The present invention relates to merchandise displays, and more particularly to dispensing merchandise displays with a product feed mechanism.
Various display locations in retail stores, such as store aisle end caps, checkout counters, and other prominent locations, are prime locations for drawing consumers' attention to “impulse buy” items, such as, in a grocery store setting, certain condiments, snacks, beverages, and the like. The items may be loaded in dispensing trays that can advance the items as the items are removed. However, the items can vary over the course of a year due to the change of seasons or the approach of different holidays and the containers for the items can vary significantly. It is therefore necessary to change the dispensing tray to match the item to be displayed and dispensed.
A need therefore exists for a dispensing tray that can accommodate product queues of various widths.
To better draw the attention of shoppers, displays known as “power wings” (also referred to herein as “power wing displays”) are therefore made for mounting to end caps for displaying such items. Power wing displays may include means for prominently presenting advertising images and/or advancing a queue of merchandise items forward to position a front item in a dispensing/removal position from which the front item is easily reached and removed. Wire frame structures with standard dimensions and mounts are frequently selected for this purpose, as they are convenient to manufacture, install, and reposition, while supporting a significant amount of weight for their size.
Some companies manufacture and/or merchandise “impulse buy” products of multiple types. For these companies, it is desirable to display a selection of several of their products in a unified display structure, but products that they wish to display together may be packaged in bottles, jars, cans, boxes, tubs, or other containers of various different shapes and sizes. Existing queue-feed type power wing displays typically have a uniform shelf or tray width. Product queues of wider widths will not fit on their shelves or trays, and product queues of narrower widths may bunch together, tip over, slip below a rail and fall off the tray, or otherwise become misaligned in a way that makes the queue visually unappealing and/or could result in damaged products or product containers. In addition, presenting product queues of various heights on different trays or shelves of a standardized power wing display may result in disparities in overhead space, which may be visually unappealing and/or negatively impact capacity, in a location where space comes at a high premium.
Consequently, a need exists for a multi-level dispensing display frame that can simultaneously accommodate product queues of different widths at separate levels. In addition, a need exists for a configurable multi-level dispensing display frame that can simultaneously accommodate product queues of different heights on separate trays, while limiting the amount of unused overhead space above product queues of smaller heights.
Dispensing tray, display system and method according to the invention are summarized in this section. In accordance with one aspect of the invention, an item dispensing tray for items of like dimensions is provided. The tray comprises a lower support, an optional item advancing member, an item stop, elongate first and second side supports, and a side support biasing component.
The lower support is generally horizontal and elongate for supporting a queue of items. It has first and second sides, a rear end and a front end displaced horizontally from the rear end in a horizontal forward feed direction. In other words, the “horizontal forward feed direction” will be understood to be the horizontal component of a direction extending along the lower support, which may optionally be inclined from a horizontal plane to provide a gravity feed, from its rear end to its front end, although advantages provided by a gravity feed are likely outweighed by disadvantages of an inclined lower support, as discussed further below.
“Generally horizontal” will be understood to mean substantially more horizontal than vertical. That is, while a “generally horizontal” base member may be inclined somewhat, such as to provide a gravity feed, it is inclined from a horizontal plane by less than 45°, preferably less than about 22° and most preferably by about 12° or less. Desirably, the lower support supports items of merchandise thereon at an angle to the line of sight of a consumer that displays prominently and attractively the branding and/or characteristic packaging shape of the items. In one preferred embodiment, the angle of support is 0° or nearly 0° with respect to a horizontal plane. While a gravity feed may in some embodiments assist or substitute for a spring-biased item pusher mechanism, a steep downward incline of a tray that is generally at or below consumer eye level would undesirably tilt the supported items away from a shopper's line of sight. In addition, the steeper the angle of a gravity feed, the greater will be the tendency of a supported item to tip over forward on the tray, such as when encountering uneven or excessive friction or an unexpected obstruction on the lower support.
