US20060217237A1 - Exercise apparatus - Google Patents
Exercise apparatus Download PDFInfo
- Publication number
- US20060217237A1 US20060217237A1 US11/323,443 US32344305A US2006217237A1 US 20060217237 A1 US20060217237 A1 US 20060217237A1 US 32344305 A US32344305 A US 32344305A US 2006217237 A1 US2006217237 A1 US 2006217237A1
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- United States
- Prior art keywords
- roller
- flywheel
- frame
- rotatable
- bicycle
- Prior art date
- Legal status (The legal status is an assumption and is not a legal conclusion. Google has not performed a legal analysis and makes no representation as to the accuracy of the status listed.)
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Classifications
-
- A—HUMAN NECESSITIES
- A63—SPORTS; GAMES; AMUSEMENTS
- A63B—APPARATUS FOR PHYSICAL TRAINING, GYMNASTICS, SWIMMING, CLIMBING, OR FENCING; BALL GAMES; TRAINING EQUIPMENT
- A63B21/00—Exercising apparatus for developing or strengthening the muscles or joints of the body by working against a counterforce, with or without measuring devices
- A63B21/22—Resisting devices with rotary bodies
- A63B21/225—Resisting devices with rotary bodies with flywheels
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- A—HUMAN NECESSITIES
- A63—SPORTS; GAMES; AMUSEMENTS
- A63B—APPARATUS FOR PHYSICAL TRAINING, GYMNASTICS, SWIMMING, CLIMBING, OR FENCING; BALL GAMES; TRAINING EQUIPMENT
- A63B69/00—Training appliances or apparatus for special sports
- A63B69/16—Training appliances or apparatus for special sports for cycling, i.e. arrangements on or for real bicycles
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- A—HUMAN NECESSITIES
- A63—SPORTS; GAMES; AMUSEMENTS
- A63B—APPARATUS FOR PHYSICAL TRAINING, GYMNASTICS, SWIMMING, CLIMBING, OR FENCING; BALL GAMES; TRAINING EQUIPMENT
- A63B69/00—Training appliances or apparatus for special sports
- A63B69/16—Training appliances or apparatus for special sports for cycling, i.e. arrangements on or for real bicycles
- A63B2069/167—Training appliances or apparatus for special sports for cycling, i.e. arrangements on or for real bicycles on rollers without further support
Definitions
- the present invention relates generally to the field of exercise training apparatus. More specifically, one form of the present invention relates to roller system bicycle trainers. While, the present inventions were developed for roller system bicycle trainers they may have application in other types of exercise equipment, such as but not limited to treadmills.
- the bicycle exercise roller system 10 is comprised of three rotating rollers 11 , 12 and 13 supported between two rails 14 and 15 .
- the rollers 11 , 12 and 13 are positioned with their axis of rotation parallel to each other and parallel to the ground.
- Two of the rollers 12 and 13 cradle the rear wheel of the bicycle and the third roller 11 , spaced further forward, supports the front wheel of the bicycle.
- the rear wheel of the bicycle causes the rear roller 13 and middle roller 12 to rotate.
- the middle roller 12 is connected to the front roller 11 via a drive belt 16 , which causes the front roller 11 to rotate which in turn causes the front wheel of the bicycle to rotate.
- the rotating wheels generate enough gyroscopic effect to allow a practiced rider to maintain balance.
- the prior bicycle exercise roller systems have been utilized by bicyclists for many years in training regiments.
- the design of the conventional bicycle exercise roller system may limit the conditioning benefit that the bicyclist receives.
- the present inventions overcome the limitations associated with the prior bicycle exercise roller systems in a novel and non-obvious way.
- One form of the present invention contemplates an exercise training apparatus, comprising: a mechanical frame; a roller coupled to and rotatable relative to the frame; and, a flywheel located within the roller.
- a bicycle exercise roller system for riding a bicycle having a front and a rear wheel thereon, comprising: a mechanical frame including a pair of spaced frame rails; a rotatable front roller disposed between the pair of frame rails and adapted for receiving the front wheel of the bicycle thereagainst; a rotatable intermediate roller disposed between the pair of frame rails and adapted for receiving the rear wheel of the bicycle thereagainst, and upon rotation of the rear wheel the intermediate roller is rotated; a rotatable rear roller disposed between the pair of frame rails and adapted for receiving the rear wheel of the bicycle thereagainst, and upon rotation of the rear wheel the rear roller is rotated; a flywheel located within one of the rotatable intermediate roller and the rotatable rear roller; and, a mechanical drive coupled between the flywheel and one of the rotatable intermediate roller and the rotatable rear roller and upon rotation of the rear wheel the mechanical drive causes rotation of the flywheel at a rotational speed
- a bicycle exercise roller system for riding a bicycle having a front and a rear wheel thereon, comprising: a mechanical frame including a pair of spaced frame rails; a rotatable front roller disposed between the pair of frame rails and adapted for receiving the front wheel of the bicycle thereagainst; a rotatable intermediate roller disposed between the pair of frame rails and adapted for receiving the rear wheel of the bicycle thereagainst, and upon rotation of the rear wheel the intermediate roller is rotated; a rotatable rear roller disposed between the pair of frame rails and adapted for receiving the rear wheel of the bicycle thereagainst, and upon rotation of the rear wheel the rear roller is rotated; a belt coupling the front roller with one of the intermediate roller and the rear roller; and, a platform extending between the pair of frame rails and between the front roller and the intermediate roller, the platform having an outer surface for receiving the bicyclist thereon and a channel formed in the platform for the passage of the belt below the outer
- the present invention contemplates a bicycle exercise roller system for riding a bicycle having a front and a rear wheel thereon, comprising: a mechanical frame including a pair of spaced frame rails; a rotatable front roller disposed between the pair of frame rails and adapted for receiving the front wheel of the bicycle thereagainst; a rotatable intermediate roller disposed between the pair of frame rails and adapted for receiving the rear wheel of the bicycle thereagainst, and upon rotation of the rear wheel the intermediate roller is rotated at a first speed; a rotatable rear roller disposed between the pair of frame rails and adapted for receiving the rear wheel of the bicycle thereagainst, and upon rotation of the rear wheel the rear roller is rotated at a first speed; a flywheel located within one of the rotatable intermediate roller and the rotatable rear roller; and, means for driving the flywheel at speeds greater than the first speed.
- FIG. 1 is an illustrative perspective view of a conventional bicycle exercise roller system.
- FIG. 2 is a perspective view of one embodiment of the bicycle exercise roller system of the present invention.
- FIG. 2A is an illustrative view of a bicyclist utilizing one embodiment of the bicycle exercise roller system of present invention.
- FIG. 3 is an exploded view of the bicycle exercise roller system of FIG. 2 .
- FIG. 3A is an illustrative perspective view of the bicycle exercise roller system of FIG. 2 with the front roller removed.
- FIG. 3B is an illustrative perspective view of one embodiment of the platform comprising a portion of the bicycle exercise roller system of FIG. 2 .
- FIG. 4 is an illustrative partial sectional view of one embodiment of the bicycle exercise roller system of FIG. 2 .
- FIG. 7 is an illustrative sectional view of one embodiment of a drive roller comprising a portion of the bicycle exercise roller system of FIG. 2 .
- FIG. 8 is an illustrative sectional view of one embodiment of a drive roller including a flywheel therein which comprises a portion of the bicycle exercise roller system of FIG. 2 .
- FIG. 10 is an enlarged view of a portion of the drive roller including a locking mechanism of FIG. 5 .
- FIG. 13A is a perspective view of one mounting mechanism for selectively locating a roller within a bicycle exercise roller system of the present invention.
- FIG. 13B is a perspective view of the mounting mechanism of FIG. 13A in a state of being moved.
- FIG. 14A is a sectional view illustrating the mounting mechanism of FIG. 13A in a locking position.
- FIG. 15B is a side view of FIG. 15A .
