An improved adhesive-type weight system for use with vehicle wheels includes one weight or a series of weights arranged as a tape. Each weight is formed of a flexible thin iron plate material having a perimeter with opposing lateral ends and opposing lateral sides. The series of weights can be oriented end-to-end or side-to-side, and each weight includes two planar sections separated by a center raised section. The center section can be a peak, an arch, a step, or some other raised configuration. Additionally, it can be tapered from one side to another. On the underside of each weight is adhesive and a release paper, which can be continuous across a series of weights or separated and applied under each individual weight. Where weights are attached to adjacent weights in series, preferably a notch or cut extends along the connection to encourage easy separation.

An improved adhesive-type weight system for use with vehicle wheels includes one weight or a series of weights arranged as a tape. Each weight is formed of a flexible thin iron plate material having a perimeter with opposing lateral ends and opposing lateral sides. The series of weights can be oriented end-to-end or side-to-side, and each weight includes two planar sections separated by a center raised section. The center section can be a peak, an arch, a step, or some other raised configuration. Additionally, it can be tapered from one side to another. On the underside of each weight is adhesive and a release paper, which can be continuous across a series of weights or separated and applied under each individual weight. Where weights are attached to adjacent weights in series, preferably a notch or cut extends along the connection to encourage easy separation.

A wheel-balancing weight mounts to a wheel with a flange. The weight includes a body and a clip. The body is stamped by a punch to define a pocket within which an attaching portion of the clip resides. The defined pocket has a planar base and opposing side walls generally perpendicular to the base. The body as stamped by the punch includes a pre-stake for each side wall external to the pocket and adjacent the side wall, and an undercut for each side wall within the pocket and generally located at a juncture of the side wall and the base.

A method for balancing a wheel comprises at least the steps of extruding a profile of an uncured and/or non-vulcanized viscoelastic polymer comprising at least one filler having a total density of more than 0.9 kg/dm.sup.3, cutting a section from an extruded profile of said polymer, wherein the length of the section correlates with the required mass for balancing, applying the balancing weight to the rim of the wheel, and curing of the balancing weight at the wheel.

A method for balancing a wheel comprises at least the steps of extruding a profile of an uncured and/or non-vulcanized viscoelastic polymer comprising at least one filler having a total density of more than 0.9 kg/dm.sup.3, cutting a section from an extruded profile of said polymer, wherein the length of the section correlates with the required mass for balancing, applying the balancing weight to the rim of the wheel, and curing of the balancing weight at the wheel.

A wheel/hub assembly includes an axle shaft, a wheel, and a hub supporting the wheel on the axle shaft. The wheel/hub assembly has a target resonant frequency of vibration. A tuned mass-spring damper is vibrationally coupled to the wheel/hub assembly, and has a counteracting resonant frequency of vibration that is predetermined with reference to the target resonant frequency of vibration.

A wheel/hub assembly includes an axle shaft, a wheel, and a hub supporting the wheel on the axle shaft. The wheel/hub assembly has a target resonant frequency of vibration. A tuned mass-spring damper is vibrationally coupled to the wheel/hub assembly, and has a counteracting resonant frequency of vibration that is predetermined with reference to the target resonant frequency of vibration.

A wheel weight assembly with inner and outer weights, inner and outer fasteners, and anti-rotation plates. Inner fasteners can include inner and outer nuts, and a stud that extends through inner weight. Outer nuts can attach to studs and outer fasteners. Anti-rotation plates can fit over outer nuts in recesses of inner weight to prevent rotation of outer nuts. The weight assembly can also include intermediate weight and intermediate fasteners. Intermediate fasteners can include intermediate nuts and studs, where proximal end of stud attaches to inner fastener, and distal end of stud extends into recess of intermediate weight. Intermediate nuts can attach to distal ends of studs, and to outer fasteners. Anti-rotation plates fit over intermediate nuts in recesses of intermediate weight to prevent rotation of intermediate nuts. Anti-rotation plates and recesses can be pear-shaped. Cutouts in anti-rotation plates and intermediate nuts can be polygonal-shaped.

A wheel weight assembly with inner and outer weights, inner and outer fasteners, and anti-rotation plates. Inner fasteners can include inner and outer nuts, and a stud that extends through inner weight. Outer nuts can attach to studs and outer fasteners. Anti-rotation plates can fit over outer nuts in recesses of inner weight to prevent rotation of outer nuts. The weight assembly can also include intermediate weight and intermediate fasteners. Intermediate fasteners can include intermediate nuts and studs, where proximal end of stud attaches to inner fastener, and distal end of stud extends into recess of intermediate weight. Intermediate nuts can attach to distal ends of studs, and to outer fasteners. Anti-rotation plates fit over intermediate nuts in recesses of intermediate weight to prevent rotation of intermediate nuts. Anti-rotation plates and recesses can be pear-shaped. Cutouts in anti-rotation plates and intermediate nuts can be polygonal-shaped.

A wheel/hub assembly includes an axle shaft, a wheel, and a hub supporting the wheel on the axle shaft. The wheel/hub assembly has a target resonant frequency of vibration. A tuned mass-spring damper is vibrationally coupled to the wheel/hub assembly, and has a counteracting resonant frequency of vibration that is predetermined with reference to the target resonant frequency of vibration.