The invention relates to a collapsible apparatus for measuring the dimensions of a foot.
A number of problems exist with respect to foot measurement devices. These problems are well-known to those who are involved with footwear and the various sizing devices associated with footwear. Specifically, there is a need for a collapsible foot measuring device that is simple to use and can be easily shipped to a consumer for use.
In today's market numerous people purchase goods, such as footwear, through the internet or mail order catalogs. Oftentimes people are apprehensive to order footwear without first trying the item on as customary in a footwear store. Consumers fear that they will order the incorrect size and incur the hassle of returning or exchanging the item. Thus, there is a need for a collapsible foot measuring device that consumers can use in the comfort of their home which will ensure that the proper size footwear is ordered when consumers cannot first try on the item.
Various foot measuring devices have been developed. Examples of such prior art devices are those disclosed in the following United States patents: U.S. Pat. No. 7,051,452 (Brooks), U.S. Pat. No. 6,983,548 (Cook, et al.), U.S. Pat. No. 6,954,557 (Rim, et al.), U.S. Pat. No. 6,834,437 (Kilgore, et al.) and U.S. Pat. No. 5,339,252 (White, et al.).
Foot measuring devices in the prior art have certain shortcomings and disadvantages to which this invention is addressed. In particular, there is a need for a foot measuring apparatus which is sturdy and collapsible. It would be desirable that a foot measuring device be easy to use and compact so that it can be readily shipped to a consumer.
It is an object of this invention to provide a foot measuring apparatus that overcomes some of the problems and shortcomings associated with the prior art.
Another object of this invention is to provide a foot measuring apparatus that is collapsible for convenient and compact shipping to consumers.
Another object of this invention is to provide a foot measuring apparatus that is constructed in a sturdy nature so as to hold up after numerous uses.
Another object of this invention is to provide a foot measuring apparatus that is easy to use.
These and other objects of the invention will be apparent from the following descriptions and the drawings.
The invention is a foot measurement apparatus for measuring the dimensions of a foot. The inventive device includes an integrally-formed unitary base which has first and second sections. The first and second sections each have proximal ends and distal ends and top and bottom surfaces. The first and second sections are connected by a living-hinge interconnection portion at their proximal ends. The inventive device also includes a measuring scale attached to the top surfaces of the first and second sections. The foot measurement apparatus includes an erectable heel-tab structure which is attached to the unitary base near the distal end of the first section. The heel-tab structure has a heel-contact portion which is pivotable between a collapsed position, which overlies the top surface of the first section, and an erected position which is substantially normal to the first section.
In certain preferred embodiments, the living-hinge interconnection portion includes a non-hinging middle portion with opposite edges. A living hinge extends from each of the opposite edges to join a respective one of the first and second sections at its proximal end, such that the living-hinge interconnection portion makes the unitary base collapsible. It is most preferred that the first and second sections are substantially similar in length.
Highly desirable is where the heel-tab structure also includes a heel-support portion which is attached to the heel-contact portion and a cross-member which is configured for attachment of the heel-tab structure to the distal end of the first section. Preferably, the heel-tab structure is an integrally-formed piece. Preferred embodiments include the heel-contact portion and a first end of the heel-support portion being interconnected by a living hinge and the heel-contact portion and cross-member are also interconnected by a living hinge.
In highly preferred embodiments, the cross-member on the heel-tab structure spans the width of the first section and includes end members at either end thereof which are dimensioned to snap onto the first section. It is preferred that the heel-support portion is slideably connected at a second end thereof to the cross-member, and preferably, the second end of the heel-support portion includes a lateral stud. In preferred embodiments, the end members of the cross-member include slideways positioned and arranged to receive the lateral studs, whereby the heel-support portion is adjustably secured to the cross-member.
It is most preferred that the foot measurement apparatus further comprises a toe-tab structure which is slideably engaged with the unitary base. The toe-tab structure includes a toe-contact portion and a toe-support portion for attachment to the distal end of the second section.
Preferably, the toe-tab structure is an integrally-formed piece. Preferred embodiments have the toe-contact portion and a first end of the toe-support portion being interconnected by a living hinge and the toe-contact portion and cross-member being interconnected by a living hinge.
