Abstract: A road wheel for a tracked vehicle includes a first rim half and a second rim half operatively connected to the first rim half. The first rim half includes at least a first portion that is angled away from the second rim half. The second rim half includes at least a first portion that is angled away from the first rim half. A hollow cavity is formed between the first portion of the first rim half and the first portion of the second rim half.

Abstract: A system includes a wheel, a tire, a plurality of pressurized load cells and a sleeve member. The wheel includes a first flange portion, a second flange portion and a barrel portion positioned between the first and second flange portions. The tire is mounted to the wheel. The wheel and the tire cooperate to define a tire cavity. The tire includes a first beaded portion and a second beaded portion. The plurality of pressurized load cells are positioned within the tire cavity. The sleeve member is positioned within the tire cavity and surrounds and constrains the plurality of pressurized load cells.

Abstract: A road wheel for a tracked vehicle includes a first rim half and a second rim half operatively connected to the first rim half. The first rim half includes at least a first portion that is angled away from the second rim half. The second rim half includes at least a first portion that is angled away from the first rim half. A hollow cavity is formed between the first portion of the first rim half and the first portion of the second rim half.

Abstract: A system is disclosed. The system includes an adapter member and a safety member. The adapter member includes a fill valve, an internal passageway and a boss member positioned within a multi-piece wheel. The safety member is removably connected to the adapter member, and covers nuts which removably connect a first piece of the multi-piece wheel to a second piece of the multi-piece wheel.

Abstract: A system. The system includes a wheel, a tire, a plurality of pressurized load cells and a sleeve member. The wheel includes a first flange portion, a second flange portion and a barrel portion positioned between the first and second flange portions. The tire is mounted to the wheel. The wheel and the tire cooperate to define a tire cavity. The tire includes a first beaded portion and a second beaded portion. The plurality of pressurized load cells are positioned within the tire cavity. The sleeve member is positioned within the tire cavity and surrounds and constrains the plurality of pressurized load cells.

Abstract: The presently claimed invention relates to a road wheel comprising a mounting disc, a dish-shaped transitional wall having an outer edge, a rim with an annular cylindrical wall attached along a first rim edge to the outer edge of the transitional wall, and a stiffening flange attached to the rim along a second rim edge opposite the first rim edge wherein the flange provides radial support to the second rim edge of the cylindrical wall to resist deflection.

Abstract: A system. The system includes a wheel, a tire and a bead lock assembly. The wheel defines an axis of rotation and includes an outboard wheel flange and an inboard wheel flange. The tire is mounted on the wheel, and the tire and the wheel cooperate to define a tire cavity. The bead lock assembly is within the tire cavity, and has a radially outermost surface which is a first distance from the axis of rotation. At least one of the outboard and inboard wheel flanges has a radially outermost surface which is a second distance from the axis of rotation. The first distance is greater than the second distance.

Abstract: The Dual Tire Shield of the invention mounts between dual tires and helps to prevent debris from getting into the gap between dual tires and/or damaging the tires when it does so. In some embodiments it can also serve as a runflat for dual tires. Debris can become wedged between the sidewalls of dual tires that face each other, or “inner sidewalls” of such tires. The dual tire shield prevents debris from getting stuck between the inner sidewalls of the dual tires and thereby prevents flats caused by sidewall puncture or bead de-seating due to such debris. The device accomplishes this by: Blocking debris from entering the gap between duals and/or prevent debris from being wedged in the gap; keeping such debris from contact with one or both of the tires even if wedged therebetween; and/or ejecting debris from between the tires. Further, the dual tire shield may be made rigid enough and/or include rigid portions so as to act as a runflat in case a tire goes flat regardless of the reason.

Abstract: This tire shield attachment system uses flexible connectors including chains, mesh, webbings, connectors, cables or the like to hold the protective shield in position adjacent the sidewall. The connectors cross over the treaded part of the tire and may be placed through gaps between the treads or over the treads of the tire being protected. The connectors are attached on the inboard side to an inboard attachment ring, and on the outboard side to the tire shield directly or to an outboard ring to which the shield may be mounted. The inboard ring can be opened for installation around the axle without removing the wheel. The tire shield may, in most embodiments, also be removed or changed out without removing the attachment system. Both inboard and outboard rings may be formed from flexible or rigid materials and may have elastic properties and/or incorporate tensioning devices. The same is true for the connectors, which may be placed over or under the tire shield.

Abstract: A system. The system includes a wheel, a plurality of carrier members and a plurality of wear pads. Each of the plurality of carrier members are removably connected to the wheel. Each carrier member has at least one of the wear pads connected thereto.

Abstract: The presently claimed invention relates to a road wheel comprising a mounting disc, a dish-shaped transitional wall having an outer edge, a rim with an annular cylindrical wall attached along a first rim edge to the outer edge of the transitional wall, and a stiffening flange attached to the rim along a second rim edge opposite the first rim edge wherein the flange provides radial support to the second rim edge of the cylindrical wall to resist deflection.

