Workout apparatus for simulating user movement patterns in bicycle sports

Abstract

A workout apparatus for use by a user to simulate core movement patterns of bike riding is provided. The workout apparatus includes a base deck, a pair of tubular members coupled to the base deck and in contact with the ground, each tubular member having a convex surface in contact with the ground surface, a frame assembly pivotably mounted to the base deck, a handle bar coupled to the frame assembly, and a pair of hydraulic damper units coupled to the frame assembly and base deck. The user on the base deck grabs the handle bar to perform a pushing or pulling motion, thereby enabling the first hydraulic damper unit or second hydraulic damper unit to provide resistance to movement of the frame assembly.

Description

BACKGROUND

The embodiments herein relate generally to bicycle-related sports including, but not limited to, BMX, mountain biking, road cycling, cyclocross and motocross.

BMX, mountain bike and motocross athletes do not have a training device that precisely mimics, practices and/or simulates the movement patterns of their bikes' handlebars relative to the pedals or foot pegs. Currently, athletes train by riding their bicycles or motorcycles in the field and by performing strength exercises that do not exactly re-create the movement patterns of these sports during competitions.

As such, there is a need in the industry for a workout apparatus for simulating user movement patterns in these bicycle sports, which overcomes the limitations of the prior art. There is a further need for the workout apparatus to permit the user to perform a variety of exercise movements to improve general strength and fitness, including standing row movements with resistance in both the pulling and pushing directions.

SUMMARY

A workout apparatus for use by a user on a ground surface to simulate core movement patterns of bike riding and enhance strength and fitness of the user is provided. The workout apparatus comprises a base deck disposed on the ground surface, a pair of tubular members coupled to the base deck, each tubular member in the pair of tubular members comprising a convex surface in contact with the ground surface, the convex surfaces of the pair of tubular members configured to permit the base deck to tilt laterally on the ground surface, a frame assembly pivotably mounted to the base deck and comprising a front portion and a rear portion opposite the front portion, a handle bar coupled to the frame assembly, and a pair of hydraulic damper units coupled to the frame assembly and base deck, the first hydraulic damper unit of the pair of hydraulic damper units coupled to the base deck and front portion of the frame assembly, the second hydraulic damper unit of the pair of hydraulic damper units coupled to the base deck and rear portion of the frame assembly, the first and second hydraulic damper units configured to apply opposing forces on the frame assembly, wherein the user situated on the base deck grabs the handle bar to perform a pushing or pulling motion, thereby enabling the first hydraulic damper unit or second hydraulic damper unit to provide resistance to movement of the frame assembly as the user executes a combination of arm and leg movements.

In an alternative embodiment, the workout apparatus comprises a deck, a half ovoid-shaped base coupled to the deck and comprising a generally convex surface in contact with the ground surface, the generally convex surface of the half ovoid-shaped base configured to permit the deck to tilt laterally on the ground surface, a frame assembly pivotably mounted to the deck and comprising a front portion and a rear portion opposite the front portion, a handle bar coupled to the frame assembly, and a pair of hydraulic damper units coupled to the frame assembly and deck, the first hydraulic damper unit of the pair of hydraulic damper units coupled to the deck and front portion of the frame assembly, the second hydraulic damper unit of the pair of hydraulic damper units coupled to the deck and rear portion of the frame assembly, the first and second hydraulic damper units configured to apply opposing forces on the frame assembly.

BRIEF DESCRIPTION OF THE FIGURES

The detailed description of some embodiments of the invention will be made below with reference to the accompanying figures, wherein the figures disclose one or more embodiments of the present invention.

FIG. 1 depicts a perspective view of certain embodiments of the workout apparatus;

FIG. 2 depicts a side view of certain embodiments of the workout apparatus in use in a static exemplary initial configuration;

FIG. 3 depicts a section view of certain embodiments of the workout apparatus taken along line 3-3 in FIG. 1;

FIG. 4 depicts a side view of certain embodiments of the workout apparatus shown in use in an exemplary alternate configuration;

FIG. 5 depicts a section view of certain embodiments of the workout apparatus shown in an exemplary alternate configuration;

FIG. 6 depicts a side view of certain embodiments of the workout apparatus shown in use in an exemplary alternate configuration;

FIG. 7 depicts a section view of certain embodiments of the workout apparatus shown in an exemplary alternate configuration;

