The ambiances of indoor and outdoor spaces have long benefited from the gentle diffusion of photons from their primary sources (e.g., light bulbs). Modern light bulbs, whether they be light emitting diode (LED), incandescent or fluorescent, are frequently connected to a power source via a cylindrical socket. Diffusion devices, known colloquially as lampshades, are often oriented around light bulbs via attachment to the socket. The distance of the shade material to the light bulb and respective vertical positioning of the shade along the light bulb's vertical axis governs the quality and attributes of the diffusion. Currently, lampshade ring assemblies which facilitate the attachment of the lampshade to the light fixture, are made from a metal wire and have limitations in regard to modularity, case of manufacture and assembly, and cost. A need exists for a ring assembly for a lampshade that overcomes the deficiencies of currently existing products.
The invention may be directed to a lampshade ring assembly, a lampshade apparatus including the lampshade ring assembly and a lampshade, and a method of assembling a lampshade apparatus.
In one aspect, the invention may be a lampshade ring assembly comprising: a mounting hub comprising a plurality of first mounting elements arranged in a spaced apart manner; an outer ring comprising a plurality of second mounting elements arranged in a spaced apart manner; a plurality of connectors, each of the connectors comprising a first end having a third mounting element and a second end having a fourth mounting element; wherein each of the connectors is configured to be detachably coupled to: (1) the mounting hub via engagement between one of the first mounting elements of the mounting hub and the third mounting element of the connector; and (2) the outer ring via engagement between one of the second mounting elements of the outer ring and the fourth mounting element of the connector; and wherein the outer ring is configured to be coupled to a lampshade and the mounting hub is configured to be coupled to a light fixture.
In another aspect, the invention may be a lampshade apparatus comprising: a ring assembly comprising: a mounting hub comprising a top surface, a bottom surface, and an outer surface, a fixture mounting hole extending through the mounting hub from the top surface to the bottom surface, and a plurality of hub apertures formed into the outer surface of the mounting hub and arranged in a spaced apart manner; an outer ring comprising an inner surface that bounds a central aperture, a plurality of ring apertures formed into the inner surface of the outer ring and arranged in a spaced apart manner; a plurality of connectors, each of the connectors being elongated between a first end of the connector and a second end of the connector, each of the plurality of connectors being detachably coupled to the mounting hub and to the outer ring by inserting the first end of each of the connectors into one of the hub apertures of the mounting hub and inserting the second end of each of the connectors into one of the ring apertures of the outer ring, thereby forming the ring assembly; and a lampshade having a top edge and a bottom edge, the ring assembly being coupled to the lampshade with the outer ring in engagement with one of the top and bottom edges of the lampshade.
In yet another aspect, the invention may be a method of assembling a lampshade apparatus, the method comprising: attaching each of a plurality of connectors to a mounting hub by engaging a third mounting element of each of the connectors to one of a plurality of first mounting elements of the mounting hub; after the plurality of connectors are attached to the mounting hub, attaching each of the plurality of connectors to an outer ring by engaging a fourth mounting element of each of the connectors to one of a plurality of second mounting elements of the outer ring, thereby forming a ring assembly of the lampshade apparatus; and attaching the ring assembly to a top edge or a bottom edge of a lampshade, thereby forming the lampshade apparatus that is configured to be coupled to a light fixture.
Further areas of applicability of the present invention will become apparent from the detailed description provided hereinafter. It should be understood that the detailed description and specific examples, while indicating the preferred embodiment of the invention, are intended for purposes of illustration only and are not intended to limit the scope of the invention.
The present invention will become more fully understood from the detailed description and the accompanying drawings, wherein:
The following description of the preferred embodiment(s) is merely exemplary in nature and is in no way intended to limit the invention, its application, or uses.
