Abstract: Proposed is a planetary transmission (8) comprising an internal gear (24), a sun gear (52) and a planet carrier (10), upon which at least one planet gear (20) is supported. The planetary transmission (8) possesses a clutch apparatus with a sliding sleeve (66), which in a first shift-position enables a direct connection between one of the shafts (44) driving the planetary transmission (8) and an output shaft (12) of the planetary transmission (8). In a second shift-position, the connection of the sliding sleeve (66) enables a change in the speed of rotation between the driving shaft (44) and the output shaft (12) of the planetary transmission (8). The planet gear (20) is so supported on the planet carrier (10), that in case of a shifting from a one shift-position into a respective other shift-position, the planet gear (20) on the planet carrier (20) becomes axially slidable.

Abstract: A way sensor arrangement (2) for detecting the displacement of a mechanical component in relation to another component. The way sensor arrangement having a sensor housing (4) that is firmly mounted to a first (gear case 6) of these two components and a sensor carriage (12) that interacts with the housing and can be coupled to the second component (shift rail 18). The invention provides that the sensor carriage (12) is mounted in the sensor housing (4) displaceably in the direction of displacement of the displaceable component (shift rail 18) and that mutually interacting coupling device (catch projection 14, catch recess 16) are provided on the sensor carriage (12) and on. the second component (shift rail 18), which can mutually engage with each other.

Abstract: A synchronizer for a manual transmission with a first and second idler gears rotatably mounted on a transmission shaft with a synchronizer sleeve non-rotatably mounted on the transmission shaft such that it can shift axially. The sleeve can be coupled to the first or second idler gear and comprises a shifting flange with through openings arranged around its periphery. A first and second synchronizer ring are separated by way of locking pins around the periphery, which can be inserted through the openings. At least one of the two synchronizer rings has an outer cone and an inner cone (double cone), that the double cone can be placed in non-positive contact simultaneously with an outer coupling ring that has an inner cone and an inner coupling ring that has an outer cone, and that the two coupling rings can be positively connected to the adjacent idler gear and axially supported against it.

Abstract: A gear shift device (2) for a motor vehicle comprises one cylinder (4) loaded with a pressure medium. Situated in said gear shift cylinder (4) is one gear shift piston (12) which divides the gear shift cylinder (4) into two working chambers (22, 24) and has one aperture (30) adequate to allow an exchange of pressure medium between the two working chamber (22, 24). In the gear shift cylinder (4) is provide one axially fixed bolt (26) which protrudes through at least one aperture (30) in the gear shift piston (12). The bolt (26) has a diameter which is not constant over the length of the bolt (26) and interacts with at least one aperture (30) in the gear shift piston (12) to form sealing points.

Abstract: A switching device (2) for a multi-step vehicle transmission (4) having one main transmission part (6) and an auxiliary-section transmission part (10) comprising the switching mechanisms (12, 14, 18, 38) for actuating switching elements (44, 50, 52, 54) in the main transmission part (6) and switching mechanisms (12, 14, 18, 38) for actuating switching elements (42, 46) in the auxiliary-section transmission part (10). The switching mechanisms (12, 14, 18, 38) for actuating the switching elements (44, 50, 52, 54) in the main transmission part (6) also actuate the switching elements (42, 46) in the auxiliary-section transmission part (10).

Abstract: A gear shift device (2) for a motor vehicle comprises one cylinder (4) loaded with a pressure medium. Situated in said gear shift cylinder (4) is one gear shift piston (12) which divides the gear shift cylinder (4) into two working chambers (22, 24) and has one aperture (30) adequate to allow an exchange of pressure medium between the two working chamber (22, 24). In the gear shift cylinder (4) is provide one axially fixed bolt (26) which protrudes through at least one aperture (30) in the gear shift piston (12). The bolt (26) has a diameter which is not constant over the length of the bolt (26) and interacts with at least one aperture (30) in the gear shift piston (12) to form sealing points.

Abstract: The invention relates to a bearing for a toothed wheel (24) of a toothed gear in the area between a first shaft (20) and a second shaft (46) which can rotate coaxially and at different rotational speeds in relation to each other to compensate for axial forces in the direction of the axis of rotation (12) of the shaft (20, 46). The toothed wheel (24) is mounted on a plate (26) provided between a first (28) and a second (30) axial bearing. A plate (10, 14) is provided between the first shaft (20) and the first axial bearing (28) and between the second axial bearing (30) and the second shaft (46), respectively, which contacts the relevant shaft (20, 46) on a line (16, 18) and effects conical deforming movements about the lines (16, 18).

