Conventional containers include a container body, typically manufactured from plastic or other suitable polymer-based material, or as a carton or box made from paperboard, corrugated fiberboard, or other suitable material. Containers often have a handle and a closeable opening or spout for pouring out the contents as desired. Plastic manufacturing techniques allow for virtually any shape, size, and configuration of container that is easy to use and often targeted to a specific material to be stored or use of that container and material within. For example, large containers for holding large quantities of a fluid that are designed to be carried, lifted, and poured out often include a large handle across a top portion of the bottle and an opening positioned near an edge of the top for pouring the contents out. When manufactured in plastic, these larger containers are often thick to support and contain the quantity of liquid stored within. Thick walls increase manufacturing costs. Moreover, the handles and non-planar top portion of many containers prevent stacking. Some containers are placed in boxes, which provides structural support to the containers. However, the containers are removed from the box for use, which is cumbersome and requires additional steps to be taken.
Consequently, there is a need for improved containers that allow for the storage and subsequent pouring of relatively large quantities of fluid or material, while allowing for the containers to be stacked for storage and transportation, decreases manufacturing costs by decreasing the required plastic or polymer-based material, and allows the product within the container to be poured out without first removing a container from a box. Various embodiments of the present boxed container system recognize and address the foregoing considerations, and others, of prior art devices.
It should be appreciated that this Summary is provided to introduce a selection of concepts in a simplified form that are further described below in the Detailed Description. This Summary is not intended to be used to limit the scope of the claimed subject matter.
According to one aspect of the disclosure, a container system includes a container having a container top, a container bottom, and a number of container sides. The container sides are contiguous with the container top and the container bottom. The container additionally has a number of chamfered container corners coupling adjacent sides. The chamfered container corners are contiguous with the container top and the container bottom, and each include at least one rib. The container has a handle extending from a front portion of the container top to a rear edge of the container top adjacent to a container side. A container opening is configured to access an interior of the container.
According to another aspect of the disclosure, a container system includes a container and a box. The container has a container top, a container bottom, and a number of container sides. The container sides are contiguous with the container top and the container bottom. The container additionally has a number of chamfered container corners coupling adjacent sides. The chamfered container corners are contiguous with the container top and the container bottom, and each include at least one rib. The container has a handle extending from a front portion of the container top to a rear edge of the container top adjacent to a container side while maintaining a substantially constant width. A container opening is configured to access an interior of the container. The box includes a box top, a box bottom, and a number of box sides that are contiguous with the box top and the box bottom. The box additionally has a number of chamfered box corners coupling adjacent box sides and contiguous with the box top and the box bottom. The box has a handle access aperture positioned in the box top and a spout aperture positioned in the box top. The box is sized and shaped to receive the container such that the handle is positioned within the box below the handle access aperture and the container opening is positioned within the box below the spout aperture.
According to yet another aspect of the disclosure, a container system includes a container, a box, and a spout. The container has a container top, a container bottom, and a number of container sides. The container sides are contiguous with the container top and the container bottom. The container additionally has a number of chamfered container corners coupling adjacent sides. The chamfered container corners are contiguous with the container top and the container bottom, and each include at least one rib. The container has a number of angled corners, each angled corner is configured to transition the container bottom or the container top to the chamfered container corner contiguous with the container bottom and the container top. The container also has a handle extending from a front portion of the container top to a rear edge of the container top adjacent to a container side while maintaining a substantially constant width. A container opening is configured to access an interior of the container. The box includes a box top, a box bottom, and a number of box sides that are contiguous with the box top and the box bottom. The box additionally has a number of chamfered box corners coupling adjacent box sides and contiguous with the box top and the box bottom. The box has a handle access aperture positioned in the box top and a spout aperture positioned in the box top. The box has a bottom grip aperture positioned within the box bottom. A spout is configured for removable coupling to the container opening. The spout is packaged in sealed packaging and is removably coupled to an inside surface of the box. The box is sized and shaped to receive the container such that the handle is positioned within the box below the handle access aperture and the container opening is positioned within the box below the spout aperture.