- FIG. 17 is partially fragmented view illustrating one embodiment of the locking mechanism for locking the frame rails in an open state.
- FIG. 18 is a perspective view illustrating the folding frame folded and a carrying handle holding the drive belt for the front roller.
- the present application contemplates alternate embodiments where the bicycle may also be ridden on the roller system without utilization of the front roller and/or the front wheel 103 .
- the bicycle may be supported by an external mechanical supporting structure.
- the front wheel 103 is removed and a mechanical support engages the bicycle to support the front of the bicycle while the bicycle is ridden on the roller system 20 .
- the rotation of rear wheel 104 causes the rotation of rollers 27 and 28 .
- the present application contemplates that one of ordinary skill in the art can utilize other known techniques for supporting the bicycle.
- Roller system 20 includes a mechanical frame 21 that supports the components of the system.
- the mechanical frame 21 includes a frame rail 22 that is spaced apart from frame rail 23 .
- the frame rails 22 and 23 may include legs 21 a to elevate the frame rails off of the floor/ground.
- the frame rails 22 and 23 are continuous members and in another form the frame rails are formed of multiple portions connected at a hinge point 24 .
- the hinged frame rail 22 includes a rear portion 22 a and a front portion 22 b that are coupled by a fastener, such as hinge bolt 25 , washer 26 a and nut 26 .
- the shafts 41 , 45 and 29 a are in turn fixedly mounted to the frame rails 22 and 23 by mechanical fasteners.
- the ends of the shafts 41 , 45 and 29 a are threaded and passed through a portion of the frame rails and captured by a threaded fastener. Therefore, the rollers 27 , 28 and 29 are rotatable about the shafts 41 , 45 and 29 a .
- the axis of rotation X, Y and Z are parallel to one another and to the surface that the roller system 20 is located upon. Further, the present application also contemplates embodiments wherein the shaft and roller may rotate together relative to the frame.
- a platform 35 extends between the frame rails 22 and 23 and between the front roller 29 and the intermediate roller 28 .
- the platform 35 has an outer surface 35 a adapted for the bicyclist to place their feet on while mounting and dismounting the bicycle.
- the location of the surface 35 a allows the bicyclist to reach the platform with a portion of their feet while still sitting on the bicycle but does not interfere with the bicycle pedals during operation.
- a drive belt receiving channel 36 is formed in the platform 35 .
- the drive belt receiving channel 36 allows a front roller drive belt 33 to pass to the front roller 29 beneath the outer surface 35 a thereby preventing the front roller drive belt 33 from being stepped on during use of the roller system 20 .
- the platform 35 has sufficient strength to support the weight of the cyclist.
- the present application also contemplates a roller system 20 without any platform, and with platforms having alternative configurations to maintain the front roller drive belt below the outer surface of the platform.
- the present application contemplates that the platform 35 may be fixedly coupled to the frame rails 22 and 23 by mechanical fasteners, or may be moveable along the frame rails 22 and 23 .
- the platform 35 is positioned by the bicyclist at a desired location and is retained in that location by its own weight bearing against the frame rails 22 and 23 .
- the platform 35 includes a plurality of legs/bumpers 410 that extend from the bottom surface 35 b of the platform 35 .
- the legs/bumpers 410 are spaced apart and engage the inside surface of the frame rails 22 and 23 and locate the lateral position of the platform 35 .
- the plurality of legs/bumpers 410 have an outer surface that is adapted to minimize slipping/movement of the legs/bumpers 410 relative to the inside surface of the frame rails 22 and 23 .
- the plurality of legs/bumpers 410 have a rubberized/coated outer surface and in another preferred form the legs/bumpers 410 are formed of a rubber/elastomeric material.
- the rubber/elastomeric material may be natural or synthetic. Platforms with no legs/bumper and other styles/configurations of legs/bumpers are fully contemplated herein.
- the roller system 20 receives the rear wheel 104 of bicycle 102 onto the rear roller 27 and the intermediate roller 28 and receives the front wheel 103 of the bicycle 102 onto the front roller 29 .
- the present application also contemplates a roller system where the front portion of the bicycle is supported by an independent mechanical structure and the front wheel may or may not engage a roller.
- the rotation of the rear wheel 104 causes the rear roller 27 and the intermediate roller 28 to rotate.
- the front roller drive belt 33 is coupled between the front roller 29 and the intermediate roller 28 .
- the front roller drive belt 33 runs in a groove 29 g formed in the front roller 29 and in a groove 28 g formed in the intermediate roller 28 .
- the front roller drive belt 33 is in tension and functions to transmit work to drive the front roller at substantially the same rotational speed as the intermediate roller 28 and the rear roller 27 .
- a drive belt 32 is coupled between a drive pulley 31 on the intermediate roller 28 and a pulley 30 associated with the rear roller 27 .
- Pulley 30 is coupled to a flywheel 40 that will be described in detail below.
- Pulley 31 is rotatable with the intermediate roller 28 and provides the work necessary through the drive belt 32 to turn the pulley 30 .
- the present application also contemplates an alternative embodiment wherein the drive pulley 31 can be attached to the rear roller 27 and the pulley 30 is associated with the intermediate roller 28 . In either embodiment the rotation of the respective roller by the turning of the rear wheel 104 causes the drive pulley 31 to revolve and transfer work through drive belt 32 to turn pulley 30 and the flywheel 40 .
- FIGS. 4-9 there are illustrated sectional views of the rear roller 27 and intermediate roller 28 .
- the rear roller 27 has a flywheel 40 located therein.
- the flywheel 40 is designed to absorb and release energy during the riding of bicycle 102 on the roller system 20 by the bicyclist.
- the present invention contemplates that a flywheel may be located within the intermediate roller 28 and/or in both of the intermediate roller 28 and the rear roller 27 . While the text of this application will generally describe the flywheel in terms of being located within the rear roller there is no intention to limit the placement of the flywheel within a specific roller unless specifically stated to the contrary.
- the rear roller 27 has a substantially cylindrical outer surface 27 c that is adapted for engagement by a rear wheel 104 .
- the outer surface may be, but is not limited to, convex, concave, crowned, parabolic.
- the roller has a circular cross section.
- the rear roller 27 is defined by a tube having substantially cylindrical outer surface 27 c and a substantially cylindrical inner surface 27 d .
- the rear roller 27 may have portions that are of a non cylindrical shape, such as, but not limited to flared ends.
- the roller 27 has an outside diameter within the range of about 3 to 5 inches and a wall thickness within the range of about 1/16 to 1 ⁇ 4 inches.
- Materials appropriate for the roller 27 include plastics and metals, and a preferred material is an aluminum alloy.
- the rollers are tubular and formed of an aluminum alloy with an outside diameter of 4.5 inches, an inside diameter of 4.25 inches.
- the rear roller 27 is designed and constructed to withstand the loads associated with the bicyclist 101 riding the bicycle 102 thereon.
- FIG. 8 there is illustrated one embodiment of the roller 27 which includes end caps 27 x and 27 y that are attached to the roller 27 after the flywheel 40 has been installed within the roller 27 .
- the end caps 27 x and 27 y are attached to the roller 27 by a press fit.
- other techniques of attaching the end caps 27 x and 27 y as would be known to one of ordinary skill in the art are contemplated herein.
- Roller 27 is rotatably supported at each of its ends 200 and 201 by a bearing.
- a bearing 100 mounts one end 200 of the roller 27 on shaft 41 and a bearing 43 mounts the other end 201 of the roller 27 relative to flywheel 40 on the shaft 41 .
- Flywheel 40 located within rear roller 27 is supported on shaft 41 a bearing 42 at one end and another bearing 42 at the other end.
- an outer pilot structure 110 of the flywheel 40 is mounted on bearing 42 .
- the flywheel 40 rotates on bearings 42 about the shaft 41 .
- Bearing 43 is mounted on the outer pilot structure 110 at end 201 and the roller 27 rotates about shaft 41 on bearing 43 and bearing 100 at end 200 .
