A vacuum storage container includes a container body and a lid, wherein the container body has a top opening, and the lid includes a lid body and a valve plug. The lid body is removably engaged with the container body to cover the top opening to seal a peripheral edge of the top opening. The lid body has a perforation. The valve plug includes a plug body and a poked member. The plug body is disposed in the perforation and is adapted to close or to open the perforation. The poked member is disposed on a top of the plug body. In this way, a user could simply push the poked member to shift the plug body to open the perforation, which is convenient.

A closure device for firing an additive into a carbonated beverage bottle with a neck comprises a cap member and a housing. The cap member includes a pressurised tank containing the additive and a propellant and has a bottom aperture. The housing engages with the neck and includes a plug member which engages with the bottom aperture. The cap member can be lifted relative to the housing from a first armed or closed position in which the plug member closes the bottom aperture to a second firing position in which the plug member provides a communication path from the tank through a nozzle in the plug member.

A display container for a botanical sample includes (a) an enclosure having an interior chamber for storing the botanical sample; (b) a plurality of scent ports extending through a wall of the enclosure between the interior chamber and environment; (c) a plug mounted to the enclosure and sealing the scent ports, the plug movable away from the enclosure to expose the scent ports for facilitating sampling of an aroma of the botanical sample when in the enclosure; and (d) an elongate mounting projection in the chamber for retaining the botanical sample thereon.

A pressurised headspace beverage closure 1 that may be opened and reclosed in at least substantially a one-handed manner; comprising a drinking aperture, at least one headspace pressure lock mechanism 5, at least one controlled-rate headspace pressure equalisation valve arrangement 6 and a sealing system 7 suitable for multiple re-use, and whereby when the headspace pressure 10 is at least substantially above or below atmospheric pressure the headspace pressure lock mechanism 5 may employ the use of the headspace pressure 10 itself to ensure that the closure cannot freely be opened by a user, whereby the headspace pressure equalisation valve arrangement 6 may freely enable the headspace pressure 10 to be vented such that it may at least substantially equalise with atmospheric pressure at a pre-set and controlled rate preferably independent of a user thereby allowing safe and controlled venting of the headspace pressure 10, and whereby once the headspace pressure 10 has at least substantially equalised with atmospheric pressure the headspace pressure interlock system 5 may release its headspace pressure lock sufficiently to enable the one-handed closure to be fully and freely opened and reclosed as required.

Embodiments of the present disclosure provide for a multisensory examination jar for botanical specimens. Embodiments of the disclosed jar may have a body portion with an integrated LED array for illuminating the contents of the jar. The jar may have a removable lid with an integrated magnifying lens, and an opening or port to enable a user to smell the contents of the jar. The opening may have a removable plug to establish a substantially air tight seal on the lid of the jar, to trap odors within the jar. The removable plug can be selectively removed to enable the user to smell the contents of the jar. The jar may have an electronics module and power source operable for wireless charging. The jar may also be configured to interface with a charging dock or base for wireless charging of integrated batteries.

Provided is a lid assembly for a container. The lid assembly includes a lid formed of a first material and a seal formed of a second material and being integrally formed with the lid. The lid can be attached to the container such that a radially outwardly extending flexible lip of the seal compresses against an inner surface of the container to seal the lid assembly to the container.

A storage container kit with an insulated bowl and lid. Aspects of the present disclosure provide for a storage container kit comprising a first container having insulated walls, a first lid having an insulated portion extending between an upper surface and a lower surface of the first lid and configured to establish a pressurized seal with the first container, a second container configured to be housed within an interior portion of the first container, and a second lid configured to be removably coupled to an upper circumference of the second container. In some embodiments, the first lid is configured to be selectively interfaced with the first container to create a pressurized seal between a gasket, inner side walls of the first container, and a plug being removably coupled to a pressure release aperture in the first lid.

An insulated container having a canister can be sealed by a lid structure. The lid structure can be a multi-part insulated lid. The lid can include a vent configured to vent air from inside the canister. In addition, the container may be part of a container kit or container system where one or more inner containers, are nested and secured within the insulated container.

A pump mechanism for vacuum sealing an airtight cavity formed by a container and a lid, including a bore having a first one-way seal allowing air from the airtight cavity to enter the bore and blocking air inside the bore from returning to the airtight cavity and a second one-way seal allowing air inside the bore to leave the bore without returning to the airtight cavity and blocking air outside of the bore from entering the bore, a piston disposed inside the bore, and a chamber of air enclosed by the bore, the first and second one-way seals, and the piston, wherein actuation of the piston in a first direction causes air to evacuate the airtight cavity and enter the chamber through the first one-way seal, and wherein actuation of the piston in a second direction causes air to exit the chamber through the second one-way seal.

The present application is directed to a container (20) for holding paint. The container comprises at least two fluid ports (23, 40). The container has a body that is shape self supporting and is a non-rigid construction. At least one fluid port is a separate part (40) from the body of the container.