The present invention relates generally to racks for storing bag-in-box containers, and, more particularly, to such racks having a modular design and integrated pump mounting means.
It is known in the art to use bag-in-box (BIB) containers for the storage of syrup, juice concentrate, and other liquids. BIB containers are generally box-shaped and have a bag positioned therein for containing the liquid. A restaurateur (or any other person) can use a BIB container in connection with a pump and one or more canisters of soda water, for example, to form a carbonated beverage and to convey the carbonated beverage to a dispenser.
It is also known in the art to have multi-shelf racks for storing BIB containers. Such racks typically use “level” shelving (e.g., shelves that are substantially parallel with the ground) and “inclined” shelving (e.g., shelves that are substantially angled with respect to the ground). A restaurateur ordinarily makes the choice between level and inclined shelving depending on the requests of the manufacturer of the syrup. For example, one major cola manufacturer requests that restaurateurs store their BIB containers on level shelving, while another major cola manufacturer requests that restaurateurs store their BIB containers on inclined shelving.
It is also known in the art to use modular racks for the storage of BIB containers. For example,
What is needed in the art is a modular rack that facilitates easy disassembly and transport thereof and that further facilitates the easy mounting of a pump thereto.
The present invention overcomes the disadvantages and shortcomings of the prior art discussed above by providing a modular rack for attachment thereto of a sliding mount bracket securable to a peripheral device, such as a pump, a canister, etc. The modular rack includes one or more modular shelves, wherein at least one of the modular shelves includes a plurality of subassemblies and a plurality of intra-shelf connectors each securing one of the subassemblies to another one of the subassemblies adjacent thereto. At least one of the subassemblies preferably includes an end panel having louvers formed therein for receiving the sliding mount bracket.
In accordance with a first exemplary embodiment of the invention, the modular rack includes at least one modular shelf having a left end subassembly, a right end subassembly, and a middle subassembly, each of which includes a front frame member aligned along a front axis and a rear frame member aligned along a rear axis. The modular shelf includes a plurality of intra-shelf connectors securing the frame members of the middle subassembly to the frame members of the right subassembly and the left subassembly corresponding therewith. The modular shelf further includes a plurality of support members securing the rear frame member of the middle subassembly to the front frame member of the middle subassembly, such as to support a BIB container positioned thereon.
In the first exemplary embodiment of the invention, the front axis has a lower elevation than the rear axis. In this regard, a BIB container may be positioned on the support members at an angle with respect to ground-level. In the first exemplary embodiment of the invention, the modular frame includes stopping means to prevent the BIB container from moving downwardly.
Each of the left and right end subassemblies preferably includes mounting means for securing one or more peripheral devices thereto. The mounting means preferably includes louvers formed in the respective end panels thereof. Each louver comprises a slat formed from a metal sheet of the end panel corresponding therewith and further comprises an aperture corresponding thereto. The louvers are sized and positioned to receive a sliding mount bracket that is attachable to a peripheral device, such as a pump, a canister, etc. In some embodiments of the invention, the louvers are not required. The left-end subassembly and/or the right-end subassembly can include other mounting means, such as brackets installed on the end panels, or no mounting means.
The modular rack may further include an additional modular shelf and a plurality of inter-shelf connectors securing the modular shelf atop the additional modular shelf. The right end subassembly and the left end subassembly of the additional modular shelf each have front and rear leg members having female connection ends. The inter-shelf connectors mate with the female connection ends of the front and rear leg members of the modular shelf and the additional modular shelf to secure corresponding leg members in axial alignment with one another. In some embodiments of the invention, the modular rack comprises more than two modular shelves. The modular shelf and the additional modular shelf are preferably interchangeable (e.g., the inter-shelf connectors can secure the additional modular shelf atop the modular shelf).
The modular rack may further comprise a peripheral device support subassembly and another plurality of said inter-shelf connectors for securing the peripheral device support subassembly to a modular shelf positioned below (or above) the peripheral device support subassembly. The peripheral device support subassembly includes one or more rear end panels. The peripheral device support subassembly includes mounting means for securing a peripheral device, such as pump or a canister, thereto. The mounting means preferably includes louvers formed in the rear end panel. Each louver comprises an aperture and a slat formed from a metal sheet of the rear end panel corresponding therewith, and the louvers are sized and positioned to receive a sliding mount bracket. In some embodiments of the invention, the louvers are not required, and the peripheral device support subassembly includes other mounting means, such as slots and/or brackets, or no mounting means.
In accordance with a second exemplary embodiment of the invention, the modular rack includes at least one modular shelf having a left end subassembly, a right end subassembly, and a middle subassembly, each of which includes a front frame member aligned along a front axis and a rear frame member aligned along a rear axis. The elevation of the front axis and the elevation of the rear axis are about equal. The modular shelf further includes a plurality of support members securing the rear frame member of the middle subassembly to the front frame member of the middle subassembly, whereby a BIB container positioned thereon can be leveled.