- Shaft 41 is fixedly mounted at each of its ends to the respective frame rail 22 or 23 .
- Each end of the shaft 41 includes a threaded portion 46 that is configured to receive a threaded fastener 50 .
- a washer 52 is located on either side of a wall 120 of the frame rail 22 or 23 .
- the shaft 41 includes a key feature 51 that has a geometric shape to match a portion of the opening through the wall 120 of the frame rail 22 or 23 .
- the key feature is of a square configuration so that the flats in the square match with corresponding surfaces in the opening and prevent rotation of the shaft.
- the threaded fastener 50 engages the threaded portion 46 and fixes the shaft 41 in place relative to the frame 21 .
- the present application contemplates other techniques for fixedly connecting the shaft 41 with the frame rails 22 and 23 .
- Flywheel 40 may extend the substantial length within the roller 27 or may only extend a portion of the length of the roller 27 .
- the flywheel 40 must be balanceable about the rotational centerline. In one form the flywheel is symmetrical about the rotational centerline. However, non-symmetrical structures are also contemplated, provided they are balanced about the rotational centerline.
- the flywheel 40 is of a cylindrical shape and more preferably is of a tubular configuration.
- the flywheel 40 has an outer surface 150 that may include details such as, but not limited to paddles, knurling and/or spiral threads, however in a preferred form the outer surface is a machined substantially smooth surface.
- the outer surface is a lathe turned surface, and in a preferred embodiment has a surface finish of about 125 micro-inches.
- the outer surface of the flywheel is spaced from the inner surface of the roller.
- the outer surface 150 is located within a range of about 0.050 to 0.200 inches from the inner surface 27 d of the rear roller 27 .
- the inner surface 27 d is substantially cylindrical.
- the outer surface 150 is located within a range of about 0.010 to 0.050 inches form the inner surface 27 d of the rear roller 27 .
- other spacing between the flywheel and the roller are contemplated herein
- flywheel 40 , rear roller 27 and shaft 41 are all coaxial.
- the flywheel is preferably formed of steel, but other materials for the flywheel 40 are contemplated herein.
- the flywheel 40 and the rear roller 27 are formed of dissimilar materials. However, flywheels and rollers made of the same material are contemplated herein.
- One form of the present invention contemplates a flywheel having an outside diameter of 4.0 inches, an inside diameter of 3.5 inches and is formed of steel.
- the flywheel 40 is rotated at speeds greater than the rotational speed of the rear roller 27 that the flywheel is contained within.
- the ability to drive the flywheel 40 at rotational speed greater than the rear roller 27 it is contained within is accomplished through a drive mechanism.
- the drive mechanism includes: a pulley 31 connected to and driven by the intermediate roller 28 which is adjacent the rear roller 27 ; a pulley 30 connected with the flywheel 40 that is located within rear roller 27 ; and, a drive belt 32 .
- the diameter of pulley 30 is selected to be smaller than pulley 31 and preferably the diameter of pulley 30 is within a range of about 0.8 to 1.5 inches and the diameter of pulley 31 is within a range of about 3 to 5 inches.
- pulley 31 has a pitch diameter of 4.38 inches and pulley 30 has a pitch diameter of 1.18 inches, with a resulting speed ratio of 3.7:1.
- pulleys having other pitch diameters are contemplated herein thereby allowing for a variety of speed ratios.
- the flywheel is driven at rotational speeds within a range of about 3 to 5 times the rotational speed of the rear roller that contains the flywheel.
- the present application contemplates a wide variety of speed ratios and is not limited to the above ratios unless specifically provided to the contrary. The present application contemplates changing the pulleys and speed ratios.
- intermediate roller 28 With reference to FIG. 7 , there is illustrated intermediate roller 28 .
- the intermediate roller 28 includes an outer surface 28 c that is contacted by rear wheel 104 .
- Shaft 45 is fixedly mounted to frame rails 22 and 23 and the roller 28 revolves on bearings 48 about axis of rotation Y.
- a selectable attachment system 49 for coupling/decoupling the pulley 31 with the intermediate roller 28 .
- the pulley 31 is mounted on bearing 47 and rotates about shaft 45 when coupled with the intermediate roller 28 .
- the selectable attachment system 49 includes a pair of threaded fasteners 300 that are selectively engaged with a threaded opening 301 .
- the pulley 31 rotates with the intermediate roller 28 .
- the pulley 31 is no longer driven by the intermediate roller 28 and is placed in a freewheeling mode. Therefore, work is not transmitted through belt 32 to pulley 30 and ultimately the flywheel 40 is not driven.
- FIG. 10 there is illustrated one of the threaded fasteners 300 engaged with and coupled to the threaded opening 301 .
- the other threaded fastener 300 is depicted in a disengaged state.
- Spring 310 located within housing 311 biases the threaded fastener 300 away from the threaded opening 301 to prevent interference when the pulley 31 is placed in a freewheeling state.
- FIG. 11 there is illustrated one of the threaded fasteners 300 engaged and the other threaded fastener disengaged from the roller 28 .
- the springs 310 bias the threaded fasteners from the threaded opening 301 .
- spring 315 biases the pulley 31 from the intermediate roller 28 .
- the drive mechanism 600 for driving the flywheel 40 relative to the roller 27 . Illustrated with the flywheel 40 is also a system for coupling/decoupling the flywheel 40 from the roller 27 .
- the drive mechanism 600 includes a ring gear 601 attached to the roller 27 and a sun gear 602 attached to the flywheel 40 .
- a carrier 603 is mounted on the shaft 41 and carries a plurality of planet gears 604 .
- the rotation of the ring gear 601 drives the planetary gears 604 which in turn drive the sun gear 602 .
- the operation of a planetary gear train is believed known to those of ordinary skill in the art.
- the movement of carrier 603 in a spline 610 is utilized.
- the carrier 603 is moved in the axial direction along the shaft 41 to either engage or disengage the planetary gears 604 from the sun gear 602 and the ring gear 601 .
- FIG. 9 there is illustrated a rear roller 27 with a flywheel 40 a extending only a partial distance within the roller.
- the flywheel 40 a is substantially similar to the flywheels described above.
- FIG. 9A there is illustrated a rear roller 27 that includes a flywheel 40 and a supplement resistance device 501 .
- the supplemental resistance device is a permanent magnet eddy current hysteresis dynamometer.
- the magnets of the permanent magnet eddy current hysteresis dynamometer may be magnetically coupled with the roller 27 and/or the flywheel.
- the magnets may be fixed to the shaft and the proximity of the magnets to the roller or flywheel manually controlled to achieve the desired resistance.
- the magnets may be mechanically coupled to either the flywheel or the roller and magnetically coupled to the other component.
- the present application contemplates a variety of other supplemental resistance devices including, but not limited to a direct current motor/generator, a fan or paddlewheel, a friction device, a viscous fluid device and other devices as are believed generally known to those of ordinary skill in the art.
- the present application further contemplates the utilization of a roller system with multiple supplemental resistance devices.
- a slot 800 is formed in the frame rail 23 and includes a plurality of scallops 801 that are useable to align the position of the threaded fastener 50 .
- the fastener 50 is loosened at each of the frame rails 22 and 23 .
- the threaded fastener 50 is only loosened and remains coupled with the threaded portion 46 of the shaft as it is moved within the slot 800 .
- the threaded fastener 50 is loosened to pass the reduced diameter portion 50 a between the top 805 and bottom 806 of the scallops 801 .
- the fastener 50 while attached to the shaft can be slid along the slot 800 and thereby change the location of the roller 29 .
- the threaded fasteners 50 are positioned at the desired location and the threaded fasteners are then tightened.
- the belt 33 is temporarily removed from groove 29 g in order to facilitate movement of the roller 29 .
- the present application contemplates alternate embodiments of the present invention where the slot 800 does not include scallops 801 or has different changes in geometric shape.
