Abstract: An assembly comprising a coolant circuit for an internal combustion engine, wherein the internal combustion engine can be thermally coupled to at least one coolant circuit through which is flowing a coolant with a maximum permissible coolant temperature. The coolant circuit is or is capable of being temporarily thermally coupled via at least one heat exchanger to a latent heat accumulator. The latent heat accumulator has a latent heat accumulator medium with a phase transition temperature that is higher than the maximum permissible coolant temperature. The latent heat accumulator medium is disposed in a vessel of the latent heat accumulator. The vessel is displaceable relative to the at least one heat exchanger. The vessel and the heat exchanger can be brought into at least two different relative positions in which the transfer of heat from the latent heat accumulator medium to the coolant in the coolant circuit varies.

Abstract: Disclosed is a spring assembly for level controlled support of a wagon body on a running gear of a vehicle, in particular of a railway vehicle, including a spring device and an actuator device, wherein the spring device takes up a first installation space, the actuator device takes up a second installation space, the spring device and the actuator device are connected to each other in a direction of action in a kinematically serial arrangement, and the actuator device is designed for at least partially compensating for a change in length of the spring device in the direction of action by a displacement at an actuator component in the direction of action, and wherein the first installation space and the second installation space overlap each other in the direction of action in an overlapping region. Also disclosed is a vehicle having such a spring assembly.

Abstract: A running gear frame for a rail vehicle includes a central transverse beam, and two longitudinal beams connected together in a frame transverse direction via the transverse beam, wherein the transverse beam has at least a front web element, a rear web element and a transverse beam lower chord. The web elements run between the longitudinal beams in the frame transverse direction and in a frame height direction and are connected therewith and are arranged spaced apart in a frame longitudinal direction. The transverse beam lower chord extends on an underside of the transverse beam between the longitudinal beams and is connected with the web elements. Furthermore, the transverse beam lower chord extends beyond the front web element and/or the rear web element by at least 10% of the web element distance.

Abstract: The present invention relates to a drive motor for transverse mounting in a running gear of a rail vehicle with a motor housing (105.2) and a motor shaft (105.1), wherein the motor shaft (105.1) in the mounted state is oriented in a transverse direction of the running gear (103) and the motor housing (105.2) extends over a housing width in the transverse direction of the running gear (103). The motor housing (105.2), on its underside, has a flattened region (105.3), wherein the flattened region (105.3) extends over at least 50% of the housing width and the flattened region (105.3) in at least one peripheral region forms an edge (105.4, 105.5) running in the transverse direction.

Abstract: Disclosed is a vehicle, in particular rail vehicle, with a wagon body and an running gear on which the wagon body is supported, wherein the wagon body and the running gear define a vehicle longitudinal direction, a vehicle transverse direction and a vehicle height direction. A tilting mechanism is arranged between the wagon body and the running gear, which is designed to impose, during a transverse displacement in the vehicle transverse direction, upon the wagon body a rolling motion about a rolling axis parallel to the vehicle longitudinal direction. The tilting mechanism comprises a transverse decoupling device, which is designed to reduce the stiffness of the tilting mechanism against a pure transverse displacement of the wagon body with respect to the running gear. The invention furthermore relates to a corresponding tilting mechanism.

Abstract: In a system and method of supplying proper polarity electrical power to positive and negative conductors of a vehicle, first and second pairs of vehicle mounted contacts are electrically connected between positive and negative conductors of a first electrical bus and the positive and negative conductors of the vehicle, respectively. In response to the first pair of contacts moving into a space or gap between the first electrical bus and a second electrical bus, the first pair of contacts is isolated from the positive and negative conductors of the vehicle. In response to the vehicle moving the first pair of contacts into contact with the second electrical bus while the second pair of contacts are electrically connected to the first electrical bus, the first pair of contacts is electrically connected between the negative and positive conductors of the vehicle and negative and positive conductors of the second electrical bus, respectively.

