A lid assembly outfits a liquid container and may function to position a liquid-permeable container relative to the liquid container. The lid assembly may include a lid body having a rim-receiving groove, an object-supportive depression, and a primary liquid-letting aperture. The primary liquid-letting aperture primarily enables liquid egression from the liquid container. The object-supportive depression supports objects and defines a tertiary liquid-letting aperture for outletting liquid into the liquid container. A lid body insert may be received and supported by the lid body in superior adjacency to the object-supportive depression and has a secondary liquid-letting aperture and an insert axis. The lid body insert is rotatable about the insert axis intermediate open and closed lid positions such that the secondary liquid-letting aperture is rotatably positionable either in superior or lateral adjacency to the primary liquid-letting aperture for selectively opening and closing the lid assembly.

A lid assembly includes a lid body and a lid body insert. The lid body includes an insert-receiving depression and a channel-guiding protuberance. The channel-guiding protuberance is formed at an upper depression surface of the insert-receiving depression. The insert-receiving depression is outfitted with a primary liquid outlet for enabling liquid egression therethrough. The lid body insert is receivable in the insert-receiving depression and includes a protuberance-receiving channel and a secondary liquid outlet. The protuberance-receiving channel receives the channel-guiding protuberance when the lid body insert is received in the insert-receiving depression. The lid body insert is rotatable intermediate first and second closed lid positions. The secondary liquid outlet is positionable in superior adjacency to the primary liquid outlet when in an open lid position for enabling liquid egression via both the primary and secondary liquid outlets. A lid assembly system and associated methodology is further contemplated.

A storage container includes a body, a lid, and two handles. The body defines a compartment between first and second side walls of the body. The compartment is accessible along a top end of the body. The first and second side walls include respective cavities that are recessed from exterior surfaces of the side walls via rims that define perimeters of the cavities. The lid is connected to the top end of the body and encloses the compartment when in a closed position. The two handles are tethered to the body via cords, and are configured to nest within the cavities of the corresponding side walls when not grasped by a person. First and second ends of the handles are configured to engage opposing portions of the corresponding rim to retain the handle nested in the cavity via an interference fit.

A foldable clamshell container is provided. The container may include a tray portion and a cover portion. The tray portion may include a front panel, rear panel, and side panels. The side panels may include triangular fold flaps on each end that are secured end flaps connected to the front and rear panels. The rear panel may have a height greater than the front and side panels and the cover portion may be foldably connected to an upper edge of the rear panel. The cover panel may include a cover panel, a front panel, and cover side panels with a triangular fold flap. The rear end flaps of the tray portion and the cover side panels may each include a curved edge portion. The container may be configured to transition between a folded-flattened configuration and an unfolded configuration by folding the triangular fold flaps of the tray and cover portions.

A multi-compartment container system includes a plurality of compartments. Each compartment includes a cup portion comprising a volume adapted to hold a food or liquid, and a frame portion joined to the cup portion. The frame portion surrounds a top portion or edge of the cup portion, and includes a connector element disposed on a side of the frame and one or more first mating elements. The compartment also includes a lid having one or more second mating elements adapted to engage with the one or more first mating elements of the frame to form a seal, and a chamber adapted to hold a utensil. The connector element of the frame is joined to an adjacent connector element of an adjacent frame of an adjacent compartment. The cup portion includes a first section and a second section, and the cup portion is adapted to move between an expanded state in which no part of the second section is inside the first section and a collapsed state in which at least a portion of the second section is inside the first section.

The present invention discloses a packaging box of a covering film and a film applicator. By structural designs of the packaging box and the covering film, the packaging box is provided with an internal cavity matching an outer shape of an electronic device and the covering film includes a release film having an extension portion, enabling the packaging box to provide the covering film with storage, dustproof and shock-absorbing functions and to further serve as a film application auxiliary tool when a film application process is performed. Thus, a user is allowed to accurately, quickly and efficiently form a layer providing protection on a surface of the electronic device directly by using the packaging box.

The present invention discloses a packaging box of a covering film and a film applicator. By structural designs of the packaging box and the covering film, the packaging box is provided with an internal cavity matching an outer shape of an electronic device and the covering film includes a release film having an extension portion, enabling the packaging box to provide the covering film with storage, dustproof and shock-absorbing functions and to further serve as a film application auxiliary tool when a film application process is performed. Thus, a user is allowed to accurately, quickly and efficiently form a layer providing protection on a surface of the electronic device directly by using the packaging box.

A lid for a beverage cup includes a mouth opening, an aroma opening, and a concentrator member. The mouth opening is positioned closer to a rim of the lid than the aroma opening. An area of the aroma opening is greater than an area of the mouth opening. The concentrator member surrounds the aroma opening and extends from a plane formed by the aroma opening to a height above the aroma opening. A cross sectional area of the concentrator decreases in a direction from a base to an upper end of the concentrator, creating a concentration of beverage aromas in the space surrounding a user's nose. The concentrator channels a concentrated amount of aroma to the nose, providing an enhanced drinking and tasting experience.

A container cover for storage container includes a rotary device, an outer cover member, an inner cover member, a first guide block, second guide block, a pumping piston and a piston seat so arranged that when the rotary device is driven by a user to rotate the first guide block, guide rods of the first guide block are moved along a first continuous wave-shaped track of the second guide block, causing the second guide block and the pumping piston to move alternatively up and to further pump air out of the storage container through an air-pimping hole of the piston seat to create a negative pressure. Further, a first spring member an upper rail seat can be provided to balance the movement of the pumping piston and to stabilize the rotation of the first and second guide blocks. A relief valve rod can be selectively used for giving a visual indication indicative of the presence of a negative pressure in the storage container.

A container cover for storage container includes a rotary device, an outer cover member, an inner cover member, a first guide block, second guide block, a pumping piston and a piston seat so arranged that when the rotary device is driven by a user to rotate the first guide block, guide rods of the first guide block are moved along a first continuous wave-shaped track of the second guide block, causing the second guide block and the pumping piston to move alternatively up and to further pump air out of the storage container through an air-pimping hole of the piston seat to create a negative pressure. Further, a first spring member an upper rail seat can be provided to balance the movement of the pumping piston and to stabilize the rotation of the first and second guide blocks. A relief valve rod can be selectively used for giving a visual indication indicative of the presence of a negative pressure in the storage container.