- each of the frame portions 22 b and 23 b include a hinge portion 900 that is coupled to the corresponding frame portion 22 a and 22 b .
- Fastener 25 joins the respective components together.
- Handle 34 included engagement pins 901 ( FIG. 3 ) at each end.
- the handle 34 is spring loaded and is compressed to get into position between the rails 22 and 23 .
- the handle is allowed to extend due to spring bias and pushes the engagement pins 901 into the respective holes 910 in frame portion 23 a and 22 a and holes 915 in the hinge portion 900 when the frame 21 is in an open state.
- the engagement pins 901 hold the frame 21 in an open position as shown in FIG. 16 .
- the handle 34 is removed and engagement pins 901 are withdrawn from openings 910 in frame portions 22 a and 23 a and holes 915 in hinge portion 900 .
- the frame 21 is then folded and the handle 34 is compressed so that engagement pins 901 can be deployed through holes 910 .
- the spring force within handle 34 biases the engagement pins 901 into a locking relationship within holes 910 .
- the handle 34 can then be utilized to grasp and carry the roller system.
- the handle 34 further functions to provide a storage location for the belt 33 when the frame is folded.
- the belt 33 is wound around the handle 34 prior to insertion of the handle between the frame portions 22 and 23 as shown in FIG. 18 .
- the flywheel has the capability to store and release enough energy to allow the bicyclist to stop pedaling for a period of time as the rear wheel coasts on the intermediate and rear rollers.
- the traditional roller systems as described in FIG. 1 allow a very short period of time for coasting.
- the cost down time on a prior roller system such as in FIG. 1 affords the rider approximately 2-3 seconds as the bicycle speed drops from about 35 miles per hour to 10 miles per hour.
- bicycle roller(s) of the present invention may provide relatively long coast down times.
- roller systems of the present invention may provide coast down times from 35 miles per hour to 10 miles per hour at durations of approximately 20-30 seconds, however other coast times are contemplated herein.
- the bicyclist will have sufficient time to stretch his legs, to rise out of the saddle to allow blood flow to return to the groin and buttock areas, and/or to adjust his clothing.
- the flywheel absorbs approximately 15-20 times more energy during a typical acceleration from 10 to 35 miles per hour. This makes interval training much more productive than with prior rollers.
Abstract
A bicycle exercise roller system including a roller with an internal flywheel. The internal flywheel is driven at a speed higher than the speed of the roller that the flywheel is located within. A platform extends between a pair of spaced frame rails and includes a channel for the passage of a drive belt for the roller engaging the front wheel of the bicycle.
Description
- The present application claims the benefit of U.S. Provisional Patent Application No. 60/640,760 filed Dec. 30, 2004 which is incorporated herein by reference.
- The present invention relates generally to the field of exercise training apparatus. More specifically, one form of the present invention relates to roller system bicycle trainers. While, the present inventions were developed for roller system bicycle trainers they may have application in other types of exercise equipment, such as but not limited to treadmills.
- With reference to
FIG. 1 , there is illustrated a conventional bicycleexercise roller system 10 for supporting a bicycle and rider during an exercise routine. The bicycleexercise roller system 10 is comprised of three rotatingrollers rails rollers rollers third roller 11, spaced further forward, supports the front wheel of the bicycle. As the rider pedals the bicycle, the rear wheel of the bicycle causes therear roller 13 andmiddle roller 12 to rotate. Themiddle roller 12 is connected to thefront roller 11 via adrive belt 16, which causes thefront roller 11 to rotate which in turn causes the front wheel of the bicycle to rotate. The rotating wheels generate enough gyroscopic effect to allow a practiced rider to maintain balance. - The prior bicycle exercise roller systems have been utilized by bicyclists for many years in training regiments. However, the design of the conventional bicycle exercise roller system may limit the conditioning benefit that the bicyclist receives. The present inventions overcome the limitations associated with the prior bicycle exercise roller systems in a novel and non-obvious way.
- One form of the present invention contemplates an exercise training apparatus, comprising: a mechanical frame; a roller coupled to and rotatable relative to the frame; and, a flywheel located within the roller.
- Another form of the present invention contemplates a bicycle exercise roller system for riding a bicycle having a front and a rear wheel thereon, comprising: a mechanical frame including a pair of spaced frame rails; a rotatable front roller disposed between the pair of frame rails and adapted for receiving the front wheel of the bicycle thereagainst; a rotatable intermediate roller disposed between the pair of frame rails and adapted for receiving the rear wheel of the bicycle thereagainst, and upon rotation of the rear wheel the intermediate roller is rotated; a rotatable rear roller disposed between the pair of frame rails and adapted for receiving the rear wheel of the bicycle thereagainst, and upon rotation of the rear wheel the rear roller is rotated; a flywheel located within one of the rotatable intermediate roller and the rotatable rear roller; and, a mechanical drive coupled between the flywheel and one of the rotatable intermediate roller and the rotatable rear roller and upon rotation of the rear wheel the mechanical drive causes rotation of the flywheel at a rotational speed greater than the rotational speed of the roller that the flywheel is located within.
- Yet another form of the present invention contemplates a bicycle exercise roller system for riding a bicycle having a front and a rear wheel thereon, comprising: a mechanical frame including a pair of spaced frame rails; a rotatable front roller disposed between the pair of frame rails and adapted for receiving the front wheel of the bicycle thereagainst; a rotatable intermediate roller disposed between the pair of frame rails and adapted for receiving the rear wheel of the bicycle thereagainst, and upon rotation of the rear wheel the intermediate roller is rotated; a rotatable rear roller disposed between the pair of frame rails and adapted for receiving the rear wheel of the bicycle thereagainst, and upon rotation of the rear wheel the rear roller is rotated; a belt coupling the front roller with one of the intermediate roller and the rear roller; and, a platform extending between the pair of frame rails and between the front roller and the intermediate roller, the platform having an outer surface for receiving the bicyclist thereon and a channel formed in the platform for the passage of the belt below the outer surface.
- In yet another form the present invention contemplates a bicycle exercise roller system for riding a bicycle having a front and a rear wheel thereon, comprising: a mechanical frame including a pair of spaced frame rails; a rotatable front roller disposed between the pair of frame rails and adapted for receiving the front wheel of the bicycle thereagainst; a rotatable intermediate roller disposed between the pair of frame rails and adapted for receiving the rear wheel of the bicycle thereagainst, and upon rotation of the rear wheel the intermediate roller is rotated at a first speed; a rotatable rear roller disposed between the pair of frame rails and adapted for receiving the rear wheel of the bicycle thereagainst, and upon rotation of the rear wheel the rear roller is rotated at a first speed; a flywheel located within one of the rotatable intermediate roller and the rotatable rear roller; and, means for driving the flywheel at speeds greater than the first speed.
- Objects and advantages of the present invention will be apparent from the following description of the preferred embodiments.
