Abstract: A train test platform for testing actual train components of a multiple car railway train and a method to test such actual train components includes a supervisor unit and several car units linked by a reflective memory system. The actual components to be tested are installed in instrumentation units of the respective car units. The instrumentation units provide break-out interfaces for connecting the actual train components to a train communication system having the wiring, bus systems, or power supplies Further the instrumentation units simulate those components not being present physically in the respective cars. Testing is performed by monitoring and manipulating signals at the break-out interfaces in real-time. All testing is controlled by the supervisor unit using the reflective memory to exchange information with the platform components in the respective car units.

Abstract: A vehicle with a partition area for passengers between two sections of the vehicle, wherein a fire protection apparatus is mounted in the ceiling region of the partition area and has a protective curtain that can be transferred from an idle position, in which the partition area is open, into a closed position in case of a fire. The protective curtain has at least two material webs that adjoin one another and partially overlap one another in the closed position, wherein the lower edge of the material webs that points toward the floor of the partition area is spaced apart from the floor in the closed position.

Abstract: A vehicle component includes first and second surfaces, in a first travel direction of the vehicle. The first surface is exposed to an air flow having a local main flow direction. In a region of a recess on the vehicle, the first surface forms a flow separation edge where the air flow is deflected from the first surface. The recess is delimited by a leading first wall facing the local main flow direction and a trailing second wall. The flow separation edge extends transversely to the local main flow direction over a majority of a transverse dimension of the recess. In the local main flow direction, the second surface borders on the flow separation edge and forms a part of the first wall. The second surface is disposed so that it is inclined like a chamfer about an acute angle of inclination relative to the local main flow direction.

Abstract: There is provided a roof for a vehicle where each one of its right and left side wall has at least a first and a second door opening. The roof structure comprises a lattice structure and an outer shell. The lattice structure has two pairs of longitudinal segments adapted to be located at a top portion of the first and second door openings and two diagonal segments. One diagonal segment extends from a first longitudinal segment adapted to be located at the first door opening in the right wall to a second longitudinal segment adapted to be located at the second door opening in the opposite wall. The other diagonal segment extends from a first longitudinal segment adapted to be located at the first door opening in the left wall to a second longitudinal segment adapted to be located at the second door opening in the opposite wall. The outer shell is placed atop the lattice structure and extends from a region proximate the front end to a region proximate the rear end of the vehicle.

Abstract: An apparatus to use waste heat from an internal combustion engine in a vehicle, wherein the apparatus has an exhaust gas line to remove exhaust gases from the internal combustion engine, the exhaust gas line is thermally connected to a high-temperature side of a thermoelectric generator, and a latent heat accumulator is thermally connected to the high-temperature side of the thermoelectric generator.

Abstract: A method of profiling a railway crossing may include determining an angle of taper of a rail vehicle wheel; applying a raised weld section to a wheel contact surface of the railway crossover; and planing the raised weld section to correspond to the angle of taper in a single set-up pass across the length of the railway crossover creating a wheel matched profile. The railway crossover may be a rail frog or a diamond crossing. The method may also include creating a three-dimensional surface contour model of the crossover by replicating a standard crossover profile; creating a wheel profile model that matches a wheel profile for a rail vehicle of the railway; defining wheel contact surface for the rail vehicle by transposing the wheel profile model over the standard crossing surface contour model; and modeling a raised weld section to be placed along the wheel contact surface.

Abstract: A rail profiling device for a railway crossover includes a frame having first and second rail-side members laterally spaced from each other and two longitudinally spaced support members extending therebetween; a plurality of wheels positioned on the rail-side members, wherein the rail-side members are laterally spaced a distance, such that wheels on opposite rail-side members are configured to be mounted on laterally spaced rails of the railway corresponding to an axle width of a rail vehicle of the railway, the wheels including a wheel profile corresponding to a rail vehicle wheel profile; and a planing device positioned on the first rail-side member and configured to provide, in a single set-up pass, a precisely located continuously levelly supported crossover wheel contact surface profile along the entire length of one side of the railway crossover.

Abstract: A route for vehicles driving on a surface of the route includes a plurality of shaped blocks adapted to position and/or to hold a plurality of line sections of one or more electric line. Each shaped block comprises recesses forming spaces and/or projections delimiting spaces for receiving at least one of the line sections. The electric line or lines extend(s) through the spaces and extend(s) along the surface of the route in and/or about the travelling direction of vehicles. The shaped blocks and the electric line or lines are supported by a base layer of the route and are covered by a cover layer of the route. The material of the cover layer is also located in regions of the route sideways of the shaped blocks so that the shaped blocks and the cover layer form an integrated layer on top of the base layer.

Abstract: A method for assembling a wire harness on a display surface, the wire harness comprising bundles, each one of which corresponds to a bundle route selected among possible bundle routes and each one of the possible bundle routes comprising two ends. The method comprises receiving coordinates of a layout of the wire harness; generating at least a portion of all the possible bundle routes by identifying coordinates of portions of each of the two ends from the coordinates of the layout of the wire harness. Then determining which bundle routes among the possible bundle routes correspond to the bundles to be used. Defining, from the coordinates, a sequence in which the bundles are to be routed and generating a plurality of signals. Finally sending each one of the signals for display sequentially on the display surface according to the defined sequence.

