US20110057400A1

US20110057400A1 - Wheeled platform apparatus and method for use with wheeled footwear

Info

Publication number: US20110057400A1
Application number: US12/878,805
Authority: US
Inventors: Ryan Daniel Wills
Original assignee: Individual
Current assignee: Heeling Sports Ltd
Priority date: 2009-09-09
Filing date: 2010-09-09
Publication date: 2011-03-10
Also published as: EP2475573A1; WO2011031885A1; JP2013504382A

Abstract

In a preferred embodiment a wheeled platform apparatus and method for use in combination with a wheel-in-the-heel “heeling” apparatus, or other footwear, for rolling on a surface are provided. The apparatus includes a platform having a top surface, a bottom surface, a front portion, a center portion, a rear portion, and a first wheel and a second wheel that interface with or are positioned below the bottom surface of the platform to facilitate rolling movement of the platform. The apparatus may further include an attachment structure interfacing with the top surface for mating with a foot, or footwear, including a heeling apparatus, as well as a foot rest to support the forefoot of another foot, or footwear, including a heeling apparatus, while rolling.

Description

CROSS-REFERENCE TO RELATED APPLICATIONS

Pursuant to 35 U.S.C. §119, this application claims priority to and the benefit of, and hereby incorporates by reference for all purposes, U.S. Provisional Patent Application Ser. No. 61/276,214, entitled Wheeled Platform and Method for use with Wheeled Footwear, naming Ryan Daniel Wills as inventor, and filed Sep. 9, 2009; U.S. Provisional Patent Application Ser. No. 61/279,489, entitled Wheeled Platform Apparatus and Method for use with Wheeled Footwear, naming Ryan Daniel Wills as inventor, and filed Oct. 21, 2009; and U.S. Provisional Patent Application Ser. No. 61/399,190, entitled Wheeled Platform Apparatus and Method for use with Wheeled Footwear, naming Ryan Daniel Wills as inventor, and filed Jul. 7, 2010.

TECHNICAL FIELD

This invention relates in general to the field of active sports and more particularly to a wheeled platform co-operable with wheeled footwear, including a wheel in the heel (“heeling”) apparatus or skate.

BACKGROUND

Active sports often include skateboards and wheeled apparatuses. Some individuals, however, desire more functionality and versatility than provided by conventional skateboards and wheeled apparatuses.

SUMMARY

A wheeled platform apparatus is provided that includes a top surface, a bottom surface, at least two wheels extending at least partially through the bottom surface, and may further include an attachment structure or mechanism positioned adjacent or below the top surface for mating with non-wheeled or wheeled footwear, including a heeling apparatus, quad skate, inline skate, external wheel assembly, or other wheeled skate, or a user's bare foot.
Other technical advantages are readily apparent to one skilled in the art from the following figures and description.

BRIEF DESCRIPTION OF THE DRAWINGS

For a more complete understanding of the present invention, reference is now made to the following brief description, taken in connection with the accompanying drawings and detailed description, wherein like reference numerals represent like parts, in which:

FIG. 1 is a side view that illustrates a heeling apparatus implemented using an athletic shoe according to one embodiment of the present invention;

FIGS. 2A and 2B are bottom views that illustrate two embodiments of a sole of the heeling apparatus with openings in the sole;

FIGS. 3A and 3B are bottom views of the two embodiments of the sole as shown in FIGS. 2A and 2B and illustrate a wheel in each of the openings of the soles;

FIG. 4 is a perspective view that illustrates a wheel rotatably mounted to an axle, which also may be referred to as a wheel/axle assembly, for use in a wheel assembly according to one embodiment of the present invention;

FIG. 5 is a perspective view that illustrates a mounting structure for use with a wheel rotatably mounted to an axle, as illustrated in FIG. 4, to form a wheel assembly;

FIG. 6 is a bottom view that illustrates a wheel assembly that includes the wheel rotatably mounted on the axle as shown in FIG. 4 and the mounting structure of FIG. 5;

FIG. 7 is a side view that illustrates the wheel assembly positioned above and through the opening in a footwear to form a heeling apparatus;

FIGS. 8A, 8B, 8C, and 8D are profile views of various wheels that illustrate the surface profile of these wheels that may used in various embodiments of the present invention;

FIG. 9 is a perspective view that illustrates a mounting structure of another embodiment for use in a wheel assembly of a heeling apparatus;

FIG. 10 is a perspective view that illustrates a wheel assembly that uses yet another embodiment for use in a heeling apparatus;

FIG. 11 is a side, partial cutaway view that illustrates one embodiment of a heeling apparatus that illustrates the wheel assembly provided in the sole of the heeling apparatus and the opening in the sole not extending completely through the sole;

FIG. 12 is a side view of another embodiment that illustrates the heeling apparatus of the present invention with a removable wheel cover positioned to cover the wheel and the opening in the sole;

FIG. 13 is a bottom view that illustrates another embodiment of the present invention with a spherical ball serving as a wheel and positioned in a mounting structure in an opening in the heel portion of the sole;

FIG. 14 is a perspective view that illustrates a “heeler” using the present invention to “heel”;

FIG. 15 is a perspective view that illustrates a wheel rotatably mounted to an axle, which also may be referred to as a wheel/axle assembly, similar to FIG. 4;

FIG. 16 is a cutaway view that illustrates a collapsible axle of the wheel/axle assembly of FIG. 15 implemented as a spring-loaded collapsible axle;

FIG. 17 is a perspective view that illustrates another mounting structure for use with the wheel/axle assembly and the collapsible axle, as illustrated in FIG. 15 and FIG. 16, to form a wheel assembly;

FIG. 18 is a side, cutaway view that illustrates a wheel assembly positioned through an opening in a sole that illustrates one embodiment of an axle that couples to the mounting structure to provide a retractable wheel using an assembly that may be referred to as a king pin arrangement;

FIG. 19 is a bottom view that illustrates the wheel assembly of FIG. 18 that further illustrates the dual king pin arrangement;

FIG. 20 is a side view that illustrates one member of the mounting structure that further illustrates the coupling of the axle to the mounting structure using the dual king pin arrangement;

FIG. 21 is a breakaway and perspective view that illustrates a two piece wheel that includes an inner core and an outer tire and that may be used in the present invention;

FIG. 22A is a side, isometric view that illustrates one embodiment of a wheeled platform apparatus with an attachment structure;

FIG. 22B is a side, isometric view that illustrates one embodiment of a wheeled platform apparatus with no attachment structure;

FIG. 23 is a side view that illustrates one embodiment of a wheeled platform apparatus with an attachment structure;

FIG. 24 is a top view that illustrates one embodiment of a wheeled platform apparatus with an attachment structure;

FIG. 25 is a top, isometric view that illustrates one embodiment of a wheeled platform apparatus with an attachment structure;

FIG. 26 is a front, isometric view that illustrates one embodiment of a wheeled platform apparatus with an attachment structure;

FIG. 27 is a rear, isometric view that illustrates one embodiment of a wheeled platform apparatus with an attachment structure;

FIG. 28 is a front view that illustrates one embodiment of a wheeled platform apparatus interfaced with a footwear;

FIGS. 29A, 29B, 29C, and 29D are side views that illustrate embodiments of a wheeled platform apparatus with a heeling apparatus, quad skate, inline skate, and external wheel assembly, respectively, positioned behind and in contact with the back of the wheeled platform apparatus;

FIG. 29E is a side view that illustrates a one embodiment of a wheeled platform apparatus with a heeling apparatus, with elevated forefoot, positioned at least partially behind the wheeled platform apparatus;

FIGS. 30A, 30B, 30C, and 30D are side views that illustrate one embodiment of a user with one foot positioned on the wheeled platform apparatus and the remaining foot configured with a heeling apparatus, quad skate, inline skate, and external wheel assembly, respectively;

FIG. 31 is a top view that illustrates one embodiment of a wheeled platform apparatus with an axle attachment structure;

FIG. 32 is a side, isometric view that illustrates one embodiment of a wheeled platform apparatus with a wheel attachment structure;

FIG. 33 is a side isometric view that illustrates one embodiment of a wheeled platform apparatus with an at least partially recessed wheel attachment structure;

FIG. 34 is a side, isometric view that illustrates one embodiment of a wheeled platform apparatus with a removable deckplate and an attachment structure;

FIG. 35 is a side view that illustrates one embodiment of a wheeled platform apparatus with a removable deckplate and an attachment structure;

FIG. 36A is a side isometric view that illustrates one embodiment of a wheeled platform apparatus with a removable deckplate and a removable deckplate locking structure;

FIG. 36B is a top view that illustrates one embodiment of a wheeled platform apparatus with a removable deckplate and a removable deckplate locking structure;

FIG. 37 is a side isometric view that illustrates one embodiment of a wheeled platform apparatus with a removable deckplate and a removable deckplate fastener;

FIG. 38 is a breakaway and perspective view that illustrates an embodiment of a wheeled platform apparatus with a removable deckplate, attachment structure, axle structure, fasteners, tensioner, recess, mid-chassis, and a platform;

FIG. 39A is a perspective view that illustrates an embodiment of the attachment structure illustrating a first fastener opening, a sleeve-like opening, and a tensioner opening;

FIG. 39B is a side-view that illustrates an embodiment of an attachment structure illustrating a sleeve-like opening and a projection;

FIG. 39C is a bottom-view that illustrates an embodiment of an attachment structure illustrating first and second fastener openings, a projection, and a sleeve-like opening;

FIG. 40A is a rear perspective view that illustrates an embodiment of a mid-chassis with a recess for storing objects, such as axle structures;

FIG. 40B is a top view that illustrates an embodiment of a deckplate;

FIG. 40C is a rear perspective view that illustrates an embodiment of a mid-chassis with a recess for storing objects, such as axle structures;

FIG. 41A is a front perspective view that illustrates an embodiment of a strap coupled to a mid-chassis by a deckplate;

FIG. 41B is a side perspective view that illustrates an embodiment of a strap coupled to a mid-chassis by a deckplate;

FIG. 41C is a perspective view that illustrates an embodiment of a strap positioned over the recess of a mid-chassis;

FIG. 41D is a perspective view that illustrates an embodiment of a deckplate placed over the mid-chassis with a strap positioned therebetween;

FIG. 41E is a perspective view that illustrates an embodiment of a deckplate placed over a mid-chassis, having a recess for storing objects, with a strap positioned therebetween;

FIG. 41F is a perspective view that illustrates an embodiment of a wheeled platform apparatus having a strap attached thereto and positioned around a user's foot;

FIG. 42 is a side view that illustrates an embodiment of a wheeled platform apparatus with the forefoot of a heeling apparatus positioned in contact with the surface as a brake;

FIG. 43 is a side view that illustrates an embodiment of a wheeled platform apparatus with the heel of a heeling apparatus positioned in contact with the surface as a brake;

FIG. 44 is a perspective view that illustrates an embodiment of an attachment structure capable of mounting at an angle offset from the longitudinal centerline of the wheeled platform apparatus;

FIG. 45 is a bottom view that illustrates an embodiment of a heeling apparatus having a recess for receiving a wheel assembly or an attachment structure;

FIG. 46A is a perspective view that illustrates an embodiment of a deckplate being removably mounted to a wheeled platform apparatus;

FIG. 46B is a perspective view that illustrates an embodiment of a deckplate being removed from a wheeled platform apparatus;

FIG. 47 is a bottom view that illustrates an embodiment of a wheeled platform apparatus with a removable wheel assembly;

FIG. 48 is a perspective view that illustrates an embodiment of a heeling apparatus being removably mounted to a wheeled platform apparatus using an attachment structure and a strap;

FIG. 49 is a perspective view that illustrates an embodiment of an attachment structure being attached to a wheeled platform apparatus;

FIG. 50 is a exploded view that illustrates an embodiment of an attachment structure showing placement of axle and tensioner; and

FIG. 51 is a side view that illustrates an embodiment of a wheeled platform apparatus with a non-rolling portion of a heeling apparatus positioned in contact with the surface as a brake.