Abstract: A system. The system includes a wheel, a tire, a plurality of pressurized load cells and a sleeve member. The wheel includes a first flange portion, a second flange portion and a barrel portion positioned between the first and second flange portions. The tire is mounted to the wheel. The wheel and the tire cooperate to define a tire cavity. The tire includes a first beaded portion and a second beaded portion. The plurality of pressurized load cells are positioned within the tire cavity. The sleeve member is positioned within the tire cavity and surrounds and constrains the plurality of pressurized load cells.

Abstract: The Dual Tire Shield of the invention mounts between dual tires and helps to prevent debris from getting into the gap between dual tires and/or damaging the tires when it does so. In some embodiments it can also serve as a runflat for dual tires. Debris can become wedged between the sidewalls of dual tires that face each other, or “inner sidewalls” of such tires. The dual tire shield prevents debris from getting stuck between the inner sidewalls of the dual tires and thereby prevents flats caused by sidewall puncture or bead de-seating due to such debris. The device accomplishes this by: Blocking debris from entering the gap between duals and/or prevent debris from being wedged in the gap; keeping such debris from contact with one or both of the tires even if wedged therebetween; and/or ejecting debris from between the tires. Further, the dual tire shield may be made rigid enough and/or include rigid portions so as to act as a runflat in case a tire goes flat regardless of the reason.

Abstract: A system. The system includes a wheel, a tire and a bead lock assembly. The wheel defines an axis of rotation and includes an outboard wheel flange and an inboard wheel flange. The tire is mounted on the wheel, and the tire and the wheel cooperate to define a tire cavity. The bead lock assembly is within the tire cavity, and has a radially outermost surface which is a first distance from the axis of rotation. At least one of the outboard and inboard wheel flanges has a radially outermost surface which is a second distance from the axis of rotation. The first distance is greater than the second distance.

Abstract: This is an apparatus and system for integration of Central Tire Inflation (CTI) valve functionality directly into a wheel. The CTI valve may be attached to the wheel or integrated into the wheel. In addition, the CTI valve may have a valve body or the valve components can be installed directly into the wheel. An air passageway between the vehicle air source and the CTI valve and/or an air passageway from the CTI valve to the tire cavity can also be employed.

Abstract: A dual wheel assembly for a vehicle having a common hub adapter. The assembly includes an inner wheel having an inner rim; an outer wheel having an outer rim; and a hub portion having a central cylindrical portion disposed between first and second end face portions, wherein the inner rim is mounted to the first end portion, and the outer rim is mounted to the second end face portion. The assembly may further include radially spaced apart holes disposed on the central cylindrical portion, wherein the spaced apart holes have end openings on opposite sides thereof and first and second fasteners extending in opposite directions in an alternating arrangement from the first and second end portions of the hub portion. Each of the first fasteners extends through an end opening of a spaced apart hole and the inner rim, and each of the second fasteners extends through an end opening of a spaced apart hole and the outer rim.

Abstract: A central tire inflation system. The system includes a central tire inflation valve and a hub bore manifold. The hub bore manifold is connected to and surrounds the central tire inflation valve. The hub bore manifold defines first and second air passageways which are in communication with the central tire inflation valve. The hub bore manifold is configured for removable connection to a hub of a vehicle and is also configured to fit within a central opening of a wheel of the vehicle.

Abstract: A central tire inflation system. The system includes a central tire inflation valve and a hub bore manifold. The hub bore manifold is connected to and surrounds the central tire inflation valve. The hub bore manifold defines first and second air passageways which are in communication with the central tire inflation valve. The hub bore manifold is configured for removable connection to a hub of a vehicle and is also configured to fit within a central opening of a wheel of the vehicle.

Abstract: This is an apparatus and system for integration of Central Tire Inflation (CTI) valve functionality directly into a wheel. The CTI valve may be attached to the wheel or integrated into the wheel. In addition, the CTI valve may have a valve body or the valve components can be installed directly into the wheel. An air passageway between the vehicle air source and the CTI valve and/or an air passageway from the CTI valve to the tire cavity can also be employed.

Abstract: A system and apparatus for installing a central tire inflation (CTI) valve containing member into the hub bore opening of a wheel so as to be in communication with an air passageway hub port in the vehicle hub. Preferably, the CTI valve containing member includes a CTI valve sealed to a hub bore manifold with the hub bore manifold being mounted to the wheel disc and/or the vehicle hub. The hub bore manifold seals against the vehicle hub and the wheel hub bore surface (and/or the front face of the wheel disc). An air passageway in the manifold runs from the vehicle hub port to the CTI valve, and other air passageway(s) connect the CTI valve to the tire interior, such that air can travels from the vehicle hub to and from the tire cavity by way of the manifold and CTI valve.