A chemical dispensing system can include a docking stating that receives a reservoir containing chemical to be dispensed. The reservoir may have one or more retention tabs which are movable from a first position in which each tab extends radially across at least a portion of the bore to a second position in which each tab is offset relative to the bore. A user can engage the reservoir with the docking station, causing the one or more retention tabs on the reservoir to engage with one or more corresponding retention tab receiving regions. This can cause each retention tab to move from the first position to the second position, thereby dispensing chemical from the bore through a discharge aperture of the docking station. In this way, the contents of the reservoir may be dispensed without the user coming into physical content with the chemical in the reservoir.

A cap for a spout of a flexible thin-walled packaging is provided. The cap has a closure body having an annular closure wall extending along a main axis between a lower end and an upper end. An extension ending with a base is placed at a predefined height below the lower end of the annular closure wall. A scraper element is arranged along the extension to remove any residue of product in the spout.

Several configurations of dispenser attachments are disclosed herein. In some embodiments, the dispenser attachment comprises an inlet configured to couple with a container, and at least a first outlet and a second outlet, wherein the first outlet and the second outlet are in fluid communication with the inlet. The dispenser attachment further includes at least a first cap and a second cap, wherein the first cap is configured to removably couple with the first outlet and the second cap is configured to removably couple with the second outlet. The dispenser attachment may be integrally formed with the container and may allow for several users to share a common container while reducing likelihood of germ transfer between the users via the common container.

A lid assembly configured to be coupled to a beverage container, the lid assembly including a base defining an axis, a sip ring rotatable about the axis with respect to the thread base, and an elevator assembly coupled to the sip ring. The elevator assembly includes an upper elevator and a lower elevator coupled to the upper elevator for co-rotation with the upper elevator. Rotation of the sip ring rotation of the sip ring is configured to cause the elevator assembly to translate along the axis.

A dispensing closure (40) includes a body (54) for being located at the opening of a container (44) defining a central axis (30) and having a pour spout (72). The body (54) including a crushable seal (200) surrounding the pour spout (72), and the body (54) including a lateral projection (210) extending therefrom. The closure (40) includes a closing element (56) for being removably attached to the body (54) and having a lateral projection (220) extending therefrom. The closing element (56) and the body (54) have a closed condition in which the crushable seal (200) seals between the closing element (56) and the body (54) and the lateral projections (210, 220) are confronting to inhibit separation of the closing element (56) away from the body (54) along the central axis (30).

Disclosed herein is a cap configured to interact with a neck. In some embodiments, the cap comprises an inner wall portion and at least one cutting element projecting radially inwards from the inner wall portion. In some embodiments, the cutting element has a hinge portion connected to the inner wall portion, and a cutting portion extending radially inwards from the hinge portion, wherein a first axial thickness of the hinge portion is between 35 and 80% of a second axial thickness of the cutting portion. Also disclosed herein is an assembly comprising the cap and a spout having a membrane closing a tubular member of the spout.

A package includes a container and a closure cap for mounting on the container. The closure cap is coupled to a neck of the container to block selectively removal of product stored within the container at the selection of a user.

The present disclosure relates to a pilferproof cap assembly(100) for a container(10). The assembly(100) is configured to facilitate refilling and decanting of fluid in the container(10). The assembly(100) comprises a neck housing(12) and an adaptor(40). The neck housing(14) is configured to be fitted on an opening of the container(10). The neck housing(12) is provided with a linearly displaceable diaphragm(24) to define a fluid-orifice(50) for fluid flow, and an air-orifice(30) to facilitate air flow. The adaptor(40) is configured to be mounted on an operative top of the neck housing(12) and is further configured to actuate the fluid-orifice(50) and the air-orifice(30) in an operative configuration of the assembly(100). The assembly thus facilitates the refilling and decanting of fluid therefrom in a pilferproof manner.

A package includes a container and a closure cap for mounting on the container. The closure cap is coupled to a neck of the container to block selectively removal of product stored within the container at the selection of a user.

The present invention is a system for improved access to liquid In a plastic container and lid assembly, to reduce time in pouring and eliminate dried liquid in the rim of the plastic container caused by pouring liquid over the rim of the plastic container. The invention uses two liquid-tight seals formed between a pour spout wall on the lid and a sealing channel on a plastic cap. Special structures are provided on the cap and the pour spout wall to form the liquid-tight seals when the cap is screwed onto the pour spout wall.