Various embodiments of the disclosure will be described below. In the course of the description, reference will be made to the accompanying drawings, which are not necessarily drawn to scale, and wherein:
Various embodiments will now be described more fully hereinafter with reference to the accompanying drawings. It should be understood that the concepts disclosed herein may be embodied in many different forms and should not be construed as limited to the embodiments set forth herein. Rather, these embodiments are provided so that this disclosure will be thorough and complete, and will fully convey the scope of the disclosure to those skilled in the art. Like numbers refer to like elements throughout.
The concepts and technologies described herein provide a plastic container that is positioned within a cardboard box. For the purposes of this disclosure, the container will be referred to as “a plastic container” or simply “a container,” however it should be appreciated that any polymer-based material or other suitable material may be used without departing from the scope of this disclosure. According to one embodiment, the container described herein is manufactured from high-density polyethylene (HDPE). Similarly, the box in which the container is positioned will be described herein as being “a cardboard box” or simply “a box,” however it should be appreciated that the box may be manufactured from paperboard, corrugated fiberboard, or other suitable material. The boxed container system disclosed herein is stackable, allows for decreased plastic material since the box carries a large percentage of the load and supports the container within, and provides for easy spout attachment and pouring without removing the container from the box.
Referring now to
A container opening 112 is positioned at a front portion of the container 104 between the handle 108 and a front wall of the container. The container opening 112 is accessible via spout aperture 114 in the box 106. The container opening 112 is sealable with a removable cap or lid and may include threads or another coupling mechanism for removably coupling a spout 116. Like the handle 108, the container opening 112 is positioned entirely within the box 106 such that no portion of the container 104 extends or protrudes from the box 106, allowing for efficient stacking and storing of multiple boxed container systems 102.
A spout 116 may be included that may be removably attached to the container opening 112 to facilitate pouring of the contents of the container 104 with minimal to no spilling. The spout 116 may be packaged within sealed packaging material to be opened by the end user in order to prevent contamination of the spout and of the material that will flow through the spout when poured prior to use. To preserve the planar configuration of all sides of the boxed container system 102, the spout 116 within the sealed packaging material may be removably secured to an inside surface of the box 106. For example, the package containing the spout 116 may be secured to an inside wall using any number of dots or strips of adhesive. It should be appreciated that the package containing the spout 116 may be attached to a side wall or to an underside of the top of the box 106. The package containing the spout 116 may be positioned at any suitable location within the box 106 that is visible to a user through the handle access and/or spout aperture and is easily accessible for the user to pull out away from the adhesive and out of the box 106 for use.
To use the spout 116, the end user accesses the spout 116 through an access aperture in the box and pulls the packaging material containing the spout off of the inside surface of the box 106. The spout 116 may then be removed from the sealed packaging material and coupled to the container opening 112 via threads or other coupling mechanism. According to alternative embodiments, the spout 116 may be loosely placed within the box 116. According to one embodiment, the box 106 has traditional 90 degree corners, while the container 104 has chamfered corners, creating a space in each corner of the box 116 into which the spout 116 may be placed. The spout 116 may be flexible and/or extendable to further facilitate pouring.
The example of the boxed container system 102 shown in
Turning now to
The container 104 additionally includes angled corners 214 on each of the eight corners at the top and bottom of the four chamfered container corners 220. The angled corners 214 transition between the container bottom 204 and the container sides 218, or more specifically, between the container bottom 204 and the chamfered container corners 220. Similarly, the angled corners 214 at the top of the container 104 transition between the container top 202 and the chamfered container corners 220. The angled corners 214 provide a relatively smooth or gradual transition that provides structural benefits while additionally assisting in placement of the container 104 into the box 106 when assembling the boxed container system 102.
