A non-round plastic container includes an upper portion, a sidewall portion, and a base portion. The upper portion includes an opening and the sidewall portion extends downwardly from the upper portion, and the base portion extends downwardly from the sidewall portion. In embodiments, the sidewall portion includes a front surface, a rear surface, and opposing side surfaces disposed between the front surface and the rear surface, and the front surface, rear surface, and opposing side surfaces each include a flat configured to contact a flat on an opposing surface associated with a similar container. In embodiments, the opposing sides may have a substantially straight or a curved/tapered configurations, and/or one or more surface of the container may include one or more reinforcing formations. In embodiments, the container has a substantially oval or ovaloid shape.

A non-round plastic container includes an upper portion, a sidewall portion, and a base portion. The upper portion includes an opening and the sidewall portion extends downwardly from the upper portion, and the base portion extends downwardly from the sidewall portion. In embodiments, the sidewall portion includes a front surface, a rear surface, and opposing side surfaces disposed between the front surface and the rear surface, and the front surface, rear surface, and opposing side surfaces each include a flat configured to contact a flat on an opposing surface associated with a similar container. In embodiments, the opposing sides may have a substantially straight or a curved/tapered configurations, and/or one or more surface of the container may include one or more reinforcing formations. In embodiments, the container has a substantially oval or ovaloid shape.

A method of forming a canister by means of a mechanical bonding of respective layers of a first metal material (tantalum) and a second metal material (niobium) to form a sheet stock, thereby forming the sheet stock into a canister form, wherein the first metal material comprises tantalum and the second metal material comprises at least one of niobium, molybdenum, or steel. The completed canister comprises a first metal material comprising tantalum, and a second metal material mechanically bonded to the first metal material by subjecting the first and second metal materials to at least 1,000,000 psi, to thereby form a canister having an inner diameter of 13-19 millimeters (mm), the second metal material comprising at least one of niobium, molybdenum, or steel.

A method of forming a canister by means of a mechanical bonding of respective layers of a first metal material (tantalum) and a second metal material (niobium) to form a sheet stock, thereby forming the sheet stock into a canister form, wherein the first metal material comprises tantalum and the second metal material comprises at least one of niobium, molybdenum, or steel. The completed canister comprises a first metal material comprising tantalum, and a second metal material mechanically bonded to the first metal material by subjecting the first and second metal materials to at least 1,000,000 psi, to thereby form a canister having an inner diameter of 13-19 millimeters (mm), the second metal material comprising at least one of niobium, molybdenum, or steel.

Improved aluminum can end stock (CES) is disclosed. The CES includes a laminated, amorphous polymer coating exhibiting low feathering, low blushing, and high performance in an acetic acid test. The laminated metal strip can include the laminated polymer coating on an interior-facing side and a lacquered coating on an exterior-facing side. The CES is formed by performing an annealing process on the laminated metal strip, wherein the metal strip is raised to an annealing temperature above the melting point of the polymer for a sufficient duration to render the polymer amorphous. In some cases, the polymer film laminated to the metal strip is a Polyethylene terephthalate (PET) film.

A decorative container assembly (10) has a container (12) having a bottom member (18) and an annular sidewall (20) extending from the bottom member (18). An end of the annular sidewall (20) defines a rim (22) and an opening (24) of the container (12). A first decorative member (16) is adhered to the sidewall (20) and covers an outer surface of the sidewall (20). The decorative container assembly (10) further has a lid assembly (14) operably removably connected to the rim (22) of the container (12). The lid assembly (14) has an annular ring member (42) and a top cover member (44). A second decorative member (16) covers a top surface of the cover member (44). A handle (34) has a first end connected to the sidewall (20) at a first position and a second end connected to the sidewall (20) at a second position, the first position being generally opposite to the second position. A first earing member (88) hangs from the handle (34) proximate the first end of the handle (34) and proximate the sidewall (20), and a second earing member (94) hangs from the handle (34) proximate the second end of the handle (34) and proximate the sidewall (20).

A decorative container assembly (10) has a container (12) having a bottom member (18) and an annular sidewall (20) extending from the bottom member (18). An end of the annular sidewall (20) defines a rim (22) and an opening (24) of the container (12). A first decorative member (16) is adhered to the sidewall (20) and covers an outer surface of the sidewall (20). The decorative container assembly (10) further has a lid assembly (14) operably removably connected to the rim (22) of the container (12). The lid assembly (14) has an annular ring member (42) and a top cover member (44). A second decorative member (16) covers a top surface of the cover member (44). A handle (34) has a first end connected to the sidewall (20) at a first position and a second end connected to the sidewall (20) at a second position, the first position being generally opposite to the second position. A first earing member (88) hangs from the handle (34) proximate the first end of the handle (34) and proximate the sidewall (20), and a second earing member (94) hangs from the handle (34) proximate the second end of the handle (34) and proximate the sidewall (20).

A molded plastic drum configured to hold wire. The drum includes a plastic interior cone. The cone can include ribs or other similar structure to simulate an outer cylindrical shape (or any other desired shape) to wrap the wire around. The cone is integrally formed with the rest of the container. The drum includes windows to determine the amount of wire in the drum. The drum can also include drain holes.

A molded plastic drum configured to hold wire. The drum includes a plastic interior cone. The cone can include ribs or other similar structure to simulate an outer cylindrical shape (or any other desired shape) to wrap the wire around. The cone is integrally formed with the rest of the container. The drum includes windows to determine the amount of wire in the drum. The drum can also include drain holes.

A container employs an access tool in child-resistant packaging. The container includes a seamless container body having a sidewall and a base formed of a single piece of metal. The container body is drawn to shape from the single piece of sheet metal via deep drawing. The container includes a lid that covers an aperture at an upper end of the container body when the container is closed, and a lever ring attached to the container body adjacent to an upper edge of the sidewall. The lever ring receives and grips a plug portion of the lid to cover the aperture. When not in use, the access tool is magnetically attached to the base, hidden from view. The access tool is a lever configured pry the lid away from the lever ring. The container may include a removably coupled secondary cover to cover the lever ring and lid.