The optional item advancing member is configured to transmit an advancing force to the queue of items in the horizontal forward feed direction. The item advancing member can be a conveyor belt, an elastic band around the items or other suitable device. Preferably, the item advancing member is a spring-biased pusher member. The pusher member is disposed behind a queue of items on the tray, transmitting a normal contact pusher force, supplied by a spring force, to a rear item of the queue to push the queue forward. A line of action of the spring force, and likewise of the pusher force, is perhaps most efficiently and conveniently aligned parallel to the top surface of the lower support, although lines of action with substantial components parallel to the top surface of the lower support would suffice. As used herein, the “advancing force” supplied by the pusher member is the component of the pusher force in the horizontal forward feed direction, that is, the entire pusher force if its line of action is horizontal, or a forward feed direction component of the pusher force if its line of action is angled with respect to the forward feed direction. The advancing force advantageously decreases as the pusher approaches the forward dispensing position, corresponding to items in the queue being shopped down, reducing the number, and thus the mass, of items being pushed forward.
The item stop is disposed near the front end of the lower support and is configured to obstruct movement of a front item of the queue of items in the horizontal forward feed direction, when the front item is supported on the lower support at a dispensing position proximate to the front end of the lower support. The item stop may, for example, comprise an upturned “lip” feature at the front end of the lower support, as in an embodiment described and illustrated herein. Preferably, the item stop is configured to contact the front item at a position relative to the center of gravity of the front item suited to prevent deflecting the item transversely in an undesired direction. For example, it may be desirable to position the item stop to transmit a stop force to the front item having a line of action extending near or through a center of gravity of the front item, and/or to provide two or more item stops to transmit stop forces along different lines of action relative to the center of gravity of the front item, so as to enhance stability. For example, a lower item stop positioned below the mass center of the front item may comprise an upturned lip at the front of the lower support, while an upper item stop working in conjunction with the lower item stop is positioned above the mass center of the front item, to at least substantially prevent tipping of the front item below the upper item stop or over the lower item stop. More generally, an item stop may comprise any suitable mechanical obstruction or restraint of forward movement of the front item.
The elongate first side support extends along and above the first side of the lower support. The elongate second side support extends along and above the lower support and is spaced laterally from the first side support. The second side support may be spaced substantially parallel to the first side. The elongate first and second side supports are referred to in the illustrated embodiments as “fences” and are generally shaped like slender walls, having broad, closed inward and outward facing surfaces. However, in many cases only a top item contact section of the fences is configured to contact and supply a clamping force to queued items. Thus, in other embodiments not shown, the first and second side supports may instead comprise a wire loop or similar peripheral member delimiting an open area, where the top segment of the peripheral member performs the function of the item contact sections of the disclosed fences. The tray further comprises elongate first and second side supports connected to the lower support. Advantageously, they may be removably connected so as to be relatively interchangeable, such as by mating rib and slot features. Alternatively, they may be permanently bonded to the lower support, or integrally formed with the lower support as a unitary feed channel member.
The lower support and the first and second side supports together define an item queue feed channel extending in a longitudinal direction from the rear end of the lower support to the front end of the lower support. The first and second side supports are configured to retain the queue of items supported on the lower support between the first and second side supports. A respective contact section of each of the first and second side supports is configured to contact a respective first and second side of items in the queue of items. At least one of the side supports is deflectable so that its contact section is movable towards or away from the contact section of the other side support. Preferably, the contact section of the deflectable side support is movable towards and away from the other side support. The deflection path may be horizontal, slightly inclined, or, as in the illustrated embodiment, arcuate corresponding to the pivotal deflection of the side supports.
The side support biasing component is configured to bias the contact section of the at least one deflectable side support relative to the lower support in a clamping direction generally toward the contact section of the other side support. In other words, the clamping direction is a direction tending to reduce a horizontal item width clearance between the contact sections. The contact sections are configured to transmit a clamping force to the respective first and second sides of each item of the queue of items to resist lateral transverse movement of a queue of items supported on the lower support between the first and second side supports.
Both the first side support and the second side supports are preferably deflectable side supports.
The deflectable side support may be a unitary side support member comprising the movable contact section and the biasing component. In other words, the contact section and side support biasing component may be part of a single body integrally formed of a single material or multiple materials. Though not shown in the illustrated example, the side support biasing component may be comprised in a subsection of the unitary side support member, which may, for example, have a significantly thinner cross-section than the contact section to permit it to undergo localized elastic deformation (strains) and associated elastic stresses to produce a biasing effort (i.e., a force or torque) to bias the contact section.
