Torque-traction Technologies, Inc.

Dana Corporation

Dana Heavy Vehicle Systems Group, LLC

Spicer Technology Inc.

Edward Eugene Stuart

Earl James Irwin

Timothy Allmandinger

Sean Karl Hoefer

Gregory James Maser

Parvinder Singh Nanua

Mark Charles Barnholt

David G Moses

William Joseph Foor

David Joseph Young

Thomas Nahrwold

Ted J Kaufman

John E Pressler

A hub cap assembly with a retaining device (), and at least one housing portion () with an annular recess () in an inner surface with a sight glass () disposed in the annular recess and positioned axially between the retaining device and the housing portion. The hub cap assembly can be part of a wheel end assembly for use with a central tire inflation system (CTIS).

Hub cap assembly with sight glass

A rigid drive axle assembly includes a support beam member having a substantially flat central plate section, a differential assembly module secured to the central plate section through at least two threaded studs extending from the central plate section. The differential assembly module includes a differential carrier frame member having two bearing hubs receiving differential bearings. A method for verifying a predetermined bearing preload of the differential assembly module comprises the steps of preloading the differential bearings to the predetermined bearing preload, inserting mounting bores in the bearing hubs of the frame member onto the mounting studs, and determining that the differential bearings are properly preloaded if the mounting studs are received in the mounting bores in the differential carrier frame member without substantial resistance, or determining that the differential bearings are not properly preloaded if the mounting studs may not be received in the mounting bores easily.

Method for verifying predetermined bearing preload of differential assembly module

A drive axle assembly for motor vehicles, includes a support beam member having a substantially flat, enlarged central plate section and two opposite arm sections, a differential assembly module secured to the central plate section and enclosed into a housing formed by a rear cover and a front cover secured to opposite surfaces of the central plate section. A method for assembling the drive axle assembly comprises the steps of securing the front cover to a front mounting surface of the support beam member, fastening the differential assembly module to the central plate section of the support beam member, and fastening the rear cover to the rear mounting surface of the support beam member.

Drive axle for motor vehicles and method for assembling the same

A drive axle assembly for a motor vehicle comprises a support beam member, a differential assembly module secured to the support beam member and a cover member fastened to the support beam member to cover at least a portion the differential assembly module. The cover member includes two spaced access openings with adjustable sealing flange devices for sealing an interior cavity within the cover member between the access openings and corresponding axle shaft members. The sealing flange device is positionally adjustable relative to the cover member. A method for adjusting position of the sealing flange device relative to the cover member comprises the steps of securing the cover member to the axle support member, mounting the sealing flange device to the cover member, adjusting the position of the sealing flange device relative to the cover member and securing the sealing flange device to the cover member.

Adjustable flange device for cover member in drive axle assembly

A rigid drive axle assembly for motor vehicles, includes a support beam member having a substantially flat, enlarged central section and two opposite arm sections axially outwardly extending from the central section, a differential assembly secured to the flat central section of the support beam member, and two opposite axle shaft members outwardly extending from the differential assembly and rotatably supported by the arm sections in a spaced relationship with respect to the central section of the support beam member. The differential assembly includes a differential carrier frame member fastened to the central section of the support beam member, and provided for rotatably supporting a differential case and a drive pinion. The differential assembly is enclosed into a housing formed by a rear cover and a front cover secured to opposite surfaces of the central section of the support beam member. The rear cover incorporates two throughholes provided with self-centering seals.

Rigid drive axle assembly for motor vehicles

An adjustable pinion offset in a differential axle assembly. The offset between a pinion gear and shaft relative to a ring gear in the differential axle assembly is adjustable due to an eccentric mounting of the pinion assembly relative to the differential housing containing the ring gear. The pinion shaft is eccentrically mounted within a bore of the differential housing such that a simple rotation of the pinion assembly about the eccentric pilot mounting adjusts the position of the pinion shaft with respect to the ring gear to adjust pinion offset. Once properly positioned, the pinion assembly is secured to the differential housing to maintain the desired position. This invention substantially reduces the noise associated with gear offset error.

Differential axle assembly with adjustable gear offset

A mounting assembly for securing an axle housing to the suspension system of a vehicle frame includes an upper bracket and a lower bracket which partially enclose an axle housing. The upper bracket and the lower bracket are clamped together and have engageable contacting surfaces to provide vertical and torque support for the axle housing walls. Rubber couplings are disposed between the axle housing and the brackets to prevent wearing of the metal surfaces.

Growing community of inventors

Payne, OH, United States of America

Edward Eugene Stuart