Vibrating tire inflator
An apparatus for processing a tire-wheel assembly including a tire and a wheel that removes entrapments between a bead seat of the wheel and bead of the tire is disclosed. The apparatus includes a tire-wheel assembly exerciser having a tire-engaging portion. The tire-engaging portion includes at least one tire-engaging device that is adjustably-connected to a base portion. A system is disclosed. A method is also disclosed.
1. A method for processing a tire-wheel assembly including a tire and a wheel for removing entrapments between a bead seat of the wheel and bead of the tire, comprising the steps of:
mounting a tire to a wheel for forming a tire-wheel assembly;
disposing tire-tread-engaging members of a tire-wheel assembly exerciser to directly contact a tread surface of the tire; and
actuating the tire-wheel assembly exerciser such that to impart periodic vibration forces to the tire-tread-engaging members for achieving a resonant vibrational response imparted to the tire-wheel assembly.
2. The method of claim 1 , wherein the actuating step includes
arranging the tire-wheel assembly exerciser in an activated state, wherein the activated state includes
repeatedly cycling a vibration source of the tire-wheel assembly exerciser in an on state and an off state.
3. The method of claim 1 , wherein the actuating the tire-wheel assembly exerciser step occurs when a bead of the tire is firstly arranged in a spaced apart relationship with a bead seat of the wheel.
4. The method of claim 3 , further comprising the step of:
actuating an inflator device for at least partially inflating the tire-wheel assembly and shifting an orientation of the bead of the tire relative the wheel such that the bead of the tire is secondly arranged in an engaged relationship with the bead seat of the wheel.
5. The method of claim 4 , further comprising the step of:
deactivating the inflator device; and
continuing the actuating of the tire-wheel assembly exerciser step for continuously achieving the resonant vibrational response imparted to the tire-wheel assembly after the inflator device has been deactivated.
6. A method for processing a tire-wheel assembly including a tire and a wheel for removing entrapments between a bead seat of the wheel and bead of the tire, comprising the steps of:
mounting a tire to a wheel for forming a tire-wheel assembly; and
disposing a portion of a tire-wheel assembly exerciser adjacent a tread surface of the tire;
actuating the tire-wheel assembly exerciser for achieving a resonant vibrational response imparted to the tire-wheel assembly;
aligning a first tire-tread-engaging device of the tire-wheel assembly exerciser with a first radius that projects away from a central axis extending through an axis of rotation of the wheel;
aligning a second tire-tread-engaging device of the tire-wheel assembly exerciser with a second radius that projects away from the central axis extending through the axis of rotation of the wheel, wherein the first radius is offset from the second radius at an angle; and
arranging at least one of the first tire-tread-engaging device and the second tire-tread-engaging device in an activated state by repeatedly cycling a vibration source of first tire-tread-engaging device and the second tire-tread-engaging device in an on state and an off state, wherein the resonant vibrational response imparted to the tire-wheel assembly includes:
vibrating the tire for shaping the tire to include a plurality of anti-nodes that are periodically formed about the tire with nodes that are located between adjacent anti-nodes.
7. A method for processing a tire-wheel assembly including a tire and a wheel for removing entrapments between a bead seat of the wheel and bead of the tire, comprising the steps of:
mounting a tire to a wheel for forming a tire-wheel assembly;
disposing tire-tread-engaging members of a tire-wheel assembly exerciser to directly contact a tread surface of the tire;
actuating the tire-wheel assembly exerciser such that to impart periodic vibration forces to the tire-tread-engaging members for
achieving a resonant vibrational response imparted to the tire-wheel assembly;
utilizing the tire-wheel assembly exerciser for clamping the tire in order to prevent axial movement of the tire; and
utilizing a wheel-engaging portion connected to the wheel for axially-adjusting an orientation of the wheel while the tire is axially-fixed as a result of the tire-wheel assembly exerciser clamping the tire.
8. The method of claim 7 , wherein the axially-adjusting an orientation of the wheel step includes:
axially moving the wheel relative the tire in a first axial direction, and
axially moving the wheel relative the tire in a second axial direction, wherein the second axial direction is opposite the first axial direction.
9. The method of claim 7 , wherein the actuating step includes
arranging the tire-wheel assembly exerciser in an activated state, wherein the activated state includes:
repeatedly cycling a vibration source of the tire-wheel assembly exerciser in an on state and an off state.
10. The method of claim 7 , wherein the actuating the tire-wheel assembly exerciser step occurs just prior to, during or after when beads of the tire are arranged adjacent to bead seats of the wheel as a result of actuating an inflator device.
11. The method of claim 10 , further comprising the step of:
deactivating the inflator device prior to utilizing the wheel-engaging portion connected to the wheel for axially-adjusting an orientation of the wheel.