Alternatively, the unitary side support member has a generally uniform transverse thickness, so that the elastic stresses and strains producing the biasing effort are distributed over a broad region of the side support member, possibly including some or all of the contact section.
In another embodiment, the movable contact section is comprised in a rigid contact member, and the side support biasing component is comprised in an elastically deformable biasing member connected to the contact member. A rigid contact section is believed to be advantageous in that it provides a consistently shaped contact area and facilitates a simple and predictable biasing response to deflection from a discrete spring component separate from the contact section. By “rigid”, it will be understood that a material or member referred to tends not to appreciably deform under the stresses applied to the tray during normal use, namely, primarily those produced by the biasing force or torque applied by the side support biasing component and the resulting reaction forces produced by a preload stop associated with the side support biasing component, if any, and/or queued items under a clamping force.
The deflectable side support may include a generally rigid contact member and elastically deformable biasing member, permanently bonded together to form an integral body. In such embodiments, the contact member may be composed of a rigid material and the biasing member may be composed of an elastically deformable material different from the rigid material. “Permanently bonded” will be understood to mean joined in any suitable manner that prevents reversible (i.e., non-destructive) mechanical separation. The two members may, for example, be welded, overmolded, joined by a suitable adhesive, or, as in an illustrated embodiment, coextruded in such a manner as to form a permanent bond between materials that are different but compatible for coextrusion and bonding purposes. For example, the rigid material of the contact member may be rigid clear vinyl, and the elastically deformable material of the biasing member may be flexible polyvinyl chloride (PVC).
The integral body of the deflectable side support may further comprise a rigid connecting member configured to connect the side support to the lower support, the connecting member being composed of a rigid material different from the elastically deformable material of the biasing member. In some embodiments, the deflectable side support is formed by coextrusion of the rigid contact member, elastically deformable biasing member, and connecting member. In an illustrated embodiment, the connecting member is formed of rigid clear vinyl, like the contact member. However, the contact and connecting members may alternatively be formed of different materials, each compatible for coextrusion with the material of the biasing member.
Advantageously, a preload stop may be connected to the lower support or tray to facilitate preloading of the deflectable side support. The preload stop is configured to contact a portion of the deflectable side support when the movable contact section is at a minimum width clearance position, spaced from the other side support contact section by a minimum width clearance, to stop movement of the movable contact section in the clamping direction. This maintains the side support biasing component in a preloaded state in the absence of items in the item queue feed channel, so that, when the movable contact section is displaced from the minimum width clearance position in a direction opposite the clamping direction, by an item having a width clearance larger than the minimum width clearance, the movable contact section immediately responds by transmitting a preload clamping force to the item having the width clearance. In an extreme case, the preload stop is the other side support contact section, the minimum width clearance being zero. If both side supports are deflectable, each may thus effectively serve as the other's preload stop.
However, preferably, the minimum width clearance is non-zero. In the illustrated embodiments, this is facilitated by upwardly extending preload stops formed in the lower support, corresponding to each of two deflectable side supports. Also possible, though not shown, would be similarly shaped preload stops formed on deflectable side supports themselves, extending downwardly and/or inwardly to meet the lower support at a minimum clearance position. The preload stop may take any suitable shape, such as an elongate rib extending longitudinally along the lower support or side support.
According to another aspect of the invention, a dispensing display system is provided. The system includes a display frame including a rear mounting wall comprising at least one mounting feature at each of a plurality of spaced apart mounting locations; and a plurality of item dispensing trays substantially as summarized above, and further including mounting features mating with those of the rear mounting wall, connected to and supported by the rear mounting wall. The wall mounting features may, for example, be holes formed therein, and the tray mounting features may be hooks, teeth, or other male features (generically referred to as “hooks” herein) configured to mate with the hole. The holes and hooks in one illustrated embodiment have circular cross sections, and in another illustrated embodiment the holes have elongate rectangular cross sections, and are referred to more particularly as “slots”. Many other alternative shapes may be suitable, and the terms “holes” and “hooks” will be understood to encompass holes of any suitable shape, and complementary male features.
