The present invention relates generally to containers used for packaging and shipping objects. More particularly, the invention relates to containers, such as corrugated paperboard boxes that have internal divider panels, and that are suitable for use as sustainable packaging.
In today's manufacturing environment, many products are produced using by multiple processing steps that are performed in geographically diverse locations. For example, a part or component manufacturer may be located in a geographic location different from that of an assembly facility. By way of further example, a manufacturer of bottles for holding consumer grade laundry detergents may be located in a geographic location different from that of a filling facility that fills the bottles with a laundry detergent product. Traditionally, the facility receiving the parts/components/objects (the “receiving facility”) is tasked with handling or disposing of the packaging and/or shipping containers after the part or component has been removed. While cardboard and other packaging materials may be recyclable, they are not always recycled by the receiving facility. Thus, in many cases, the packaging and/or shipping containers received by the receiving facility are discarded as waste, which is expensive and can be harmful to the environment. Further, the receiving facility is responsible for packaging and shipping products after it has completed its manufacturing operations.
Certain manufacturing processes are automated and include pick-and-place or other automated operations that require that certain packaged objects be positioned in the container in an expected manner when received. For example, certain bottle filling equipment requires that bottles be positioned in predetermined positions relative to a shipping container so they may be reliably picked up by mechanized equipment and/or filled in situ during such operations. Many common shipping containers cannot ensure the required positional accuracy or consistency. This is particularly true for irregularly shaped bottles or other objects, which may not be shaped so as to prevent undesired relative movement when packaged within a common container.
Accordingly, it is desirable to have a sustainable container that may be used for shipping products/objects between geographically diverse locations throughout the manufacturing and/or distribution processes. Further, it is desirable to have a sustainable container that adequately protects its contents from damage, and maintains positional constancy facilitating pick-and-place or other automated operations, even for asymmetrically shaped objects.
An embodiment of the present invention provides a sustainable container that may be reused to transport objects between geographically diverse locations throughout a manufacturing and/or distribution process. The container has an integral internal divider that protects its contents from damage during shipment, and maintains each of the contents within a predetermined range of positions within the container, thus facilitating pick-and-place or other automated operations from locations within the container, even for asymmetrically shaped objects, such as many conventional detergent bottles.
An exemplary container includes a plurality of panels attached to one another to form a plurality of sidewalls surrounding a central space and a plurality of flaps extending from the sidewalls to form a bottom of the container. The container further includes a divider panel attached to at least one of the panels. The divider panel has upper and lower portions separated by an opening. The container is assembleable from a knockdown state to an assembled state. In the knockdown state, the upper and lower portions of the divider panel are disposed substantially in a single plane of the divider panel. In the assembled state, the upper and lower portions of the divider panel are folded in opposite respective directions out of the plane. The upper portion of the divider panel separates first and second cells of the container when the container is in the assembled state. The lower portion of the divider panel separates second and third cells of the container when the container is in the assembled state.
Bottom flaps 32, 34, 36 and 38 extend respectively from the bottom edge 25 of each sidewall 16, 18, 20 and 22 and are folded inwardly toward the central space 24 along respective fold lines to form a bottom 40, as best shown in
Similarly, top flaps 42, 44, 46, 48 extend respectively from the top edge 23 of each sidewall 16, 18, 20 and 22 and are foldable inwardly toward the central space 24 along respective fold lines to form a top 50, as best shown in
In accordance with the present invention, the container 10 includes a divider panel 60 attached to at least one of the panels. In the exemplary embodiment shown in
The divider panel 60 has an upper portion 62 and a lower portion 64 separated by an opening 66 in the divider panel 60, as best shown in
In the assembled state best shown in
More specifically, the upper and lower portions 62, 64 of the divider panel 60 are folded in opposite respective directions out of the plane of the divider panel 60, i.e., out of a reference plane P, as best shown in
In the exemplary embodiment shown, the lower portion 64 of the divider panel 62 separates cell 24a and 24b, and upper portion 62 separates cells 24b and 24c, as best shown in
Because of the vertical segmentation of the divider panel 60, the lower portion 64 (extending from a lower edge 68 of panel 60 to opening 66) separates the first and second cells 24a, 24b beginning at a first elevation H1 above the bottom 40, and the upper portion 62 (extending from opening 66 on panel 60 to an upper edge 69 of panel 60) separates the second and third cells 24b, 24c beginning at a second elevation H2 above the bottom 40 that is greater than, i.e. above, the first elevation, as best shown in
The container 10, shown in
Generally, the sidewalls, flaps and other parts comprising the container 10 are joined together at adjacent edges defined by fold lines formed in the blank comprising the container. For containers made of corrugated paperboard, the fold lines may be formed in any of a number of ways, such as by cutting, creasing or perforating the paperboard as is known in the art. For economy of reference herein, when an edge or corner of a part of the container is defined by a fold line, the fold line edge and corner are all denoted by the same reference character. This does not imply, however, that all edges are necessarily fold lines or that all parts of the container need be joined at fold lines in the substrate.
