Abstract: An underfloor unit for reinforcing a motor vehicle body has a base body (12) connected to the motor vehicle body and intended to dissipate static and/or dynamic loads of the motor vehicle body. The base body (12) has an upwardly directed support plate (14) for supporting battery cell units of a traction battery for and a downwardly directed separate armor plate (16) for protecting the battery cell units against sudden effects of force from below. A cooling duct (18) for cooling the battery cell units is formed between the support plate (14) and the armor plate (16). The underfloor unit (10) can support the battery cells of the traction battery as a support plate (14), protect them as armor and cool them with the aid of the cooling duct (18) as a heat exchanger.

Abstract: A driver's cab of a railcar includes: side bodyshells; a roof bodyshell; and an interior panel unit including a pair of side panels located at an inner side of the side bodyshells, a ceiling panel located at an inner side of the roof bodyshell, and a back-surface panel that separates the driver's cab from a passenger room. At least one of the panels includes an opening portion through which an adjusting member can be inserted, the adjusting member being configured to adjust positions of the one panel and the side bodyshell or positions of the one panel and the roof bodyshell. An interior space of the driver's cab is defined by coupling the adjacent panels to one another. The adjusting member adjusts a position of the driver's cab relative to the side bodyshell or the roof bodyshell.

Abstract: A railcar is a railcar including a driver's cab. One of both railcar-width-direction portions of the driver's cab is formed by a first driver's cab device unit. The first driver's cab device unit includes: a plurality of first driver's cab devices distributedly arranged in a plurality of areas located at one of both railcar-width-direction sides of the driver's cab; a first driver's cab device wire that connects the first driver's cab devices located in the different areas to one another; and a first driver's cab floor surface plate, a first driver's cab side plate, a first driver's cab back plate, and a first driver's cab ceiling plate, which form a part of an outer body of the driver's cab, the part being located at the one of both railcar-width-direction sides of the driver's cab. These components of the first driver's cab device unit are integrated to form a box shape.

Abstract: A cab assembly is disclosed for use with a machine having a frame. The cab assembly may include an operator cab with a first side and a second side, a plurality of cab mounts connecting the operator cab to the frame, and a hydraulic cylinder connected at one end to the operator cab and at an opposing end to the frame. The plurality of cab mounts may be selectively disconnected from the operator cab to allow the hydraulic cylinder to tilt the operator cab toward the first side or the second side of the operator cab.

Abstract: A cab assembly is disclosed for use with a machine having a frame. The cab assembly may include an operator cab with a first side and a second side, a plurality of cab mounts connecting the operator cab to the frame, and a hydraulic cylinder connected at one end to the operator cab and at an opposing end to the frame. The plurality of cab mounts may be selectively disconnected from the operator cab to allow the hydraulic cylinder to tilt the operator cab toward the first side or the second side of the operator cab.

Abstract: In order to optimize the failure safety of electrical and electronic components located in an engine compartment of a rail vehicle, which additionally comprises at least one driver's cab, the rail vehicle is operated with an air conditioning system, which is provided to generate overpressure in the engine compartment and to control the climate of the at least one driver's cab. The air conditioning system includes a first air guidance system to introduce fresh air into the at least one driver's cab and a second air guidance system to transmit at least one part of the fresh air introduced into the at least one driver's cab into the engine compartment.

Abstract: A driver's cab of a magnetically levitated train and a manufacturing method thereof are disclosed. The manufacturing method comprises the steps of: processing and obtaining two-dimensional framework components, and then assembling the two-dimensional framework components into a three-dimensional framework; making a three-dimensional cover skin with a small curved surface die-less forming process; and assembling the three-dimensional cover skin on the three-dimensional framework. The driver's cab comprises a three-dimensional framework and a three-dimensional cover skin assembled on the three-dimensional framework, wherein a plurality of two-dimensional framework components are mutually connected together to form the three-dimensional framework. Forming the three-dimensional framework by assembling the two-dimensional framework components can efficiently simplify the manufacturing process, lower the manufacturing cost, and improve the carrying capacity of the driver's cab of a magnetically levitated train.