The container top 202 has several features, including a recessed portion 206, a raised front portion 208, and a raised rear portion 210. The configuration of the recessed portion 206 and the handle 108 provides for adequate space for a user's gloved hand when carrying or pouring from the container 104. The raised front portion 208 and the raised rear portion 210 are rigidizing features that provide structural support for the container 104 by enhancing the torsional rigidity of the container that is useful to oppose forces imposed when the container 104 is carried by the handle 108.
According to one embodiment, the handle 108 extends from a position proximate to the container opening 112 to a rear edge of the container top 202 adjacent the side 218, or in other words, to the raised rear portion 210, while maintaining a substantially constant width. The raised rear portion 210 does not serve as a grip as it abuts a back inside wall of the box 106. Rather, the raised rear portion 210 is independent from the handle 108 or grip and provides structural support with the handle 108 being the means by which the user lifts and manipulates the boxed container system 102.
As best seen in
According to various embodiments, the container 104 includes a glug mitigation mechanism 222 that maximizes airflow through the container opening 112 and around the fluid within the container 104 as the container is tipped and the fluid is poured out. Specifically, the neck of the container 104 near the container opening 112 includes a tunnel or channel on the front side of the container 104 that routes the fluid out of the front portion of the container opening 112, while ambient air flows in the rear portion of the container opening 112 during pouring. As best seen in
The glug mitigation mechanism 222 further includes a unique configuration of the handle 108 that routes the air from the rear portion of the container opening 112 and through the handle 108 to the rear wall 218 and around the fluid as the container 104 is tipped forward to pour. According to one embodiment, the container 104 may be provide a substantially square footprint and a substantially cubic form factor, holding approximately 2.5 gallons of fluid within. However, it should be appreciated that the container 104 may have any dimensions and hold any quantity of fluid without departing from the scope of this disclosure.
Looking now at
Additionally, the box 106 includes a spout aperture 114 positioned in a front flap or portion of the box top 902 that is sized to allow a user to connect the spout 116 to the container opening 116 for pouring. Once connected, the spout 116 will extend through the box 106 to facilitate pouring. The spout aperture 114 may extend into a portion of the front side 118 of the box 106. This configuration allows greater flexibility of the spout 116 to be bent forward and downward after attachment and during pouring, which further assists the user during pouring as the container 104 does not initially have to be tilted as far if the spout 116 may flex forward and downward. It should be appreciated that the handle access aperture 110 and the spout aperture 114 may be shaped and sized as desired, including having corners with 90-degree angles as shown, or having all or any portion of the apertures being rounded off or curved.
According to an alternative embodiment shown in
The box 106 is shaped and sized to accommodate the container 104 without allowing for excessive movement of the container 104 within the box 106. Because the box 106 is used to bear a portion of the load within the container 104, in various embodiments, the fit should be snug and the box material type and thickness should be designed to withstand the forces from the filled container within. As seen in
Many modifications and other embodiments of the disclosure will come to mind to one skilled in the art to which this disclosure pertains having the benefit of the teachings presented in the foregoing descriptions and the associated drawings. For example, as will be understood by one skilled in the relevant field in light of this disclosure, the disclosure may take form in a variety of different mechanical and operational configurations. Therefore, it is to be understood that the disclosure is not to be limited to the specific embodiments disclosed herein, and that the modifications and other embodiments are intended to be included within the scope of the appended exemplary concepts. Although specific terms are employed herein, they are used in a generic and descriptive sense only and not for the purposes of limitation.
It should be understood that, although various advantages or features of particular aspects of various embodiments are described above, it should be understood that alternative embodiments of the claimed invention may or may not have one or more of the stated advantages described herein.
This application claims priority to U.S. Provisional Patent Application Ser. No. 62/979,877, filed Feb. 21, 2020, entitled, “BOXED CONTAINER SYSTEM,” and the disclosure of which is hereby incorporated by reference in its entirety.
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