The present invention relates generally to shoe racks and, more particularly, to hanging-type shoe racks which can be installed onto a door, wall or other generally vertically-extending surface.
Many types of shoe racks have been developed for storing shoes, including racks designed to be suspended from a hinged door. Such shoe racks typically utilize one or more generally inverted U-shaped hooks to fit over the top edge of the door, with a rack assembly being suspended vertically from the hooks along the length of the door. A problem frequently encountered with such racks is a lack of structural rigidity. Prior shoe racks tend to deflect under the weight of the shoes, causing vertical support members to curve away from the door. Shoe racks in this condition have an undesirable appearance, weakened vertical supports, and an unstable structure that is prone to failure.
Some shoe racks retain the shoes stored thereon in an inclined position such that the heel or toe of the shoe rests against the door or wall supporting the rack to prevent the shoes from falling off the rack. An example of this approach can be seen in U.S. Pat. No. 5,855,279, issued to Klein et al., which discloses a shoe rack having a plurality of support arms projecting outwardly and downwardly from a vertical frame. The rack includes sets of generally horizontally-extending retaining bars positioned between frame members and aligned in a plane forming an acute angle with respect to vertical to support the shoes in a downward-angled manner
A problem with prior shoe racks is that they are generally suspended such that the rack engages the door at only a few points, such as at the top and bottom of the rack, and/or at points about one-third and two-thirds the length of the rack as measured from the top of the rack. This can result in an unstable structure that is prone to a rocking motion. Excessive rocking can cause the hangers or hooks to eventually work free from the door, causing the rack to fall. In addition, repetitive rocking motion can also cause structural fatigue in the rack components and thereby reduce the life of the rack.
Still another shortcoming of prior shoe racks is their lack of expandability. Most shoe racks have a fixed capacity, which may be either excessive or inadequate for particular users. Users needing more capacity will often simply stack as many shoes as possible into the volume available on the rack, potentially exceeding the safe holding capacity of the rack and causing it to fail.
Accordingly, there is a need for a shoe rack having sufficient structural strength to withstand the loads imposed by the shoes without deformation. There is also a need for a shoe rack sufficiently stable to withstand the acceleration and deceleration forces encountered by the opening and closing of a door from which the rack is suspended. There is also a need for a modular shoe rack to allow multiple racks to be suspended together without an appreciable reduction in structural integrity.
The present invention overcomes the aforementioned limitations of prior shoe racks by providing a rack that is structurally sound, stable and expandable. In one embodiment, the rack includes a hanger that is shaped to fits over the top of the door to support the rack, and a frame structure coupled to the hanger. The frame structure may include a plurality of support arms extending generally away from the support surface. The rack may include a plurality of generally horizontally-oriented, vertically spaced inner rungs extending between adjacent support arms, and a plurality of generally horizontally-oriented, vertically spaced outer rungs extend between adjacent support arms. The rack may include a plurality of generally vertically-oriented braces extending between adjacent outer rungs, and/or inner rungs, and/or support arms to provide vertical support to the outer rungs and the support arms.
In one embodiment, the invention is a shoe rack including at least one frame structure and a hanger coupled to the frame structure, the hanger being shaped to couple the shoe rack to a generally vertically-oriented support surface such that the frame structure is located generally adjacent to the support surface. The frame structure includes a plurality of support arms shaped to extend generally away from the support surface when the frame structure is located generally adjacent to the support surface. The rack includes a plurality of generally horizontally-oriented, vertically spaced inner rungs coupled to the frame structure and a plurality of generally horizontally-oriented, vertically spaced outer rungs coupled to the frame structure. The rack further includes a plurality of generally vertically-oriented struts, each strut extending between adjacent ones of the outer rungs or adjacent ones of the support arms to provide vertical support to the outer rungs and the support arms.
Other objects and advantages of the present invention will be apparent from the following description and the accompanying drawings.
Further features of the inventive embodiments will become apparent to those skilled in the art to which the embodiments relate from reading the specification and claims with reference to the accompanying drawings, in which:
A perspective view of the general arrangement of a shoe rack 10 according to an embodiment of the present invention designed is shown in
Details of one of the modules 12a–c are shown in greater detail in
Each of the teeth 28 may have a pair of opposed edges 32 that are shaped to couple with like-shaped teeth of mating connector portions. The edges 32 may be angled or irregularly shaped to provide structural stability when mated. For example, in the illustrated embodiment the edges 32 may be angled to provide the generally trapezoidal shape to the teeth 28 and recesses 30. In this configuration, the connector portions can only be coupled together by laterally sliding the corresponding teeth 28 into the recesses 30, and the teeth 28 cannot be pulled out of a corresponding recesses by forces extending generally perpendicular to the door.
