control system.

A monitoring system for detecting a condition in a vehicle, including at least one imaging device having a field of view including at least a portion of an interior cabin of the vehicle occupied by an operator of the vehicle during operation, a data storage medium configured to store parameter data in a database, the parameter data including control parameter data for the interior cabin of the vehicle, and at least one processor in communication with the at least one imaging device and the data storage medium. The at least one processor is programmed or configured to receive operational image data from the at least one imaging device, generate operational parameter data from the operational image data, compare the operational parameter data to the control parameter data, and determine if at least one operator is absent from the interior cabin and/or if at least one unauthorized display device is present in the vehicle.

The invention relates to a device, to a system, and to a method for detecting an offset between two joined, in particular pressure joined components during operation of said components and to the use of an RFID transponder for detecting an offset between two joined, in particular pressure joined components during operation of said components. In respect of the device, there is a first element, provided for attaching to one of the components, and a second element, provided for attaching to the other of the components, wherein the first and second element are coupled and/or can be coupled to each other across a joint of the components such that an offset influences the coupling, wherein the device furthermore has a transmission unit, which is designed to transmit a state and/or a dimension of the coupling without contact.

A control system is disclosed for use with a locomotive. The control system may have a component located onboard the locomotive, the component having a first state and a second state. The control system may also have an operator input device located onboard the locomotive and used to manually toggle operation of the component between the first and second states, and at least one sensor located onboard the locomotive and configured to generate a signal associated with a condition of the locomotive. The control system may also have an offboard controller located remotely from the locomotive and being configured to selectively override the operator input device and toggle operation of the component between the first and second states based on the signal.

Various methods and systems are provided for a railyard system. In one example, a method for managing a railyard comprises, within the railyard, positioning a cargo unit on a multi-directional pad and moving the pad multi-directionally based on a requested order for the cargo unit relative to other cargo units, where the requested order corresponds to an order of cargo units on railcars of an outbound train. The multi-directional pad may operate within an arena, where the arena includes a concrete surface depressed into the ground such that a surface of the pad is level with a surface of the ground surrounding the arena, thereby allowing railcars to be pushed onto the pad by a locomotive of a train.

A vehicle control system receives a proximity signal at a sensor assembly from a vehicle system. The proximity signal indicates that the vehicle system is approaching a location of the sensor assembly. A sensor of the sensor assembly is activated responsive to receiving the proximity signal. One or more characteristics of the vehicle system are sensed as the vehicle system moves by the sensor assembly. A sensor signal that represents the one or more characteristics of the vehicle system is communicated to an onboard controller of the vehicle system and/or an off-board system to control operation of the vehicle system based on the one or more characteristics of the vehicle system.

A condition monitoring system for bearing units for vehicles, the system including at least one condition monitoring unit for measuring at least one operating parameter of one bearing unit and a control unit for receiving and processing signals obtained from the condition monitoring unit. The system additionally includes a circuit for detecting a geographic position, wherein the condition monitoring unit is configured to be at least one of activated and deactivated depending on the detected geographic position.