Ford Motor Company Limited

Ford Global Technolgoies, LLC

Ford Global Technology, LLC

Mark Robert Silk

Vladimir Premiski

Clemens Maria Verpoort

Wilhelm Wehren

Leander Schramm

Wolfgang Puetz

David Harknett

Sieghart Biedermann

Zoltan Brassai

Udo Schumann

Ralph W K Wilton

Wilhalm Wehren

Barry Griffiths

Spencer James Lindon

Wolfgang Pütz

Spencer Lindon

A method of repairing an inner surface of a cylinder liner housed in an engine block. Material is removed from the inner surface to produce a reduced-thickness region, the reduced-thickness region extending axially relative to the cylinder and stopping short of an end of the liner to leave a region of original diameter between the reduced thickness region and the end of the liner. The surface the reduced-thickness region is then roughened, for example by hammer brushing. A plasma coating is applied to the reduced-thickness region and to at least a portion of the region of original diameter. The coating is then finish-machined to produce a uniform internal diameter equal to an original internal diameter of the region of original diameter prior to the application of the coating.

Process for repairing a cylinder running surface by means of plasma spraying processes

A block for an internal combustion engine having at least one coated cylinder bore, which has a chamfer at a sealing surface with respect to a cylinder head, wherein the chamfer is a curved chamfer.

Repaired engine block and repair method

A method for preparing a surface, previously roughed in a mechanical manner and comprising sharp-edged ridges and recesses, on metal workpieces for applying a thermally sprayed layer. The roughened layer is machined by hammer or percussion brushes with a rapidly rotating hammer or percussion brush having a plurality of resilient percussion wires that are oriented in a radially outward manner, such that the edges of the ridges are broken in order to improve the adhesion of the subsequently applied thermally sprayed layer or are at least curved forming rear sections. The brush rotates at a high rotational speed of approximately 3000-6000 rotations per minute and is displaced laterally with its rotational axis being at a parallel distance that remains constant in relation to the surface of the workpiece such that percussion wires distributed on the periphery of the brush impact with the ends thereof of the surface areas adjacent to the workpiece at an oblique angle that is less than 90&#xb0; in rapid succession. The brush consists of an essentially cylindrical rotationally symmetrical brush body having a plurality of support bars that are parallel to the axis, that are mounted on the periphery of the brush between front-sided brush disks.

Method for preparing a surface for applying a thermally sprayed layer

In a bush insert with an orifice for a liquid-containing housing, which is insertable as a bush (22) in a passage opening (21) in the housing (3), includes an orifice (25) in its base, the base of the bush insert (22') is formed as a cone (29) pointing counter to the direction of flow (P') of the liquid and having the orifice (31) located in its tip (30).

Bush insert with orifice for a liquid-containing housing

In a planet carrier (1) comprising two carrier parts (2 and 3), connected together axially, at least one of which is provided with axially extending posts (8) and the other with fitting openings (12) corresponding to the posts (8), and wherein the posts (8) engage in the openings (12) in a form-fitting manner and in addition are connected to one another, the posts (8) extending axially from the one carrier part (2) have a triangular cross-section making use of the maximum amount of free space; the posts (8) are provided at their ends facing the fitting openings (12) with a step (10) of height substantially corresponding to the thickness of the other carrier part (3) in the region of the openings (12); and the fitting openings (12) formed in the other carrier part (3) have a triangular shape (11) cut back by a radius (9), which is connected to the openings (12) by a force fit.

Planet pinion or gear carrier

In an axial bearing with an adjoining seal between two members, which form contact surfaces for the rolling elements (2) of the bearing, which are held by a cage (1, 15), one of the two members is formed by a thrust washer (4, 14, 18) for the rolling elements (2), which is integrated as a part of the bearing assembly and is provided at a central centering opening (7) with a conical seating surface (8) through which the thrust washer can be resiliently loaded radially by a sliding surface (11) of complementary shape to provide a radial seal.

Axial bearing having an adjoining seal

A planet gear carrier with an annular oil shield that is secured in a region outside the planet wheel spindle to a side wall of the planet wheel carrier formed as a drum member of an adjacent clutch and extends so far radially inward that its inner edge inwardly overlaps the axial lubricating bores in the planet wheel spindles. The oil shield comprises a self-locking cone ring spreadably braced against the inner circumference of the drum member, a plastic molding clipped or welded to the smooth inner circumference of the cone ring, and an O-ring received in a retaining groove of the plastic molding.

Planet gear carrier with an annular oil shield

A means for securing a connection between a planetary gear unit including one or more planet gear sets and a drum member surrounding them, wherein the planet gear carrier (8) carrying the planet gears (10) rotatably mounted on planet gear spindles (9) includes a larger diameter disc member (14) connected to the open end of the drum member (16) by a projection and recess (17/18) connection. Connection is axially secured by a securing element (30) formed as a ring adjacent the disc member (14) and having at least two, and preferably three, pairs of spreading arms extending radially into the recesses (18) of the drum member (16). The recesses (18) are provided with grooves (19) located in front of the plane of the disc member (14). The end edges (36) of the radial spreading arms (32) are engageable in the grooves (19) in the circumferential direction by plastic or elastic deformation.

Securing means for a planetary gear unit

A overrunning clutch having a lateral rolling bearing, wherein clamping elements (21) and rolling elements (23) are carried in respective separate cages (22 and 24) between an inner ring (15) and an outer ring (16). The rings are provided with tracks (17, 19 and 20) adapted to the clamping and rolling elements. The breadth of the rings exceeds the length of the clamping elements (21), the cages (22 and 24) adjoin one another, and at least one of the cages (22) is snap-fitted and axially secured by means of radial projections (27) in an annular groove (28) in one of the rings. The clamping element cage (22) has, adjacent the rolling bearing, an axial shoulder (25) and a radial flange part (26). The rolling bearing cage (24) has axially projecting annular beads (29 and 30), one of which merges into a radial guide flange (31), which is guided axially between the annular shoulder (18) and the adjacent flange part (26) of the free-wheel cage (22) and radially by the shoulder (25).

Growing community of inventors

Pulheim, Germany

Mark Robert Silk