The embodiments as shown and described herein relate to a chair component, and in particular to a chair component that includes curved shells having apertures configured to allow associated fasteners to be positionally adjusted with respect to the shells during coupling of the shells to one another.
One embodiment as shown and described herein includes a chair component that includes a first shell including a plurality of first apertures spaced across the first shell, the first shell being curved, a second shell including a second plurality of apertures spaced across the second shell, the second shell being curved, and a plurality of fasteners configured to extend into the first plurality of apertures and the second plurality of apertures, wherein at least some of the apertures of the first plurality of apertures of the first shell or at least some of the apertures of the second plurality of apertures of the second shell are elongated and wherein the plurality of apertures of the other of the first shell or the second shell are substantially round, and wherein the fasteners of the plurality of apertures received within the elongated apertures are configured to slide along a length of the elongated apertures as the first and second shells are pressed together and the plurality of fasteners extend into the first plurality of apertures and the second plurality of apertures.
Another embodiment as shown and described herein may include a method of assembling a chair component that includes providing the chair component as described above, inserting the plurality of fasteners into the elongated apertures, and connecting the first shell with the second shell by aligning the first plurality of apertures with the second plurality of apertures and moving the first an second shells toward one another such that the plurality of fasteners are received within the substantially round apertures and the plurality of fasteners slide along the length of the elongated apertures as the first and second shells move toward one another.
Yet another embodiment as shown and described herein may further or alternatively include a chair component that includes an inner shell including a plurality of first apertures spaced across the inner shell where at least some of the apertures of the first plurality of apertures are substantially round, the inner shell being curved, an outer shell including a second plurality of apertures spaced across the outer shell where at least some of the apertures of the second plurality of apertures are elongated, the inner shell being curved, and a plurality of quick connect fasteners extending into the first plurality of apertures and the second plurality of apertures, wherein the fasteners of the plurality of apertures received within the elongated apertures are configured to slide along a length of the elongated apertures as the first and second shells are pressed together and the plurality of fasteners extend into the second plurality of apertures.
Still yet another embodiment as shown and described herein may include a method of assembling a chair component that includes providing the chair component as described above, inserting the plurality of fasteners into the elongated apertures, and connecting the inner shell with the outer shell by aligning the first plurality of apertures with the second plurality of apertures and moving the inner and outer shells toward one another such that the plurality of fasteners are received within the substantially round apertures and the plurality of fasteners slide along a length of the elongated apertures as the inner and outer shells move toward one another.
Another embodiment as shown and described herein may further or alternatively include a chair component that includes an inner shell including a plurality of first apertures spaced across the inner shell, the inner shell being curved, an outer shell including a second plurality of apertures spaced across the outer shell, the inner shell being curved, and a plurality of quick connect fasteners extending into the first plurality of apertures and the second plurality of apertures, wherein at least a portion of the plurality of fasteners are configured to slide along a length of at least some of the second plurality of apertures while remaining stationary along a length of at least some of the first plurality of apertures as the first and second shells are pressed together and the plurality of fasteners extend into the second plurality of apertures.
Yet another embodiment as shown and described herein may include a method of assembling a chair component that includes providing the chair component as described above, inserting the plurality of fasteners into the elongated apertures, and connecting the inner shell with the outer shell by aligning the first plurality of apertures with the second plurality of apertures and moving the inner and outer shells toward one another such that the plurality of fasteners is received within the at least some of the first plurality of apertures and the plurality of fasteners slide along the length of the at least some of the second plurality of apertures as the inner and outer shells move toward one another.
The embodiments as shown and described herein provide a chair component that allows multiple curved shell members to be easily and quickly coupled to one another without the use of specialized tools, allows for prefabrication of the components, reduces assembly time, reduces manufacturing costs, reduces the chances or possibilities of misalignment and mis-assembly of the associated elements or parts, and is particularly well adapted for the proposed use.
These and other advantages of the embodiments as disclosed and described herein will further be understood and appreciated by those skilled in the art by reference to the following specification, claims and appended drawings.
For purposes of description herein, the terms “upper,” “lower,” “right,” “left,” “rear,” “front,” “vertical,” “horizontal,” and derivatives thereof shall relate to the invention as oriented in
The reference numeral 10 (
In the illustrated example, the inner shell 20 includes a front surface 28, a back surface 30 and an outer peripheral edge 32. As shown, the inner shell 20 is curved across a width thereof, however, the curvature of the inner shell 20 could extend in other or multiple directions. A plurality of apertures 34 are spaced across the width of the inner shell 20 from one another and extend through the inner shell 20 between the front surface 28 and the back surface 30. In the illustrated example, the apertures 34 of the inner shell 26 have a circularly-shaped cross-sectional configuration, although other configurations may be utilized. The inner shell 20 may comprise a semi rigid plastic, however other suitable materials may also be utilized, including completely rigid materials.
The outer shell 22 includes a front surface 36, a rear surface 38 and an outer peripheral edge 40. As shown, the outer shell 22 is curved across a width thereof where the curvature of the outer shell 22 is similar to the curvature of the inner shell 20 such that the inner shell 20 can be closely nested within the outer shell 22. As noted above with respect to the inner shell 20, the curvature of the outer shell 22 may extend in other or multiple directions, and preferably is configured so as to match the curvature of the inner shell 20 so as to allow nesting in close proximity therewith. The outer shell 22 includes a plurality of apertures, including central apertures 42 located along a lateral centerline of the outer shell 22, outer apertures 44 positioned toward the proximal lateral ends of the outer shell 22, and intermediate apertures 46 positioned laterally between the central apertures 42 and respective outer apertures 44. The apertures 42, 44, 46 extend through the outer shell 22 between the front surface 36 and the rear surface 38. In the illustrated example, the central apertures 42 each have a circularly-shaped cross-sectional configuration with a diameter X, while the outer apertures 44 and the intermediate apertures 46 are each elongated, where the length Z of the outer apertures 44 are relatively longer than the length Y of each of the intermediate apertures 46, such that the width of the respective apertures increases the further the respective aperture is located from the lateral center of the outer shell 22. The elongation of the outer apertures 44 and the intermediate apertures 46 allows the respective fasteners 24 received therein to slide along a length of the apertures 44, 46 as the inner shell 20 and the outer shell 22 are coupled or attached to one another, as further described below. The outer shell 22 may comprise a semi rigid plastic, however other suitable materials may also be utilized, including completely rigid materials.
In the illustrated example, the fasteners 24 include quick-connect type fasteners, and in particular Christmas tree-type fasteners, although other fasteners suitable for coupling the inner shell 20 to the outer shell 22 may be utilized.
In assembly, fasteners 24 (
In the foregoing description, it will be readily appreciated by those skilled in the art that modifications may be made to the embodiments as described and shown herein without departing from the concepts generally disclosed herein. Such modifications are to be considered as included in the following claims, unless these claims by their language expressly state otherwise.
This application claims priority to U.S. Provisional Patent Application No. 63/506,458, entitled “BACK ATTACHMENT,” filed Jun. 6, 2023, the entire disclosure of which is incorporated herein by reference.
Number | Date | Country | |
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63506458 | Jun 2023 | US |