A side subframe of the display frame connected to the rear mounting wall near a side edge thereof may include a lower graphic panel slot, a front end graphic panel slot, and a rear end graphic panel slot, the lower graphic panel slot being disposed below a lowermost dispensing tray when the lowermost dispensing tray is mounted at a lowermost one of the rear mounting wall mounting locations, and the front and rear end graphic panel slots being connected to the display frame proximate to front and rear ends of the display frame. In this manner, the graphic panel slots are configured to receive respective lower, front, and rear edges of a side subframe graphic panel slidingly received between the front and rear slots.
The mounting locations may be spaced apart vertically or horizontally. Advantageously, the mounting locations on the rear mounting wall may include at least one pair of mounting locations spaced apart by a fine adjustment vertical distance smaller than a height dimension of one of said dispensing trays. Preferably, all or a substantial portion of the mounting locations are spaced from adjacent mounting locations by such a fine adjustment vertical distance, to permit a desirable degree of flexibility to accommodate items of different heights on separate dispensing trays, without the items impinging on the next higher tray, extending above the top of the dispensing display system, or leaving an undesirable amount of unused overhead clearance between the tops of the supported items and the next higher tray or top of the display system.
According to another aspect of the invention, a merchandise dispensing method is provided, using a dispensing tray substantially as described above. The method comprises moving the movable contact section of the deflectable side support to an item width clearance distance from the contact section of the other side support greater than or equal to a width dimension of a plurality of merchandise items of like dimensions; and placing the plurality of merchandise items in the item queue feed channel to form a single-file queue of the items extending from the dispensing position towards the rear end of the tray. The side supports may be separated by hand or by contact with the inserted item. In the latter case, a flared or outwardly tapered upper end of one or both side supports may be provided to facilitate insertion of an item that is wider than a minimum clearance between their respective contact sections by simply pushing the item downward between the flared upper ends to cam the side supports apart from each other. In other instances, the inserted item itself may have a shape that facilitates this mode of insertion, such as a profile that tapers outwardly from its lower end. Alternatively, an item with a width profile that tapers inwardly toward its back surface, such as cylindrical items (cans, containers, and jars, for example), may in some cases be wedged between the front ends of the side supports by pushing the item in a rearward direction. In another mode of insertion not requiring the manual grasping of either side support, the item may be inserted in an oblique direction, either from above the side supports or from their front ends, using one side of the item to push one of the side supports aside until an opposite side of the item is clear of the other side support, moving the opposite side of the item into the feed channel, and then either manually reorienting the item to align with the channel, or passively allowing the biasing/clamping action of the side support members to reorient the fully inserted but obliquely oriented item.
With reference to the accompanying drawings, dispensing display trays, systems and methods according to the invention are described in this section. Systems and methods of the invention are embodied, for example, in a power wing display 10, illustrated in and described with reference to
Turning to
The self-adjusting width clearance provided by fences 14 serves to align the queue of products in a compact, visually appealing single-file formation, along a longitudinal axis extending from a rear end 16 to a front end 18 of the tray 12, while at the same time stabilizing the queue of products against tipping in either a left or right lateral direction transverse to the longitudinal axis. When the items accommodated are wider than a minimum width clearance W0 (indicated in
Each tray 12 also includes an advancing member illustrated as a pusher member 20 (shown in
When a queue of items having a wider width dimension than minimum width dimension W0 is supported by tray 12, the above-described clamping force applied by opposed contact sections 19 of fences 14 may produce friction to resist forward movement of the queue of items. This friction may advantageously assist in preventing excessive or undesired acceleration of an item or items on tray 12. The tendency for excessive acceleration to occur is greater the fewer the number of items remaining in the queue, i.e., the smaller the mass that is accelerated by the net pusher force.
It will be appreciated that a gravity feed without a spring-biased pusher is not similarly susceptible to the tendency of a smaller queue of items to be accelerated at a faster rate when the queue diminishes, as the gravity force decreases in proportion to the mass that it accelerates. However, a spring-biased pusher has certain other advantages over a gravity feed, such as providing an arbitrary desired amount of force, not limited at the upper extreme by a tangential component of the weight of the product queue; and permitting products in a queue to advance in an upright orientation in a horizontal direction, thus improving their visibility and attractiveness. In addition, a spring force that slightly varies with displacement can reduce the tendency of fewer items to accelerate faster, which may be undesirable.