Abstract: A shaped block for positioning and/or holding a plurality of line sections of one or more electric lines along the track of a vehicle includes a plurality of recesses and/or projections. Edges of the recesses and/or the projections each delimit a space for the line sections into which one of the line sections can be introduced, so that said line section extends through the space in a longitudinal direction of the space. The longitudinal directions of the spaces delimited by the edges of the recesses and/or by the projections extend essentially mutually parallel in a common plane.

Abstract: A front arrangement for a rail vehicle comprising a crash element with a forward facing crash surface, and a windshield washer device which, in turn, comprises a drive device and a front window wiper device drivable by said drive device. The crash element includes at least one impact absorbing element. The windshield washer device is fastened to the crash element for the vehicle, and is movable relative to a support of the front arrangement and thus, movable relative to the load-bearing construction of the vehicle so as to move backward during the occurrence of the impact forces and to enable absorption of the acting impact energy by the impact absorbing element.

Abstract: A system for transferring energy to a vehicle, in particular a track bound vehicle, such as a light rail vehicle, wherein the system includes an electric conductor arrangement adapted to produce an electromagnetic field which can be received by the vehicle thereby transferring the energy to the vehicle the system further includes electric and/or electronic devices which are adapted to operate the electric conductor arrangement. The devices produce heat while operating the conductor arrangement and—therefore—are to be cooled. A cooling arrangement of the system includes a structure having a cavity in which at least one of the devices to be cooled is located. The structure includes a cover limiting the cavity at the top, wherein the device(s) to be cooled is/are located at a distance to the cover. The structure is integrated in the ground at the path of travel of the vehicle in such a manner that the cover forms a part of the surface of the ground.

Abstract: An arrangement for operating a rail vehicle includes a DC voltage intermediate circuit which is connected to an energy supply network, at least one traction inverter which is connected at its DC voltage side to the DC voltage intermediate circuit and at its AC voltage side which is connected one or more traction motors of the rail vehicle. An auxiliary system inverter is connected at its DC voltage side to the DC voltage intermediate circuit and is connected at its AC voltage side to a primary side of an auxiliary system transformer. Auxiliary systems are connected to a secondary side of the auxiliary system transformer via an auxiliary line. Electrical energy generated by an electrical energy supply unit is transferred via the auxiliary line, the auxiliary system transformer and the auxiliary system inverter into the DC voltage intermediate circuit for operation of the at least one traction motor.

Abstract: A system for transferring electric energy to a vehicle, wherein the system comprises an electric conductor arrangement for producing a magnetic field and for thereby transferring the energy to the vehicle, wherein the electric conductor arrangement comprises at least one current line, wherein each current line is adapted to carry the electric current which produces the magnetic field or is adapted to carry one of parallel electric currents which produce the magnetic field and wherein: the at least one current line extends at a first height level, the system comprises an electrically conductive shield for shielding the magnetic field, wherein the shield extends under the track and extends below the first height level, and a magnetic core extends along the track at a second height level and extends above the shield.

Abstract: A vehicle component includes a surface which, during operation, is exposed to an air flow. The surface includes a separating area where the air flow separates from the surface, and at least one obstructing element associated with the separating area for introducing an obstruction into the air flow. The obstructing element includes at least one guide surface which protrudes into the air flow. The guide surface is inclined relative to the local direction of the main air flow so that it confers on the part of the main air flow that impacts the guide surface a speed component that runs perpendicular to the local direction of the main air flow and induces turbulence in the air flow downstream of the obstructing element.

Abstract: An arrangement for providing a land vehicle, with electric energy includes producing an electromagnetic field on a primary side located on the track of the vehicle and/or located at a stop of the vehicle, by receiving the magnetic component of the electromagnetic field on a secondary side on board the vehicle above the source of the electromagnetic field and by magnetic induction on the secondary side. The arrangement includes a secondary side conductor assembly made of electrically conducting material which produces an electromagnetic stray field during operation while the electrically conducting material carries an alternating electric current and a secondary side shielding assembly made of magnetizable material. The secondary side shielding assembly extends sideways of the secondary side conductor assembly on the same level as the secondary side conductor assembly, thereby shielding regions, which are located beyond the magnetizable material, from the electromagnetic stray field.

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 carries one phase of an alternating electric 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 running gear for a rail vehicle, including a wheel unit, a motor unit and a running gear frame unit being supported on the wheel unit. The motor unit is connected to the wheel unit to drive the wheel unit. Further more, the motor unit is suspended to the running gear frame unit via a connecting device. The connecting device is transversally elastic to allow a relative transverse motion between the motor unit and the running gear frame unit. The connecting device has a transverse rigidity being sufficiently low such that a contribution of the motor unit to an inertial moment of the running gear frame unit about the height direction is reduced by at least 50%.