DETAILED DESCRIPTION

It should be understood at the outset that although an exemplary implementation of the present invention is illustrated below, the present invention may be implemented using any number of techniques, materials, designs, and configurations whether currently known or in existence. The present invention should in no way be limited to the exemplary implementations, drawings, and techniques illustrated below, including the exemplary designs and implementations illustrated and described herein.
FIGS. 1-21 and the accompanying description illustrate and describe various aspects of a heeling apparatus and method as exemplary athletic footwear that may be configured, modified or employed to cooperate with a wheeled platform apparatus 1000, according to one or more aspects of the present invention. It should be appreciated, however, that the present invention is not limited to the construction, configuration and implementations of the heeling apparatus illustrated in FIGS. 1-21 and may be utilized on any footwear, skates or with additional or different components or configurations that are within the scope of the present invention.
FIG. 1 is a side view of a heeling apparatus 10 implemented using an athletic shoe 12 according to one embodiment of the present invention. The heeling apparatus 10 preferably includes a wheel assembly provided in an opening in the heel portion of the sole of a footwear. For example the athletic shoe 12 includes an opening in the bottom of a heel portion 18 of a sole 14 with a wheel assembly provided in the hole such that a wheel 16 extends below the bottom of the sole 14. The wheel assembly preferably includes at least one wheel, such as the wheel 16, rotatably mounted on an axle (not illustrated in FIG. 1). The wheel 16 mounted on the axle is preferably positioned in the opening of the sole 14 through a mounting structure (not illustrated in FIG. 1) that is operable to support the axle such that a portion of the wheel 16 extends below the heel portion 18 of the sole 14.
The amount or length of the portion of the wheel 16 that extends below the bottom of the sole 14, as defined by a distance 24, will preferably be less than the diameter of the wheel 16. The distance 24, however, may be greater than, less than, or equal to the diameter of the wheel 16.
The athletic shoe 12, as is true of most footwear, may be generally described as having the sole 14 and an upper part 26. The upper part 26 may be constructed of virtually any material such as, for example, leather, plastic, or canvas. The sole 14 may include three parts: (1) an inner sole or insole (not illustrated in FIG. 1); (2) a midsole 28; and (3) an outer sole or outsole 30. The insole may provide added cushion and may or may not be removable. In some embodiments, the insole may include a removable portion, such as a DR. SCHOLL'S insole, and a portion that remains attached to the athletic shoe 12. The outsole 30 will preferably be made of a durable material, such as rubber, and may have a textured surface, such as with knobbies, to provide added traction. The midsole 28 will generally be constructed of a soft or “cushiony” material and will generally be thicker than the insole and the outsole 30. In some embodiments, however, the sole 14 will comprise only one part, such as the leather sole of a loafer. In other embodiments, the sole 14 may include a separate heel block or object that elevates the footwear, such as the heel of a leather wingtip dress shoe. This heel block or object may be considered to be part of the heel portion 18 of the sole 14. It should be understood that the present invention may be implemented in virtually any footwear, irrespective of the design or the make-up of the sole 14. Various styles of footwear and methods of making footwear are known in the art and are known by one of ordinary skill in the art. For example, U.S. Pat. Nos. 4,245,406, 5,319,869, 5,384,973, 5,396,675, 5,572,804, 5,595,004, and 5,885,500, which are hereby incorporated by reference for all purposes, provide various background information regarding various footwear and methods of making footwear.
In most footwear, including the athletic shoe 12, the sole 14 may also be divided into three portions or regions: (1) the heel portion 18, (2) an arch portion 20, and (3) a forefoot portion 22, as illustrated in FIG. 1. It should be understood that the heel portion 18, the arch portion 20, and the forefoot portion 22 of the sole 14 are incapable of being exactly defined and located, and that such portions vary from one footwear type to another. Thus, the location, the boundaries between, and the size of the heel portion 18, the arch portion 20, and the forefoot portion 22 of the sole 14 are only rough approximations.
It should also be understood that although the position of the opening in the bottom of the sole 14, and hence also the wheel 16, is preferably located in the heel portion 18 of the sole 14, such an opening may also be located at the boundary of the heel portion 18 and the arch portion 20, at the arch portion 20, or at virtually any other location on the sole 14. The opening in the bottom of the sole 14 may extend entirely through the sole 14, e.g., through the outsole, the midsole and the insole, or only partially through the sole 14, e.g., through the outsole, and a portion or all of the midsole.
The wheel 16 may be constructed or made of virtually any known or available material such as, for example, a urethane, a plastic, a polymer, a metal, an alloy, a wood, a rubber, a composite material, and the like. This may include, for example, aluminum, titanium, steel, and a resin. Preferably, the material will be durable, provide quiet performance, and will provide a “soft” or “cushioning” feel. In one embodiment, the wheel 16 may be implemented as one or more precision bearings such that the precision bearing serves as the wheel 16 itself. In yet another embodiment, the wheel assembly may include a spring or suspension such as, for example, a leaf spring, to provide additional cushion or suspension when the wheel 16 contacts a surface and a force is applied to the athletic shoe 12 in the direction of the surface, such as when a someone is wearing and walking in the heeling apparatus 10. The spring is preferably provided as part of the mounting structure of the wheel assembly. In still another embodiment, the wheel 16 is provided as a two piece wheel with an inner core, such as a hard inner core, such as a hard inner core, surrounded by an outer tire, such as a urethane tire.
Depending on the desired implementation, the wheel 16 and the axle may be removable from the wheel assembly. In such a case, a removable cover may be provided in the opening in the sole 14 to cover the opening so that debris and dirt does not enter the opening. The removable cover may be provided in virtually any available configuration readily ascertainable by one of ordinary skill in the art. In one embodiment of the removable cover, an axle portion of the removable cover fits and/or couples to the mounting structure in the same or similar manner that the axle in which the wheel 16 is mounted fits and/or couples to the mounting structure of the wheel assembly. A tool may also be provided to facilitate the removal of the axle and wheel 16. This tool will, preferably, be small and multi-functional to provide any other possible adjustments to the heeling apparatus 10, such as a screw driver, a wrench, and the like. In other embodiments of the heeling apparatus 10, the wheel 16 may be retractable into the opening in the sole 14. In this manner, the wheel 16 may be retracted into the sole 14 and, thus, will not extend below the bottom of the sole 14. This allows the heeling apparatus 10 to function just like ordinary footwear, such as the athletic shoe 12.
In one embodiment of the present invention, the wheel assembly does not include an axle, and, arguably, not a mounting structure, and the wheel 16 is provided as a sphere, such as a stainless steel ball bearing, that is rotatably positioned in the opening in the bottom of the heel portion 18 of the sole 14, one embodiment of which is shown in FIG. 13. In another embodiment, the wheel assembly comprises an axle positioned completely through or partially through the heel portion 18 of the sole 14 such that the sole 14 supports the axle and the wheel is rotatably mounted on the axle in the opening of the sole 14. In this manner, the need for the mounting structure is eliminated.
In operation, a person wearing the heeling apparatus 10 may either walk normally or roll on the wheel 16 by lifting or raising the sole 14 so that only or almost only the wheel 16 contacts a surface. This action may be referred to as “HEELING” or to “HEEL.” The wheel 16, depending on the desired implementation of the present invention, may be removed or retracted to a position such that the wheel 16 does not extend below the bottom of the sole 14. This, generally, will result in the heeling apparatus 10 performing like an associated footwear. When the wheel 16 is removed or retracted, a removable cover may be placed over the opening in the bottom of the sole 14 to prevent debris from entering the opening and potentially damaging the wheel assembly. In still other embodiments, a removable cover may be placed over the wheel 16 while a portion of the wheel 16 remains extended below the bottom of the sole 14 to assist with walking, an example of this is illustrated in FIG. 12.
It should be understood, however, that even if the wheel 16 is not removed or retracted as just described, the user may still comfortably walk and run, even with the wheel 16 extended. This generally occurs because the distance 24 can be minimal, which provides a unique “stealth” or “covert” aspect to heeling. This also results in the wheel rolling the opening or hole in the sole 14 of the heeling apparatus 10. In one embodiment, the distance 24 is less than the radius of the wheel 16, which results in most of the wheel residing within the opening of the sole 14.
FIGS. 2A and 2B are bottom views of two embodiments of the sole 14 of the heeling apparatus 10. In particular, the outsole 30 or bottom of the sole 14 is illustrated in FIG. 2A with an opening 40 in the heel portion 18 of the sole 14. In the embodiment illustrated, the opening 40 is provided in a square or rectangular configuration. The opening 40, however, may be provided in virtually any configuration, such as, for example, a circular or an elliptical configuration.
As mentioned previously, the opening 40 may extend partially or completely through the sole 14. The opening 40 may be provided through a heel block or object. Further, the opening 40 be positioned in, near, or in a combination of the heel portion 18, the arch portion 20, and the forefoot portion 22.
FIG. 2B illustrates a second embodiment as to the placement and configuration of the opening 40. The outsole 30 is illustrated with an opening 40A and an opening 40B in the heel portion 18 of the sole 14. In this manner, one or more wheels, including one or more axles, may be positioned in both the opening 40A and 40B.
FIGS. 3A and 3B are bottom views of the two embodiments of the sole 14 as shown in FIGS. 2A and 2B and illustrate a wheel in each of the openings of the soles. This includes a wheel 42 positioned in the opening 40 in FIG. 3A and a wheel 42A and a wheel 42B in the openings 40A and 40B, respectively, of FIG. 3B.
The wheel 42 and the wheels 42A and 42B are illustrated as cylindrical wheels. These wheels, however, may be provided in virtually any available configuration. Further, one or more wheels may be positioned in each opening.
FIG. 3A further illustrates other elements of the wheel assembly that include a first member 48 and a second member 54 of a mounting structure that is used to removably couple with an axle 50. The axle 50 extends through the wheel 42 such that the wheel 42 is rotatably coupled or mounted to the axle 50. This preferably involves the use of precision bearings, such as high performance precision bearings, provided in a recess, such as an annular recess, on either side of the wheel 42. A first precision bearing 56 and a second precision bearing 58 may be ABEC grade precision bearings and are illustrated with hidden lines and positioned in the first recess and second recess of the wheel 42. In alternative embodiment, loose ball bearings may be used.
The axle 50 may be made of any material that provides suitable physical characteristics, such as strength and weight, to name a few. The axle 50 is preferably made of hardened steel, is cylindrical in shape, each end is rounded, and is removably coupled with a first member 48 and a second member 54, respectively, of the mounting structure. The removable coupling between each end of the axle 50 and the first member 48 and the second member 54 may be achieved by any known or available mechanism. In a preferred embodiment, a sphere or a ball bearing, preferably using a moveable spring and/or a screw bias, is used to contact and exert a side wall force between one or members of the mounting structure and the axle 50.
It should also be noted that because the weight of the user of the heeling apparatus 10 will exert a significant downward force and the ground or surface will exert an equal force upward, the axle 50, and, hence, the wheel 42 will generally be forced into place. Only when the heel is raised from a surface will any force or friction be required to keep the axle 50 in place. Thus, the present invention does not require a large side force to keep the axle 50 and the wheel 42 in place. The recognition of this fact may be considered an aspect of the present invention for the embodiment as shown. This recognition allows the removable coupling between each end of the axle 50 and the first member 48 and the second member 54 to be optimally designed.
FIG. 3A also illustrates a grind plate 44 (which also may be referred to as a slide plate 44) that may be used in conjunction with the heeling apparatus 10 of the present invention. The grind plate 44 provides a smooth or relatively smooth surface to allow a user to “grind” or “slide” on various surfaces such as hand rails, curbs, steps, corners, and the like. The grind plate 44 is preferably somewhat thin and made of a plastic or polymer material. In a preferred embodiment, the grind plate 44 is removably attached to the arch portion 20 of the outsole 30 of the sole 14. The grind plate 44 may be attached using any known or available fastener, such as, for example, a fastener 46 shown in various locations around the periphery of the grind plate 44.