-
FIG. 1 is an illustrative perspective view of a conventional bicycle exercise roller system. -
FIG. 2 is a perspective view of one embodiment of the bicycle exercise roller system of the present invention. -
FIG. 2A is an illustrative view of a bicyclist utilizing one embodiment of the bicycle exercise roller system of present invention. -
FIG. 3 is an exploded view of the bicycle exercise roller system ofFIG. 2 . -
FIG. 3A is an illustrative perspective view of the bicycle exercise roller system ofFIG. 2 with the front roller removed. -
FIG. 3B is an illustrative perspective view of one embodiment of the platform comprising a portion of the bicycle exercise roller system ofFIG. 2 . -
FIG. 4 is an illustrative partial sectional view of one embodiment of the bicycle exercise roller system ofFIG. 2 . -
FIG. 5 is an enlarged partial view of the bicycle exercise roller system ofFIG. 4 . -
FIG. 6 is an enlarged view of a portion of the drive roller including a flywheel therein ofFIG. 5 . -
FIG. 7 is an illustrative sectional view of one embodiment of a drive roller comprising a portion of the bicycle exercise roller system ofFIG. 2 . -
FIG. 8 is an illustrative sectional view of one embodiment of a drive roller including a flywheel therein which comprises a portion of the bicycle exercise roller system ofFIG. 2 . -
FIG. 9 is an illustrative sectional view of another embodiment of a drive roller including a flywheel therein which comprises a portion of the bicycle exercise roller system of the present invention. -
FIG. 9A is an illustrative sectional view of another embodiment of a drive roller including a flywheel therein and a supplemental resistance device comprising a portion of the bicycle exercise roller system of the present invention. -
FIG. 10 is an enlarged view of a portion of the drive roller including a locking mechanism ofFIG. 5 . -
FIG. 11 is an illustrative sectional view of the locking mechanism comprising a portion ofFIG. 5 . -
FIG. 12A is an illustrative sectional view of another embodiment of a drive roller including a flywheel therein comprising a portion of the bicycle exercise roller system of the present invention. -
FIG. 12B is an illustrative sectional view illustrating an alternative drive mechanism for driving a flywheel with a roller. -
FIG. 13A is a perspective view of one mounting mechanism for selectively locating a roller within a bicycle exercise roller system of the present invention. -
FIG. 13B is a perspective view of the mounting mechanism ofFIG. 13A in a state of being moved. -
FIG. 14A is a sectional view illustrating the mounting mechanism ofFIG. 13A in a locking position. -
FIG. 14B is a side view ofFIG. 14A . -
FIG. 15A is a sectional view illustrating the mounting mechanism ofFIG. 13B in a loosened mode. -
FIG. 15B is a side view ofFIG. 15A . -
FIG. 16 is a perspective view of one embodiment of the bicycle exercise system of the present invention including a lockable folding frame. -
FIG. 17 is partially fragmented view illustrating one embodiment of the locking mechanism for locking the frame rails in an open state. -
FIG. 18 is a perspective view illustrating the folding frame folded and a carrying handle holding the drive belt for the front roller. - For the purposes of promoting an understanding of the principles of the invention, reference will now be made to the embodiment illustrated in the drawings and specific language will be used to describe the same. It will nevertheless be understood that no limitation of the scope of the invention is thereby intended, such alterations and further modifications in the illustrated device, and such further applications of the principles of the invention is illustrated therein being contemplated as would normally occur to one skilled in the art to which the invention relates.
- With reference to
FIGS. 2-3 , there is illustrated one form of the exercise training apparatus/bicycleexercise roller system 20. The exercise training apparatus/bicycle exercise roller system will be referred to in the rest of the specification as a roller system. While the present inventions will be described with reference to bicycle exercise roller systems it is fully contemplated herein that many of the present inventions have application in other exercise/conditioning equipment such as but not limited to treadmills, unless specifically provided to the contrary. Referring toFIG. 2A , there is illustrated abicyclist 101 riding abicycle 102 on one embodiment of theroller system 20. The bicycle includes afront wheel 103 engaging afront roller 29 and arear wheel 104 engaging anintermediate roller 28 and arear roller 27. Theterm front wheel 103 andrear wheel 104 as used herein include a bicycle tire unless specifically stated to the contrary. - The present application contemplates alternate embodiments where the bicycle may also be ridden on the roller system without utilization of the front roller and/or the
front wheel 103. In one form the bicycle may be supported by an external mechanical supporting structure. In one form thefront wheel 103 is removed and a mechanical support engages the bicycle to support the front of the bicycle while the bicycle is ridden on theroller system 20. The rotation ofrear wheel 104 causes the rotation ofrollers -
Roller system 20 includes amechanical frame 21 that supports the components of the system. Themechanical frame 21 includes aframe rail 22 that is spaced apart fromframe rail 23. The frame rails 22 and 23 may includelegs 21 a to elevate the frame rails off of the floor/ground. In one form the frame rails 22 and 23 are continuous members and in another form the frame rails are formed of multiple portions connected at ahinge point 24. In one embodiment including a hingedframe rail 22, the hingedframe rail 22 includes arear portion 22 a and afront portion 22 b that are coupled by a fastener, such ashinge bolt 25,washer 26 a andnut 26. The hingedframe rail 23 includes arear portion 23 a and afront portion 23 b that are coupled by a fastener, such ashinge bolt 25,washer 26 a andnut 26. In one form the frame is made of extruded metal tubing, however other types of materials are contemplated herein. The present application contemplates a variety of other frame configurations including, but not limited to tri-fold, snap, interference, welded and other techniques as are believed generally known to those of ordinary skill in the art -
Rollers mechanical frame 21. Each of therollers mechanical frame 21. The rollers will be referred to in the following manner:rear roller 27;intermediate roller 28; andfront roller 29. Corresponding with each of therollers rollers rollers respective shaft shafts shafts rollers shafts roller system 20 is located upon. Further, the present application also contemplates embodiments wherein the shaft and roller may rotate together relative to the frame. - In one form of the present invention a
platform 35 extends between the frame rails 22 and 23 and between thefront roller 29 and theintermediate roller 28. Theplatform 35 has anouter surface 35 a adapted for the bicyclist to place their feet on while mounting and dismounting the bicycle. In one form the location of thesurface 35 a allows the bicyclist to reach the platform with a portion of their feet while still sitting on the bicycle but does not interfere with the bicycle pedals during operation. In one form of the present invention a drivebelt receiving channel 36 is formed in theplatform 35. The drivebelt receiving channel 36 allows a frontroller drive belt 33 to pass to thefront roller 29 beneath theouter surface 35 a thereby preventing the frontroller drive belt 33 from being stepped on during use of theroller system 20. Further, theplatform 35 has sufficient strength to support the weight of the cyclist. The present application also contemplates aroller system 20 without any platform, and with platforms having alternative configurations to maintain the front roller drive belt below the outer surface of the platform. The present application contemplates that theplatform 35 may be fixedly coupled to the frame rails 22 and 23 by mechanical fasteners, or may be moveable along the frame rails 22 and 23. In one form theplatform 35 is positioned by the bicyclist at a desired location and is retained in that location by its own weight bearing against the frame rails 22 and 23. - With reference to
FIGS. 3A and 3B there is illustrated one embodiment of theplatform 35. In order to facilitate the viewing ofplatform 35 thefront roller 29 has been removed. In one form theplatform 35 includes a plurality of legs/bumpers 410 that extend from thebottom surface 35 b of theplatform 35. The legs/bumpers 410 are spaced apart and engage the inside surface of the frame rails 22 and 23 and locate the lateral position of theplatform 35. Further, in one form the plurality of legs/bumpers 410 have an outer surface that is adapted to minimize slipping/movement of the legs/bumpers 410 relative to the inside surface of the frame rails 22 and 23. In one preferred form the plurality of legs/bumpers 410 have a rubberized/coated outer surface and in another preferred form the legs/bumpers 410 are formed of a rubber/elastomeric material. The rubber/elastomeric material may be natural or synthetic. Platforms with no legs/bumper and other styles/configurations of legs/bumpers are fully contemplated herein. - The