Abstract: The invention relates to a vehicle front-end module having a vehicle front-end structure (100) for mounting to the front end of a rail-borne vehicle, in particular a railway vehicle, wherein the vehicle front-end structure (100) is wholly composed of structural elements made from fiber composite or fiber composite sandwich material. The structural elements forming the vehicle front-end structure (100) comprise first structural elements (10, 10?, 11, 12, 12?, 14, 15, 16) which are configured and directly connected to one another so as to form a substantially deformation-resistant, self-supporting front-end structure designed to accommodate a vehicle driver's cab (101).

Abstract: An adjustable cab isolator bracket is provided for adjusting the height of an isolated cab of a locomotive. Alternatively, the adjustable bracket may adjust spring loading of an isolated locomotive cab. The adjustable cab isolator bracket generally comprises a spring retainer adapted to engage a spring and mountable to the underframe, and a bracket body for receiving and engaging the spring retainer and mountable to the cab. The adjustable bracket may further be fixed to the isolated locomotive cab. In this arrangement, the bracket body is adapted to receive and engage at least a portion of the spring retainer. The engagement between the spring retainer and the bracket body is adaptable to selectively adjust a portion of the spring retainer to be received by the bracket body in relation to a spring, thereby adjusting cab height or spring loading in relation to the underframe.

Abstract: Provided is a cab isolation system for a locomotive is provided including a cab having a front and a rear. The cab isolation system further includes a pivot located generally near the rear of the cab and at least one spring generally located near the front of the cab. In another embodiment, dampers may further be provided and generally located near the front of the cab. In another embodiment, lateral links may further be provided and generally located near the front of the cab. This system may include any of the above elements, alone or in combination, to provide for a cab isolation system for isolating a locomotive cab from engine generated structure borne noise and vibration, while lower frequency track induced motions are not magnified.

Abstract: A sliding-type apparatus for absorbing front shock energy is disclosed. The sliding-type apparatus of the present invention includes a driver panel (130), which is provided on the front surface of a driver's cab defined by a front part protective shell (110) of a railway vehicle so as to be movable backwards, and a bottom shock absorber (150), which is provided under the lower surface of the driver panel (130). The sliding-type apparatus further includes a front shock absorber (170), which is provided on the front surface of the driver panel (130), and a driver panel shock absorber (190), which is provided at a position towards which the driver panel is moved backwards. Thus, when a railway vehicle is involved in a collision, the several shock absorbers are consecutively collapsed to efficiently absorb shock energy. Furthermore, the driver panel is moved backwards without being deformed by the shock energy. Therefore, the safety of the driver is ensured.

Abstract: A cab of this type comprises a frame (3) defining an internal volume (3a), the frame (3) having at least one upper opening (3b) for receiving panes of glass of said cab, said cab being wherein it comprises a canopy (2) forming an assembly in a single piece which is attached to the frame (3) so as to cover the upper opening (3b) and enclose the internal volume (3a), said canopy comprising a support frame (10) provided with side rails (11) defining at least two openings therebetween and at least two panes of glass (4, 5, 6) filling each opening respectively.

Abstract: Provided is a cab isolation system for a locomotive is provided including a cab having a front and a rear. The cab isolation system further includes a pivot located generally near the rear of the cab and at least one spring generally located near the front of the cab. In another embodiment, dampers may further be provided and generally located near the front of the cab. In another embodiment, lateral links may further be provided and generally located near the front of the cab. This system may include any of the above elements, alone or in combination, to provide for a cab isolation system for isolating a locomotive cab from engine generated structure borne noise and vibration, while lower frequency track induced motions are not magnified.

Abstract: Provided is a cab isolation system for a locomotive is provided including a cab having a front and a rear. The cab isolation system further includes a pivot located generally near the rear of the cab and at least one spring generally located near the front of the cab. In another embodiment, dampers may further be provided and generally located near the front of the cab. In another embodiment, lateral links may further be provided and generally located near the front of the cab. This system may include any of the above elements, alone or in combination, to provide for a cab isolation system for isolating a locomotive cab from engine generated structure borne noise and vibration, while lower frequency track induced motions are not magnified.