FIG. 3B further illustrates an axle 52 in which the wheel 42A and the wheel 42B are coupled to either end in the opening 40A and the opening 40B, respectively. The axle 52 extends through both the wheels 42A and 42B and through a portion of sole 14, not visible in FIG. 3B. This serves to support the axle 52 and illustrates the situation where the sole 14 serves as the mounting structure of the wheel assembly. This reduces the overall number of parts. In an alternative embodiment, a metal or some other suitable material may be used within the heel portion 18 of the sole 14 where the axle 52 is positioned to provide additional support and stability. This is an example where the mounting structure is, in effect, integrated into the sole 14. As can be appreciated by one skilled in the art, the present invention may be implemented in any number of ways.
FIG. 4 is a perspective view of a wheel 60 rotatably mounted on an axle 62, which also may be referred to as a wheel/axle assembly, for use in a wheel assembly, or in a heeling apparatus, according to one embodiment of the present invention. The wheel 60 and the axle 62 may also be referred to as a wheel/axle assembly 400. In this embodiment, the axle 62 extends through the wheel 60 and includes two ends that are rounded or bullet shaped. A precision bearing 64 is shown positioned in a recess, which is shown as an annular recess, of the wheel 60 to facilitate the rotation of the wheel 60 around the axle 62. Preferably a second precision bearing is positioned in a second recess, not shown in FIG. 4, to further facilitate such rotation.
A slip clip, slip ring, or ring clip 66 is shown positioned around, or nearly around, the axle 62 near the precision bearing 64. This serves to ensure that the precision bearing 64 remains in place in the recess of the wheel 60. The slip clip or ring clip 66 will preferably be positioned on the axle 62 through a groove, such as a radial groove or radial indentation, in the axle 62. It should be understood, however, that one of ordinary skill in the art may use any of a variety of other arrangements to ensure that the precision bearing 64 stays in position. In alternative embodiments, the precision bearing 64 may be eliminated or loose bearings may be used.
The wheel 60 rotatably mounted on the axle 62 may, in alternative embodiments, serve as the wheel assembly of the present invention. In such a case, the axle 62 may be mounted to the sole, such as the midsole and heel portion, at its ends while the wheel 60 is rotatably provided in the opening of the sole. In this manner, the need for a mounting structure may be thought of as eliminated or, alternatively, the mounting structure may be thought of as integrated into the sole of the footwear.
FIG. 5 is a perspective view of a mounting structure 70 for use with a wheel rotatably mounted to an axle, such as is illustrated in FIG. 4, to form a wheel assembly. The mounting structure 70 generally includes a heel control plate 72, a first member 74, and a second member 76. In alternative embodiments, a spring, such as a leaf spring, could be provided where the two members contact the heel control plate 72. This would provide the added benefit of greater cushion and suspension. The two members include an opening, such as the opening 78 of the first member 74 to receive an end of an axle. It should be mentioned that the opening may be provided in virtually any configuration, including extending through the member, or placed at different positions, or even multiple positions for mounting the wheel/axle assembly 400 at a retractable position and an extended position, on the member.
The axle that is to be positioned in the openings of the first member 74 and the second member 76 will preferably be removably coupled. This may be achieved by any number of arrangements and configurations, all of which fall within the scope of the present invention. One such arrangement is the screw/spring/ball bearing arrangement 80 provided in first member 74. This arrangement provides an adjustable bias or force that can be exerted against the axle when it is inserted into the opening 78. The screw is accessible and adjustable by the user. The turning of the screw affects the compression of a spring which, in turn, provides a force on a ball bearing that extends out into the opening 78. When the axle is inserted into the opening 78, the ball bearing may be displaced an amount and the screw/spring/ball bearing arrangement 80 will provide a side force to allow the axle to be secure, yet removable. A similar arrangement may also be provided in the second member 76 to provide a friction fit or coupling on the other end of the axle 62.
Although the screw/spring/ball bearing arrangement 80 of FIG. 5 is shown being implemented through a horizontal opening in the first member 74, it may be implemented in using an opening aligned in virtually in manner in the member. For example, the adjustment of the tension or pressure on the screw/spring/ball arrangement 80 may be achieved through a diagonal opening such that the exposed end of the screw/spring/ball arrangement 80, normally a screw head end, is provided where the reference line for numeral 74 in FIG. 5 contacts the first member 74. This provides easier access to adjust the tension and friction fit on the axle 62 when the wheel assembly, such as wheel assembly 100 of FIG. 6, is engaged or positioned within the opening of a sole to form a heeling apparatus. Of course, any of a variety of other arrangements, configurations, and opening alignments may be contemplated and implemented under the present invention.
The mounting structure 70 can be made or constructed of virtually any material, generally depending on the desired mechanical characteristics such as, for example, rigidity and strength. These materials may include, for example, a plastic, a polymer, a metal, an alloy, a wood, a rubber, a composite material, and the like. This may include aluminum, titanium, steel, and a resin. In one embodiment, the mounting structure 70 is made of a metal, such as aluminum, that has been anodized such that the mounting structure 70 presents a black color or hue.
FIG. 6 is a bottom view of a wheel assembly 100 that includes the wheel 60 rotatably mounted to the axle 62, as shown in FIG. 4, and the mounting structure 70 of FIG. 5. The first member 74 and the second member 76 each removably couple with the ends of the axle 62 through a bias mechanism implemented using a bias mechanism, such as the screw/spring/ball bearing arrangement 80. A ball bearing 102 is shown contacting one end of the axle 62 in the opening 78. Further slip clips or ring clips (which may also be referred to as snap rings or slip rings), such as ring clip 66, are provided to ensure that the precision bearings positioned in the recesses of the wheel remain in position.
The heel control plate 72 allows the user of the heeling apparatus to gain greater control and to obtain greater performance out of the heeling apparatus.
FIG. 7 is a side view of the wheel assembly 100 positioned above and through the opening to form a heeling apparatus 120. The heel control plate 72 resides inside the shoe so that the heel of the user may apply pressure to the heel control plate as desired to provide better handling and performance of the heeling apparatus 120.
FIGS. 8A, 8B, 8C, and 8D are profile views of various wheels 200 that illustrates the surface profile of these wheels that may used in various embodiments of the present invention. In FIG. 8A, a wheel 202 is shown with a flat or square surface or exterior profile 204. In FIG. 8B, a wheel 206 is shown with an inverted surface profile 208. In FIG. 8 c, a wheel 210 is shown with round surface profile 212. Finally, in FIG. 8D, a wheel 214 is shown with a steep surface profile 216. The present invention may incorporate virtually any available surface profile of a wheel.
FIG. 9 is a perspective view that illustrates a mounting structure 500 of another embodiment for use in a wheel assembly of a heeling apparatus. The mounting structure 500 includes an axle 502, which may be considered one axle that extends through and is mounted through a member 50 or as an axle 502 that couples with the member 506 along with an axle 504 that couples with the member 506 opposite axle 502. The mounting structure 500 also includes a heel control plate 508 coupled with the member 506.
The mounting structure 500 allows for two wheels to be mounted to form a wheel assembly. A wheel may be rotatably mounted on the axle 502, preferably using a precision bearing, and a wheel may be rotatably mounted on the axle 504, also preferably through a precision bearing as illustrated previously herein.
The axle 502 and the axle 504 include a threaded portion such that a nut, such as a lock nut 510 may be included to secure a wheel to each axle. In other embodiments, the end of the axles may include internal threads, as opposed to external threads as shown, so that a screw, such as the hex screw as shown in FIG. 10. It should be understood that virtually any available coupling may be provided between the axle and the member.
FIG. 10 is a perspective view that illustrates a wheel assembly 520 that uses yet another embodiment for use in a heeling apparatus and includes a wheel 522 rotatably mounted to an axle 524 using a precision bearing 526, and a first member 528 and a second member 530 coupled to each end of the axle 524 through a screw, such as hex screw 532. The wheel assembly 520 is similar to wheel assembly 100, which was described above in connection with FIG. 6, except that the wheel/axle assembly cannot be as easily inserted and removed.
FIG. 11 is a side, partial cutaway view that illustrates one embodiment of a heeling apparatus 600 that illustrates a wheel assembly 602 provided in a sole 604 and an opening 606 in the sole 602 that does not extend completely through the sole 602. As such, the mounting structure 608 may be provided or integrated into the sole 602 and may not be readily or easily removed. A wheel 610 is also shown extending partially below the bottom of the sole 602, which provides the advantage of stealth heeling.
FIG. 12 is a side view of another embodiment that illustrates a heeling apparatus 620 of the present invention with a removable wheel cover 622 positioned to cover a wheel 624 and an opening 626 in a sole 628. The removable wheel cover 622 allows for the wheel to be provided in an extended position, i.e., below the bottom surface of the sole 628, yet not engage a surface to roll. Although the heeling apparatus 620 of the present invention allows a user to walk and run, even with the wheel in an engaged position, the removable wheel cover 622 provides protection from dirt and debris and provides greater stability.
In an alternative embodiment, a wheel stop, not expressly shown in FIG. 12, may be provided, in lieu of or in conjunction with the removable wheel cover 622, to stop the rotation of the wheel 624. In one embodiment, the wheel stop is made of virtually any material, such as a sponge or flexible material, that can be wedged between the wheel 624 and the opening 626 to stop or prevent the rotation of the wheel 624 and to stay in place through friction.
In other embodiments of the wheel cover 622, a wheel cover is provided when the wheel 624 has been removed from the heeling apparatus 620. In a preferred embodiment, this wheel cover is generally flush with the remainder of the bottom of the sole 608, and, hence, provides the function of a regular shoe when desired and protects the opening. This wheel cover may couple in any available manner, but preferably will couple to the wheel assembly in the same or similar manner that the wheel/axle assembly couples to the mounting structure. The removable wheel cover could clip or attach to the wheel assembly in many different ways.
FIG. 13 is a bottom view that illustrates another embodiment of a heeling apparatus 700 with a spherical ball 702 serving as a wheel and positioned in a mounting structure 704 in an opening in the heel portion of the sole 706.
FIG. 14 is a perspective view that illustrates a “heeler” 800 using the present invention to “heel.” Heeling can be achieved using various techniques and, generally, requires a skill set of balance, positioning, flexibility, and coordination.
An illustrative method for using a heeling apparatus on a surface may include running on a surface by using a forefoot portion of a sole of the heeling apparatus to contact the surface, and then rolling on the surface with a wheel of the heeling apparatus extended below the bottom of the sole through an opening in the sole by using a wheel of the heeling apparatus to contact the surface. Before running on a surface, the method may include walking on the surface while wearing the heeling apparatus with a wheel of the heeling apparatus extended below the bottom of a sole portion of the heeling apparatus before running on the surface. Heeling may also be performed on a hill or a surface that includes a decline.
The method of heeling may also include engaging the wheel of the heeling apparatus to extend below the bottom of the sole portion of the heeling apparatus before walking on the surface. The method may also include walking on the surface while wearing the heeling apparatus before engaging the wheel of the heeling apparatus and with the wheel of the heeling apparatus retracted. Other variations on the method may include transitioning from rolling on the surface to either running, walking, or stopping on the surface by running on the surface through using the forefoot portion of the sole of the heeling apparatus to contact the surface just after rolling on the surface.
The preferred position while heeling is illustrated by the heeler 800 in FIG. 14 where one heeling apparatus 802 is placed in front of the other heeling apparatus 804 while rolling on a surface. As can be seen from a back heel portion 806 of the heeling apparatus 804, sometimes the clearance between the back heel portion 806 and the surface is small. As a result, in a preferred embodiment, the back heel portion 806 is made of a wear resistant material.