roller system 20 receives therear wheel 104 ofbicycle 102 onto therear roller 27 and theintermediate roller 28 and receives thefront wheel 103 of thebicycle 102 onto thefront roller 29. As discussed above, the present application also contemplates a roller system where the front portion of the bicycle is supported by an independent mechanical structure and the front wheel may or may not engage a roller. The rotation of therear wheel 104 causes therear roller 27 and theintermediate roller 28 to rotate. In one form the frontroller drive belt 33 is coupled between thefront roller 29 and theintermediate roller 28. The frontroller drive belt 33 runs in agroove 29 g formed in thefront roller 29 and in agroove 28 g formed in theintermediate roller 28. The frontroller drive belt 33 is in tension and functions to transmit work to drive the front roller at substantially the same rotational speed as theintermediate roller 28 and therear roller 27. - In one form of the present invention a
drive belt 32 is coupled between adrive pulley 31 on theintermediate roller 28 and apulley 30 associated with therear roller 27.Pulley 30 is coupled to aflywheel 40 that will be described in detail below.Pulley 31 is rotatable with theintermediate roller 28 and provides the work necessary through thedrive belt 32 to turn thepulley 30. The present application also contemplates an alternative embodiment wherein thedrive pulley 31 can be attached to therear roller 27 and thepulley 30 is associated with theintermediate roller 28. In either embodiment the rotation of the respective roller by the turning of therear wheel 104 causes thedrive pulley 31 to revolve and transfer work throughdrive belt 32 to turnpulley 30 and theflywheel 40. - With reference to
FIGS. 4-9 , there are illustrated sectional views of therear roller 27 andintermediate roller 28. In one form of the present invention therear roller 27 has aflywheel 40 located therein. Theflywheel 40 is designed to absorb and release energy during the riding ofbicycle 102 on theroller system 20 by the bicyclist. Further, the present invention contemplates that a flywheel may be located within theintermediate roller 28 and/or in both of theintermediate roller 28 and therear roller 27. While the text of this application will generally describe the flywheel in terms of being located within the rear roller there is no intention to limit the placement of the flywheel within a specific roller unless specifically stated to the contrary. - In one form the
rear roller 27 has a substantially cylindricalouter surface 27 c that is adapted for engagement by arear wheel 104. However, the present application contemplates that the outer surface may be, but is not limited to, convex, concave, crowned, parabolic. The roller has a circular cross section. In a preferred form therear roller 27 is defined by a tube having substantially cylindricalouter surface 27 c and a substantially cylindricalinner surface 27 d. The present application also contemplates that therear roller 27 may have portions that are of a non cylindrical shape, such as, but not limited to flared ends. In one form theroller 27 has an outside diameter within the range of about 3 to 5 inches and a wall thickness within the range of about 1/16 to ¼ inches. Materials appropriate for theroller 27 include plastics and metals, and a preferred material is an aluminum alloy. In a more preferred form the rollers are tubular and formed of an aluminum alloy with an outside diameter of 4.5 inches, an inside diameter of 4.25 inches. - The
rear roller 27 is designed and constructed to withstand the loads associated with thebicyclist 101 riding thebicycle 102 thereon. With reference toFIG. 8 , there is illustrated one embodiment of theroller 27 which includes end caps 27 x and 27 y that are attached to theroller 27 after theflywheel 40 has been installed within theroller 27. The end caps 27 x and 27 y are attached to theroller 27 by a press fit. However, other techniques of attaching the end caps 27 x and 27 y as would be known to one of ordinary skill in the art are contemplated herein. -
Roller 27 is rotatably supported at each of itsends bearing 100 mounts oneend 200 of theroller 27 onshaft 41 and abearing 43 mounts theother end 201 of theroller 27 relative to flywheel 40 on theshaft 41.Flywheel 40 located withinrear roller 27 is supported on shaft 41 abearing 42 at one end and anotherbearing 42 at the other end. In one form anouter pilot structure 110 of theflywheel 40 is mounted on bearing 42. Theflywheel 40 rotates onbearings 42 about theshaft 41.Bearing 43 is mounted on theouter pilot structure 110 atend 201 and theroller 27 rotates aboutshaft 41 on bearing 43 and bearing 100 atend 200. -
Shaft 41 is fixedly mounted at each of its ends to therespective frame rail shaft 41 includes a threadedportion 46 that is configured to receive a threadedfastener 50. Awasher 52 is located on either side of awall 120 of theframe rail shaft 41 includes akey feature 51 that has a geometric shape to match a portion of the opening through thewall 120 of theframe rail fastener 50 engages the threadedportion 46 and fixes theshaft 41 in place relative to theframe 21. The present application contemplates other techniques for fixedly connecting theshaft 41 with the frame rails 22 and 23. -
Flywheel 40 may extend the substantial length within theroller 27 or may only extend a portion of the length of theroller 27. Theflywheel 40 must be balanceable about the rotational centerline. In one form the flywheel is symmetrical about the rotational centerline. However, non-symmetrical structures are also contemplated, provided they are balanced about the rotational centerline. - In one form the
flywheel 40 is of a cylindrical shape and more preferably is of a tubular configuration. Theflywheel 40 has anouter surface 150 that may include details such as, but not limited to paddles, knurling and/or spiral threads, however in a preferred form the outer surface is a machined substantially smooth surface. In one embodiment the outer surface is a lathe turned surface, and in a preferred embodiment has a surface finish of about 125 micro-inches. - The outer surface of the flywheel is spaced from the inner surface of the roller. In one form the
outer surface 150 is located within a range of about 0.050 to 0.200 inches from theinner surface 27 d of therear roller 27. In one form theinner surface 27 d is substantially cylindrical. In another form theouter surface 150 is located within a range of about 0.010 to 0.050 inches form theinner surface 27 d of therear roller 27. However, other spacing between the flywheel and the roller are contemplated herein - In one form the
flywheel 40,rear roller 27 andshaft 41 are all coaxial. The flywheel is preferably formed of steel, but other materials for theflywheel 40 are contemplated herein. In one form of the present invention theflywheel 40 and therear roller 27 are formed of dissimilar materials. However, flywheels and rollers made of the same material are contemplated herein. One form of the present invention contemplates a flywheel having an outside diameter of 4.0 inches, an inside diameter of 3.5 inches and is formed of steel. - During rotation of the
rear wheel 104 theflywheel 40 is rotated at speeds greater than the rotational speed of therear roller 27 that the flywheel is contained within. The ability to drive theflywheel 40 at rotational speed greater than therear roller 27 it is contained within is accomplished through a drive mechanism. In one form the drive mechanism includes: apulley 31 connected to and driven by theintermediate roller 28 which is adjacent therear roller 27; apulley 30 connected with theflywheel 40 that is located withinrear roller 27; and, adrive belt 32. The diameter ofpulley 30 is selected to be smaller thanpulley 31 and preferably the diameter ofpulley 30 is within a range of about 0.8 to 1.5 inches and the diameter ofpulley 31 is within a range of about 3 to 5 inches. In one form the of thepresent invention pulley 31 has a pitch diameter of 4.38 inches andpulley 30 has a pitch diameter of 1.18 inches, with a resulting speed ratio of 3.7:1. However, pulleys having other pitch diameters are contemplated herein thereby allowing for a variety of speed ratios. In one embodiment the flywheel is driven at rotational speeds within a range of about 3 to 5 times the rotational speed of the rear roller that contains the flywheel. The present application contemplates a wide variety of speed ratios and is not limited to the above ratios unless specifically provided to the contrary. The present application contemplates changing the pulleys and speed ratios. - With reference to
FIG. 7 , there is illustratedintermediate roller 28. Theintermediate roller 28 includes anouter surface 28 c that is contacted byrear wheel 104.Shaft 45 is fixedly mounted to framerails roller 28 revolves onbearings 48 about axis of rotation Y. - With reference to
FIGS. 5, 10 and 11, there is illustrated one embodiment of aselectable attachment system 49 for coupling/decoupling thepulley 31 with theintermediate roller 28. Thepulley 31 is mounted on bearing 47 and rotates aboutshaft 45 when coupled with theintermediate roller 28. In one form theselectable attachment system 49 includes a pair of threadedfasteners 300 that are selectively engaged with a threadedopening 301. Upon the threadedfasteners 300 being secured within the threadedopenings 301 thepulley 31 rotates with theintermediate roller 28. Upon the threadedfasteners 300 being removed from the threadedopenings 301 thepulley 31 is no longer driven by theintermediate roller 28 and is placed in a freewheeling mode. Therefore, work is not transmitted throughbelt 32 topulley 30 and ultimately theflywheel 40 is not driven. - With reference to