The description of illustrative embodiments according to principles of the present invention is intended to be read in connection with the accompanying drawings, which are to be considered part of the entire written description. In the description of embodiments of the invention disclosed herein, any reference to direction or orientation is merely intended for convenience of description and is not intended in any way to limit the scope of the present invention. Relative terms such as “lower,” “upper,” “horizontal,” “vertical,” “above,” “below,” “up,” “down,” “top” and “bottom” as well as derivatives thereof (e.g., “horizontally,” “downwardly,” “upwardly,” etc.) should be construed to refer to the orientation as then described or as shown in the drawing under discussion. These relative terms are for convenience of description only and do not require that the apparatus be constructed or operated in a particular orientation unless explicitly indicated as such. Terms such as “attached,” “affixed,” “connected,” “coupled,” “interconnected,” and similar refer to a relationship wherein structures are secured or attached to one another either directly or indirectly through intervening structures, as well as both movable or rigid attachments or relationships, unless expressly described otherwise. Moreover, the features and benefits of the invention are illustrated by reference to the exemplified embodiments. Accordingly, the invention expressly should not be limited to such exemplary embodiments illustrating some possible non-limiting combination of features that may exist alone or in other combinations of features; the scope of the invention being defined by the claims appended hereto.
Referring to
Referring to
The mounting hub 210 and the outer ring 250 may be fabricated via additive manufacturing methods, which may include Fused Filament Deposition (FDM), Selective Laser Sintering (SLS), Powder Bed Fusion (PBF), Stereolithography (SLA), among other commercially viable techniques. Other techniques for forming the mounting hub 210 and the outer ring 250 may also be used, including, for example without limitation, injection molding. The mounting hub 210 and the outer ring 250 may be formed from different thermoplastics, including polylactic acid (PLA), polyethylene terephthalate glycol (PETG), acrylonitrile butadiene styrene (ABS), polypropylene, polyethylene, among others, including photopolymer resins used in SLA processes. Other materials may be used for the mounting hub 210 and the outer ring 250 in alternative embodiments. For example, the mounting hub 210 and the outer ring 250 may be made from a thermoset material. In other embodiments, the mounting hub 210 and the outer ring 250 may be machined from aluminum or steel.
The connectors 290 may be formed from a rigid material. The connectors 290 may be formed from metal, such as steel, aluminum, or brass. Alternatively, the connectors 290 may be formed from plastic, wood, or other rigid materials that will enable the connectors 290 to be coupled to the mounting hub 210 and the outer ring 250 as described herein. In the exemplified embodiment, the ring assembly 200 comprises three of the connectors 290. However, the invention is not to be so limited in all embodiments and in some alternative embodiments there may be only two of the connectors 290 or there may be greater than three of the connectors 290.
In the exemplified embodiment, the connectors 290 are elongated rod-like members that extend from a first end 291 to a second end 292 along a longitudinal axis A-A. The connectors 290 comprise a first end portion 293 which comprises the first end 291 and a second end portion 294 which comprises the second end 292. Furthermore, each of the connectors 290 comprises a third mourning element 295 and a fourth mounting element 296. In the exemplified embodiment, the first end portion 293 of the connector 290 forms the third mounting element 295 and the second end portion 294 of the connector 290 forms the fourth mounting element 296. That is, the end portions of the connector 290 forms the third and fourth mounting elements 295, 296 that are configured to mate and/or interact with mounting elements of the mounting hub 210 and the outer ring 250 (described below) to facilitate the attachment of the connectors 290 to the mounting hub 210 and the outer ring 250. Alternative structures for the third and fourth mounting elements 295, 296 are possible, some examples of which will be provided in the description below. As an example, the first and second end portions 293, 294 may comprise cavities that form the third and fourth mounting elements.
In the exemplified embodiment, the connectors 290 are elongated along the longitudinal axis A-A so that the longitudinal axis A-A intersects both of the first and second ends 291, 292 of the connectors 290. The connectors 290 may have other shapes in other embodiments. For example, the connectors 290 may have central portions and end portions, with the end portions being angled or offset relative to the central portions. This configuration may be used to facilitate an attachment of the connectors 290 to the mounting hub 210 and to the outer ring 250 in an axial offset arrangement. Furthermore, in the exemplified embodiment the connectors 290 have a circular cross-sectional shape. However, the invention is not to be so limited and the connectors 290 may have other cross-sectional shapes, including square, hexagonal, other polygonal shapes, or the like. The cross-sectional shape of the connectors 290 may match with the cross-sectional shape of an aperture of the mounting hub 210 and the outer ring 250 within which the connector 290 is configured to be disposed, as discussed below. An example of a modified connector in accordance with this variation is shown in
In an embodiment, the connectors 290 are formed as distinct and separate parts from each of the mounting hub 210 and the outer ring 250. In some embodiments, the connectors 290 may be formed from a first material and the mounting hub 210 and the outer ring 250 may be formed from a second material. The first material may be metal and the second material may be plastic. Alternatively, the first material may be wood and the second material may be plastic. The connectors 290 may be configured to be manually attached to the mounting hub 210 and to the outer ring 250 by a user without any tools other than the user's hands. The connectors 290 may be configured to be manually detached from the mounting hub 210 and to the outer ring 250 to disassemble the ring assembly 200. This attaching and detaching may be repeatable and may be achieved over and over manually by a user without the user of any tools.