The method of heeling may also implement any number of techniques for slowing or stopping. For example, rolling may be slowed by contacting the forefoot portion of the sole of the heeling apparatus to contact the surface to create friction and to remove the wheel from the surface. Another example includes slowing by contacting a heel portion of the sole of the heeling apparatus to contact the surface.
FIG. 15 is a perspective view that illustrates a wheel 902 rotatably mounted to a collapsible axle 904, which also may be referred to as a wheel/axle assembly 900, similar to FIG. 4. The collapsible axle 904 may be implemented in any number of ways, such as an adjustable axle that is spring loaded, similar to what is shown in FIG. 16, or as a screw collapsible axle. This allows the wheel/axle assembly 900 to be more easily removable and/or retractable to a position where the wheel would not engage the ground if the wheel/axle assembly 900 where implemented in a heeling apparatus.
FIG. 16 is a cutaway view that illustrates a collapsible axle 904 of the wheel/axle assembly 900 of FIG. 15 implemented as a spring loaded collapsible axle. As can be seen, the collapsible axle 904 may be adjusted or shortened by inwardly compressing both ends of the collapsible axle 904 to overcome the internal spring force.
FIG. 17 is a perspective view that illustrates another mounting structure 920 for use with the wheel/axle assembly 900 and the collapsible axle 904, as illustrated in FIG. 15 and FIG. 16, respectively, to form a wheel assembly. The collapsible axle 904 may couple to a first member 922 and a second member 924 at a first position 926 at the first member 922 and the second member 924 so that the wheel is in a retracted position. The collapsible axle 904 may also couple to the first member 922 and the second member 924 at a second position 928 so that the wheel is in an extended position.
FIG. 18 is a side, cutaway view that illustrates a wheel assembly 940 positioned through an opening in a sole 942 that illustrates one embodiment of an axle 944 that couples to a mounting structure 946 to provide a retractable wheel 948 using an assembly that may be referred to as a king pin arrangement or dual king pin arrangement. This allows the retractable wheel 948 to be adjusted up or down, as desired, and from a retractable position to an extended position. A king pin 950 (which may be implemented as a threaded screw or bolt) is shown threadingly engaged in a threaded opening in a member of the mounting structure 946. As the king pin 950 is screwed further into the opening in the member, the axle 944 is further retracted. A king pin 950 will also be provided at the other member to raise the other side of the axle 944. In other embodiments, such as the mounting structure 500 in FIG. 9, a single king pin could be provided through the single member to provide retractable wheels through the coupling of the members and the axle.
An example of a king pin type assembly is illustrated in U.S. Pat. No. 4,295,655, which is incorporated herein by reference for all purposes, issued to David L. Landay, et al., was filed on Jul. 18, 1979, was issued Oct. 20, 1981. This patent illustrates a king pin type assembly that could be implemented in an embodiment of the present invention.
FIG. 19 is a bottom view that illustrates the wheel assembly 940 of FIG. 18 and further illustrates the dual king pin arrangement and the king pins 950 through the members of the mounting structure 946.
FIG. 20 is a side view that illustrates one member of the mounting structure 946 and further illustrates the coupling of the axle 944 to the mounting structure 946 using the dual king pin arrangement similar to FIG. 18. As discussed above, this allows the axle 944, and hence the attached wheel, to be transitioned to any of a desired levels, and from a retracted position to an extended position.
It should be understood that the axle may couple to a member of a mounting structure using any available technique and in virtually an unlimited number of ways. For example, an axle may couple to the first member and the second member of a mounting structure to move from a retracted position to an extended position through a spring arrangement. Similarly, an axle may couple to the first member and the second member of a mounting structure to move from a retracted position to an extended position through a hinged arrangement.
Many other examples are possible, for example U.S. Pat. No. 3,983,643, which is incorporated herein by reference for all purposes, issued to Walter Schreyer, et al., was filed on May 23, 1975, was issued Oct. 5, 1976 illustrates a retractable mechanism that may implemented in one embodiment of the present invention. U.S. Pat. No. 5,785,327, which is incorporated herein by reference for all purposes, issued to Raymond J. Gallant, was filed on Jun. 20, 1997, issued on Jul. 28, 1998 illustrates simultaneously retractable wheels.
FIG. 21 is a breakaway and perspective view that illustrates a two piece wheel 970 that includes an inner core 972, an outer tire 974, such as a urethane wheel, an axle 976 (which may not be shown to skill), and a bearing 978 that may be used in the present invention. In a preferred embodiment, the bearing 978 is small in comparison to the two piece wheel 970, for example, the bearing 978 may have an outer diameter that is less than half the outer diameter of the outer tire 974. This can provide significant advantages, that include a softer ride, better control, and are longer lasting. This is because the outer tire 974 can be larger and thicker. In other embodiments, the bearing 978 is larger and has an outer diameter that is more than half the outer diameter of the outer tire 974. In a preferred embodiment, the inner core portion of the two piece wheel is made of a harder material that provides rigidity for enhanced bearing support, while the outer tire portion is made of a softer material, such as a soft urethane, for improved performance and a quieter ride. These types of wheels may be referred to as a “dual durometer” type wheel.
FIG. 22A illustrates a side isometric view of a wheeled platform apparatus 1000 according to one embodiment. The wheeled platform apparatus 1000 preferably includes a platform 1010, which operates as a chassis, having a rear portion 1020, a center portion 1030, a front portion 1040, a top surface 1050, and a bottom surface 1060. In some embodiments, the platform may also include a deckplate 1012, which in some embodiments, as illustrated in FIGS. 38 and 41D, may be interchangeably referred to herein as deckplate 1510. The front portion 1040 of the bottom surface 1060 further includes a first or front wheel 1070 interfacing with the bottom surface 1060 and a second or rear wheel 1080 interfacing with the bottom surface 1060 of the platform 1010 to facilitate rolling movement of the wheeled platform apparatus 1000. In some embodiments, the first wheel 1070 and/or the second wheel 1080 may be housed at least partially within the platform 1010, with at least a portion of the first wheel 1070 and/or the second wheel 1080 extending at least partially below the bottom surface 1060 of the platform 1010 for contact with a surface, such as concrete, asphalt, or other suitable surface, upon which the wheeled platform apparatus 1000 may roll. In still other embodiments, by housing the first wheel 1070 and/or the second wheel 1080 at least partially within the platform 1010, the platform 1010 may be positioned closer to the ground, which lowers the center of gravity of the wheeled platform apparatus 1000, and enhances the stability and safety of the wheeled platform apparatus.
In some embodiments, the platform 1010 may be made of metal, wood, biofiber, plastic, polymer, ceramic, composite, acrylic, renewable, recycled, or other suitable materials capable for supporting a user's weight as intended or desired.
Referring again to FIG. 22A, in some embodiments, the first wheel 1070 and the second wheel 1080 may be positioned at least partially along a longitudinal centerline of the platform 1010 that extends from the rear portion 1020 to the front portion 1040 along the center of the platform 1010, as further illustrated, for example, by FIGS. 22B and 23, with the first wheel 1070 being positioned in the front portion 1040 of the platform 1010 and the second wheel 1080 being positioned in the rear portion 1020 of the platform 1010. The general direction of the longitudinal centerline is further illustrated generally by FIGS. 28, 29A, 29E, and 41F, which show a heeling apparatus 2000 being positioned with its heel and toe primarily along the longitudinal centerline of the of the platform 1010, which is generally in the rolling direction of the platform. In other embodiments, either the first wheel 1070 or the second wheel 1080 may be positioned partially or fully in the center portion 1030 of the platform 1010. Additionally, in other embodiments, the first wheel 1070 and the second wheel 1080 may be positioned offset from the longitudinal centerline of the platform 1010 (i.e., the first wheel 1070 and the second wheel 1080 may be positioned to interface with the bottom surface 1060 of the platform 1010 at any location along the bottom surface 1060).
In other embodiments, the wheels may be positioned or configured in virtually any known or desired position, including side-by-side, inline. For example, when the first wheel 1070 and the second wheel 1080 are positioned adjacent to the bottom surface 1060 of the platform 1010 in a manner such that both wheels reside below the area of contact between the wheeled platform apparatus 1000 and the user's foot, the user's safety and control of the wheeled platform apparatus 1000 is enhanced based at least partially upon the user's ability to steer the wheeled platform apparatus 1000 with one foot. Further, it should be understood that the wheeled platform apparatus 1000 may include wheels in addition to the first wheel 1070 and the second wheel 1080.
In other embodiments the first wheel 1070 and/or the second wheel 1080 may be permanently attached, removable, or retractable to the platform 1010.
Referring to FIG. 47, in other embodiments, the first wheel 1070 and/or the second wheel 1080 may be attached to the wheeled platform apparatus 1000 by a friction fit, snap fit, or other suitable fit, including those as described herein and illustrated above in FIGS. 5, 6, 9, 10, 17, 18, and 19.
In other embodiments, the first wheel 1070 and/or the second wheel 1080 may be a wheel attached to a swivel capable of orienting in a full 360 degree spectrum on a vertical axis for directional rolling, also known as a caster wheel. Other types of wheels capable of orienting along at least a portion of a 360 degree spectrum may also be used, such as a ball bearing or spherical trackball.
In yet other embodiments, the first wheel 1070 and/or second wheel 1080 may be illuminated, via one or more LEDs or other illuminating device, by battery power, induction power, or other suitable means for powering an illumination device.
Referring generally to FIGS. 22A, 23, 24, 25, 26, 27, 29A, 29B, 29C, 29D, 31, 32, 33, 34, 35, 36A, 36B, 37, and 48 an attachment structure 1090, which may be interchangeably referred to herein as attachment structure 1514 (as illustrated, for example, in FIG. 38), interfacing with or positioned adjacent to the top surface 1050 of the platform 1010 is provided for mating, via snap fit, friction fit, magnetic fit, or other suitable mating means, with a non-wheeled or wheeled footwear, including a heeling apparatus 2000, quad skate 2004, inline skate 2006, external wheel assembly 2008, or other wheeled skate, or a user's bare foot. In some embodiments, the heeling apparatus 2000, quad skate 2004, inline skate 2006, and/or external wheel assembly 2008 may have removable or permanent wheel assemblies that snap fit, friction fit, strap-on, or are otherwise fastened onto a user's foot or footwear. Referring again to FIG. 29D, the external wheel assembly 2008 may consist of a frame having one or more wheels attached thereto with at least a portion of a wheel extending below the bottom of the footwear for contacting with a surface for rolling. In some embodiments, the frame of the external wheel assembly 2008 is removably mounted onto the user's foot or footwear using one or more straps, friction fit, snap fit, or other suitable mating means.
Referring again to FIG. 48, in some embodiments, use of an attachment structure 1090 provides a secure connection with a non-wheeled or wheeled footwear, such as a heeling apparatus 2000, thereby enhancing control of the wheeled platform apparatus 1000 by the user as yaw movements between the user's foot and the wheeled platform apparatus 1000 or separation of the user's foot from the wheeled platform apparatus 1000, which are common in other wheeled platforms, such as skateboards, are eliminated or substantially reduced, thereby increasing controllability, steering, performance (e.g., tricks or stunts), and safety.
In still other embodiments, the attachment structure 1090 securely attaches only to a heel portion of a heeling apparatus 2000, thereby eliminating the need to buckle, bind, or otherwise adjust cumbersome secondary binding attachments, such as forefoot straps. In some embodiments, the attachment structure 1090 projects from the top surface 1050 of the platform 1010 for mating with a recessed heel opening and/or wheel mounting structure within the heel of a heeling apparatus 2000, said heel opening and/or wheel mounting structure may be implemented as that generally described above and/or illustrated in FIGS. 2A, 2B, 3A, 3B, 5, 6, 9, and 10.