Each frame 26 may also have a generally flat rear surface 34 which can be aligned (i.e., lie in a common plane) with the rear surface of the frames 26 of adjoining modules so that the rack 10 may rest generally against a door or other similar vertical support surface. Each frame 26 may further include a base portion 36 and a plurality of support arms 38 extending generally perpendicular to the base portion 36.
In the embodiment illustrated in
Each support arm 38 may optionally have a generally vertically-oriented strut receptacle 44 located at or adjacent to the distal end of the support arms 38. Each strut receptacle 44 may include a generally cylindrically-shaped opening having a generally vertically extending axis. However, the inner and outer rung receptacles 40, 42 and strut receptacles 44 need not be generally cylindrical, so long as they are appropriately shaped to receive the associated components therein. When the receptacles 40, 42, 44 are cylindrical, the receptacles have a constant uniform inner diameter and may include an internal partition (not shown) located midway (or at some other depth) through the bore of the receptacles 40, 42, 44. Of course, the orientations of the receptacles may be reversed such that the frames 12 includes male portions received in receptacles of the rungs 46, 48 and/or struts 50. It is noted that each of the frames 26 forming any module 12a–c may be identical, thereby eliminating the need for separate “left” and “right” frames.
Each module 12a–c may include a plurality of generally horizontally-extending inner rungs 46 and a plurality of generally horizontally-extending outer rungs 48. The distal end of each inner rung 46 may be received in horizontally aligned inner rung receptacles 40 of the support arms 38. Similarly, the distal end of each outer rung 48 may be received in horizontally aligned outer rung receptacles 42 of the support arms 38. Each rung 46, 48 may be generally cylindrical and shaped to be closely received in the corresponding rung receptacles 40, 42 respectively, by an interference fit, and a rung 24, 26 may be located in each of the inner and outer rung receptacles 40, 42. Each outer rung 48 may be generally horizontally aligned with an associated inner rung 46. However, various other configurations may be used, including in one embodiment outer rungs 48 which are located vertically above an associated inner rung 46, in which case each support arm 38 may be angled slightly upwardly as the support arm 38 extends away from the associated base portion 36.
Each module 12a–c may further include a plurality of generally vertically-oriented struts 50. The struts 50 are preferably made integral to the support arms 38, in which case the frame 12 and/or support arms 38 may not include any strut receptacles 40. In an alternate embodiment, the struts 50 may be separable from the support arms 38, in which case the struts may have a plurality of strut receptacles 44 located therein to receive the struts 50. However, if the struts 50 are removably coupled to the arms 38/frame 12, the struts should be coupled so that the resulting interface between the struts 50 and the arms 38/frame 12 is sufficiently rigid and robust. Each strut 50 may be generally cylindrical or square in cross section. If the struts 50 are removably coupled to the support arms 38, each strut may be adapted to be closely received in the corresponding strut receptacles 44 by an interference fit and/or secured with an adhesive or by other means. The distal end of each strut 50 may couple to a pair of opposed support arms 38.
Each module 12a–c may be assembled by placing a pair of vertical frames 26 adjacent to each other in a parallel and spaced-apart configuration. The inner rungs 46 may be installed by placing the inner rungs 46 between the frames 26, and orienting the inner rungs 46 generally perpendicular to the frames 26 (i.e. generally perpendicular to a plane defined by the frames 26). The inner rungs 46 may then be secured by pressing the ends of the inner rungs 46 into inner rung receptacles 40 of the support arms 38 until the inner rungs 46 are fully seated or are pressed against partitions (not shown) located in the receptacles 40.
The outer rungs 48 may likewise be located between the frames 26 and oriented generally perpendicular to the frames 26. The outer rungs 48 may be secured by pressing the ends of the outer rungs 48 into the outer rung receptacles 42 located at the distal ends of the support arms 38 until the outer rungs 48 are fully seated therein or are pressed against partitions (not shown) located in the receptacles 42. The outer rungs 48 may be spaced apart from the inner rungs 46 by a distance sufficient to support a pair of shoes thereon, such as, in one embodiment, between about 5 inches and about 15 inches, and in one embodiment about 7 inches.