Referring to
In the exemplified embodiment, the mounting hub 210 has a donut-like or ring-like shape. It should be appreciated that the specific shape of the mounting hub 210 could be modified in other embodiments. In the exemplified embodiment, the outer surface 213 of the mounting hub 210 defines a circle and the inner surface 214 of the mounting hub 210 defines a circle. However, the shape formed/defined by the inner and outer surfaces 213, 214 may be non-circular in other embodiments, including being polygonal (square, rectangular, hexagonal, octagonal, or the like), irregular, or other shapes. Furthermore, the inner and outer surfaces 213, 214 need not define the same shape in all embodiments. In some embodiments, the outer surface 213 may be circular and the inner surface 214 may be non-circular (square, rectangular, triangular, etc.). In other embodiments, the outer surface 213 may be non-circular and the inner surface 214 may be circular. In other embodiments, neither the outer surface 213 nor the inner surfaces 213 is circular. Thus, variations to the shape of the mounting hub 21 are possible, so long as the mounting hub 210 remains configured for coupling to a mounting portion of a light fixture as described herein.
The mounting hub 210 comprises a plurality of first mounting elements 220. In the exemplified embodiment, each of the first mounting elements 220 is an aperture 221 formed into the outer surface 213 of the mounting hub 210. The apertures 221 may have a cross-sectional shape that matches with the cross-sectional shape of the connectors 290 so that the connectors 290 may be at least partially received within the apertures 221. Thus, if the connectors 290 have a circular cross-sectional shape, the apertures 221 may also have a circular cross-sectional shape. If the connectors 290 have a polygonal (triangular, square, hexagonal, etc.) cross-sectional shape, the apertures 221 may have a matching polygonal cross-sectional shape. The apertures 221 may be referred to herein as hub apertures. Each of the apertures 221 may be a blind hole type aperture that extends from the outer surface 213 of the mounting hub 210 to a floor 222. Thus, in the exemplified embodiment the apertures 221 do not extend fully through from the outer surface 213 to the inner surface 214. In other embodiments, the apertures 221 may be through-holes that extend from the outer surface 213 to the inner surface 214. For example, the apertures 221 may be through-holes with a taper or step-down to help constrain the connectors when coupled thereto. The apertures 221 may be arranged along the outer surface 213 of the mounting hub 210 in a circumferentially spaced apart manner. In the exemplified embodiment, there are three of the apertures 221. The number of apertures 221 may match the number of the connectors 290, and thus there may be two apertures 221 or more than three apertures 211 in alternative embodiments. There may be more apertures 221 than there are connectors 290 in some embodiments.
While the first mounting elements 220 are depicted as apertures 221 in the exemplified embodiment, in other embodiments the first mounting elements 220 may be protuberances or posts or other structural features. Thus, for example, the first end 291 of the connectors 290 may define a cavity or recess (which therefore forms the third mounting element 295), and the first mounting elements 220 may comprise a post or protuberance that is configured to nest within the cavity or recess of the connector 290 to facilitate the attachment between the connectors 290 and the mounting hub 210.