In some embodiments, the attachment structure 1090 is preferably positioned in the rear portion 1020 of the top surface 1050 of the platform 1010 along the longitudinal centerline of the platform 1010. However, in other embodiments, the attachment structure 1090 may be positioned anywhere upon the platform that allows for mating with a non-wheeled or wheeled footwear, including a heeling apparatus 2000, quad skate 2004, inline skate 2006, external wheel assembly 2008, or other wheeled skate, or a user's bare foot. In other embodiments, as illustrated in FIG. 44, the attachment structure 1090 may be positioned adjacent to or partially within the top surface 1050 of the wheeled platform apparatus 1000 in a manner operable to allow for mating with a non-wheeled or wheeled footwear, including a heeling apparatus 2000, quad skate 2004, inline skate 2006, external wheel assembly 2008, or other wheeled skate, or a user's bare foot primarily along the longitudinal centerline of the platform 1010, which in some embodiments may be at an angle offset from the rolling direction or longitudinal centerline of the platform 1010 of the wheeled platform apparatus 1000. For example positioning the user's non-wheeled or wheeled footwear or bare foot primarily along the longitudinal centerline of the platform 1010 may occur at an angle less than plus or minus 15 degrees from the rolling direction or the longitudinal centerline of the wheeled platform apparatus 1000. In other embodiments, for example, positioning the user's non-wheeled or wheeled footwear or bare foot primarily along the longitudinal centerline of the platform 1010 may occur at an angle less than plus or minus 45 degrees from the rolling direction or the longitudinal centerline of the wheeled platform apparatus 1000. Other angles are possible and are a matter of the user's preference.
Referring to FIG. 45, in other embodiments, the attachment structure 1090, which projects from the platform 1010, may be received by a heel opening and/or wheel mounting structure, being generally described above and illustrated in FIGS. 2A, 2B, 3A, 3B, 5, 6, 9, and 10, of a heeling apparatus 2000 and removably attach to the heeling apparatus 2000 by friction fit, snap-fit, magnetic fit, or other suitable mating means, including, for example, a curved projection 1092 for interfacing with an axle recess extending into a heeling apparatus 2000.
Referring to FIGS. 31 and 45, in some embodiments, the attachment structure 1090 may be adjustable to mate with heeling apparatuses 2000 of various embodiments and sizes, some of which may include heel openings and/or mounting structures of different dimensions and structure. For example, an attachment structure 1090 may have a curved projection 1092 for interfacing with a wheel opening or axle recess extending into the bottom surface opening in the heel of a heeling apparatus 2000, wherein the curved projection 1092 is capable of widening or lengthening, under a bias from a spring or through some other suitable mechanism, inward into the attachment structure 1090, thereby changing the axial length or width of the curved projection 1092 for mating with openings, such as heel openings, of certain embodiments of the heeling apparatus 2000.
Referring again to FIGS. 31 and 45, in some embodiments, the attachment structure 1090 projects from the rear portion 1020 of the top surface 1050 of the platform 1010 along the longitudinal centerline of the platform 1010 and is formed to interface or couple, by hook, friction fit, magnetic, or other suitable means, with an axle structure 1130 that is attached to a heeling apparatus 2000. The axle structure 1130 may be a solid bar or a longitudinally biased bar capable of adjusting its length, by a spring or other suitable means, so that its overall length may be adjusted, thereby allowing the axle structure 1130 to interface with variable sized heel openings, which, as described above, cooperate with variable sized wheel and axle assemblies, of various embodiments of the heeling apparatus 2000, including heeling apparatuses of different sizes.
Referring to FIGS. 32 and 33, in yet other embodiments, the attachment structure 1090 may comprise a first clamp arm 1330 and a second clamp arm 1340 mating with a recess in the first side portion 1322 and the second side portion 1324 of the wheel 1320, or other projection, extending from a heeling apparatus 2000 or other footwear, including an inline skate or quad wheeled skate.
Referring again to FIG. 33, in yet other embodiments, the attachment structure 1090 may comprise a recess 1310, which may extend into the platform 1010, for mating with a wheel 1320, or other projection, extending from a heeling apparatus 2000 or other footwear, including an inline skate or quad wheeled skate.
In still other embodiments, attachment of the wheeled platform apparatus 1000 to a heeling apparatus 2000 or other type of wheeled footwear or skate having a wheel may be by one or more projections extending from the attachment structure 1090 or directly from the wheeled platform apparatus 1000, wherein the one or more projections mate by friction to at least a portion of the wheel. In some embodiments, the mating projection may be a “c” shaped curve projection that encircles at least a portion of the wheel and mates by friction fit. In yet other embodiments, one or more mating projections may be used to create a friction fit between a portion of the wheel and the recess of a heeling apparatus 2000.
Referring again to FIG. 48, in still other embodiments, attachment of the wheeled platform apparatus 1000 to a heeling apparatus 2000 or other form of skate or footwear, including an inline skate, other wheeled skate, or non-wheeled footwear, may include, as the attachment structure 1090, a lever or force operated binding system as used in snow skis, snowboards, locking bicycle pedals, and the like. Such a system can include bindings capable of fitting around the outer heel section of the non-wheeled or wheeled footwear, including a heeling apparatus 2000, inline skate, or other wheeled skate. Other embodiments for attaching non-wheeled or wheeled footwear, including a heeling apparatus 2000, inline skate, or other wheeled skate, or a user's bare foot to a wheeled platform apparatus 1000 include straps for securing the non-wheeled or wheeled footwear or a user's foot to the wheeled platform apparatus 1000.
The attachment structure 1090 may be made of plastic, polymer, composite, ceramic, metal, or other suitable materials.
FIG. 22B illustrates one embodiment of the wheeled platform apparatus 1000 that does not include an attachment structure 1090.
FIGS. 34, 35, 36A, 36B, and 37 illustrate one embodiment of the wheeled platform apparatus 1000, wherein the platform 1010 has a deckplate 1012, which in some embodiments, as illustrated in FIGS. 38 and 41D, may be interchangeably referred to herein as deckplate 1510, positioned adjacent to the top surface 1050 of the platform 1010. In some embodiments, the deckplate 1012 may be removably attached to the platform 1010. In still other embodiments, the deckplate 1012 may be permanently attached to the platform 1010.
Referring again to FIGS. 34 and 35, in other embodiments, the deckplate 1012 may be removably attached to the platform 1010 by fastening the attachment structure 1090 to the platform 1010 with the deckplate 1012 positioned therebetween. In yet other embodiments, the attachment structure 1090 has a projection 1094 that may interfit with a deckplate cutout 1013 for enhancing the attachment of the deckplate 1012 to the platform 1010 by limiting yaw and other side-to-side movements of the deckplate 1012 relative to the platform 1010.
Referring to FIGS. 46A and 46B, in yet other embodiments, the platform 1010 may have a lip or other projection for sliding, snapping, or otherwise placing a portion of the deckplate 1012, such as its edge, between the lip or other projection and the platform 1010, thereby securing the deckplate 1012 to the platform 1010. In some embodiments, removal of the deckplate 1010 from the wheeled platform apparatus 1000 may occur by lifting the back of the deckplate 1010 and pulling the deckplate back and away from the lip or other projection for sliding, snapping, or otherwise placing a portion of the deckplate 1012, such as its edge, between the lip or other projection and the platform 1010.
Referring again to FIGS. 36A and 36B, in still further embodiments, a removable deckplate locking structure 1014 may be used to provide a point of attachment, which may be used alone or in combination with the attachment structure 1090 as illustrated in FIGS. 34 and 35, for attaching the deckplate 1012 to the platform 1010. The removable deckplate locking structure 1014 may be screwed, bolted, snap fitted, or fastened by other suitable mechanisms to the platform 1010 with the deckplate 1012 positioned and secured therebetween or secured by a lip or other projection extending outwardly from the deckplate locking structure 1014 for interfacing with the deckplate 1012. In some embodiments, the deckplate locking structure 1014 may be positioned at the forefoot portion 1040 of the platform 1010, but in still other embodiments, the deckplate locking structure 1014 may be positioned anywhere on the platform 1010. In still other embodiments, the deckplate locking structure 1014 may be made of plastic, polymer, composite, ceramic, metal, or other suitable materials.
Referring again to FIG. 37, in still further embodiments, a removable deckplate fastener 1016 may be positioned adjacent to, and/or extend from, the underside of the deckplate 1012 for mating, via friction and/or snap fitting, with a platform recess 1018 in the platform 1010 to provide a mechanism of attachment, which may be used alone or in combination with the attachment structure 1090 and/or deckplate locking structure 1014 as illustrated in FIGS. 34, 35, 36A, and 36B for attaching the deckplate 1012 to the platform 1010. In still other embodiments, the deckplate fastener 1016 may be made of plastic, polymer, composite, ceramic, metal, or other suitable materials.
Referring again to FIGS. 34 and 35, in still further embodiments, the deckplate 1012 may be knurled or otherwise textured for enhancing grip with the user's foot or footwear, thereby enhancing control of the wheeled platform apparatus 1000 by the user. Such enhanced control contributes to increased usability by the user for directional steering, performing stunts, maneuvers, and tricks with wheeled platform apparatus 1000, and further enhances safety. In still other embodiments, the deckplate 1012 may have graphics or colors for enhancing aesthetic appeal.
Referring again to FIGS. 34 and 35, in other embodiments, the deckplate 1012 may be made of or include a shock absorbing material, such as polymer, gel, rubber, or other substance, for providing shock absorption and/or suspension for the wheeled platform apparatus 1000 and the user. In yet other embodiments, the deckplate 1012 may include a shock absorbing material, such as gel, rubber, liquid, encapsulated pockets of gas, or other suitable substance, capable of absorbing mechanical forces, shock and/or providing suspension for the wheeled platform apparatus 1000 and the user. In still other embodiments, a shock absorbing material, such as gel, rubber, liquid, encapsulated pockets of gas, or other suitable substance, may be partially or fully embedded within the deckplate 1012, or may be positioned adjacent to the deckplate 1012 for providing shock absorption and/or suspension for the wheeled platform apparatus 1000 and the user. In yet other embodiments, a shock absorbing material, such as gel, rubber, liquid, encapsulated pockets of gas, or other suitable substance, may be positioned above and adjacent to the deckplate 1012 for providing shock absorption and/or suspension for the wheeled platform apparatus 1000 and the user. In still other embodiments, a shock absorbing material, such as gel, rubber, liquid, encapsulated pockets of gas, or other suitable substance, and/or springs, foams, or other types of suitable shock absorbers and/or suspension may be positioned adjacent to the top surface 1050 of the platform 1010 and below and adjacent to the deckplate 1012 to provide shock absorption and/or suspension for the wheeled platform apparatus 1000 and the user.
Referring again to FIGS. 34 and 35, in other embodiments, the deckplate 1012 may be at least partially clear, at least partially translucent, or otherwise at least partially non-opaque to allow for aesthetic visibility through the deckplate 1012 for viewing, for example, a shock absorbing material, such as gel, rubber, liquid, encapsulated pockets of gas, or other suitable substance, and/or springs, foams, or other types of suitable shock absorbers and/or suspension. In yet other embodiments, the platform 1010 may house illumination devices, such as LEDs or lights, for illuminating the wheeled platform apparatus 1000. The illumination devices may be powered by battery power, solar power, or other suitable power means. In yet other embodiments, the illumination devices may be powered by induction motors built into or in conjunction with the first or front wheel 1070 and/or the second or rear wheel 1080. In still other embodiments, the illumination devices may project light through the deckplate 1012, which may be at least partially clear, at least partially translucent, or otherwise at least partially non-opaque. Illumination of the wheeled platform apparatus 1000 by any method described herein or any other suitable method increases safety to the user by enhancing visibility of the wheeled platform apparatus 1000 and thus the user.
Referring again to FIGS. 34 and 35, in other embodiments, the deckplate 1012 may be made of plastic, polymer, composite, ceramic, metal, or other suitable materials.
FIGS. 22A, 23, 29A, 29B, 29C, and 29D illustrate one embodiment of the wheeled platform apparatus 1000 having an arched grinding structure 1106 used for sliding or “grinding” along a surface while performing various techniques or tricks. The grinding structure 1106 is generally positioned along the bottom surface 1060 of the center portion 1030 of the platform 1010, but may extend into the bottom surface 1060 of the rear portion 1020 and/or front portion 1040 of the platform 1010. In some embodiments, the grinding structure 1106 may be permanently attached to or removable from the platform 1010. In yet other embodiments, the grinding structure 1106 may be molded as a continuous and permanent portion of the platform 1010. In still other embodiments, the grinding structure 1106 may be textured. In further embodiments, the grinding structure 1106 may be made of metal, plastic, polymer, ceramic, composite, or any other material suitable for “grinding.” In some embodiments, the grinding structure 1106 may be made of the same material as the platform.