FIG. 10 , there is illustrated one of the threadedfasteners 300 engaged with and coupled to the threadedopening 301. The other threadedfastener 300 is depicted in a disengaged state.Spring 310 located withinhousing 311 biases the threadedfastener 300 away from the threadedopening 301 to prevent interference when thepulley 31 is placed in a freewheeling state. With reference toFIG. 11 , there is illustrated one of the threadedfasteners 300 engaged and the other threaded fastener disengaged from theroller 28. Upon both of the threadedfasteners 300 being disengaged thesprings 310 bias the threaded fasteners from the threadedopening 301. Further,spring 315 biases thepulley 31 from theintermediate roller 28. The reader should appreciate that in the engaged mode thespring 315 is compressed and in the disengaged mode thespring 315 is extended. - In an alternate embodiment there is only one fastener for locking the
pulley 31 and theintermediate roller 28 together. If a single fastener is utilized, a balance weight may be utilized to account for the mass imbalance in the system. - With reference to
FIGS. 12A and 12B there is illustrated analternative drive mechanism 600 for driving theflywheel 40 relative to theroller 27. Illustrated with theflywheel 40 is also a system for coupling/decoupling theflywheel 40 from theroller 27. In one form thedrive mechanism 600 includes aring gear 601 attached to theroller 27 and asun gear 602 attached to theflywheel 40. Acarrier 603 is mounted on theshaft 41 and carries a plurality of planet gears 604. The rotation of thering gear 601 drives theplanetary gears 604 which in turn drive thesun gear 602. The operation of a planetary gear train is believed known to those of ordinary skill in the art. - In one form of the system for coupling/decoupling the rotation of the
flywheel 40 from theroller 27 there is utilized the movement ofcarrier 603 in aspline 610. Thecarrier 603 is moved in the axial direction along theshaft 41 to either engage or disengage theplanetary gears 604 from thesun gear 602 and thering gear 601. - With reference to
FIG. 9 , there is illustrated arear roller 27 with aflywheel 40 a extending only a partial distance within the roller. Theflywheel 40 a is substantially similar to the flywheels described above. With reference toFIG. 9A , there is illustrated arear roller 27 that includes aflywheel 40 and asupplement resistance device 501. In one form the supplemental resistance device is a permanent magnet eddy current hysteresis dynamometer. The magnets of the permanent magnet eddy current hysteresis dynamometer may be magnetically coupled with theroller 27 and/or the flywheel. In one form, the magnets may be fixed to the shaft and the proximity of the magnets to the roller or flywheel manually controlled to achieve the desired resistance. In another form, the magnets may be mechanically coupled to either the flywheel or the roller and magnetically coupled to the other component. Further, the present application contemplates a variety of other supplemental resistance devices including, but not limited to a direct current motor/generator, a fan or paddlewheel, a friction device, a viscous fluid device and other devices as are believed generally known to those of ordinary skill in the art. The present application further contemplates the utilization of a roller system with multiple supplemental resistance devices. - With reference to
FIGS. 13-15 , there is illustrated one embodiment of the present invention for adjusting the position of a roller. The present application will describe the mechanism of adjusting the location of the roller in respect to thefront roller 29. In one form aslot 800 is formed in theframe rail 23 and includes a plurality ofscallops 801 that are useable to align the position of the threadedfastener 50. In order to adjust the position of the roller thefastener 50 is loosened at each of the frame rails 22 and 23. In the present invention the threadedfastener 50 is only loosened and remains coupled with the threadedportion 46 of the shaft as it is moved within theslot 800. The threadedfastener 50 is loosened to pass the reduceddiameter portion 50 a between the top 805 andbottom 806 of thescallops 801. With the reduceddiameter portion 50 a between the top 805 andbottom 806 of thescallops 801 thefastener 50 while attached to the shaft can be slid along theslot 800 and thereby change the location of theroller 29. The threadedfasteners 50 are positioned at the desired location and the threaded fasteners are then tightened. Thebelt 33 is temporarily removed fromgroove 29 g in order to facilitate movement of theroller 29. The present application contemplates alternate embodiments of the present invention where theslot 800 does not includescallops 801 or has different changes in geometric shape. - With reference to
FIGS. 16-18 , there is illustrated one embodiment of thehandle 34 integrated with theframe 21. The system for carrying theframe 21, and/or locking theframe 21 in an open position and/or carrying thebelt 33 is utilizable with all types of roller systems and is not limited to use with the systems of the present application unless specifically provided to the contrary. For the avoidance of doubt the handle/carrying system is applicable with virtually all types of folding rollers. In one form of the present invention each of theframe portions hinge portion 900 that is coupled to thecorresponding frame portion Fastener 25 joins the respective components together. -
Handle 34 included engagement pins 901 (FIG. 3 ) at each end. In one form thehandle 34 is spring loaded and is compressed to get into position between therails respective holes 910 inframe portion hinge portion 900 when theframe 21 is in an open state. The engagement pins 901 hold theframe 21 in an open position as shown inFIG. 16 . Upon folding theframe 21 about thehinge portions 900 thehandle 34 is removed andengagement pins 901 are withdrawn fromopenings 910 inframe portions hinge portion 900. Theframe 21 is then folded and thehandle 34 is compressed so that engagement pins 901 can be deployed throughholes 910. The spring force withinhandle 34 biases the engagement pins 901 into a locking relationship within holes 910. Thehandle 34 can then be utilized to grasp and carry the roller system. - In one embodiment the
handle 34 further functions to provide a storage location for thebelt 33 when the frame is folded. Thebelt 33 is wound around thehandle 34 prior to insertion of the handle between theframe portions FIG. 18 . - In roller systems of the present invention the flywheel has the capability to store and release enough energy to allow the bicyclist to stop pedaling for a period of time as the rear wheel coasts on the intermediate and rear rollers. The traditional roller systems as described in
FIG. 1 , allow a very short period of time for coasting. The cost down time on a prior roller system such as inFIG. 1 , affords the rider approximately 2-3 seconds as the bicycle speed drops from about 35 miles per hour to 10 miles per hour. In contrast bicycle roller(s) of the present invention may provide relatively long coast down times. The present application contemplates that roller systems of the present invention may provide coast down times from 35 miles per hour to 10 miles per hour at durations of approximately 20-30 seconds, however other coast times are contemplated herein. During these relatively long coasts the bicyclist will have sufficient time to stretch his legs, to rise out of the saddle to allow blood flow to return to the groin and buttock areas, and/or to adjust his clothing. - Second, energy absorbed and released during each pedal stroke effectively smoothes out the rider's pedaling action. This allows the rider to pedal while standing with greater ease and comfort than with prior rollers.
- Third, the flywheel absorbs approximately 15-20 times more energy during a typical acceleration from 10 to 35 miles per hour. This makes interval training much more productive than with prior rollers.
- While the invention has been illustrated and described in detail in the drawings and foregoing description, the same is to be considered as illustrative and not restrictive in character, it being understood that only the preferred embodiment has been shown and described and that all changes and modifications that come within the spirit of the invention are desired to be protected. It should be understood that while the use of the word preferable, preferably or preferred in the description above indicates that the feature so described may be more desirable, it nonetheless may not be necessary and embodiments lacking the same may be contemplated as within the scope of the invention, that scope being defined by the claims that follow. In reading the claims it is intended that when words such as “a,” “an,” “at least one,” “at least a portion” are used there is no intention to limit the claim to only one item unless specifically stated to the contrary in the claim. Further, when the language “at least a portion” and/or “a portion” is used the item may include a portion and/or the entire item unless specifically stated to the contrary. Each patent and/or publication referred to herein is incorporated by reference in its entirety.
Claims (22)
1. An exercise training apparatus, comprising:
a mechanical frame;
a roller coupled to and rotatable relative to said frame; and
a flywheel located within said roller.
2. The exercise training apparatus of claim 1 , wherein said flywheel and said roller are positioned co-axially.
3. The exercise training apparatus of claim 1 , wherein said roller and said flywheel are tubular.
4. The exercise training apparatus of claim 1 , wherein said roller has a circular cross section and said flywheel is balanced.