The blank 80 forms a knockdown 86 (see
Accordingly, the upper and lower portions 62, 64 of the divider panel 60 move from positions within a plane substantially parallel to panel 20 (see
To facilitate folding of the divider panel 60 to form the desired cells, the divider panel 60 is provided with a plurality of fold lines extending substantially vertically, transversely to the opening 66, and placed to correspond with the desired number and size of cells to be formed by the folded divider panel 60. It will be appreciated that additional cells may be provided by adding additional openings 66 and divider panel portions, and varying fold line placement on the divider panel 60 and the dimensions of divider panel 60 as needed.
In the exemplary embodiment of
Accordingly, the first and second fold lines 70, 72 are provided on opposite sides of the divider panel 60, as best shown in
Additionally, the upper portion 62 of the divider panel 60 includes a third fold line 74 on the upper portion extending substantially parallel to the side edge 14a. The side edge 14a and the third fold line 74 are separated by a distance corresponding to a combined width (2W in this example) of the first and second cells 24a, 24b, as best shown in
In this embodiment, the divider panel 60 further includes a glue tab 90 joined to the upper portion 62 of the divider panel 60 adjacent the fourth fold line 76. Accordingly, the divider panel 60 further includes a fourth fold line 76 adjacent the upper portion 62 and extending substantially parallel to the side edge 14a. The third and fourth fold lines 74, 76 are separated by a distance corresponding to a length of the second cell 24b, as best shown in
Preferably, the second and third fold lines 72, 74 are provided on opposite sides of the divider panel 60, and the third and fourth fold lines 74, 76 are provided on opposite sides of the divider panel 60 to facilitate folding in opposite directions to form opposite corners. The second and fourth fold lines 72, 76 are separated by a distance corresponding to a width of the second cell 24b, as shown in
Accordingly, the first, second, third and fourth fold lines 70, 72, 74, 76 are linearly misaligned on the divider panel 60 when the container 10 is in the knockdown 86 state, as best shown in
To create the knockdown 86 (
To assemble the knockdown 86 (
The container's bottom flaps 32, 34, 36, 38 are then folded to form the bottom 40 of the container 10, as shown in
Objects to be held by the container 10 may then be placed into the cells 24a, 24b, 24c of the container. For illustrative purposes, exemplary bottles 100 are shown in the cells of the container in
The container's top flaps 42, 44, 46, 48 are then folded to form the top 50 of the container 10, as shown in
Accordingly, for example, the container may be used as a sustainable container that may be reused for shipping products/objects between geographically diverse manufacturing locations throughout a manufacturing process. For example, the containers may be provided to a bottle manufacturer that may make the bottles, assemble the containers from their knockdown state, and ship the empty bottles in the containers to a product filling facility. The product filling facility may, for example, manufacture the product to be packaged in the bottles, such as a detergent, cleaning solution, beverages, etc., and fill the bottles with the desired product. The integral internal divider provided by the divider panel 60 serves to protect the bottles or other container contents from damage during shipment, e.g., to the product filling facility, and maintains, within an acceptable range, the positions of the bottles relative to one another and/or relative to the container 10 to facilitate pick-and-place, filling or other automated manufacturing operations from locations within the container, even for asymmetrically shaped objects. After the container 10 is loaded with bottles filled with the desired product, for example, the filled bottles may again be shipped in the container 10 to a warehouse, wholesaler, retailer, etc., with the divider panel again protecting the container's contents from damage due to collision or rubbing with one another during transport, and limiting shifting of the contents during shipment.
While there has been described herein the principles of the invention, it is to be understood by those skilled in the art that this description is made only by way of example and not as a limitation to the scope of the invention. Accordingly, it is intended by the appended claims, to cover all modifications of the invention which fall within the true spirit and scope of the invention.
This application is a continuation of U.S. patent application Ser. No. 12/023,360, filed Jan. 31, 2008, which, claims the benefit of U.S. Provisional Patent Application No. 60/975,664, filed Sep. 27, 2007. The entire disclosures of both applications are hereby incorporated herein by reference.
Number | Date | Country | |
---|---|---|---|
60975664 | Sep 2007 | US |
Number | Date | Country | |
---|---|---|---|
Parent | 12023360 | Jan 2008 | US |
Child | 14533232 | US |