FIG. 8 depicts a front view of certain embodiments of the workout apparatus shown in use in an exemplary static initial configuration;

FIG. 9 depicts a front view of certain embodiments of the workout apparatus shown in use in an exemplary alternate configuration;

FIG. 10 depicts a front view of certain embodiments of the workout apparatus shown in use in an exemplary alternate configuration;

FIG. 11 depicts a perspective view of certain embodiments of the workout apparatus;

FIG. 12 depicts a perspective view of certain embodiments of the workout apparatus;

FIG. 13 depicts a section view of certain embodiments of the workout apparatus taken along line 13-13 in FIG. 11;

FIG. 14 depicts a perspective view of certain embodiments of the workout apparatus;

FIG. 15 depicts a perspective view of certain embodiments of the workout apparatus;

FIG. 16 depicts a section view of certain embodiments of the workout apparatus taken along line 16-16 in FIG. 14;

FIG. 17 depicts a side view of an alternative embodiment of the workout apparatus;

FIG. 18 depicts a top view of an alternative embodiment of the workout apparatus;

FIG. 19 depicts a front view of certain embodiments of an alternative embodiment of the workout apparatus;

FIG. 20 depicts a side view of certain embodiments of an alternative embodiment of the workout apparatus;

FIG. 21 depicts a side view of an alternative embodiment of the workout apparatus;

FIG. 22 depicts a side view of an alternative embodiment of the workout apparatus;

FIG. 23 depicts a side view of an alternative embodiment of the workout apparatus;

FIG. 24 depicts a side view of an alternative embodiment of the workout apparatus;

FIG. 25 depicts a side view of certain embodiments of an alternative embodiment of the workout apparatus;

FIG. 26 depicts a front view of certain embodiments of an alternative embodiment of the workout apparatus;

FIG. 27 depicts a top view of an alternative embodiment of the workout apparatus;

FIG. 28 depicts a rear perspective view of a second alternative embodiment of the workout apparatus;

FIG. 29 depicts a side perspective view of the second alternative embodiment of the workout apparatus;

FIG. 30 depicts a rear perspective view of the second alternative embodiment of the workout apparatus;

FIG. 31 depicts a side view of the second alternative embodiment of the workout apparatus;

FIG. 32 depicts a front perspective view of the second alternative embodiment of the workout apparatus;

FIG. 33 depicts a front view of the second alternative embodiment of the workout apparatus;

FIG. 34 depicts a rear perspective view of a third alternative embodiment of the workout apparatus;

FIG. 35 depicts a side perspective view of the third alternative embodiment of the workout apparatus;

FIG. 36 depicts a rear perspective view of the third alternative embodiment of the workout apparatus;

FIG. 37 depicts a side view of the third alternative embodiment of the workout apparatus;

FIG. 38 depicts a front perspective view of the third alternative embodiment of the workout apparatus;

FIG. 39 depicts a front view of the third alternative embodiment of the workout apparatus;

FIG. 40 depicts a bottom perspective view of the second alternative embodiment of the workout apparatus; and

FIG. 41 depicts a bottom view of the second alternative embodiment of the workout apparatus.

DETAILED DESCRIPTION OF CERTAIN EMBODIMENTS

As depicted in FIGS. 1-10, the workout apparatus is configured for use by operator 38 to simulate core movement patterns of BMX, mountain bike, road bicycle, cyclocross and motocross riding. In addition, the workout apparatus is beneficial in permitting operator 38 to perform a variety of exercise movements to improve general strength and fitness, including standing row movements with resistance in both the pulling and pushing directions. In certain embodiments, the workout apparatus generally comprises base deck 10, frame 24, hydraulic damping units 26, seat 28 and handle bar 32.

Base deck 10 is preferably made from aluminum sheets coupled together and is configured to be disposed on ground 40. However, base deck 10 may be made from other materials such as wood, plastic, other metals, and the like. The members of base deck 10 may be welded together, coupled together using mechanical fasteners, molded or constructed in other manners.

In one embodiment, base deck 10 comprises a pair of convex support members 18 on front and rear portions of the base deck. Convex support members 18 contact ground 40 and permit base deck 10 to tilt laterally as shown in FIGS. 9-10. In one embodiment, one or more protective strips are coupled to the bottom of convex support members 18 to protect base deck 10 and/or ground 40 from damage. The protective strips may be made from any suitable material such as rubber or alternative grip material.