5. The exercise training apparatus of claim 1 , which further includes a shaft fixedly coupled between a first portion of said mechanical frame and a second portion of said mechanical frame; and
wherein said roller and said flywheel are positioned coaxial with said shaft and rotatably mounted on said shaft.
6. The exercise training apparatus of claim 1 , wherein said mechanical frame includes a first frame member and a second frame member spaced therefrom;
wherein said roller includes a shaft fixedly coupled to said first frame member and said second frame member;
wherein said roller is located between said frame members and rotates about said shaft; and
wherein said flywheel rotates about said shaft.
7. The exercise training apparatus of claim 6 , wherein said shaft and said roller and said flywheel are coaxial;
wherein said flywheel includes an outer surface;
wherein said roller includes an inner surface;
wherein said outer surface is spaced about 0.050 to 0.200 inches from said inner surface; and
wherein said roller and said flywheel are substantially tubular.
8. The exercise training apparatus of claim 1 , which further includes a supplemental load device located within said roller and disposed co-axially with said roller and said flywheel.
9. The exercise training apparatus of claim 1 , which further includes a second roller coupled to and rotatable relative to said frame; and
which further includes a second flywheel located within said second roller.
10. The exercise training apparatus of claim 1 , wherein said mechanical frame includes a first frame member and a second frame member spaced therefrom;
wherein said roller includes a shaft fixedly coupled between said first frame member and said second frame member;
which further includes a pair of first bearings located between said shaft and said flywheel to enable said flywheel to rotate relative to said shaft;
which further includes a second bearing located between said flywheel and said roller to enable said roller to rotate relative to said flywheel;
which further includes a third bearing located between said shaft and said roller to enable said roller to rotate relative to said shaft;
wherein said flywheel includes an outer cylindrical surface;
wherein said roller includes an inner cylindrical surface;
wherein said outer surface is spaced about 0.050 to 0.200 inches from said inner surface.
11. The exercise training apparatus of claim 1 , wherein said mechanical frame includes a pair of frame rails, each of said frame rails being foldable about a hinge point.
12. The exercise training apparatus of claim 11 , wherein each of said frame rails includes a first portion and a second portion adjacent said hinge point; and
which further includes means for locking said portions in at least one of an open or closed position.
13. A bicycle exercise roller system for riding a bicycle having a front and a rear wheel thereon, comprising:
a mechanical frame including a pair of spaced frame rails;
a rotatable front roller disposed between said pair of frame rails and adapted for receiving the front wheel of the bicycle thereagainst;
a rotatable intermediate roller disposed between said pair of frame rails and adapted for receiving the rear wheel of the bicycle thereagainst, and upon rotation of the rear wheel the intermediate roller is rotated;
a rotatable rear roller disposed between said pair of frame rails and adapted for receiving the rear wheel of the bicycle thereagainst, and upon rotation of the rear wheel the rear roller is rotated;
a flywheel located within one of said rotatable intermediate roller and said rotatable rear roller; and
a mechanical drive coupled between said flywheel and one of said rotatable intermediate roller and said rotatable rear roller and upon rotation of the rear wheel said mechanical drive causes rotation of said flywheel at a rotational speed greater than the rotational speed of the roller that said flywheel is located within.
14. The system of claim 13 , wherein said flywheel rotates at speeds about three to five times greater than the speed of the roller that it is located within.
15. The system of claim 13 , which further includes a drive engagement system operable with said mechanical drive, said drive engagement system having a first mode wherein said mechanical drive is engaged and causes rotation of the flywheel upon rotation of the rear wheel and a second mode wherein said mechanical drive is freewheeling and does not cause rotation of the flywheel upon rotation of the rear wheel.
16. The system of claim 13 , wherein said mechanical drive includes a ring gear coupled with one of said rotatable intermediate roller and said rotatable rear roller, and said mechanical drive further includes a sun gear connected with said flywheel, and said mechanical drive includes a plurality of planet gears disposed between said ring gear and said sun gear.
17. The system of claim 13 , wherein said flywheel and the roller said flywheel is located within are co-axial; and
wherein said flywheel and said roller said flywheel is located within are substantially tube shaped.
18. The system of claim 13 , wherein said flywheel includes a first pulley, and the other of said intermediate roller and said rear roller that the flywheel is not located within includes a second pulley, said first pulley having a smaller diameter than said second pulley; and
which further includes a belt coupling said first pulley and said second pulley.
19. The system of claim 18 , which further includes a lock for selectively coupling said first pulley with said rotatable intermediate roller.
20. The system of claim 13 , which includes a belt coupled between said rotatable intermediate roller and said rotatable front roller, and upon rotation of said intermediate roller said front roller is rotated;
which further includes a platform extending between said pair of spaced frame rails and located between said rotatable front roller and said rotatable intermediate roller, said platform having an upper deck surface adapted to receive the bicyclist thereon; and
said platform including a channel formed therein for the passage of the belt below the upper deck surface.
21. A bicycle exercise roller system for riding a bicycle having a front and a rear wheel thereon, comprising:
a mechanical frame including a pair of spaced frame rails;
a rotatable front roller disposed between said pair of frame rails and adapted for receiving the front wheel of the bicycle thereagainst;
a rotatable intermediate roller disposed between said pair of frame rails and adapted for receiving the rear wheel of the bicycle thereagainst, and upon rotation of the rear wheel the intermediate roller is rotated;
a rotatable rear roller disposed between said pair of frame rails and adapted for receiving the rear wheel of the bicycle thereagainst, and upon rotation of the rear wheel the rear roller is rotated;
a belt coupling said front roller with one of said intermediate roller and said rear roller; and
a platform extending between said pair of frame rails and between said front roller and said intermediate roller, said platform having an outer surface for receiving the bicyclist thereon and a channel formed in the platform for the passage of the belt below the outer surface.
22. A bicycle exercise roller system for riding a bicycle having a front and a rear wheel thereon, comprising:
a mechanical frame including a pair of spaced frame rails;
a rotatable front roller disposed between said pair of frame rails and adapted for receiving the front wheel of the bicycle thereagainst;
a rotatable intermediate roller disposed between said pair of frame rails and adapted for receiving the rear wheel of the bicycle thereagainst, and upon rotation of the rear wheel the intermediate roller is rotated at a first speed;
a rotatable rear roller disposed between said pair of frame rails and adapted for receiving the rear wheel of the bicycle thereagainst, and upon rotation of the rear wheel the rear roller is rotated at a first speed;
a flywheel located within one of said intermediate rotatable roller and said rotatable rear roller; and
means for driving said flywheel at speeds greater than said first speed.
Priority Applications (1)
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US11/323,443 US20060217237A1 (en) | 2004-12-30 | 2005-12-30 | Exercise apparatus |
Applications Claiming Priority (2)
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US64076004P | 2004-12-30 | 2004-12-30 | |
US11/323,443 US20060217237A1 (en) | 2004-12-30 | 2005-12-30 | Exercise apparatus |
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US20060217237A1 true US20060217237A1 (en) | 2006-09-28 |
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US11/323,443 Abandoned US20060217237A1 (en) | 2004-12-30 | 2005-12-30 | Exercise apparatus |
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US9623283B2 (en) * | 2014-04-28 | 2017-04-18 | Omavalmentaja Kajaani Oy | Exercise roller device with removably fixable support |
US20170189778A1 (en) * | 2014-10-28 | 2017-07-06 | Growtac, Inc. | Bicycle trainer |
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US11058918B1 (en) | 2019-02-12 | 2021-07-13 | Icon Health & Fitness, Inc. | Producing a workout video to control a stationary exercise machine |
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USD1008385S1 (en) * | 2023-02-08 | 2023-12-19 | Gaogang Deng | Ab wheel roller |
USD997268S1 (en) * | 2023-03-15 | 2023-08-29 | Xin Chen | Plank abdominal wheel |
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Legal Events
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