The aperture 221 may extend along an aperture axis B-B. Furthermore, a vertical axis C-C may extend perpendicularly relative to the top and bottom surfaces 211, 212 of the mounting hub 210. The aperture axis B-B may be oblique to the vertical axis C-C. In the exemplified embodiment, the aperture axis B-B is acute to the vertical axis C-C. The aperture axis B-B may extend at an upward angle as it moves from the floor 222 to the outer surface 213. The aperture axis B-B may extend at different angles relative to the vertical axis C-C in different embodiments, depending at least on part on the shape and structure of the connectors 290 and the desired axial offset distance between the mounting hub 210 and the outer ring 250 when coupled together by the connectors 290. In the exemplified embodiment there are three of the apertures 221 and they are equidistantly spaced apart along the outer surface 213 of the mounting hub 210. The apertures 221 may be spaced apart by 120° in some embodiments. The number of the apertures 221 may dictate the spacing, which may be equidistant as noted, although this is not required in all embodiments.
While the first mounting elements 220 (i.e., the apertures 221) are located along the outer surface 213 of the mounting hub 210 in the exemplified embodiment, the invention is not to be so limited in all embodiments. In an alternative embodiment, the first mounting elements 220 (i.e., the apertures 221) may be formed into the bottom surface 212 of the mounting hub 210. In another alternative embodiment, the first mounting elements 220 (i.e., the apertures 221) may be formed into the top surface 211 of the mounting hub 210.
Referring now to
The outer ring 250 may comprise a plurality of second mounting elements 260. The second mounting elements 260 may be located along the inner surface 254 of the outer ring 250 and may be arranged in a spaced apart manner. In the exemplified embodiment each of the second mounting elements 260 is an aperture 261 formed into the inner surface 254 of the outer ring 250. The apertures 261 may be referred to herein as ring apertures. In the exemplified embodiment, the apertures 261 are blind holes that extend from the inner surface 254 of the outer ring 250 to a floor 265. Furthermore, the apertures 261 extend along an axis D-D that is oriented obliquely relative to a vertical axis E-E. The apertures 261 may extend downwardly when moving from the floor 265 towards the inner surface 254. The apertures 261 may intersect the vertical axis E-E at an acute angle. The specific angle of the apertures 261 may be modified as needed depending on the shape and structure of the connectors 290 and the desired relative positioning of the outer ring 250 and the mounting hub 210.
While the second mounting elements 260 are depicted as apertures 261 in the exemplified embodiment, in other embodiments the second mounting elements 260 may be protuberances or posts or other structural features. Thus, for example, the second end 292 of the connectors 290 may define a cavity or recess (which therefore forms the fourth mounting element 296), and the second mounting elements 260 may comprise a post or protuberance that is configured to nest within the cavity or recess of the connector 290 to facilitate the attachment between the connectors 290 and the outer ring 250.
In the exemplified embodiment, there are three of the apertures 261. There may be fewer or greater than three apertures 261 in other embodiments. In some embodiments, the number of apertures 261 matches the number of connectors 290 and the number of apertures 221, although this is not required in all embodiments. In the exemplified embodiment with three of the apertures 261, the apertures may be spaced 120° apart along the inner surface 254 of the outer ring 250. The apertures 261 may be equidistantly spaced apart along the inner surface 254 of the outer ring 250, although equidistant spacing is not required in all embodiments.
In the exemplified embodiment, the outer ring 250 is rather thin measured in the direction between the top and bottom surfaces 251, 252. For example, the thickness of the outer ring 250 between the top and bottom surfaces 251, 252 may be smaller than a diameter of the connectors 290. The outer ring 250 may be between 0.5 mm and 6.0 mm thick, more specifically between 1 mm and 5 mm, or between 2 mm and 4 mm thick, for example. In some embodiments, may be desirable to form the outer ring 250 with a small thickness (in the 0.5 mm to 3.0 mm range, for example) in order to render the outer ring 250 flexible. That is, a user may be able to manipulate and bend the outer ring 250 without breaking the outer ring 250 to facilitate the attachment of the outer ring 250 with the connectors 290 after the connectors 290 are already coupled to the mounting hub 210. As such, the outer ring 250 may comprise an additional mounting structure 262 surrounding each of the apertures 261 to increase the thickness of the outer sing 250 at the location of the apertures 261. The mounting hub 210 may be thicker between the top and bottom surfaces 211, 212 than the outer ring 250.