12. A method for processing a tire-wheel assembly including a tire and a wheel for removing entrapments between a bead seat of the wheel and bead of the tire, comprising the steps of:
mounting a tire to a wheel for forming a tire-wheel assembly;
disposing a portion of a tire-wheel assembly exerciser adjacent a tread surface of the tire: actuating the tire-wheel assembly exerciser for
achieving a resonant vibrational response imparted to the tire-wheel assembly:
utilizing the tire-wheel assembly exerciser for clamping the tire in order to prevent axial movement of the tire;
utilizing a wheel-engaging portion connected to the wheel for axially-adjusting an orientation of the wheel while the tire is axially-fixed as a result of the tire-wheel assembly exerciser clamping the tire;
aligning a first tire-tread-engaging device of the tire-wheel assembly exerciser with a first radius that projects away from a central axis extending through an axis of rotation of the wheel;
aligning a second tire-tread-engaging device of the tire-wheel assembly exerciser with a second radius that projects away from the central axis extending through the axis of rotation of the wheel, wherein the first radius is offset from the second radius at a first angle; and
arranging the first tire-tread-engaging device in an activated state by repeatedly cycling a vibration source of first tire-tread-engaging device in an on state and an off state while the second tire-tread-engaging device passively responds to the vibration source of first tire-tread-engaging device, wherein the resonant vibrational response imparted to the tire-wheel assembly includes:
vibrating the tire for shaping the tire to include a plurality of anti-nodes that are periodically formed about the tire with nodes that are located between adjacent anti-nodes.
13. The method of claim 12 , further comprising the steps of
aligning a third tire-tread-engaging device of the tire-wheel assembly exerciser with a third radius that projects away from the central axis extending through the axis of rotation of the wheel;
aligning a fourth tire-tread-engaging device of the tire-wheel assembly exerciser with a fourth radius that projects away from the central axis extending through the axis of rotation of the wheel, wherein the third radius is offset from the fourth radius at a second angle; and
arranging the third tire-tread-engaging device in an activated state by repeatedly cycling a vibration source of third tire-tread-engaging device in an on state and an off state while the fourth tire-tread-engaging device passively responds to the vibration source of third tire-tread-engaging device, wherein the resonant vibrational response imparted to the tire-wheel assembly includes:
vibrating the tire for shaping the tire to include a plurality of anti-nodes that are periodically formed about the tire with nodes that are located between adjacent anti-nodes.
14. A method for processing a tire-wheel assembly including a tire and a wheel for removing entrapments between a bead seat of the wheel and bead of the tire, comprising the steps of:
mounting a tire to a wheel for forming a tire-wheel assembly;
disposing tire-tread-engaging members of a tire-wheel assembly exerciser to directly contact a tread surface of the tire;
actuating the tire-wheel assembly exerciser such that to impart periodic vibration forces to the tire-tread-engaging members which in turn imparts vibrational force to the tire-wheel assembly in a radial direction;
utilizing the tire-wheel assembly exerciser for axially-retaining the tire in order to prevent axial movement of the tire; and
utilizing a wheel-engaging portion connected to the wheel for axially-adjusting the wheel while the tire is axially-fixed as a result of the tire-wheel assembly exerciser clamping the tire.
15. The method of claim 14 , wherein the vibrational force imparted to the tire-wheel assembly in the radial direction achieves a resonant vibrational response imparted to the tire-wheel assembly.
16. The method of claim 15 , wherein the actuating step includes
arranging the tire-wheel assembly exerciser in an activated state, wherein the activated state includes:
repeatedly cycling a vibration source of the tire-wheel assembly exerciser in an on state and an off state.
17. The method of claim 15 , wherein the radial direction of the imparted vibrational force to the tire-wheel assembly is a radially-inwardly-directed force.
18. A method for processing a tire-wheel assembly including a tire and a wheel for removing entrapments between a bead seat of the wheel and bead of the tire, comprising the steps of:
mounting a tire to a wheel for forming a tire-wheel assembly;
disposing tire-tread-engaging members of a tire-wheel assembly exerciser to directly contact a tread surface of the tire;
actuating the tire-wheel assembly exerciser such that to impart periodic vibration forces to the tire-tread-engaging members for imparting a vibrational force to the tire-wheel assembly in a radial direction, wherein the vibrational force imparted to the tire-wheel assembly in the radial direction achieves a resonant vibrational response imparted to the tire-wheel assembly;
utilizing the tire-wheel assembly exerciser for retaining the tire in order to prevent movement of the tire; and
utilizing a wheel-engaging portion connected to the wheel for sequencing the wheel while the tire is retained as a result of the tire-wheel assembly exerciser retaining the tire.
19. The method of claim 18 , wherein the actuating step includes
arranging the tire-wheel assembly exerciser in an activated state, wherein the activated state includes:
repeatedly cycling a vibration source of the tire-wheel assembly exerciser in an on state and an off state.
20. The method of claim 18 , wherein the radial direction of the imparted vibrational force to the tire-wheel assembly is a radially-inwardly-directed force.