A plurality of deck slots 12 are disposed through the top surface of base deck 10. Each deck slot 12 is configured to receive foot platform 14. Foot platforms 14 can easily slide in and out of deck slots 12 to permit operator 38 to set the desired positioning of foot platforms 14. Foot platforms 14 are preferably made from plastic, but could be made from metal, wood, cork or other materials. Foot platforms 14 improve grip between the feet of operator 38 and base deck 10, and are designed to mimic foot pedals of a bike, footpegs on a motorcycle or stirrups of a horse. It shall be appreciated that the workout apparatus can also be used effectively without foot platforms 14 on base deck 10.

Frame 24 is pivotably mounted to base deck 10 and is preferably made from metal sheets coupled together. In one embodiment, frame 24 is made from aluminum. However, other metals or materials may be used instead. In one embodiment, a pair of raised brackets 16 are coupled to base deck 10 and arranged generally parallel to one another. The bottom portion of frame 24 is pivotably mounted to raised brackets 16 by main pivot components 20. In one embodiment, main pivot components 20 comprise any number of components including, but not limited to, bushings, quick release pins and/or bearings. Main pivot components 20 permit frame 24 to pivot in a forward and backward motion. The quick release pins of main pivot components 20 permit frame 24 to easily attach and detach from base deck 10.

A pair of hydraulic damping units 26 are coupled to both frame 24 and base deck 10 by mechanical fasteners. As depicted in FIGS. 1 and 3, hydraulic damping units 26 are positioned to apply opposing forces on frame 24. Specifically, a first hydraulic damping unit 26 is coupled to both base deck 10 and a front portion of frame 24 and a second hydraulic damping unit 26 is coupled to both base deck 10 and a rear portion of frame 24. In this secured position, each hydraulic damping unit 26 extends through an opening in the top surface of base deck 10. The hydraulic damping units 26 are configured to apply a resistance force against frame 24 in response to pivotal movement of the frame in the forward or backward directions. Each hydraulic damping unit 26 can be independently adjusted via a dial to vary the generated force within the approximate range of 100-4,000 Newtons. FIGS. 3, 5, and 7 depict hydraulic damping units 26 in various positions during the pivotal movement of frame 24.

In one embodiment, seat 28 is slidably adjusted to a rear portion of frame 24. As depicted in FIGS. 11-13, seat 28 is coupled to seat post 30, which is inserted within a tubular opening in frame 24. Seat post 30 slides up and down relative to frame 24 and is locked into place by cam lock 22. This permits seat 28 to be adjusted to one of a plurality of height positions. It shall be appreciated that the workout apparatus can be used entirely without the seat assembly components including seat 28, seat post 30 and cam lock 22. This permits operator 38 to use the workout apparatus with the seat assembly to mimic bike/motorcycle riding or the workout apparatus without the seat assembly for general fitness exercises.

Handle bar 32 is slidably mounted to the front portion of frame 24 and comprises grips on opposing ends. As depicted in FIGS. 14-16, handle bar 32 is coupled to inner tube 34 by mechanical fasteners. Inner tube 34 slidably adjusts within an outer tubular member of frame 24 to adjust the distance of handle bar 32 relative to frame 24. Once handle bar 32 is in the desired position, knob 36 is rotatably adjusted to contact inner tube 34 as depicted in FIG. 16. This locks inner tube 34 in place to frame 24 to set the overall length of the workout apparatus. In one embodiment, handle bar 32 is configured to rotate relative to inner tube 34 by bearings (not shown). This allows handle bar 32 to rotate like a bike/motorcycle or be locked in place by a pin. It shall be appreciated that the adjustments of both seat 28 and handle bar 32 easily permit the workout apparatus to adjust to mimic different sized bikes to accommodate operator 38. This allows the workout apparatus to accommodate riders of different sizes and proportions.

In operation, the workout apparatus is configured to accommodate operator 38. Foot platforms 14 are disposed in the desired deck slots 12. Handle bar 32, inner tube 34 and seat 28 are adjusted to the desired positions as previously described. Handle bar 32 is locked in place or set to rotate relative to inner tube 34. Operator 38 selects the desired level of resistance on hydraulic damper units 26. Hydraulic damper units 26 can be set to the same or different resistance levels from each other. The rear damper unit provides resistance in the pushing forward direction of frame 24. The front damper unit provides resistance in the pulling backward direction of frame 24.