FIGS. 22A, 22B, 23, 24, 25, 27, 29A, 29B, 29C, 29D, 29E, 30A, 30B, 30C, 30D, and 31 illustrate one embodiment of the wheeled platform apparatus 1000 having a foot rest 1100 positioned adjacent to the rear portion 1020 of the platform 1010 for resting the forefoot portion of a heeling apparatus 2000 or other skate or rolling apparatus, including a quad skate 2004, an inline skate 2006, or external wheel assembly 2008, while in resting or rolling position. By resting the forefoot portion of a heeling apparatus 2000 or other skate or rolling apparatus, including a quad skate 2004, an inline skate 2006, or external wheel assembly 2008, upon the foot rest 1100, the user is able to roll or heel in conjunction with the wheeled platform apparatus 1000 without having to constantly exert muscle force to raise the forefoot portion of the heeling apparatus 2000 or other skate or rolling apparatus. This allows a user to roll great distances with less effort, and allows rougher surfaces to be traversed. The foot rest 1100 may be considered part of or adjacent the rear portion 1020, and for example, the foot rest 1100 may extend from behind the rear portion 1020, may extend from a side of the rear portion 1020, may be removable from the rear portion 1020, or may be part of the rear portion 1020.
Referring again to FIGS. 22A, 22B, 23, 24, 25, 27, 29A, 29B, 29C, 29D, 29E, 30A, 30B, 30C, 30D, and 31, in some embodiments, the foot rest 1100 extends horizontally or downwardly from the rear portion 1020 of the platform 1010 at any desired angle, such as an angle less than 180 degrees from a plane passing through the platform 1010 of the wheeled platform apparatus 1000. In yet other embodiments, the foot rest 1100 extends upward from the rear portion 1020 of the platform 1010 at an angle less than 180 degrees from a plane passing through the platform 1010 of the wheeled platform apparatus 1000, such as a plane that is parallel to a flat, level surface in which the wheeled platform apparatus 1000 rolls upon.
In other embodiments, the foot rest 1100 may be used as a braking surface by shifting the user's weight on the platform 1010 to raise the front portion 1040 and first wheel 1070 of the platform 1010 thereby downwardly angling the rear portion 1020 of the platform 1010, which brings the foot rest 1100 into contact with the surface upon which the wheeled platform apparatus is rolling (i.e., concrete, asphalt, etc.). This interface between the foot rest 1100 and the rolling surface creates friction, thereby slowing the rolling of the wheeled platform apparatus 1000.
In some embodiments, the foot rest 1100 may be textured to enhance grip with the heeling apparatus 2000 or other skate or footwear and to enhance the braking effect with the rolling surface, as described herein. In yet other embodiments, the foot rest 1100 may have a partial or full coating, or other suitable application, of rubber, plastic, or other suitable material for enhancing the grip with the heeling apparatus 2000 or other skate or footwear and to enhance the braking effect with the rolling surface, as described herein. In yet other embodiments, the foot rest 1100 may have a braking structure, including a surface of rubber, plastic, or other suitable material, positioned at least partially adjacent to the bottom surface of the foot rest 1100 for enhancing the braking effect, as described herein, of the wheeled platform apparatus 1000 with the rolling surface.
Referring again to FIGS. 25, 29A, 29B, 29C, 29D, and 31, in some embodiments, the foot rest 1100 may include a mating structure 1102 for mating the foot rest 1100 with the forefoot portion of a heeling apparatus 2000 or other skate or rolling apparatus, including a quad skate 2004, an inline skate 2006, or external wheel assembly 2008, while in resting or rolling position. In some embodiments, the mating structure 1102 may be mounted adjacent to the foot rest 1100 or may be mounted within or at least partially within the foot rest 1100. In some embodiments, the mating structure 1102 may be a first magnet for magnetically mating with a second magnet, or other magnetic structure, positioned adjacent to or partially within the forefoot portion of a heeling apparatus 2000 or other skate or rolling apparatus, including a quad skate 2004, an inline skate 2006, or external wheel assembly 2008, while in resting or rolling position. In other embodiments, the mating structure 1102 may be a male attachment projection for mating with a female attachment receptacle positioned adjacent to or partially within the forefoot portion of a heeling apparatus 2000 or other skate or rolling apparatus, including a quad skate 2004, an inline skate 2006, or external wheel assembly 2008, while in resting or rolling position. In other embodiments, the mating structure 1102 may be a female attachment receptacle for mating with a male attachment projection positioned adjacent to or partially within the forefoot portion of a heeling apparatus 2000 or other skate or rolling apparatus, including a quad skate 2004, an inline skate 2006, or external wheel assembly 2008, while in resting or rolling position.
FIGS. 22A, 22B, 24, 25, 26, 27, and 31 illustrate one embodiment of the wheeled platform apparatus 1000 having a projection 1110 extending or angling from the platform 1010 at least partially within a plane passing through the platform 1010 for resting the forefoot, arch, heel, or other potion of a heeling apparatus 2000 or other skate or rolling apparatus, including a quad skate 2004, an inline skate 2006, or external wheel assembly 2008, during use of the wheeled platform apparatus 1000. The projection 1110 provides the user with the option of resting their chosen skate or footwear on the projection 1110 while rolling, resting, or performing tricks with the wheeled platform apparatus 1000. In some embodiments, the projection 1110 extends downward from the front portion 1040, center portion 1030, or rear portion 1020 of the platform 1010 at an angle less than 180 degrees from a plane passing through the platform 1010 of the wheeled platform apparatus 1000. In yet other embodiments, the projection 1110 extends upwardly from the front portion 1040, center portion 1030, or rear portion 1020 of the platform 1010.
In some embodiments, the projection 1110 may be textured to enhance grip with the heeling apparatus 2000 or other footwear. In yet other embodiments, the projection 1110 may have a partial or full coating, or other suitable application, of rubber, plastic, or other suitable material for enhancing the grip with the heeling apparatus 2000 or other footwear.
Referring again to FIGS. 25 AND 31, in some embodiments, the projection 1110 may include a mating structure 1104 for mating the projection 1110 with the forefoot, arch, or heel portion of a heeling apparatus 2000 or other skate or rolling apparatus, including a quad skate 2004, an inline skate 2006, or external wheel assembly 2008, while in resting or rolling position. In some embodiments, the mating structure 1104 may be mounted adjacent to the projection 1110 or may be mounted within or at least partially within the projection 1110. In some embodiments, the mating structure 1104 may be a first magnet for magnetically mating with a second magnet, or other magnetic structure, positioned adjacent to or partially within the forefoot, arch, or heel portion of a heeling apparatus 2000 or other skate or rolling apparatus, including a quad skate 2004, an inline skate 2006, or external wheel assembly 2008, while in resting or rolling position. In other embodiments, the mating structure 1104 may be a male attachment projection for mating with a female attachment receptacle positioned adjacent to or partially within the forefoot, arch, or heel portion of a heeling apparatus 2000 or other skate or rolling apparatus, including a quad skate 2004, an inline skate 2006, or external wheel assembly 2008, while in resting or rolling position. In other embodiments, the mating structure 1104 may be a female attachment receptacle for mating with a male attachment projection positioned adjacent to or partially within the forefoot, arch, or heel portion of a heeling apparatus 2000 or other skate or rolling apparatus, including a quad skate 2004, an inline skate 2006, or external wheel assembly 2008, while in resting or rolling position.
In yet other embodiments, a second projection 1120 may also be used in a similar fashion as the first projection 1110, and may or may not be angled from the platform 1010. In some embodiments, the second projection 1120 may include a mating structure 1106 that is used in a similar fashion to the mating structure 1104. It should also be understood that the first projection 1110 and the second projection 1120 may be positioned at any desired location of the wheeled platform apparatus 1000.
FIG. 38 illustrates one embodiment of the wheeled platform apparatus 1000 having a mid-chassis 1520 removably affixed to platform 1010. In descriptions herein, the mid-chassis 1520 may interchangeably be referred to as the top portion of the platform 1010. Mid-chassis 1520 may be removably affixed to the platform 1010 at least partially by screw, bolt, snap fit, tongue-and-groove, or other suitable fastening mechanism. The mid-chassis 1520 allows for interfacing with platform 1010 to, for example, increase the structural integrity of the apparatus 1000 and lower the costs of manufacturing, and may provide for mating, via snap fit, friction fit, magnetic fit, tongue-and-groove fit, screws, bolts, or other suitable mating means, with a deckplate 1510.
Referring to FIGS. 38, 49, and 50, in some embodiments, the attachment structure 1514, which may be interchangeably referred to herein as attachment structure 1090, is detachably connected by fasteners 1512, or other suitable means, to a deckplate 1510, which in some embodiments may be deckplate 1012, directly to mid-chassis 1520, directly to platform 1010, or to any combination of deckplate 1510, mid-chassis 1520, or platform 1010. In one embodiment, the attachment structure 1514 is formed to accommodate fasteners 1512, axle structure 1516, and tensioner 1518. The top surface of the deckplate 1510 may include a recess 1519 for interfacing with a projection 1524 of attachment structure 1514 to facilitate rotation of the attachment structure relative to the longitudinal centerline of the deckplate 1514, thereby allowing the user to position the heeling apparatus 2000 primarily along the longitudinal centerline of the platform 1010, which in some embodiments may be at an angle offset from the rolling direction or the longitudinal centerline of the platform 1010 of the wheeled platform apparatus 1000. For example positioning of the heeling apparatus 2000 primarily along the longitudinal centerline of the platform 1010 may occur at an angle less than plus or minus 15 degrees from the rolling direction or the longitudinal centerline of the wheeled platform apparatus 1000. In other embodiments, for example, positioning of the heeling apparatus 2000 primarily along the longitudinal centerline of the platform 1010 may occur at an angle less than plus or minus 45 degrees from the rolling direction or the longitudinal centerline of the wheeled platform apparatus 1000. Other angles are possible and are a matter of the user's preference.
In still other embodiments, the projection 1524 of the attachment structure 1514 may interface with the mid-chassis 1520 and/or the platform 1010. In some embodiments, the axle structure 1516 is at least partially-secured to attachment structure 1514 by tensioner 1518, such as a set-screw, mounting pin, or other suitable structure, and mates with a recessed heel opening, wheel mounting structure, and/or axle recess within the heel of a heeling apparatus 2000. Said heel opening, wheel mounting structure, and/or axle recess may be implemented as that generally described above and/or illustrated in FIGS. 2A, 2B, 3A, 3B, 5, 6, 9, and 10.
The attachment structure 1514 is preferably positioned in the rear portion of the top surface of the deckplate 1510 along the longitudinal centerline of the deckplate 1510. However, in other embodiments, the attachment structure 1514 may be positioned anywhere upon the deckplate 1514 that allows for mating with the heeling apparatus 2000. In some embodiments, the axle structure 1516 may be replaced by another axle structure 1516 of a different length, thereby allowing the axle structure 1516 to interface with variable sized heel openings, wheel mounting structures, and/or axle recesses which, as described above, cooperate with variable sized wheel and axle assemblies, of various embodiments of the heeling apparatus 2000, including heeling apparatuses of different sizes.
FIGS. 38, 39A, 39B, 39C, 49, and 50 further illustrate one embodiment of the attachment structure 1514. The perspective view of the attachment structure 1514 as shown in FIG. 39A illustrates a first fastener opening 1521 to allow insertion of a fastener 1512 for removably attaching said attachment structure 1514 to the deckplate 1510. Also illustrated is a sleeve-like opening 1522 for accommodating axle structure 1516, and a tensioner opening 1523 located on the top surface of the attachment structure 1514 to allow insertion of a tensioner 1518 for at least partially securing said axle structure 1516 within the sleeve-like opening 1522. The tensioner opening 1523 may optionally include an insert operable to relieve stress caused by the tensioner 1518, and may be comprised of metal, wood, plastic, polyurethane, ceramic, composite, or any other durable material.
In some embodiments, the attachment structure 1514 may further include a projection 1524 as illustrated in FIG. 39B. The projection 1524 may be comprised of metal, ceramic, plastic, polyurethane, composite, wood, or any other durable material for interfacing with a recess 1519 in the top surface of the deckplate 1510 to facilitate rotation of the attachment structure 1514 relative to the longitudinal centerline of the deckplate 1510.