Abstract: In one embodiment of the present invention, a method and device are disclosed for the transport of goods by rail, wherein goods wagons are used with independent propulsion means. The propulsion means for the goods wagons are used only for short journeys from a station to a customer and back. For long journeys the goods wagons are assembled into a train and pulled by a tractor vehicle.

Abstract: Provided is a cab isolation system for a locomotive is provided including a cab having a front and a rear. The cab isolation system further includes a pivot located generally near the rear of the cab and at least one spring generally located near the front of the cab. In another embodiment, dampers may further be provided and generally located near the front of the cab. In another embodiment, lateral links may further be provided and generally located near the front of the cab. This system may include any of the above elements, alone or in combination, to provide for a cab isolation system for isolating a locomotive cab from engine generated structure borne noise and vibration, while lower frequency track induced motions are not magnified.

Abstract: A track/right of way maintenance and repair system including a loader car, implement car and refuse car for removal, pickup and transport of debris found along a railroad track. The loader car is hydraulically powered along the track and includes a hydraulic rotatable and pivotal segmented boom for releasably collecting debris, utilizing various implements as stored in the implement car. An operator cab is rotatable with the boom to allow for unobstructed viewing and is pivotal between functional and reduced profile positions to allow the loader car to pass underneath bridges, viaducts or the like. A hydraulic reservoir enables the system to be self powered including hydraulic motor propulsion, boom rotation, boom pivot and braking, cab tilt and implement power. The system allows for an efficient, contemporaneous debris removal, storage and transport to a dump site by one crew.

Abstract: To prevent a window intruding into a cab of a rail vehicle in the event of an impact, the vehicle including a protective structure between the window and the interior of the cab and the protective structure including an opening facing the window, the protective structure supports anti-intrusion members which can move to obstruct at least part of the opening.

Abstract: A rail vehicle including an end car extended by a cab, wherein the car and the cab have separate structures with adjacent ends that are pivotally mounted on the same bogie, the structure of the cab being supported solely by the bogie while cantilevered therefrom, the cab being connected to a control device for controlling the angular positioning of the cab relative to the bogie.

Abstract: The subject matter of the invention is a rail vehicle with a head module made of a composite fiber material. For this, a joining region with height-tolerance compensating means (5) is arranged on the underframe (3) and a joining edge with longitudinal and lateral tolerance compensating means (7 and 8) is arranged on the wagon body module (2). The head module has joining edges that point toward the wagon body module (2) and the underframe (3) and is provided with reinforced sections (18, 19) that are integrated into the fiber composite material. The head module is attached to the underframe (3) and at least at the head module side walls (14) of the wagon body module (2) by means of fastening means (20, 21), which build up a pre-tensioning force, in such a way that shear-resistant connections are created.

Abstract: A rail vehicle including an end car extended by a cab, wherein said car and said cab have separate structures with adjacent ends that are pivotally mounted on the same bogie, the structure of said cab being supported solely by the bogie while cantilevered therefrom, said cab being connected to control means for controlling the angular positioning of the cab relative to said bogie.

Abstract: The workability during fabrication of an underfloor construction of a monorail vehicle is improved by reducing the steps of fabrication. An underfloor construction of a monorail vehicle comprises truck enclosures detachably mounted at positions where trucks are mounted in the undersurface of the underframe to enclose the periphery of the trucks, and an enclosure for underfloor equipment for enclosing the sides and lower surface of the underfloor equipment. A method of assembling an underfloor construction of a monorail vehicle comprises mounting a wiring duct and underfloor equipment on the undersurface of an underframe, conducting wiring work between the wiring duct and the underfloor equipment, and thereafter mounting an enclosure for underfloor equipment.

Abstract: A lead or head end rail car includes crew living and working accommodations. Controls for the propulsion car, such as a locomotive, and other trailing cars are included in the head end car. Crashworthiness is built into the head end car to provide safety for the engineer and crew in case of accident.