Operator 38 stands on base deck 10 and places his/her feet on foot platforms 14. Operator 38 straddles frame 24 in the same manner as on a bike. The shape of convex support members 18 require operator 38 to balance his/her weight evenly between the feet. Operator 38 pulls and pushes handle bar 32 back and forth while executing a hip hinge and hip drive motion. At the same time, operator 38 executes a combination of arm and leg movements. During this time, seat 28 moves back and forth between the legs of operator 38. These movements precisely mimic the motions of riding a bike or motorcycle on rough terrain. Alternatively, these movements provide an effective full body workout including, but not limited to, a standing rowing workout in both the pulling and pushing directions. FIGS. 2, 4 and 6 depict the movements of operator 38 and the workout apparatus. FIGS. 9-10 depict the lateral tilt of the workout apparatus when in use. This helps operator 38 to train for turns when riding a bike, as well as improve the overall balance and athleticism of the operator. The shape of convex support members 18 on ground 40 also provides feedback to operator 38 as to whether the weight of his/her body is balanced. In a balanced state, the top surface of base deck 10 remains parallel to ground 40 as shown in FIG. 8. If the weight of operator 38 is not balanced, the workout apparatus tilts laterally.

The workout apparatus may comprise several alternative designs as depicted in FIGS. 17-27. As depicted in FIGS. 17-18, an alternative workout apparatus comprises frame 44 coupled to platform 46. Frame 44 comprises front attachment point member 56 and rear attachment point member 58. Lever arm 64 is pivotably mounted to frame 44 at main pivot 48, which comprises one or more bearings. Lever arm 64 comprises intermediary attachment point 54. In one embodiment, the height of lever arm 64 can be adjusted by telescoping members, which are locked in place by bolt 52. In one embodiment, a bike handle bar (not shown) is coupled to the top of lever arm 64. FIGS. 19-20 depict an exemplary intermediary attachment point member 60, which is coupled to intermediary attachment point 54 on lever arm 64. Intermediary attachment point member 60 comprises a pair of oppositely oriented flanges 62.

In operation, one or more resistance bands (not shown) are attached to front attachment point member 56 and intermediary attachment point member 60 and/or rear attachment point member 58 and intermediary attachment point member 60. Operator 38 stands on platform 46 and performs a pulling and pushing motion on lever arm 64. The one or more resistance bands provide resistance to the movement of lever arm 64. Specifically, a resistance band connected to front attachment point member 56 and intermediary attachment point member 60 provides a pulling resistance. A resistance band connected to rear attachment point member 58 and intermediary attachment point member 60 provides a pushing resistance.

FIG. 21 depicts an alternative workout apparatus comprising alternate rear attachment point member 68, spring 70, elastic resistance band 72 and lever arm 66. Lever arm 66 and alternate rear attachment point member 68 both comprise a plurality of eyelets positioned at different height locations. This permits elastic resistance band 72 to be attached to lever arm 66 and alternate rear attachment point member 68 at different heights to vary the workout performed by operator 38. Elastic resistance band 72 and spring 70 may be coupled to alternate rear attachment point member 68 and lever arm 66 by any fastening components such as clips, carabiners, or the like. In an alternative embodiment, spring 70 can be used alone to directly connect attachment point member 68 to lever arm 66. This eliminates the need for elastic resistance band 72.

In one exemplary embodiment, operator 38 performs pushing motions on lever arm 66 when facing away from alternate rear attachment point member 68 and elastic resistance band 72 is coupled to an upper eyelet of rear alternate rear attachment point member 68. In one exemplary embodiment, operator 38 performs pulling motions on lever arm 66 when facing toward alternate rear attachment point member 68 and elastic resistance band 72 is coupled to a lower eyelet of alternate rear attachment point member 68.

FIGS. 22-24 depict an alternative workout apparatus comprising main lever arm 76 and alternate attachment point members 78. In one embodiment, main lever arm 76 comprises hooks. Elastic resistance band 80 can be secured to either alternate attachment point member 78 or main lever arm 76. As depicted in FIGS. 23-24, elastic resistance band 80 provides resistance to main lever arm 76 as it pivots backward and forward.

FIGS. 25-26 depict alternate intermediary attachment point member 82, which comprises flanges 84, crossbar 86 and eyelets 88. Alternate intermediary attachment point member 82 can be coupled to any intermediary attachment point on any lever arm previously mentioned. Eyelets 88 provide fastening locations to secure a clip or carabiner when securing an elastic band to the lever arm or attaching a damping unit thereon using a bolt.