Abstract: Disclosed is a system for transferring electric energy to a vehicle, in particular to a track bound vehicle such as a light rail vehicle. The system includes an electric conductor arrangement for producing an alternating electromagnetic field and for thereby transferring the energy to the vehicle. The electric conductor arrangement includes at least one alternating current line. Each alternating current line to carry carries one phase of an alternating electric the current. The conductor arrangement includes a plurality of consecutive segments. The segments extend along the path of travel of the vehicle. Each segment includes one section of each of the at least one alternating current line.

Abstract: A method for controlling an active running gear of a rail vehicle including at least one first wheel unit with two wheels, wherein by means of at least one first actuator, which acts between the first wheel unit and a vehicle structure supported thereon by means of a first primary spring mechanism, the turning angle of the first wheel unit about a vertical running gear axis relative to the vehicle structure is adjusted, in a first frequency range, as a function of the actual curvature of the track and/or the turning angle of the first wheel unit about a vertical running gear axis relative to the vehicle structure is adjusted, in a second frequency range, such that transversal movements at least of the first wheel unit, caused by track outlay disturbances or by a sinusoidal course, are counteracted.

Abstract: Disclosed is an arrangement for electrically contacting a component, in particular a capacitor for a power converter of a rail vehicle, wherein the component includes a protruding pin for applying and/or positioning parts in order to produce the electrical contact. The arrangement a first element which has a through-bore extending in a longitudinal direction therethrough for inserting the pin, a second element which has a through-bore extending in a longitudinal direction therethrough for inserting the pin, and a contact plate of an electrically conductive material, which comprises a contact plate end region. The contact plate end region has a slot extending from a free end into the contact plate end region and the width of the slot is sufficiently large to accommodate the pin.

Abstract: A running gear frame for a running gear of a rail vehicle with a frame body, which is configured to be supported at least on one wheel unit of the running gear. The frame body has two longitudinal beams extending in a longitudinal direction of the running gear and at least one transverse beam extending in a transverse direction of the running gear. The transverse beam substantially rigidly connects the two longitudinal beams to each other. The frame body is at least partially made of grey cast iron material.

Abstract: A rail vehicle having a car body, which is supported on a running gear by a spring device, and a rolling compensation device, which is coupled to the running gear and the car body. The rolling compensation device may be arranged kinematically in parallel to the spring device. The rolling compensation device counteracts rolling motions of the car body toward the outside of the curve about a rolling axis during travel in curves. The rolling compensation device, in order to increase the tilting comfort, is designed to impose, in a first frequency range and under a first transverse deflection of the car body, upon the car body, a first rolling angle about the rolling axis, which corresponds to a current curvature of a current section of track being traveled.

Abstract: A rotation impeding device for a vehicle having a first vehicle component comprising a running gear and a second vehicle component comprising a wagon body supported thereon the rotation impeding device comprising a friction element carrier for a first friction element, wherein the friction element carrier is connectable to the running gear or the wagon body in such a manner torsionally rigid about a height axis of the vehicle that the wagon body is supported on the running gear by means of the friction element, wherein the wagon body is rotatable relative to the running gear under a friction-laden relative movement between the first friction element and a second friction element impeding a rotation about the height axis.

Abstract: A pin extraction stabilizer for an connector housing is disclosed. The housing includes a top surface and a bottom surface and defines one or more connector pin cavities extending therethrough between the top and the bottom surfaces with a plurality of protruding hollow plugs extended around the connector pin cavities at the top surface. The connector housing further includes one or more connector pins pre-disposed within the connector housing that need to be extracted via the pin extraction stabilizer. The pin extraction stabilizer includes a stabilizer housing having a front surface and a back surface and defines a one or more access sockets extending from the stabilizer front surface to the stabilizer back surface defining a plurality of chambers in the stabilizer. Each chamber of the plurality of chambers is dimensioned to receive a protruding hollow plug of the connector housing.