Abstract: A track working machine comprising a frame mounted for mobility on the track, an operating unit mounted on the frame, the operating unit including tools for working on the track and a drive for moving the machine along the track in an operating direction, and an operator's stand including a seat for the operator and a control panel and actuating element for the drive associated with the seat for operation by the operator, the operator's stand with the seat and drive actuating element being pivotal about a vertical axis between two end positions in the operating direction and in a direction opposite to the operating direction, respectively, in relation to the frame and the operating unit, and being blocked in each one of the end positions.

Abstract: A motorized track car with a wheeled lower portion for rolling along a railroad track, and a platform carried by the wheeled lower portion. The platform has seating accommodation for one or more persons with the propulsion means for the vehicle disposed below the platform. The propulsion means consists of an internal combustion engine drivingly connected to hydraulic pump means providing fluid pressure for hydraulic motors drivingly associated with wheels of the car. There is control valve means operable by a person seated on the platform to control flow of hydraulic fluid for the pump and motor to vary the speed of travel of the vehicle from zero to maximum in each of forward and backward directions of travel. There is brake means operatively associated with at least one wheel of the track car and operable from the platform and, preferably, by a single lever control which also operates the control valve means.

Abstract: A personnel carrier for use in an underground coal mine comprises a rail vehicle having driving cabs at opposite ends thereof with driving controls in each cab. Power is supplied from a battery mounted between the cabs to an electric driving motor arranged to drive one of a pair of axles or both axles as desired through one or more respective gearboxes. Safety features include an isolating switch operable from either cab, a flameproof rotary switch disposed substantially midway between the two cabs for activating one set of driving controls or the other and operable from outside the vehicle and an emergency braking circuit. Normal braking is electrical and achieved by moving a single control lever from power to braking. The emergency brake comprises a disc brake unit on each axle urged to the on position by springs but held in the off position hydraulically providing that a foot pedal in the activated cab remains depressed.

Abstract: A diesel-engined rail shunting locomotive is provided which combines a very high level of noise insulation with excellent accessibility to the engine and associated apparatus. The locomotive is adapted for remote control by radio, and also has at least one cab for the operator. The engine and associated apparatus are covered by a noise insulating rectangular box-shaped hood which is liftable as a single unit by means of power-operated lifting means provided on the locomotive. The lifting means may be screw jacks located in the four corners of the hood. The cab has an end wall slightly spaced from adjacent the end wall of the hood, to simplify construction and improve sound insulation.

Abstract: A locomotive is provided with an enlarged cab having "split level" sections for accommodating the engineer and other members of the train crew. A first upper section includes seating space for the engineer adjacent to the console with good visibility to the front and back, the engineer's line of sight being above the crew members in a lower section of the cab, and on the opposite side of the cab there is an additional upper section that provides an operating station for the engineer's assistant. In the lower section of the cab seating space is provided for at least one crew member. A writing surface (for performing clerical work) adjacent to seating space for the train conductor, with external visibility along a line of sight parallel to the sides of the railroad cars being propelled by the locomotive, is provided either in the lower section or in the additional upper section of the cab.

Abstract: A weight transfer rail traction vehicle adapted for travel on alternate sets of rail or road wheels which is characterized by a number of features including: a spring and shock absorber system which cooperate to maintain the springs, while in a rail travel mode, in an active condition despite substantial weight transfer loads being placed thereon; a hydraulic system which enables the differential axles to be optionally spring supported to the frame or in a rigid fixed relationship therewith; a differential axle suspension system wherein the spring supported axle moves in a substantially vertical plane without lateral shifting; a shock absorbing coupler; a coupler mounting arrangement which includes a coupler carriage directly mounted to a lateral frame member of the vehicle which serves as a guideway for directing travel of the coupler carriage and hence the coupler mounted thereto in a horizontal direction and wherein the coupler itself is mounted for vertical movement with respect to the coupler carriage; a

Abstract: A rail-borne shunting locomotive, to be operated through radio control by a driver as he moves around the locomotive, has a central power plant compartment, a cabin at each end adjacent the power plant compartment, gangways on each side extending alongside the power plant compartment from one cabin to the other, an open platform at each end in front of the cabin and at each side of the platform, at least one step for the driver to stand on at a lower level than the platform. Each cabin is directly accessible from both gangways and from the respective platform. A wide range of operating locations is available to the driver and access to them is convenient.