초록 ▼

The application discloses a roller assembly that utilizes internal resistance components to increase resistance to enhance training intensity. The internal resistance components include a rotatable resistance component or impeller coupled to an outer tubular body of the roller. Embodiments disclosed

The application discloses a roller assembly that utilizes internal resistance components to increase resistance to enhance training intensity. The internal resistance components include a rotatable resistance component or impeller coupled to an outer tubular body of the roller. Embodiments disclosed also include a second resistance component to restrict rotation of the rotatable resistance component increasing the torque required to rotate the outer tubular body. In an illustrative embodiment, the rotatable resistance component forms an impeller which is disposed in a fluid chamber within the tubular body and the second resistance component is disposed in the fluid chamber and maintained in a stationary position to impart resistance to rotation, thus increasing the torque required to rotate the outer tubular body.

대표청구항 ▼

1. An assembly comprising: a roller having a fluid chamber formed in a tubular body;a first resistance component coupled to the roller and rotatable relative to a second resistance component, wherein the first and second resistance components are disposed in the fluid chamber; anda magnetic assembly

1. An assembly comprising: a roller having a fluid chamber formed in a tubular body;a first resistance component coupled to the roller and rotatable relative to a second resistance component, wherein the first and second resistance components are disposed in the fluid chamber; anda magnetic assembly including one or more magnetic components on the second resistance component configured to interact with one or more stationary magnetic components to retain the second resistance component in a stationary position relative to the first resistance component, and wherein the one or more stationary magnetic components are external from the fluid chamber. 2. The assembly of claim 1 wherein the first and second resistance components include a plurality of radially spaced blades disposed in the fluid chamber. 3. The assembly of claim 2 and further comprising: a frame including a plurality of spaced supports, wherein the roller is rotationally coupled to the plurality of spaced supports, the roller being configured on the frame to support a tire of a bicycle. 4. The assembly of claim 3 and further comprising a second roller and a third roller rotationally coupled to spaced supports on the frame through bearings at opposed ends of the second and third rollers. 5. The assembly of claim 4 wherein one of the second or third rollers is coupled to the first roller through a pulley assembly. 6. The assembly of claim 3 wherein the first and second resistance components include a plurality of radially spaced blades within the fluid chamber. 7. The assembly of claim 6 wherein the fluid chamber is formed between first and second spaced partitions within the tubular body and wherein at least some of the plurality of radially spaced blades are arranged on a disc to form an impeller in the fluid chamber. 8. The assembly of claim 3 each support further includes an end configured to engage the bicycle. 9. The assembly of claim 8 wherein each support further comprises a leg spaced apart from each other and the roller, the frame being configured to hold a rear wheel of the bicycle on the roller. 10. An assembly comprising: a roller including a tubular body rotationally coupled to a stationary portion through a bearing;a first resistance component coupled to the roller and rotatable relative to a second resistance component; anda magnetic assembly including one or more magnetic components on the second resistance component configured to interact with one or more stationary magnetic components to retain the second resistance component in a stationary position relative to the first resistance component, and wherein the one or more stationary magnetic components are coupled to the stationary portion of the roller. 11. The assembly of claim 10 wherein a first end of the tubular body is coupled to a first axle portion via a first bearing and a second end of the tubular body is coupled to a second axle portion via a second bearing. 12. An assembly comprising: a roller having a tubular body rotatable about a stationary axle;a first resistance component coupled to the roller and rotatable relative to a second resistance component; anda magnetic assembly including one or more magnetic components on the second resistance component configured to interact with one or more stationary magnetic components to retain the second resistance component in a stationary position relative to the first resistance component, and wherein the one or more magnetic components on the second resistance components include a plurality of radially spaced magnets and the one or more stationary magnetic components include one or more radially spaced stationary magnets coupled to the stationary axle of the roller. 13. An assembly comprising: a roller including a tubular body having a fluid chamber formed within the tubular body between spaced partitions;a first resistance component coupled to the roller and rotatable relative to a second resistance component; anda magnetic assembly including one or more magnetic components on the second resistance component configured to interact with one or more stationary magnetic components to retain the second resistance component in a stationary position relative to the first resistance component, and wherein the first resistance component is supported relative to a first partition of the spaced partition and comprising a bearing assembly rotationally connecting the second resistance component to the first resistance component. 14. The assembly of claim 13 wherein the first resistance component includes a plurality of blades forming an impeller and the second resistance component is formed of a disc including a plurality of blades on a first side of the disc facing the first resistance component and a plurality of magnets on a second side facing the one or more stationary magnetic components to retain the second resistance component in the stationary position. 15. The assembly of claim 14 wherein the tubular body is rotationally coupled to a stationary axle through a bearing and the one or more stationary magnetic components include a plurality of radially spaced magnets spaced about the stationary axle. 16. An assembly comprising; a roller having a tubular body rotatably coupled to a stationary portion;an impeller coupled to the rotating tubular body and disposed within a fluid chamber formed within the tubular body of the roller; anda fluid resistance component disposed in the fluid chamber and configured to resist rotation of the impeller, wherein the fluid resistance component includes a plurality of magnets configured to interface with a plurality of stationary magnets coupled to the stationary portion to restrict rotation of the fluid resistance component within the fluid chamber. 17. The assembly of claim 16 wherein the impeller includes a plurality of radially spaced blades and the fluid resistance component includes a plurality of radially spaced blades to resist rotation of the impeller. 18. The assembly of claim 16 wherein the fluid chamber is formed between spaced partitions within the tubular body and the impeller is connected to a first partition and the fluid resistance component is rotationally coupled to the impeller through a bearing assembly.