Abstract: A rail vehicle includes a car body, a first chassis, and a second chassis. The car body is supported on the first chassis by a first spring device, the car body is supported on the second chassis by a second spring device, the car body is coupled to the first chassis by a first roll compensation device, and is coupled to the second chassis by a second roll compensation device. The first roll compensation device and the second roll compensation device counteract roll motions of the car body toward the outside of the curve about a roll axis parallel to the vehicle longitudinal axis during curved travel. The first roll compensation device is designed in such a way and/or the first roll compensation device and the second roll compensation device are coupled to each other in such a way that a torsional load on the car body about the vehicle longitudinal axis is counteracted.

Abstract: A method and a structure operate a three-phase machine, which is fed by a three-phase converter, using a stator flux regulator and either a slip frequency regulator or a torque regulator. A torque-forming fundamental-frequency current component of the stator current is limited by limiting a setpoint value that is supplied to the slip frequency regulator or to the torque regulator to a maximum slip frequency value maximum torque value. The flux-forming fundamental-frequency current component of the stator current is limited by limiting the speed at which a setpoint value supplied to the stator flux regulator changes to a maximum value. The maximum slip frequency value or maximum torque value is calculated on the basis of a prescribed maximum current value for a stator current fundamental-frequency magnitude of the stator current and on the basis of a filtered actual value of the flux-forming fundamental-frequency current component of the stator current.

Abstract: In a system and method of image display, an image projector is positioned to back project (or rear project) an image on one or more platform doors disposed between a passenger platform of a train or people mover station and a pathway of the train or people mover. The image projector is positioned on the pathway side of the one or more platform doors. The image projector back projects the image on the one or more platform doors such that the image is diffusedly transmitted through them for observation by passengers on the platform side of the station. The back projected image is oriented such that characters or words in the image have a proper left-to-right, or right-to-left, orientation for reading by passengers on the platform side of the station.

Abstract: The invention relates to an arrangement for providing a vehicle, in particular a track bound vehicle, with electric energy, wherein the arrangement comprises a receiving device (200) adapted to receive an alternating electromagnetic field and to produce an alternating electric current by electromagnetic induction. The receiving device (200) comprises a plurality of windings and/or coils (9, 10, 11) of electrically conducting material, wherein each winding or coil (9, 10, 11) is adapted to produce a separate phase of the alternating electric current.

Abstract: An open-loop and/or closed-loop control device for operating an asynchronous machine which is fed by a 3-phase power converter. The open-loop and/or closed-loop control structure has a stator flux controller and a pulse pattern generator for generating pulse signals based on mean values. An output of the stator flux controller is connected to an input of the pulse pattern generator, with the result that the pulse pattern generator can generate the pulse signals as a function of a manipulated variable which is generated by the stator flux controller. The stator flux controller is configured so as to generate the manipulated variable as a function of a desired value of the stator flux of the asynchronous machine and as a function of a desired value of the torque of the asynchronous machine. The stator flux controller has a dead-beat control response.

Abstract: An instability monitoring device for a rail vehicle, includes: at least a first accelerometer for delivering a first acceleration signal in response to vibration along a reference axis, at least a first solid-state safety relay, having two main terminals and being switchable between a closed state and an open state, and a programmable logic device connected to the first accelerometer and to the first solid-state relay, the programmable logic device is a field programmable gate array (FPGA) or a complex programmable logic device (CPLD), provided with non-volatile logic blocks running simultaneously in parallel and implementing an instability monitoring algorithm to change the state of the first solid-state relay based on an instability condition of the first acceleration signal.

Abstract: An integrated security event management system (ISEMS) is disclosed and is based on service-oriented architecture (SOA) and includes one or more computers connected to one or more service-providing devices. At least one of the computers comprises one or more modules that are adapted to perform the following tasks: tasks to dynamically discover the service-providing devices and their services within a transit security domain in about real-time; tasks to acquire asynchronous state information notifications in about real-time from the discovered services; tasks to determine one or more Boolean outcomes from the asynchronous state information in about real-time via a configurable rules engine; and tasks to evaluate the one or more Boolean outcomes in about real-time via a configurable policy engine to determine state changes of one or more security policies.