While the second mounting elements 260 (i.e., the apertures 261) are located along the outer surface 553 of the outer ring 250 in the exemplified embodiment, the invention is not to be so limited in all embodiments. In an alternative embodiment, the second mounting elements 260 (i.e., the apertures 261) may be formed into the bottom surface 252 of the outer ring 250. In another alternative embodiment, the second mounting elements 260 (i.e., the apertures 261) may be formed into the top surface 251 of the outer ring 250.
Referring sequentially to
In the exemplified embodiment, the connectors 290 are detachably coupled to the mounting hub 210 via engagement between the third mounting element 295 of the connector 290 and the first mounting element 220 of the mounting hub 220. In the exemplified embodiment, this requires inserting the first end portions 293 of the connectors 290 into the apertures 221 of the mounting hub 220. Furthermore, this may be accomplished manually by a user simply pressing the first end portions 293 of the connectors 290 into the apertures 221. In an alternative embodiment, the first mounting elements 220 of the mounting hub 220 may comprise protrusions or posts and the third mounting element 295 of the connectors 290 may comprise an opening formed into the first end 291 of the connector 290. In such an embodiment, the connectors 290 would be coupled to the mounting hub 210 in a similar press-fit manner, except that the opening of the connectors 290 would receive the protrusion or post of the mounting hub 220 to facilitate the attachment. In both situations, the connectors 290 may be detachably coupled to the mounting hub 220. After the connectors 290 are coupled to the mounting hub 220, the connectors 290 extend radially from the outer surface 213 of the mounting hub 220 to the second ends 292 of the connectors 290.
Next, referring to
The connectors 290 may be fixedly coupled to the outer ring 250 with an adhesive. However, it may be preferred to not use an adhesive so that the connectors 290 may be later separated from the outer ring 250 so that the ring assembly 200 can be disassembled. The assembly and disassembly of the ring assembly 200 may be achieved entirely manually by a user without any tools required.
Thus, the mounting hub 210 and the outer ring 210 are coupled together via the connectors 290. As noted above, inserting the first and second end portions 293, 294 of the connectors 290 into apertures in the mounting hub 210 and the outer ring 250 is one technique for forming the ring assembly 200. In alternative embodiments, posts of the mounting hub 210 and outer ring 250 may be inserted into holes in the ends of the connectors 290. Other techniques for detachably coupling the connectors 290 to the mounting hub 210 and to the outer ring 250 may be used in further alternative embodiments. Each of the connectors 290 may extend linearly and radially from the outer surface 213 of the mounting hub 210 to the inner surface 254 of the outer ring 250. Each of the apertures 221 (or first mounting elements 220) of the mounting hub 220 may be radially aligned with one of the apertures 261 (or second mounting elements 260) of the outer ring 250.
Referring to
Referring to
In this embodiment, the connectors 390 comprise an elongated central portion 397, a first end portion 393, and a second end portion 394. The first and second end portions 393, 394 extend obliquely from the opposite ends of the elongated central portion 397. Thus, the connectors 390 have a Z-like shape. The first end portions 393 of the connectors 390 are configured to nest within apertures 321 formed into the mounting hub 310 and the second end portions 394 of the connectors 390 are configured to nest within apertures 361 formed into the outer ring 350. In this embodiment, the connectors 390 cause the mounting hub 310 and the outer ring 350 to be maintained axially offset relative to one another. That is, due to the shape of the connectors 390 and the orientation of the apertures 321, 361, when the ring assembly 300 is assembled, the outer ring 350 is maintained in vertically spaced relation relative to the mounting hub 310. The specific spacing distance between the outer ring 350 and the mounting hub 310 may be selected based on the style and specific details of the light fixture to which the ring assembly 300 is configured to be coupled. Some examples of this will be provided below with reference to
In this embodiment, the outer ring 350 comprises an outer surface 353 and an inner surface 354. The inner surface 354 is generally round and may be circular, although the invention is not to be so limited in all embodiments. The outer surface 353 is wavy such that the form of the outer surface 353 smoothly curves in and out forming alternating ridges and valleys. The outer surface 353 may be designed this way in order to correspond to the shape of the top or bottom edge or the outer surface of the lampshade to which the outer ring 350 is configured to be attached.