It shall be appreciated that elastic resistance bands may be attached to different locations of the outer frame of the workout apparatus. FIG. 27 depicts an alternative workout apparatus comprising alternate attachment point members 92 disposed along different locations on the outer frame. In this embodiment, elastic resistance bands can be attached to various positions between alternate attachment point members 92 and a lever arm (not shown) coupled to main pivot 90. In one embodiment, main pivot 90 is a multi-directional pivot that permits the lever arm to move in multiple directions. These variations provide operator 38 with a different workout stimulus that varies the direction of body and/or lever arm movements when performing exercises.

FIGS. 28-33 and 40-41 illustrate second alternative workout apparatus 100, which comprises many of the same components previously discussed in embodiments of the invention including base deck 10, deck slots 12, raised brackets 16, main pivot components 20 and hydraulic damping units 26. Second alternative workout apparatus 100 comprises a modified base with a pair of tubular members 102 with bottom convex-shaped surfaces configured to contact the ground. The bottom convex-shaped surfaces of tubular members 102 create an unstable base when in contact with the ground. This permits base deck 10 to tilt laterally on the ground surface. In a preferred embodiment, each tubular member 102 comprises a square-shaped cross-section and is made from materials including, but not limited to, steel, aluminum, other metals, wood or other materials.

In certain embodiments, tubular members 102 are coupled to base deck 10 using brackets, welds and/or mechanical fasteners. Any number of additional support members may be used to enhance the strength and stability of base deck 10. FIGS. 40-41 depict the bottom of second alternative workout apparatus 100. In one embodiment, rear base support tube 122 and front base support tube 124 are coupled to opposing ends of base deck 10 by mechanical fasteners. Side mounting brackets 120 are coupled to tubular members 102 and serve as attachment points for the bottom ends of hydraulic damping units 26.

More specifically, a first side mounting bracket 120 is coupled to rear base support tube 122 and tubular member 102 by mechanical fasteners. The bottom end of a first hydraulic damping unit 26 is coupled to side mounting bracket 120 by one or more mechanical fasteners such as a pin. Similarly, a second side mounting bracket 120 is coupled to front base support tube 124 and tubular member 102 by mechanical fasteners. The bottom end of a second hydraulic damping unit 26 is coupled to side mounting bracket 120 by one or more mechanical fasteners such as a pin. In one embodiment, a pair of base longitudinal support tubes 126 are coupled to front and rear base support tubes 124, 122 by mechanical fasteners. Base longitudinal support tubes 126 extend beneath base deck 10 and are coupled to raised brackets 16 by mechanical fasteners.

It shall be appreciated that the mechanical fasteners used to secure components of second alternative workout apparatus 100 may include, but are not limited to, bolts, pins, screws, nuts, washers and the like. It shall be appreciated that any number of mechanical fasteners such as bolts, pins and brackets may be used to secure the components of the workout apparatus together.

Second alternative workout apparatus 100 comprises an alternative frame assembly 104 comprising outer tubular member 106 and inner tubular member 112. Outer tubular member 106 comprises a bottom end pivotably mounted to base deck 10 at raised brackets 16 using main pivot components 20. In one embodiment, main pivot components 20 comprise any number of components including, but not limited to, bushings, quick release pins and/or bearings. Main pivot components 20 permit outer tubular member 106 of frame assembly 104 to pivot in a forward and backward motion. The quick release pins of main pivot components 20 permit frame assembly 104 to easily attach and detach from base deck 10.

As depicted in FIG. 31, outer tubular member 106 comprises first section 108 pivotably mounted to base deck 10 and comprising a first central axis and second section 110 continuously connected to first section 108 and comprising a second central axis. The first central axis of first section 108 of outer tubular member 106 and the second central axis of second section 110 of outer tubular member 106 form an angle A that is preferably within the approximate range of 50 to 60 degrees.

Inner tubular member 112 is slidably mounted to second section 110 of outer tubular member 106 and comprises handle bar 32 at the end. It shall be appreciated that handle bar 32 may comprise different shapes and sizes to accommodate operator 38. In a preferred embodiment, inner tubular member 112 is configured to slidably adjust relative to second section 110 of outer tubular member 106 to one of a plurality of locking positions. In one embodiment, second section 110 of outer tubular member 106 comprises a plurality of openings configured to engage with a spring-loaded pin-type member coupled to inner tubular member 112. As such, inner tubular member 112 is maneuvered so that the spring-loaded pin-type member engages with a corresponding one of the plurality of openings in outer tubular member 106 at the desired locking position.