It shall be understood that the relative terminology used herein, such as “front”, “rear”, “middle” “top”, “bottom” “side”, “inside”, “outside”, “left”, “right”, “horizontal”, “vertical”, etc., is solely for the purposes of clarity and designation and does not limit the scope of the present invention to structural embodiments having a certain position with respect to the environments thereof.
For a more complete understanding of the present invention, reference is made to the following detailed description of various exemplary embodiments considered in conjunction with the accompanying drawings, in which:
Referring to
The left end subassembly 14 includes a left end panel 22 that has an inside surface, referenced herein as a left inside surface 24. The left end subassembly 14 also includes a front left leg member 26 and a rear left leg member 28 that are each preferably cut from square, steel tubing. The front left leg member 26 is welded to the left end panel 22, extends vertically therefrom, and has a hollow bottom end, referenced herein as a front left base end 30, and a hollow top end, referenced herein as a front left top end 32. The rear left leg member 28 is welded to the left end panel 22, extends vertically therefrom, and has a hollow bottom end, referenced herein as a rear left base end 34, and a hollow top end, referenced herein as a rear left top end 36.
The left end subassembly 14 further includes a front left frame member 38 and a rear left frame member 40 that are each preferably cut from square, steel tubing. The front left frame member 38 is welded to the front left leg member 26 to form a front left juncture point 42. The front left frame member 38 extends perpendicularly therefrom along a front axis AF1, and terminates at an end referenced herein as a front left female connection end 44. The rear left frame member 40 is welded to the rear left leg member 28 to form a rear left juncture point 46. The rear left frame member 40 extends perpendicularly therefrom along a rear axis AR1, and terminates at an end referenced herein as a rear left female connection end 48.
As discussed above, the modular shelf 12 of
Continuing with reference to
The right end subassembly 16 further includes a front right frame member 66 and a rear right frame member 68 that are each preferably cut from square, steel tubing. The front right frame member 66 is welded to the front right leg member 54 to form a front right juncture point 70. The front right frame member 66 extends perpendicularly therefrom along the front axis AF1, and terminates at an end referenced herein as a front right female connection end 72. The rear right frame member 68 is welded to the rear right leg member 56 to form a rear right juncture point 74. The rear right frame member 68 extends perpendicularly therefrom along the rear axis AR1, and terminates at an end referenced herein as a rear right female connection end 76.
The distance between the front right base end 58 and the front right juncture point 70, referenced herein as distance HFR1, is substantially equal to the distance HFL1. The distance between the rear right base end 62 and the rear right juncture point 74, referenced herein as distance HRR1, is substantially equal to the distance HRL1. The distance HFR1 is less than the distance HRR1, such that the front axis AF1, has a lower elevation than the rear axis AR1.
Continuing with reference to
The middle subassembly 18 further includes a plurality of support members 90, preferably formed from steel, that secure the front middle frame member 78 to the rear middle frame member 80 and that extend perpendicularly with respect to the front middle frame member 78 and the rear middle frame member 80. Because the front middle frame member 78 has a lower elevation than the rear middle frame member 80, the support members 90 slope downwardly from the rear middle frame member 80 to the front middle frame member 78. As shown in
The intra-shelf connectors 20a-d secure the middle subassembly 18 to the left end subassembly 14 and the right end subassembly 16. Each one of the intra-shelf connectors 20a-d is preferably, though not necessarily, a dual-male connector having two male connection ends 96 and a center flange 98 positioned therebetween. The center flange 98 of each one of the intra-shelf connectors 20a-d has the same dimensions, such as top and bottom width and front and rear height, and appearance (e.g., color, etc.) of the frame members 38, 40, 66, 68, 78, 80, so as to blend with the surface appearance thereof. The length of each one of the intra-shelf connectors 20a-d is about four inches (4″), and the length of each one of the male connection ends 96 is about two inches (2″). However, the scope of the invention is not limited to embodiments thereof constructed in accordance with said dimensions.