The outer ring 350 may comprise a top surface 351 and a bottom surface 352. The outer ring 350 may comprise an alignment feature 355 on the bottom surface 352. In the exemplified embodiment, the alignment feature 355 is an annular recess 356 defined in the bottom surface 352 of the outer ring 350. The annular recess 356 has a wavy (or scalloped) shape. A specific lampshade may be designed for use with the outer ring 350. In particular, a lampshade having a top edge or a top portion with a corresponding wavy edge geometry that mates with the annular recess 356 (and perhaps nests therein) may be used with the outer ring 350. This may facilitate a tight mating arrangement between the outer ring 350 of the ring assembly 300 and the lampshade to which it is coupled to help maintain the coupling therebetween once attached as described herein. The annular recess 356 is not limited to the wavy shape as shown, but could take on other shapes to match with specific lampshades and enhance the attachment.
In some embodiments, the outer surface 353 may comprise an upper edge portion 357 that is adjacent to the top surface 351 and a lower edge portion 358 that is adjacent to the bottom surface 352. The lower edge portion 358 may be recessed radially inward relative to the upper edge portion 357. Stated another way, the upper edge portion 357 may be formed on a flange that extends radially outward beyond the lower edge portion 358. The lower edge portion 358 may be configured to engage an interior surface of a lampshade while the flange rests atop the top edge of the lampshade and the upper edge portion 357 is flush with the outer surface of the lampshade. Thus, the edge geometry of the upper and/or lower edge portions 357, 358 may mate with the edge geometry or surface geometry of the lampshade to enhance alignment and attachment between the ring assembly 300 and the lampshade.
Referring to
To assemble the parts, first the ring assembly 200 is assembled as previously described, and then the ring assembly 200 is attached to the top edge 12 of the lampshade 10 to form the lampshade apparatus 100. The ring assembly 200 may be attached to the top edge 12 of the lampshade 10 using adhesives or any of the other techniques described herein. Next, the socket 604 is inserted through the mounting hole 215 of the mounting hub 210 of the ring assembly 200. Next, the attachment collar 602 is coupled to the socket 604. In the exemplified embodiment, the attachment collar 602 is coupled to the socket 604 by engaging the exterior threads 606 of the socket 604 with the interior threads 607 of the attachment collar 602. That is, the attachment collar 602 may be screwed to the exterior of the socket 604. The coupling of the attachment collar 602 to the socket 604 holds the lamp ring apparatus 100 in place. That is, the attachment of the attachment collar 602 to the socket 604 also serves to attach the lamp ring apparatus 100 to the fixture component 601 by sandwiching the mounting hub 210 of the ring assembly 200 between the attachment collar 602 and a flange 609 of the fixture component 601. Finally, the light source 603 (i.e., the light bulb) is coupled to the socket 604 via engagement with the interior threads 605 of the socket 604. The light source 603 may be screwed to the socket 604 in the conventional manner.
Referring to
The floor lamp 620 comprises a base portion 621, a stand portion 622, and a fixture portion 623. The fixture portion 623 comprises a socket 624 and a flange 625.
To assemble the parts, first the ring assembly 720 is assembled by coupling the connectors 723 to the mounting hub 721 and to the outer ring 722. Next, the ring assembly 720 is coupled to the bottom edge 711 of the lampshade 710 using the techniques described herein. Next, the lampshade apparatus 700 is translated downwardly over top of the fixture portion 623 of the floor lamp 720 until at least a portion of the fixture portion 623 protrudes through a mounting hole 724 of the mounting hub 721 and the mounting hub 721 rests atop of the flange 625 of the fixture portion 623. Next, a light bulb 705 is screwed into the socket 624. The light bulb 705 may have a cross-sectional area that is greater than the cross-sectional area of the mounting hole 724 so that the lampshade apparatus 700 cannot be translated upwardly while the light bulb 705 is screwed into the socket 624. Thus, the light bulb 705 may function to secure the lampshade apparatus 700 in place on the floor lamp 720.
