A safety lid for bottles, comprising a pouring element that can be attached to the neck of a bottle, a closure cap attached to the pouring element through a rear hinge, a flexible protrusion, located in its part closest to the pouring element, which contacts the pouring element in the open position, and two lateral flanges. The lid comprises a first opening indicator element located in the space delimited between both flanges, consisting of a flange comprising a first sector attached to the pouring element, a second sector attached to the closure cap, and a breakable central sector that allows a break and separation of the flange when a first opening of the lid occurs and a subsequent torsion deformation of the first sector and the second sector of that flange.

In some embodiments, apparatuses and methods provided herein are useful for dispensing a fluid, such as a thixotropic fluid. In some embodiments, a bottle having a closure cap includes a flip top, a base, and a disk, where the base and disk define a mixing chamber configured to facilitate mixing of any serum or liquid separated from the fluid back therein. In some configurations, the base has a central opening through which the fluid exits and an internal shaft with a non-planar end surface opposite the central opening. In some configurations, the non-planar end surface and the disk define channels between the mixing chamber and the internal shaft. In some embodiments, the disk includes a central opening, a plurality of partial annular openings through a planar surface of the disk, and projections extending into the mixing chamber.

In some embodiments, apparatuses and methods provided herein are useful for dispensing a fluid, such as a thixotropic fluid. In some embodiments, a bottle having a closure cap includes a flip top, a base, and a disk, where the base and disk define a mixing chamber configured to facilitate mixing of any serum or liquid separated from the fluid back therein. In some configurations, the base has a central opening through which the fluid exits and an internal shaft with a non-planar end surface opposite the central opening. In some configurations, the non-planar end surface and the disk define channels between the mixing chamber and the internal shaft. In some embodiments, the disk includes a central opening, a plurality of partial annular openings through a planar surface of the disk, and projections extending into the mixing chamber.

In some embodiments, apparatuses and methods provided herein are useful for dispensing a fluid, such as a thixotropic fluid. In some embodiments, a bottle having a closure cap includes a flip top, a base, and a disk, where the base and disk define a mixing chamber configured to facilitate mixing of any serum or liquid separated from the fluid back therein. In some configurations, the base has a central opening through which the fluid exits and an internal shaft with a non-planar end surface opposite the central opening. In some configurations, the non-planar end surface and the disk define channels between the mixing chamber and the internal shaft. In some embodiments, the disk includes a central opening, a plurality of partial annular openings through a planar surface of the disk, and projections extending into the mixing chamber.

A valve assembly for a dispensing container includes a closure body detachably coupled to a co-injected valve. The closure body includes a main closure body coupled to a closure cap via a flexible hinge. The co-injected valve includes a valve head and a valve frame. The valve head includes a valve head portion with multiple valve head slits, a sleeve portion, and a peripheral sealing flange. The valve frame is permanently coupled to the valve head and includes a radial ledge and a radial wall that support the peripheral sealing flange of the valve head. The co-injected valve is fabricated via a two-step injection molding process. The first step includes fabricating the valve frame from a first injection material, and the second step includes fabricating the valve member from a second injection material.

The service capsule (20) comprises:—an outer skirt (32),—a transverse wall (34) defining at least one outlet orifice (48). The service capsule (20) includes, for each orifice (48), a dispensing conduit (36) defining a dispensing passage (51). The service capsule (20) includes a closing cap (40), mounted moving between a clear position and a position applied on the transverse wall (34). A filter (38) is arranged upstream from and/or in the product dispensing conduit (36), and is configured so that the cosmetic product (12) in the container (18) necessarily passes through the filter (38) when the product (12) is extracted from the container (18) through the service capsule (20). The filter (38) is integral with the product dispensing conduit (36).

The present invention relates to a closure for a container with a base element (100), a flip-top lid (200) attached to said base element (100) by a hinge (150) such that the flip-top lid (200) can be moved between an opened and a closed position, and with a tamper evident unit (400) for indicating whether the flip-top lid (200) had been opened at least once by a user or not. Said tamper evident unit (400) comprising a first tamper evident element (420) and a second tamper evident element (440), which are, when said closure is in its as-manufactured status or when said flip-top lid (200) has not been opened yet by the user, connected to each other by at least one frangible bridge (430). Said first tamper evident element (420) is attached to the base element (100) such that it is movable between a first position and a second position, wherein said first tamper evident element (420) is in its first position, when said closure is in its as-manufactured status or when said flip-top lid (200) had not been opened yet by the user, and said first tamper evident element (420) is in its second position, when said flip-top lid (200) had been opened at least once by the user.

The invention provides a cap for a container. The cap comprises a cover member having an outlet and at least one first opening; a base member engageable with the container and having an inlet; an adjusting member co-axially connected with and rotatably movable relative to the cover member and the base member; the adjusting member having at least one second opening adapted to cooperate with the at least one first opening to define a fluid flow passageway connecting the inlet of the base member with the outlet of the cover member; wherein the adjusting member is actuatable at an exterior of the cap, such that actuation of the adjusting member causes the at least one second opening to rotate relative to the at least one first opening thereby varying a size of the fluid flow passageway connecting the inlet of the base member with the outlet of the cover member.

A dispensing closure is provided and comprises a base and a lid. The base includes a sidewall closed at one end by a top deck including a dispensing orifice. The base and lid are joined by a hinge to allow the lid to move between closed and open positions with respect to the base whereby to close and open the dispensing orifice. At the periphery of the top deck the sidewall forms or provides a raised lip. The lid closes onto the top deck and is bounded by the lip and the lid is generally flush with the lip when in the closed position.

A valve assembly for a dispensing container includes a closure body detachably coupled to a co-injected valve. The closure body includes a main closure body coupled to a closure cap via a flexible hinge. The co-injected valve includes a valve head and a valve frame. The valve head includes a valve head portion with multiple valve head slits, a sleeve portion, and a peripheral sealing flange. The valve frame is permanently coupled to the valve head and includes a radial ledge and a radial wall that support the peripheral sealing flange of the valve head. The co-injected valve is fabricated via a two-step injection molding process. The first step includes fabricating the valve frame from a first injection material, and the second step includes fabricating the valve member from a second injection material.