A cap for a squeeze bottle that is simply constructed, easily manufactured, simple to assemble and easily reassembled. The cap includes three components, a rounded lid with a slot, a nozzle with a near spherical base and an extended cone portion, and a gasket with a platform, a nozzle seat and a skirt wall.

An adapter is configured with two base platforms, initially tethered together, that separately receive a dispensing tube and attached to a standardized spout fitment at opposite ends. In use, the platforms collapse and lock together, while simultaneously creating an outwardly bellowing section in the tube that can double as a sealing gasket. The adapter is sized to couple to existing spout fitments and tube sizes to allow for easy adoption, while its components may all be constructed from the same polymeric material to facilitate manufacturing and/or recycling.

A dispensing cap may include a cap body and a sealing assembly. The cap body may include a first opening, a second opening distinct from the first opening, and one or more guiding surfaces. The first opening may be configured to dispense a fluid (e.g., a liquid), and the second opening may be configured to pass a gas. The sealing assembly may be slidably attached to the one or more guiding surfaces of the cap body and may be translatable between a first position and a second position. In the first position, the sealing assembly seals the first opening and stops a flow of the gas through the second opening. In the second position, the sealing assembly does not seal the first opening and does not stop the flow of the gas through the second opening.

A drink cup lid includes a ring-shaped brim mount adapted to mate with a brim of a drink cup and a central closure surrounded by the ring-shaped brim mount and including an annular top wall formed to include a top aperture and an adjacent liquid-discharge outlet. The drink cup lid further includes an outlet closure configured to close the liquid-discharge outlet.

A dispensing device for dispensing a powder preferably from a closed container, the device including a first side, a second side, a powder passage extending through the device and being configured to transfer powder from the first side to the second side, and a ventilation passage extending through the device and being configured to transfer ambient air from the second side to the first side, where the ventilation passage has a first passage length from the surface of the second side up to its ventilation opening and, the powder passage has a second passage length from the surface of the second side up to its powder opening, where the first passage length is larger than the second passage length.

A two-part plug assembly is disclosed for a drip-proof spout on an aseptic flexible container for flowable materials. The two-part plug assembly may include a plug and a plug insert, wherein the plug insert may include a flow inhibitor such as a baffle or valve. In a first step, the plug assembly is removably placed in a first position on a spout prior to aseptic filling. During filling, the plug assembly is removed. After filling, the plug insert assembly is replaced in a second position further down the spout wherein the plug insert fixedly engages the spout. When fixedly engaged to the spout, the plug insert remains inside the spout when the plug is removed prior to a user dispensing the flowable material. When a cap is included, the plug assembly may shift position to allow a cap shaft to engage the flow inhibitor when the plug is removed.

Provided is a container for discharging contents including: a body for accommodating the contents therein; and a dropper detachably coupled to top of the body to suck and discharge the contents of the body, the dropper including: a first cap detachably coupled to top of the body; a pipette coupled to the inside of the first cap to allow at least a portion to be accommodated in the body to suck the contents of the body; and button parts including: a pressurizing part for changing the internal pressure of the pipette by pressurization to discharge the contents of the body, an ascending and descending part ascended together with the pressurizing part according to the detachment of the dropper to allow the pressurizing part to protrude outward from the first cap, and an elastic part disposed between the pressurizing part and the ascending and descending part to provide an elastic force to the pressurizing part.

A dispensing cap may include a cap body and a sealing assembly. The cap body may include a first opening, a second opening distinct from the first opening, and one or more guiding surfaces. The first opening may be configured to dispense a fluid (e.g., a liquid), and the second opening may be configured to pass a gas. The sealing assembly may be slidably attached to the one or more guiding surfaces of the cap body and may be translatable between a first position and a second position. In the first position, the sealing assembly seals the first opening and stops a flow of the gas through the second opening. In the second position, the sealing assembly does not seal the first opening and does not stop the flow of the gas through the second opening.

A magnetic suction structure of a vacuum cup, having a mounting piece, a pivot piece and a cup lid; the vacuum cup has a water outlet; the mounting piece is mounted on a periphery of the water outlet; the pivot piece is rotatably connected with the mounting piece; the pivot piece has a through hole; when the pivot piece is rotated to close against the mounting piece to achieve a close state, the through hole sleeves the water outlet; when the pivot piece is rotated away from the mounting piece to achieve an open state, the pivot piece and the mounting piece are magnetically engaged; the cup lid is rotatably mounted in the through hole and in threaded connection with the water outlet. The vacuum cup ensures good sealing effect, prevents the cup lid from falling down, and thus enhances user's experience.