Display 10 provides for fine indexing height adjustments of trays 12, as illustrated in
Each tray 12 may be solely supported in a cantilevered fashion from rear wall channel 30 by inserting a pair of mounting hooks 33 thereof into a selected pair of mounting holes 32. In this example, mounting holes 32 and hooks 33 are illustrated with a round cross section, but other shapes may be more desirable depending on the application. For example, a vertically oriented elongate cross section, such as a rectangular or I-beam cross section, may be preferred for enhanced bending strength for cantilever support of a heavy queue of items. Optionally, for additional support of trays 12, front channel uprights 34 may be provided with mounting features, illustrated as keyholes 36, at height positions corresponding to those of holes 32, to accommodate a removable crossbar 38 on which a front end of a respective tray 12 may rest. This additional support may be particularly advantageous when a heavy queue of items is supported on tray 12, whereas forgoing the cross bar for lighter item queue applications permits quicker repositioning of trays 12.
Display 10 additionally includes a wire cage 40, best seen in
Illustrated in
As seen in
In addition to an illustration of the flexing behavior of fences 14, a detailed illustration of functional longitudinal channels formed in lower support 15 is provided in
Fences 14 may be formed of any suitable flexible elastic material, including but not limited to flexible elastic polymers, such as PVC, ABS, or metals, such as steel. Lower support 15 is preferably formed of a lightweight and durable material, such as high-impact polystyrene (HIPS), other styrenes, PVC, ABS, or similar. Wires, beams, upright channels, and other structural members of display 10 are preferably steel, aluminum, or similar high strength material.
Turning to
Turning to
Suitable front, rear, and lower slot members 77, 79, 81, which may, for example, be L- or U-channels as desired, are attached to each side of wire cage 65 for slidingly receiving and retaining front, rear, and lower edges of side graphic panels P. Similarly, vertically aligned back slot members 83 are also provided for slidingly receiving and retaining side edges of a back graphic panel P′, while a lower edge of graphic panel P′ may, for example, be received in an upturned portion 90 of rear wall channel 67 (shown in
With reference to
Turning to
Pusher and hanger components of tray 12′, and their relationships to feed channel member 106, are illustrated in the exploded view of
A pair of lower support beam receiving slots 86, 88 are formed in feed channel member 106 below lower support 102 (indicated, for example, in
In other embodiments, the side fences of an item tray comprise a rigid member that is made to be deflectable relative to a lower support of the tray (and items supported thereon) by connecting a discrete spring element between the rigid member of one or both side fences and the lower support. In this context, by “rigid” material, it is simply meant that, during normal use, the material does not flex or only flexes by an insignificant amount compared to the spring element. Two examples of an item tray having such compound or modular side fences are illustrated as trays 12″, 12′″, described in the following paragraphs with reference to
Shown in
However, tray 12″ differs from tray 12′ and tray 12 in the features and mounting of its fence 66. Rather than being formed of a single material, fence 66 comprises a rigid contact section 68 and rigid connecting section 70, joined together by an intermediate flexible hinge section 72 (a type of elastically deformable biasing member) formed of a different material. Any suitable rigid and flexible materials may be selected for these respective sections, such as a rigid clear vinyl for the contact and connecting sections 68, 70 and flexible PVC for the flexible hinge section 72, in which case the three sections may be formed and fused together by coextrusion.
Other suitable methods of joining the three sections, depending on the materials used, may include welding, overmolding, adhesive bonding, or mechanical fasteners. Other embodiments of a multi-material fence may comprise a two-tiered structure in which a connecting feature is formed of the same flexible material as a hinge section, or in which a more flexible material is used for a contact/hinge section and a more rigid material used only for a connecting section. Alternatively, more than three tiers may be employed, such as a five-tiered structure with two intermediate flexible hinge sections instead of only one. In still another embodiment, multi-material fences like fence 66 or any of the aforementioned variations may be permanently attached, fused, or bonded to the corresponding lower support, rather than removably retained by a mating channel connection.