As previously noted, the struts 50 are preferably made integral to the support arms 38. For embodiments wherein the struts 50 are separate or separable components, a plurality of struts 50 having ends adapted to couple to the strut receptacles 44 are then provided. The struts 50 are oriented parallel to the frames 26, then pressed into the connector receptacles 44 of adjacent support arms 38 until fully seated therein or are pressed against partitions (not shown) located in the receptacles 44 to link the support arms 38 vertically.
Once assembled, the modules 12a–c may form or include a series of generally rigid, vertically stacked box-like structures 54 (i.e., in the embodiment illustrated in
The rack 10 may include a hanger 20 at or adjacent to its upper end for coupling the rack 10 to a door or other generally vertically-extending support surface. The general arrangement of the hanger 20 is illustrated in
The lower portion 58 of the hanger 20 may include a set of apertures 66 which are shaped and located to receive the teeth 28 of the upper connector portion 14 of a frame 26 therethrough to thereby suspend a frame 26 from the hanger 20. If desired, the receiving portion 56 may be broken off at a set of perforations 68 formed therethrough by, for example, repeatedly bending the hanger 20 at the perforations 68 until the hanger 20 separates along the set of perforations 68. The receiving portion 56 may then be discarded, and a set of mounting holes 70 formed through the hanger 20 may be used to mount the shoe rack 10 directly to a door or other vertical structure, such as by passing fasteners through the holes 70 and into the door.
Details of a hanger retainer 22 are illustrated in
The rack 10 may include a set of braces 18 to aid in coupling together modules 12a–c, as shown in
The rack 10 may include a pair of covers 24 which can be attached to the lower connector portions 16 of the bottom-most module, such as module 12c in
Referring again to
A pair of hangers 20 may be attached to an upper connector portion 14 of module 12a by positioning the apertures 66 of each hanger over the connector teeth 28 of the upper connector portions 14. The hanger retainer 22 can then be coupled to the upper connector portion 14, captively retaining the hanger lower portion 58 between the retainer 22 and the upper connector portion 14. Once all of the modules 12a–c have been installed, a cover 24 may be coupled to each of the lower connecting portions 16 of the bottom-most module, such as module 12c.
As can be seen from the figures and description herein, the shoe rack 10 may be modular in nature. The modular nature of the shoe rack 10 enables a user to initially install a single rack module, such as module 12a, then add one or more modules such as 12b, 12c to increase shoe storage capacity when desired. Each additional module may be attached to the bottom of the prior module. The structural integrity of the rack 10 can be maintained by the rigid structure of the modules 12a–c as well as the connector portions 14, 16 and braces 18, which serve to provide vertical support for modules 12b and 12c.
In use, the assembled rack 10 can be attached to a door or other vertical support surface by placing the hangers 20 over the upper horizontal edge of the door, or by utilizing the mounting holes 70, or by some other means. The frames 26 of the rack 10 may rest generally against vertical surface of the door to provide stability and a large surface area of contact. Furthermore, the rear surfaces 34 of each frame 26 may lie against the door to provide generally continuous areas of contact between the rack 10 and the door. Shoes may be placed on the rack 10 by placing the heel of each shoe against an outer rung 48, then directing the toes of the shoes downward to the adjacent inner rung 46. The shoes may also be oriented such that the heels are placed against the inner rung 24 with the toes resting on the outer rung 48. The mounted shoes will be prevented from sliding off laterally by the stability of the rigid rack 10, aided by the lateral restraints provided by the frames 26 and the struts 50. The inner rungs 46, outer rungs 48 and/or spacer portion 60 may be dimensioned and configured such that shoes stored on the rack 10 can be spaced away from the supporting door, thereby preventing scuffing of the door and of the shoes.
While this invention has been shown and described with respect to a detailed embodiment thereof, it will be understood by those skilled in the art that various changes in form and detail thereof may be made without departing from the scope of the claims of the invention.
This application claims priority to U.S. provisional application Ser. No. 60/393,461, filed Jul. 2, 2002, the contents of which are hereby incorporated by reference.
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Number | Date | Country | |
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20040118791 A1 | Jun 2004 | US |
Number | Date | Country | |
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60393461 | Jul 2002 | US |