The location of the spring-loaded pin-type member and openings in the tubular members may vary. In an alternative embodiment, second section 110 of outer tubular member 106 comprises an opening configured to receive the spring-loaded pin-type member. The spring-loaded pin-type member engages with a corresponding one of a plurality of openings disposed throughout inner tubular member 112.

In a preferred embodiment, inner and outer tubular members 112, 106 each comprises a square-shaped cross-section and is made from materials including, but not limited to, steel, aluminum, other metals, wood or other materials.

A pair of hydraulic damping units 26 is coupled to both frame assembly 104 and base deck 10 by mechanical fasteners. In one embodiment, the first hydraulic damping unit 26 is coupled to side mounting bracket 120 beneath base deck 10 as previously described and a front portion of outer tubular member 106. Similarly, the second hydraulic damping unit 26 is coupled to another side mounting bracket 120 beneath base deck 10 as previously described and a rear portion of outer tubular member 106. In one embodiment, hydraulic damping units 26 comprise first ends coupled to plates fastened to outer tubular member 106 using mechanical fasteners and second ends coupled to side mounting brackets 120 beneath base deck 10 using components such as plates, welds and/or other mechanical fasteners.

Hydraulic damping units 26 are positioned to apply opposing forces on frame assembly 104. In the secured position, each hydraulic damping unit 26 extends through an opening in the top surface of base deck 10. The hydraulic damping units 26 are configured to apply a resistance force against frame assembly 104 in response to pivotal movement of the frame assembly in the forward or backward directions. Each hydraulic damping unit 26 can be independently adjusted via a dial to vary the generated force within the approximate range of 100-4,000 Newtons.

In operation, second alternative workout apparatus 100 serves as a standing rower that is operated in substantially the same manner as previously discussed in other embodiments of the workout apparatus. Foot platforms 14 are disposed in the desired deck slots 12. Inner tubular member 112 is slidably adjusted relative to outer tubular member 106 so that handle bar 32 is in the desired position. Operator 38 selects the desired level of resistance on hydraulic damper units 26. Hydraulic damper units 26 can be set to the same or different resistance levels from each other. The rear damper unit provides resistance in the pushing forward direction of frame assembly 104. The front damper unit provides resistance in the pulling backward direction of frame assembly 104.

Operator 38 stands on base deck 10 and places his/her feet on foot platforms 14. The bottom convex-shaped surfaces of tubular members 102 in contact with the ground require operator 38 to balance his/her weight evenly between the feet on base deck 10. Operator 38 pulls and pushes handle bar 32 back and forth while executing a hip hinge and hip drive motion. At the same time, operator 38 executes a combination of arm and leg movements.

FIGS. 34-39 illustrate third alternative workout apparatus 114, which comprises substantially the same components previously discussed for second alternative workout apparatus 100. However, instead of tubular members 102, third alternative workout apparatus 114 comprises half ovoid-shaped base 116 coupled to the bottom of base deck 10. Half ovoid-shaped base 116 comprises a bottom convex surface configured to contact the ground. The bottom convex surface of half ovoid-shaped base 116 creates an unstable base when in contact with the ground. This permits base deck 10 to tilt laterally on the ground surface.

Half ovoid-shaped base 116 comprises a plastic or other polymer-based blow-molded member that is deformable and resilient. In one embodiment, half ovoid-shaped base 116 is coupled to the bottom of base deck 10 by an adhesive or other fastening component known in the field. In one embodiment, half ovoid-shaped base 116 comprises an inner hollow cavity that can be inflated or deflated either manually or via a mechanical pump. Operator 38 uses third alternative workout apparatus 114 in the same manner as second alternative workout apparatus 100.

It shall be appreciated that the components of the workout apparatuses described in several embodiments herein may comprise any alternative known materials in the field and be of any color, size and/or dimensions. It shall be appreciated that the components of the workout apparatuses described herein may be manufactured and assembled using any known techniques in the field.

Persons of ordinary skill in the art may appreciate that numerous design configurations may be possible to enjoy the functional benefits of the inventive systems. Thus, given the wide variety of configurations and arrangements of embodiments of the present invention the scope of the invention is reflected by the breadth of the claims below rather than narrowed by the embodiments described above.