As shown in
Referring to
The floor/table lamp 630 comprises a base portion 631, a stand portion 632, a socket portion 633, and a harp portion 634. A fastener component 625 may be coupled to and protrude upwardly from the top end of the harp portion 634. A light bulb 636 may be coupled to the socket portion 633 in the conventional manner. In this embodiment, the light bulb 636 may be coupled to the socket portion 633 before the lampshade apparatus 800 is attached to the floor/table lamp 630, although this is not required in all embodiments.
To assemble the parts, first the ring assembly 820 is formed/assembled by attaching the connectors 823 to the mounting hub 721 and to the outer ring 822 using the techniques described above. Next, the ring assembly 820 is coupled to the top edge 712 of the lampshade 810. The ring assembly 820 may be coupled to the top edge 712 of the lampshade 810 with adhesives, or any of the other techniques described herein. The attached ring assembly 820 and the lampshade 810 forms the lampshade apparatus 800.
In this embodiment, the mounting hub 821 has a mounting hole 825 which has a much smaller diameter than the previous embodiments. The reason for this is that the mounting hole 825 is configured to receive the fastener component 625 of the floor/table lamp 630, which is much smaller in diameter than the sockets of the prior embodiments which are inserted through the mounting hole. Nonetheless, after the lampshade apparatus 800 is assembled, the lampshade apparatus 800 is lowered onto the floor/table lamp 630 until the fastener component 625 passes through the mounting hole 825 of the mounting hub 821. Next, a finial 637 is screwed to the portion of the fastener component 625 that protrudes through the mounting hole 825 to lock the lampshade apparatus 800 to the floor/table lamp 630.
As best seen in
One advantage of the ring assembly 200 described herein is that it can be made to order. That is, the various parts of the ring assembly 200 can be designed to fit an existing lampshade and/or an existing light fixture. Thus, if a consumer wants to retrofit a light fixture, the ring assembly 200 can be made so that it is configured to be attached to the existing light fixture. Specifically, the mounting hub 210 of the ring assembly 200 may be designed to ensure it is able to be attached to the specific light fixture it is intended to be used with (different light fixtures have different attachment mechanisms, as described herein). Furthermore, the ring assembly 200 may be made so that it is configured to be attached to an existing lampshade. Specifically, the outer ring 250 of the ring assembly 200 may be designed to ensure it is able to be attached to a specific lampshade. Finally, the ring assembly 200 may be designed to have a specific relative positioning between the mounting hub 210 and the outer ring 250 to optimize its functionality with a specific light fixture.
Additional benefits of the various ring assemblies described herein include: increased diffusion of light upwards; print-in-place locating geometries (i.e., alignment features) to ensure concentricity of ring assembly and lampshade body, customizable to myriad of different shade types; minimized material usage and print times for ring assembly; minimized first layer surface area for inner and outer rings relative to the orthographic projection of lampshade perimeter; fully adjustable connector pin angle, allowing for socket to be offset to different locations in lampshade body; outer ring is adaptable to a myriad of different shade sizes, shapes and patterns; drives value in pendant lamp, floor lamp, chandelier and desk lamp product categories; augmented flex on drop impacts for overall system because the connector pins facilitate movements along axis; floating nature of connector pins facilitates easy deconstruction and separation of materials into homogeneous groupings at the end of product lifecycle by breaking the contact between outer ring and lampshade which results in the connector pins flexing out of place.
As used throughout, ranges are used as shorthand for describing each and every value that is within the range. Any value within the range can be selected as the terminus of the range. In addition, all references cited herein are hereby incorporated by reference in their entireties. In the event of a conflict in a definition in the present disclosure and that of a cited reference, the present disclosure controls.
While the invention has been described with respect to specific examples including presently preferred modes of carrying out the invention, those skilled in the art will appreciate that there are numerous variations and permutations of the above described systems and techniques. It is to be understood that other embodiments may be utilized and structural and functional modifications may be made without departing from the scope of the present invention. Thus, the spirit and scope of the invention should be construed broadly as set forth in the appended claims.
This application claims the benefit of priority from U.S. Provisional Patent Application Ser. No. 63/429,612, filed Dec. 2, 2022, the entirety of which is hereby incorporated herein by reference.
Number | Date | Country | |
---|---|---|---|
63429612 | Dec 2022 | US |