FIGS. 39C and 44 illustrate one embodiment of the attachment structure 1514 illustrating the first fastener opening 1521, a second fastener opening 1525, the sleeve-like opening 1522, and the projection 1524. The second fastener opening 1525 is similar to the first fastener opening 1521 and allows insertion of a fastener 1512 for removably attaching said attachment structure 1514 to the deckplate 1510. Both first fastener opening 1521 and second fastener opening 1525 may be non-circular (e.g., may be rectangular, oval, etc.) to allow for displacement of the attachment structure 1514, such as rotational displacement, relative to the fastener 1512 and deckplate 1510. Such displacement allows for flexibility in positioning the user's heeling apparatus 2000 primarily along the longitudinal centerline of the platform 1010, which in some embodiments may be at an angle offset from the rolling direction or the longitudinal centerline of the platform 1010 of the wheeled platform apparatus 1000, thereby resulting in improved handling, comfort of ride, and added safety. For example positioning of the heeling apparatus 2000 primarily along the longitudinal centerline of the platform 1010 may occur at an angle less than plus or minus 15 degrees from the rolling direction or the longitudinal centerline of the wheeled platform apparatus 1000. In other embodiments, for example, positioning of the heeling apparatus 2000 primarily along the longitudinal centerline of the platform 1010 may occur at an angle less than plus or minus 45 degrees from the rolling direction or the longitudinal centerline of the wheeled platform apparatus 1000. Other angles are possible and are a matter of the user's preference.
FIGS. 40A, 40B, 40C, 41C, and 41E illustrate another embodiment of the present invention, in which the mid-chassis 1520 includes a recess 1526 for storing objects. In yet other embodiments, the platform 1010 may include a recess 1526. FIG. 40A illustrates the mid-chassis 1520 with a recess 1526 storing axle structures 1516 as an exemplary utilization of the recess 1526. The recess may be concealed beneath, for example, a deckplate 1510 as illustrated in FIG. 40B. The recess may also be concealed beneath, for example, a strap, lid, and/or other securing means, and may be used to store items such as additional axle structures, fasteners, tensioners, keys, or other personal objects.
FIGS. 41A, 41B, 41C, 41D, 41E, and 41F illustrate yet another embodiment of the present invention, in which a strap 1535 is removably coupled to the mid-chassis 1520 for removably coupling a non-wheeled or wheeled footwear, including a heeling apparatus 2000, quad skate 2004, inline skate 2006, external wheel assembly 2008, or other wheeled skate, or a user's bare foot to the wheeled platform apparatus 1000. The strap 1535 may be comprised of nylon, polyurethane, rubber, or any other durable material, and may be clasped, tied, hook-and-looped or otherwise fastened around or to the non-wheeled or wheeled footwear. As illustrated in FIGS. 41A and 41B, the strap 1535 may be coupled between the mid-chassis 1520 and deckplate 1510. In yet other embodiments, the strap 1535 may be coupled directly to the platform 1010. FIGS. 41C and 41E illustrate the recess 1526 of mid-chassis 1520, wherein the strap 1535 conceals the recess 1526, thereby at least partially securing any personal objects stored within said recess 1526. FIG. 41D illustrates the strap 1535 located on the top surface of the mid-chassis 1520, and in some embodiments, concealing the recess 1526, removably coupled thereto by the deckplate 1510.
FIGS. 28, 29A, 29B, 29C, 29D, 29E, 30A, 30B, 30C, and 30D illustrate a method for use of the wheeled platform apparatus 1000 on a surface by a user, wherein the user positions a first foot 1200 on the wheeled platform apparatus 1000 and moves on the surface in a first direction (i.e., rolling direction of the wheeled platform apparatus 1000) by placing at least a portion of a heeling apparatus 2000 or other skate or rolling apparatus, including a quad skate 2004, an inline skate 2006, or external wheel assembly 2008, worn on a second foot 1210, in contact with the surface and kicking or pushing the portion of the heeling apparatus 2000 or other skate or rolling apparatus from the surface to provide force in the first direction, as illustrated in FIGS. 30A, 30B, 30C, and 30D. In other embodiments, forward force in the first direction may also be provided by using the heeling apparatus 2000 or other skate or rolling apparatus, including a quad skate 2004, an inline skate 2006, or external wheel assembly 2008, worn on a second foot 1210, in a “roller skating” manner (i.e., pushing the second foot 1210 outward and in a direction opposite of the intended rolling direction). The forward force causes the wheeled platform apparatus 1000 to roll on the surface in generally the first direction.
Referring again to FIGS. 30A and 30D, another method for use of the wheeled platform apparatus 1000 on a surface by a user is illustrated, wherein a heeling apparatus 2000, external wheel assembly 2008, or similar rolling apparatus, having one or more wheels mounted or strapped adjacent to, partially within, or under the heel of the skate or rolling apparatus, may generate forward force in the first direction (i.e., rolling direction of the wheeled platform apparatus 1000) by placing the forefoot portion of the heeling apparatus 2000, external wheel assembly 2008, or similar rolling apparatus in contact with the surface and kicking or pushing forward from the surface.
Referring again to FIGS. 29A, 29D, and 29E, in other embodiments of the method of use of the wheeled platform apparatus 1000, once the user is moving in combination with the wheeled platform apparatus 1000 and a heeling apparatus 2000 or external wheel assembly 2008, worn on a second foot 1210, the user may transition from moving on the surface to rolling on the surface by elevating the forefoot portion of the sole of the heeling apparatus 2000 or external wheel apparatus 2008 worn on the second foot 1210 above and out of contact with the surface used for rolling.
Referring again to FIGS. 30B and 30C, another method for use of the wheeled platform apparatus 1000 on a surface by a user is illustrated, wherein a skate, such as a quad skate 2004, inline skate 2006, or similar apparatus having one or more wheels mounted or strapped adjacent to, partially within, or under at least the heel and forefoot of the skate, may generate forward force in the first direction (i.e., rolling direction of the wheeled platform apparatus 1000) by positioning the rolling direction of the skate at an angle offset from the first direction and pushing or kicking with the second foot 1210 in a direction offset from the first direction of the wheeled platform apparatus 1000 in a manner similar to “roller skating,” thereby generating a forward force in the first direction due to the application of force applied to the surface at an angle offset from the rolling direction of the skate. Referring again to FIGS. 30B and 30C, the forward force in the first direction may be derived by placing a toe or heel brake or a non-rolling surface of the skate in contact with the surface and pushing off with the second foot 1210.
Referring to FIGS. 29A, 29B, 29C, 29D, 29E, 42, 43, and 51, in other embodiments of the method of use of the wheeled platform apparatus 1000, once the user is rolling in combination with the wheeled platform apparatus 1000 and the heeling apparatus 2000 or other footwear, skate, or rolling apparatus, including a quad skate 2004, an inline skate 2006, or external wheel assembly 2008, worn on a second foot 1210, the user may transition from rolling on the surface to stopping on the surface by (1) placing at least a portion of the forefoot of the heeling apparatus 2000 or external wheel apparatus 2008 in contact with the surface, (2) elevating the forefoot portion of the heeling apparatus 2000, external wheel apparatus 2008, or other wheeled footwear having a heel brake to cause the heel brake, such as the rear brake 2002 of the heeling apparatus 2000 or external wheel apparatus 2008, to interface with the surface causing a friction braking effect, (3) elevating the front portion of the wheeled platform apparatus 1000 thereby causing the foot rest 1100 to interface with the surface causing a friction braking effect, (4) elevating the heel portion of the quad skate 2004, inline skate 2006, or other wheeled footwear having a forefoot braking surface or structure, such as a toe-stop on a quad skate 2004 or inline skate 2006, to cause the forefoot braking surface or structure to interface with the rolling surface causing a friction braking effect, and (5) dragging at least a portion of a non-rolling component of the footwear, worn on the second foot 1210, thereby causing a friction braking effect between the non-rolling component of the footwear and the rolling surface. In other embodiments, as illustrated by FIG. 43, the transition from rolling on the surface to stopping on the surface may occur with the second foot 1210 positioned in front of the wheeled platform apparatus 1000. In still other embodiments, as illustrated by FIGS. 42 and 51, the transition from rolling on the surface to stopping on the surface may occur with the second foot 1210 positioned behind the wheeled platform apparatus 1000. In other embodiments, as illustrated by FIG. 51, the transition from rolling on the surface to stopping on the surface by dragging at least a portion of a non-rolling component of the footwear may occur by dragging at least a portion of the sole of the footwear, such as the inside edge of the sole, along the surface.
Referring again to FIGS. 29A, 29B, 29C, 29D, 29E, 42, and 43, in yet another embodiment of the method of use of the wheeled platform apparatus 1000, rolling on the surface may include placing the heeling apparatus 2000 or other skate or rolling apparatus, including a quad skate 2004, an inline skate 2006, or external wheel assembly 2008, which is worn on the second foot 1210, at least partially in front of the wheeled platform apparatus 1000, at least partially adjacent to either side of the wheeled platform apparatus 1000, or at least partially behind the wheeled platform apparatus 1000, such that the heeling apparatus 2000 or other skate or rolling apparatus is positioned in a manner operable to roll on the surface, which in some embodiments includes elevating the forefoot of the heeling apparatus 2000 or other skate or rolling apparatus in a manner operable to roll using the wheel in, under, or adjacent to the heel.
Referring again to FIGS. 29A, 29B, 29C, 29D, and 29E, another method for use of the wheeled platform apparatus 1000 on a surface by a user is illustrated, wherein at least a portion of the forefoot of a heeling apparatus 2000 or other skate or rolling apparatus, having one or more wheels mounted or strapped adjacent to, partially within, or under the heel of the skate or rolling apparatus, including a quad skate 2004, an inline skate 2006, or external wheel assembly 2008, worn on a second foot 1210, may be elevated relative to the surface, where the forefoot of the heeling apparatus 2000 or other skate or rolling apparatus is positioned upon or adjacent to the foot rest 1100 of the wheeled platform apparatus 1000 while the one or more wheels mounted or strapped adjacent to, partially within, or under the heel of the heeling apparatus 2000 or other skate or rolling apparatus rolls on the surface.
Referring to FIGS. 24, 25, and 31, other embodiments include a method for use of the wheeled platform apparatus 1000 on a surface by a user, wherein a portion, such as the forefoot or arch, of the a heeling apparatus 2000 or other skate or rolling apparatus, having one or more wheels mounted or strapped adjacent to, partially within, or under the skate or rolling apparatus, including a quad skate 2004, an inline skate 2006, or external wheel assembly 2008, worn on a second foot 1210, may be elevated relative to the surface, where the elevated portion of the heeling apparatus 2000 or other skate or rolling apparatus is positioned upon or adjacent to the projection 1110 or 1120 of the wheeled platform apparatus 1000 while the one or more wheels mounted or strapped adjacent to, partially within, or under the heeling apparatus 2000 or other skate or rolling apparatus rolls on the surface.
Referring to FIGS. 28, 29A, 29B, 29C, 29D, 29E, 41A, 41B, 41C, 41D, 41E, 41F, 42, 43, 44, and 48, in other embodiments of the method of use of the wheeled platform apparatus 1000, a non-wheeled or wheeled footwear, including a heeling apparatus 2000, quad skate 2004, inline skate 2006, external wheel assembly 2008, or other wheeled skate, is worn on the first foot 1200 and may removably interface with at least a portion of the wheeled platform apparatus 1000, via attachment structure, binding, strap, magnets, or otherwise.
Referring to FIG. 45, in other embodiments of the method of use of the wheeled platform apparatus 1000, a removable wheel is inserted into the opening in the heel portion of the sole of a heeling apparatus 2000 prior to rolling on the surface.
Referring again to FIGS. 29A, 29B, 29C, 29D, and 29E, in other embodiments, when used in conjunction with the wheeled platform apparatus 1000, at least a portion of at least one wheel of a heeling apparatus 2000 or other skate or rolling apparatus, having one or more wheels mounted or strapped adjacent to, partially within, or under the skate or rolling apparatus, including a quad skate 2004, an inline skate 2006, or external wheel assembly 2008, worn on the second foot 1210, extends at least partially below the bottom of the sole of the heeling apparatus 2000 or other skate or rolling apparatus to contact the rolling surface, wherein the at least one wheel is operable to roll while supporting at least a portion of the weight of the user, as described above.
Thus, it is apparent that there has been provided, in accordance with the present invention, a wheeled platform apparatus and method. Although preferred embodiments have been described in detail, it should be understood that various changes, substitutions, and alterations can be made herein without departing from the scope of the present invention, even if some or all of the advantages identified above are not present. For example, the various elements or components may be combined or integrated in another system or certain features may not be implemented.
Also, the components, techniques, systems, sub-systems, layers, compositions and methods described and illustrated in the preferred embodiment as discrete or separate may be combined or integrated with other components, systems, modules, techniques, or methods without departing from the scope of the present invention. Other examples of changes, substitutions, and alterations are readily ascertainable by one skilled in the art and could be made without departing from the scope of the present invention.