In highly preferred embodiments, the cross-member on the toe-tab structure spans the width of the second section and includes end members at either end thereof dimensioned to snap onto the second section. It is preferred that the toe-support portion is slideably connected at a second end thereof to the cross-member. Preferably, the second end of the toe-support portion includes a lateral stud. In preferred embodiments, the end members of the cross-member on the toe-tab structure include slideways positioned and arranged to receive the lateral studs, whereby the toe-support portion is adjustably secured to the cross-member. The end members of the cross-member on the toe-tab structure include tracks enabling the toe-tab structure to slide along the length of the first and second sections.
It is most preferred that the unitary base, heel-tab and toe-tab structures are formed of a semi-rigid plastic material. In certain embodiments the bottom surface of the first and second sections has a recess for attaching information such as operating instructions. It is highly preferred that the measuring scale is attached to the top surfaces of the first and second sections. In certain embodiments the measuring scale is integrally molded into the top surfaces of the first and second sections.
The drawings illustrate a preferred embodiment including the above-noted characteristics and features of the invention. The invention will be readily understood from the descriptions and drawings. In the drawings:
An erectable heel-tab structure 28 is attached to unitary base 12 near distal end 20 of first section 14 as seen in
As shown in
Heel-tab structure 28 is an integrally-formed piece. Heel-contact portion 30 and a first end 66 of heel-support portion 32 are interconnected by living hinge 40 as illustrated in
Second end 68 of heel-support portion 32 includes lateral stud 46 as illustrated in
Fool measurement apparatus 10 also includes a toe-tab structure 50 which is formed in substantially the same configuration as the heel-tab structure 28. Therefore, heel-tab structure 2S and toe-tab structure 50 are shown in the same configuration for identification purposes in
Toe-tab structure 50 includes toe-contact portion 52 and toe-support portion 54 for attachment to distal end 20 of second section 16 as seen in
Cross-member 42 on toe-tab structure 50 spans the width of second section 16 and includes end members 44 at either end thereof dimensioned to snap onto second section 16 as illustrated in
As with heel-support portion 32, second end 72 of toe-support portion 54 includes a lateral stud 46 as seen in
On toe-tab structure 50, end members 44 of cross-member 42 include tracks 60 enabling toe-tab structure 50 to slide along the length of first and second sections 14, 16 as illustrated in
Bottom surface 24 of first and second sections 14, 16 has a recess 62 for attaching information such as operating instructions 64 as shown in
Measuring scale 26 and/or operating instructions 64 are preferably printed on paper with an adhesive backing so that they can be attached to unitary base 12. In
Unitary base 12, heel-tab and toe-tab structures 28, 50 are preferably formed of polypropylene or a semi-rigid plastic material. A wide variety of materials are available for the foot measurement apparatus as discussed and illustrated herein.
A user can determine the correct shoe size by utilizing foot measurement apparatus 10. The user places their foot on unitary base 12, which is substantially planar, so that the users heel contacts the heel-contact portion 30 of heel-tab structure 28. Toe-tab structure 50 is then slid across the unitary base 12 until toe-contact portion 52 of toe-tab structure 50 contacts the tip of the users toes. A foot size measurement can then be determined by referencing the position of toe-contact portion 52 in relation to measuring scale 26.
Foot measurement apparatus 10 is able to be collapsed so as to enable convenient and compact shipping to customers as seen in
Upon receipt customer can assemble foot measurement apparatus 10 by taking unitary base 10 and elongating it by unfolding unitary base 10 through the use of living hinge 40 located between first and second sections 14, 16 so that foot measurement apparatus 10 is in the erected position as illustrated in FIGS. 1 and 15-17. Next customer can attach heel-tab structure 28 to distal end 20 of first section 14 through the use of cross-member 42. Heel-tab structure 28 will snap into place on unitary base 10. The same steps are taken to erect toe-tab structure 50 on distal end 20 of second section 16. Toe-tab structure 50 is attached by cross-member 42 to distal end 20 of second section 16. Toe-tab structure 50 will snap into place on unitary base 10.
While the principles of this device have been described in connection with specific embodiments, it should be understood clearly that these descriptions are made only by way of example and are not intended to limit the scope of the invention.
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Number | Date | Country | |
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20090126210 A1 | May 2009 | US |