The male connection ends 96 and the female connection ends 44, 48, 72, 76, 82, 84, 86, 88 are preferably modular, such that each one of the male connection ends 96 is sized to securingly mate with any one of the female connection ends 44, 48, 72, 76, 82, 84, 86, 88. In this regard, each one of the female connection ends 44, 48, 72, 76, 82, 84, 86, 88 has an opening formed therein that is sized to receive and conceal one of the male connections ends 96. In the exemplary embodiment of the invention shown in
With reference to
The left end panel 22 has a plurality of louvers 100, 100′ formed therein. The left end panel 22 is preferably formed from a metal sheet, and each one of the louvers 100,100′ is formed by punching or cutting the metal sheet. Each one of the louvers 100, 100′ includes a slat 102, an aperture 104, and a receiving area 106 positioned therebetween. Each aperture 104 is formed in the left end panel 22 corresponding to where the metal sheet had been punched or cut, and the dimensions of each aperture 104 (e.g., length, width, thickness) are substantially equal to the dimensions of the slat 102 corresponding therewith. The left end panel 22 has an outside surface, referenced herein as a left outside surface 108, and each one of the louvers 100, 100′ extends from the left outside surface 108, such that each receiving area 106 is easily accessible when a BIB container, such as the BIB container 92 shown in
Referring to
As shown in
A plurality of inter-shelf connectors 220a-f is provided to secure the modular shelf 12 atop the additional modular shelf 212 when the modular shelf 12 is modularly stacked thereon (as shown in
The inter-shelf connectors 220a-f are preferably similar to the intra-shelf connectors 20a-d and each one is preferably formed from plastic. The inter-shelf connectors 220a-f are preferably a dual-male connector having a center flange 298 and a plurality of male connection ends 296 extending from opposing sides of the center flange 298. The length of each one of the inter-shelf connectors 220a-f is about two inches (2″), and the length of each one of the male connection ends 296 thereof is about one inch (1″). However, the scope of the invention is not limited to embodiments of the invention constructed in accordance with such dimensions. Furthermore, it is not required that the inter-shelf connectors 220a-f and the intra-shelf connectors 20a-d be of the same connector type.
The inter-shelf connectors 220a-f secure the modular shelf 12 to the additional modular shelf 212. Each of the base ends 230, 234, 258, 262 and the top ends 232, 236, 260, 264 is modularly adapted to receive any one of the male connection ends 296 of any one of the inter-shelf connectors 220a-f. When the modular shelf 12 is stacked upon the additional modular shelf 212, a plurality of inter-shelf connectors 220 is used to secure the top ends 232, 236, 260, 264 of the additional modular shelf 212 to the base ends 30, 34, 58, 62 of the modular shelf 12. For example, as shown in
Referring to
The peripheral device support subassembly 114 further includes a plurality of leg members, such as a peripheral support left leg member 118 and a peripheral support right leg member 120. The peripheral support left leg member 118 is preferably welded to the rear end panel 116, extends vertically therefrom, and terminates at a hollow end, referenced herein as a peripheral support left base end 122. The peripheral support right leg member 120 is preferably welded to the rear end panel 116, extends vertically therefrom, and terminates at a hollow end, referenced herein as a peripheral support right base end 124. The inter-shelf connectors 220 secure the peripheral device support subassembly 114 to the modular shelf 12. For example, a fifth one of the inter-shelf connectors 220e secures the peripheral support left base end 122 of the peripheral device support subassembly 114 to the rear left top end 36 of the modular shelf 12, while a sixth one of the inter-shelf connectors 220f secures the peripheral support right base end 124 of the peripheral device support subassembly 114 to the rear right top end 64 of the modular shelf 12. A peripheral device, such as the pump 112, may be secured to the modular rack 10 by attaching the sliding mount bracket 110 to the pump 112, for example, and inserting the sliding mount bracket 110 between the louvers 100, 100′ of the rear end panel 116.
Preferred embodiments of the modular rack 10 are powder-coated. Furthermore, the modular rack 10 of the present invention is preferably adapted to support boxes and containers, such as the BIB container 92 shown in
Referring to
Referring to
The left end subassembly 414 includes a front left leg member 426 having a hollow bottom end, referenced herein as a front left base end 430, and a rear left leg member 428 having a hollow bottom end, referenced herein as a rear left base end 434. The left end subassembly 414 further includes a front left frame member 438 extending perpendicularly from the front left leg member 426 along a front axis AF2, and a rear left frame member 440 extending perpendicularly from the rear left leg member 428 along a rear axis AR2. A front left juncture point 442 is formed at the intersection of the front left leg member 426 and the front left frame member 438, and a rear left juncture point 446 is formed at the intersection of rear left leg member 428 and the rear left frame member 440.
The right end subassembly 416 includes a front right leg member 454 having a hollow bottom end, referenced herein as a front right base end 458, and a rear right leg member 456 having a hollow bottom end, referenced herein as a rear right base end 462. The right end subassembly 416 further includes a front right frame member 466 extending perpendicularly from the front right leg member 454 along the front axis AF2, and a rear right frame member 474 extending perpendicularly from the rear right leg member 456 along the rear axis AR2. A front right juncture point 470 is formed at the intersection of the front right leg member 454 and the front right frame member 466, and a rear right juncture point 474 is formed at the intersection of rear right leg member 456 and the rear right frame member 440.
As discussed above, the modular shelf 412 of
Continuing with reference to
It will also be understood that the embodiments of the present invention described herein are merely exemplary and that a person skilled in the art may make many variations and modifications without departing from the spirit and the scope of the invention. All such variations and modifications, including those discussed above, are intended to be included within the scope of the invention as defined in the appended claims.
The present application claims the benefit of U.S. Provisional Application No. 60/685,463 filed May 27, 2005, which is hereby incorporated by reference in its entirety for all purposes.
Number | Date | Country | |
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60685463 | May 2005 | US |