In addition to its different structure, fence 66 is mounted differently than fence 14. In particular, fence 66 is mounted in a preloaded state instead of a relaxed state. In its relaxed state, illustrated in dashed lines in
Conveniently, in addition to serving as preload stops, ribs 78 also provide a secondary function as position guides for queueing items of a width approaching a largest width accommodated by tray 12″, such as a box X illustrated in dashed lines in
Shown in
Shown in
Shown in
Shown in
While the invention has been described with respect to certain embodiments, as will be appreciated by those skilled in the art, it is to be understood that the invention is capable of numerous changes, modifications and rearrangements, and such changes, modifications and rearrangements are intended to be covered by the following claims. In particular, the inventive trays may be adapted to be mounted to any number of displays including, without limitation, a slat wall, a gondola having a central support wall having a grid of circular or elongate holes, a stand having a vertical wire grid, a 1-way display device, a 2-way display device, a 3-way display device, a 4-way display device, a 4-way pinwheel display device, a case stacker display device, a cooler topper display device, a counter display device, a cross merchandiser display device, a dump bin display device, an endcap display device, a floor display device, a lane blocker display device, a power wing display device, a shelf extender display device and a wall display device to form a display system within the scope of the invention.
Number | Name | Date | Kind |
---|---|---|---|
793914 | Shumaker | Jul 1905 | A |
1537167 | Barnhill | May 1925 | A |
1674359 | Frey | Jun 1928 | A |
2351571 | Burlin | Jun 1944 | A |
2407119 | Weston | Sep 1946 | A |
2433788 | Schade | Dec 1947 | A |
2452687 | Schade | Nov 1948 | A |
2474763 | Thomas | Jun 1949 | A |
2603357 | Zakos | Jul 1952 | A |
2624343 | Welk | Jan 1953 | A |
2637324 | Segal | May 1953 | A |
2642861 | Tvedt | Jun 1953 | A |
2910069 | Sewell | Oct 1959 | A |
2954129 | Gordon | Sep 1960 | A |
3182806 | Lambert | May 1965 | A |
3241683 | Blodee | Mar 1966 | A |
3339746 | McCabe | Sep 1967 | A |
3487945 | Barham | Jan 1970 | A |
3747775 | Merola | Jul 1973 | A |
3800958 | Dorn | Apr 1974 | A |
3844415 | Heimann | Oct 1974 | A |
4023682 | Niece | May 1977 | A |
4318485 | Clement | Mar 1982 | A |
4648515 | Merritt | Mar 1987 | A |
5221011 | Coto | Jun 1993 | A |
5415297 | Klein | May 1995 | A |
5505315 | Carroll | Apr 1996 | A |
D369528 | Brooks | May 1996 | S |
5562217 | Salveson | Oct 1996 | A |
5727696 | Valiulis | Mar 1998 | A |
5772046 | Tercher | Jun 1998 | A |
5816418 | Hsu | Oct 1998 | A |
5988407 | Battaglia | Nov 1999 | A |
6375015 | Wingate | Apr 2002 | B1 |
6405880 | Webb | Jun 2002 | B1 |
6464089 | Rankin, VI | Oct 2002 | B1 |
6698599 | Hannecke | Mar 2004 | B1 |
6820753 | Kurtz | Nov 2004 | B2 |
D507156 | Heiberg | Jul 2005 | S |
7097052 | Lau | Aug 2006 | B2 |
7584861 | Werner | Sep 2009 | B2 |
7950537 | Goodman | May 2011 | B1 |
8386075 | Lockwood et al. | Feb 2013 | B2 |
9624027 | DeGraaf | Apr 2017 | B2 |
20040256341 | Donnell | Dec 2004 | A1 |
20050167375 | Pagano | Aug 2005 | A1 |
20070068884 | DiPietro | Mar 2007 | A1 |
20100072150 | Takashima | Mar 2010 | A1 |
20110204009 | Karan | Aug 2011 | A1 |
20120193311 | Benasillo | Aug 2012 | A1 |
20130193156 | Kaleta et al. | Aug 2013 | A1 |
20140299559 | Bird | Oct 2014 | A1 |
20140319086 | Sosso | Oct 2014 | A1 |
20150108074 | Pichel | Apr 2015 | A1 |
20170164762 | Bryson | Jun 2017 | A1 |
20170196355 | Hardy | Jul 2017 | A1 |
20170360220 | Hester-Redmond | Dec 2017 | A1 |
20180103774 | Chenoweth | Apr 2018 | A1 |