Claims

1. A workout apparatus for use by a user on a ground surface to simulate core movement patterns of bike riding and enhance strength and fitness of the user, the workout apparatus comprising: a base deck disposed on the ground surface;a pair of tubular members coupled to the base deck, each tubular member in the pair of tubular members comprising a convex surface in contact with the ground surface, the convex surfaces of the pair of tubular members configured to permit the base deck to tilt laterally on the ground surface;a frame assembly pivotably mounted to the base deck and comprising a front portion and a rear portion opposite the front portion;a handle bar coupled to the frame assembly; anda pair of hydraulic damper units coupled to the frame assembly and base deck,a first hydraulic damper unit of the pair of hydraulic damper units coupled to the base deck and front portion of the frame assembly, a second hydraulic damper unit of the pair of hydraulic damper units coupled to the base deck and rear portion of the frame assembly, the first and second hydraulic damper units configured to apply opposing forces on the frame assembly;wherein the handle bar is configured to be grabbed by the user to perform a pushing or pulling motion, thereby enabling the first hydraulic damper unit or second hydraulic damper unit to provide resistance to movement of the frame assembly.

2. The workout apparatus of claim 1, wherein a first tubular member in the pair of tubular members is coupled to a front portion of the base deck and a second tubular member in the pair of tubular members is coupled to a rear portion of the base deck.

3. The workout apparatus of claim 2, wherein the frame assembly comprises an outer tubular member pivotably mounted to the base deck and an inner tubular member slidably mounted to the outer tubular member, the handle bar being coupled to an end of the inner tubular member.

4. The workout apparatus of claim 3, wherein the outer tubular member comprises a first section pivotably mounted to the base deck and comprising a first central axis and a second section continuously connected to the first section and comprising a second central axis, wherein the first and second central axes form an angle that is within the approximate range of 50 to 60 degrees.

5. The workout apparatus of claim 4, wherein the inner tubular member is slidably adjustable relative to the second section of the outer tubular member to one of a plurality of locking positions.

6. The workout apparatus of claim 5, further comprising a pair of foot platforms detachably coupled to a top surface of the base deck.

7. The workout apparatus of claim 6, wherein the top surface of the base deck comprises a plurality of slots, each foot platform of the pair of foot platforms configured to detachably couple to any one of the plurality of slots in the base deck.

8. A workout apparatus for use by a user on a ground surface to simulate core movement patterns of bike riding and enhance strength and fitness of the user, the workout apparatus comprising: a deck;a half ovoid-shaped base coupled to the deck and comprising a generally convex surface in contact with the ground surface, the generally convex surface of the half ovoid-shaped base configured to permit the deck to tilt laterally on the ground surface;a frame assembly pivotably mounted to the deck and comprising a front portion and a rear portion opposite the front portion;a handle bar coupled to the frame assembly; anda pair of hydraulic damper units coupled to the frame assembly and deck, a first hydraulic damper unit of the pair of hydraulic damper units coupled to the deck and front portion of the frame assembly, a second hydraulic damper unit of the pair of hydraulic damper units coupled to the deck and rear portion of the frame assembly, the first and second hydraulic damper units configured to apply opposing forces on the frame assembly;wherein the handle bar is configured to be grabbed by the user to perform a pushing or pulling motion, thereby enabling the first hydraulic damper unit or second hydraulic damper unit to provide resistance to movement of the frame assembly.

9. The workout apparatus of claim 8, wherein the frame assembly comprises an outer tubular member pivotably mounted to the deck and an inner tubular member slidably mounted to the outer tubular member, the handle bar being coupled to an end of the inner tubular member.

10. The workout apparatus of claim 9, wherein the outer tubular member comprises a first section pivotably mounted to the deck and comprising a first central axis and a second section continuously connected to the first section and comprising a second central axis, wherein the first and second central axes form an angle that is within the approximate range of 50 to 60 degrees.

11. The workout apparatus of claim 10, wherein the inner tubular member is slidably adjusted relative to the second section of the outer tubular member to one of a plurality of locking positions.

12. The workout apparatus of claim 11, further comprising a pair of foot platforms detachably coupled to a top surface of the deck.

13. The workout apparatus of claim 12, wherein the top surface of the deck comprises a plurality of slots, each foot platform of the pair of foot platforms configured to detachably couple to any one of the plurality of slots in the deck.