Abstract: The invention concerns a clutch (1) comprising a sliding sleeve (17) with selector teeth (19), two synchronizing rings (28, 29) situated on either side of the sliding sleeve (17) with locking teeth (30, 31) and friction surface (24, 25) which can be turned about a limited rotation angle in relation to the sliding sleeve (17) and two clutch bodies (20, 21) with clutch teeth (22, 23) and counter friction surface (26, 27), the clutch bodies (20, 21) interacting with the synchronizing rings (28, 29) wherein the sliding sleeve (17) is constantly connected with a gear element (3) in a way torsionally resistant and when engaged is connected to one of the clutch bodies (20, 21) via the selector teeth (19) and the clutch teeth (22, 23) with positive fit.

Abstract: The invention describes a vehicle transmission (2) with helical toothing wherein a first shaft (4, 60, 100, 104, 160, 162, 220, 300) and one substantially coaxial second shaft (28, 62, 102, 180, 246, 302) have a mechanism (36-50, 76-84, 120-154, 226, 234, 244, 306) between them for the transmission of axial forces and simultaneously allow rotation movement and radial mobility of the shafts relative to one another. Axial forces, particularly resulting from the helical toothing, can also be transmitted in transmissions having several countershafts.

Abstract: A toothed-wheel gear change with power distribution over several layshafts (6, 7) having a radially and axially supported input shaft (2) and an output shaft (main shaft) (9) which is floating. At least one input gear (3, 4) provided on said input shaft (2) transmits the torque to gears (8) meshing therewith and firmly connected with the layshafts. The loose gears (10) are axially secured but radially free on the input and output shafts. A movable securing device (12, 13) makes possible the radial fixing of the input gear (3, 4).

Abstract: A support for a gear wheel, used in a toothed gear change transmission having a shaft and a gear wheel, where the support provides both sufficient axial fixing and radial play between the gear wheel and the shaft, necessary to compensate for working loads. The support is used with a gear wheel having internal teeth with at least one discontinuity in the internal teeth and a groove extending into the internal teeth. The support has a first disc with external teeth and at least one mating discontinuity in the external teeth, whereby the internal and external teeth and the discontinuities, respectively, can coincide with one another. A locking mechanism locks the position of the first disc relative to the gear wheel. To prevent against axial movement of the first disc against the direction of insertion into the groove, the support also includes a securing device.

Abstract: A range-change gearbox arrangement on the main casing of a multi-ratio gearbox in which the clutch of the range-change gear is fitted in a second casing and a part of the clutch is supported by an intermediate plate located between the main and second casings. The intermediate plate (4) is secured to the main casing (2) and is supported thereon by a plurality of studs (6) which may be bearing studs for gear-wheels (34), especially reverse gear intermediate wheels.

Abstract: In a range change transmission for vehicles which is designed as planetary transmission (2), a sun gear (3) is driven by a drive shaft (4) of an added basic transmission while a planet carrier (8) of the planetary transmission (2) is rigidly connected with an output shaft (9) of the range change transmission. To engage a low ratio group of the range change transmission, a ring gear (6) is connected with a transmission casing (1) by means of a sliding sleeve (25). In a direct through drive, the sliding sleeve (25) connects the ring gear (6) with a planet carrier (8). The construction costs should be reduced by using a single-piece synchronizer ring (22), the single-piece synchronizer ring which is effective for both shift directions cooperating by both its friction faces (23) with bevel faces (18 and 19) on the transmission casing (1) and on the planet carrier (8).

Abstract: A motor-vehicle transmission has a housing extending along an axis and having axially spaced front and rear sides, a main input shaft centered on the axis and having a front end at the front housing side and a rear end spaced axially backward therefrom, a main output shaft centered on the axis and having a front end at the input-shaft rear end and a rear end at the rear housing side, and a secondary countershaft adjacent the input and output shafts and having front and rear ends respectively at the front and rear housing sides. A cylindrical-roller bearing supports the output-shaft front end on the input-shaft rear end for rotation therein and prevents relative radial movement but permits relative axial movement of the input-shaft rear end and output-shaft front end. Roller-type axial-thrust bearings support the input-shaft front end, the output-shaft rear end, and one of the ends of the countershaft on the housing.