Claims

1. A wheeled platform apparatus comprising:

a platform having a front portion, a center portion, a rear portion, a top surface, a bottom surface, and a longitudinal centerline;

a first wheel and a second wheel interfacing with the wheeled platform apparatus and extending partially below the bottom surface of the platform to facilitate rolling movement of the platform;

an attachment structure extending above the top surface for mating with a first foot, wherein the attachment structure is operable to position the first foot primarily along the longitudinal centerline of the platform; and

a foot rest positioned adjacent the rear portion of the apparatus for resting a forefoot portion of a second foot.

2. The wheeled platform apparatus of claim 1, wherein a first footwear is worn on said first foot.

3. The wheeled platform apparatus of claim 2, wherein said first footwear includes no wheel.

4. The wheeled platform apparatus of claim 2, wherein said first footwear includes a wheel and is operable to roll.

5. The wheeled platform apparatus of claim 1, wherein at least one of the first wheel and the second wheel is illuminated.

6. The wheeled platform apparatus of claim 1, wherein at least one of the first wheel and the second wheel is removably attached to the wheeled platform apparatus.

7. The wheeled platform apparatus of claim 1, wherein the first wheel and the second wheel are positioned along the longitudinal centerline of the platform.

8. The wheeled platform apparatus of claim 2, wherein the first footwear comprises a sole having a forefoot portion, an arch portion, a heel portion, a bottom surface, and an opening in the bottom surface, and wherein said attachment structure interfaces at least partially with the opening in the bottom surface.

9. The wheeled platform apparatus of claim 8, wherein the opening in the bottom surface is at least partially in the arch portion.

10. The wheeled platform apparatus of claim 3, wherein said first footwear is a heeling apparatus, and said attachment structure further comprises a projection for interfacing with a recess extending into a heel portion of the heeling apparatus.

11. The wheeled platform apparatus of claim 4, wherein said attachment structure further comprises a projection for mating with a wheel extending from the first footwear.

12. The wheeled platform apparatus of claim 2, wherein said attachment structure further comprises a recess for mating with a projection extending from the first footwear.

13. The wheeled platform apparatus of claim 4, wherein said attachment structure further comprises a recess for mating with the wheel extending from the first footwear.

14. The wheeled platform apparatus of claim 2, wherein said attachment structure further comprises a magnetic surface for magnetically mating with the first footwear.

15. The wheeled platform apparatus of claim 1, further comprising a strap positioned to removably couple the first foot to the platform.

16. The wheeled platform apparatus of claim 1, wherein the platform has a bottom portion and a top portion removably coupled to create said platform.

17. The wheeled platform apparatus of claim 1, wherein said attachment structure is operable to receive an axle.

18. The wheeled platform apparatus of claim 17, wherein said axle passes through an opening in said attachment structure.

19. The wheeled platform apparatus of claim 17, wherein said axle is at least partially secured to said attachment structure by a tensioner.

20. The wheeled platform apparatus of claim 19, wherein said attachment structure further comprises a sleeve for receiving said tensioner.

21. The wheeled platform apparatus of claim 1, wherein said attachment structure is operable to be displaced relative to the surface of the platform to allow the first foot to be positioned at varying angles to the longitudinal centerline of the platform.

22. The wheeled platform apparatus of claim 21, wherein said attachment structure is coupled to said platform by a fastener passing through an opening in said attachment structure.

23. The wheeled platform apparatus of claim 22, wherein said opening is non-circular to allow for displacement of the attachment structure relative to the fastener.

24. The wheeled platform apparatus of claim 21, wherein said attachment structure further includes a projection for interfacing with a recess in the top surface of the platform to facilitate rotation of the attachment structure relative to the longitudinal centerline of the platform.

25. The wheeled platform apparatus of claim 1, wherein a recess for storing objects is formed adjacent the top surface.

26. The wheeled platform apparatus of claim 1, wherein said center portion of said bottom surface further comprises a grind plate.

27. The wheeled platform apparatus of claim 1, wherein a second footwear is worn on the second foot.

28. The wheeled platform apparatus of claim 27, wherein the second footwear includes a wheel and is operable to roll behind the wheeled platform apparatus, and wherein the second footwear that includes a wheel is one from the group consisting of a heeling apparatus, an inline skate, a quad skate, and an external wheel assembly.

29. The wheeled platform apparatus of claim 1, wherein the foot rest extends downward at an angle less than 180 degrees from a plane that is substantially parallel to a level ground and passing substantially through the surface of the wheeled platform apparatus positioned above the level ground.

30. The wheeled platform apparatus of claim 1, wherein the foot rest further comprises a braking surface.

31. The wheeled platform apparatus of claim 27, wherein the foot rest magnetically mates to the forefoot portion of the second footwear.

32. The wheeled platform apparatus of claim 27, further comprising a foot rest mating structure for mating the foot rest to the forefoot portion of the second footwear.

33. The wheeled platform apparatus of claim 1, wherein the platform has a right side and a left side, and further comprising: one or more projections extending adjacent from at least one of the sides of the platform for resting a second foot during use of the wheeled platform apparatus.

34. The wheeled platform apparatus of claim 33, wherein a second footwear is worn on the second foot.

35. The wheeled platform apparatus of claim 34, wherein the second footwear includes a wheel and is operable to roll.

36. The wheeled platform apparatus of claim 34, wherein the one or more projections magnetically mate with the second footwear.

37. The wheeled platform apparatus of claim 34, further comprising a projection mating structure for mating the second footwear to the one or more projections of the wheeled platform apparatus.

38. The wheeled platform apparatus of claim 1, further comprising a deckplate positioned adjacent to the top surface of the platform.

39. The wheeled platform apparatus of claim 38, wherein the deckplate is removably attached to the top surface of the platform.

40. The wheeled platform apparatus of claim 38, further comprising a shock absorbing material positioned adjacent to the deckplate.

41. The wheeled platform apparatus of claim 38, further comprising a suspension member positioned between the deckplate and the platform.

42. The wheeled platform apparatus of claim 38, further comprising a light source positioned below the deckplate.

43. A method for use of a wheeled platform apparatus on a surface by a user, the method comprising:

positioning a first foot on a wheeled platform apparatus operable to roll on the surface;

positioning a second foot in a wheeled footwear operable to roll on the surface, wherein the wheeled footwear has a wheel mounted adjacent to, under, or partially within a sole of the footwear, in contact with the surface;

rolling on the surface in generally a first direction using the first foot positioned on the wheeled platform apparatus and the second foot in the wheeled footwear; and

transitioning from rolling on the surface to slowing rolling on the surface by contacting at least a portion of a non-rolling component of the wheeled footwear with the surface.

44. The method of claim 43, wherein rolling on the surface includes elevating a forefoot of the wheeled footwear relative to the surface such that either none or an insubstantial portion of the weight of the user is supported by the forefoot of the wheeled footwear.

45. The method of claim 43, wherein the wheeled footwear is one from the group consisting of a heeling apparatus, an inline skate, a quad skate, and an external wheel assembly.

46. The method of claim 43, wherein rolling on the surface includes placing the wheeled footwear in front of the wheeled platform apparatus.

47. The method of claim 43, wherein rolling on the surface includes placing the wheeled footwear behind the wheeled platform apparatus.

48. The method of claim 43, wherein the wheeled platform apparatus has a front portion, a center portion, and a rear portion and at least a portion of the forefoot of the wheeled footwear is positioned adjacent to a foot rest located adjacent the rear portion of the wheeled platform apparatus.

49. The method of claim 43, wherein the wheeled platform apparatus has a front portion, a center portion, and a rear portion and at least a portion of the wheeled footwear is positioned adjacent to a projection located adjacent to the front portion of the wheeled platform apparatus.

50. The method of claim 43, wherein the wheeled platform apparatus has a front portion, a center portion, and a rear portion and at least a portion of the wheeled footwear is positioned adjacent to a projection located adjacent to the center portion of the wheeled platform apparatus.

51. The method of claim 45, wherein the wheeled footwear is a heeling apparatus and further comprising inserting a removable wheel in the opening in the heel portion of the sole of the heeling apparatus prior to rolling on the surface.

52. The method of claim 43, further comprising slowing rolling by contacting at least a portion of a forefoot portion of the sole of the wheeled footwear with the surface.

53. The method of claim 43, further comprising slowing rolling by contacting at least a portion of a heel portion of the sole of the wheeled footwear with the surface.

54. The method of claim 43, further comprising slowing rolling by contacting at least a portion of a foot rest of the wheeled platform apparatus with the surface.

55. The method of claim 43, wherein the wheeled platform apparatus includes a bottom surface, and a front wheel and a rear wheel that extend partially below the bottom surface.

56. The method of claim 43, wherein a second footwear is worn on the first foot.

57. The method of claim 56, wherein the second footwear is a heeling apparatus.

58. The method of claim 56, wherein the second footwear is removably attached to the wheeled platform apparatus.

59. A wheeled platform apparatus comprising:

a platform having a front portion, a center portion, a rear portion, a top surface, a bottom surface, and a foot rest;

a first wheel and a second wheel interfacing with the wheeled platform apparatus and extending below the bottom surface of the platform to facilitate rolling movement of the platform; and

an attachment structure extending above the top surface for mating with footwear having an opening extending at least partially into the heel of the footwear;

wherein said foot rest is positioned adjacent the rear portion of the apparatus; and

wherein the first wheel and the second wheel are positioned adjacent a longitudinal centerline of the platform.