Provided are cleaning devices adapted for a microwave oven. A head cap of the cleaning device includes multiple through holes, and thus steam generated by heating a cleaning liquid can flow out of the through holes in a faster and more concentrated mode. Using the cleaning device of this disclosure, the cleaning operation for the microwave oven is more convenient, and safety hazard such as explosion or splashing is also prevented as well.

The invention provides for a container that may include a liquid-holding vessel and a skeleton shell supporting the liquid holding vessel. The liquid-holding vessel may comprise a flexible polymer or plastic material for preventing contact between a liquid stored in or dispensed from the container and the skeleton. The liquid-holding vessel and the closure may be formed from a minimal amount of polymer or plastic. The invention also provides for a connection of a liquid-holding vessel with a fitment to the skeleton shell using ultrasonic means. Further, a skeleton shell with mating features allowing the skeleton shell to be formed with smooth edges is provided.

A plastic beer keg includes an outer container and a liner having a neck portion and a body portion. A removable lid is secured over an opening of the container to enclose the liner. A locking ring secures the neck portion to the lid. The neck optionally includes a neck ring which interlocks with the opening through the lid to prevent relative rotation therebetween. The locking ring optionally includes ratcheting teeth engaging ratchet teeth on the lid to prevent inadvertent loosening of the locking ring. The liner may be suspended from the lid by the neck when empty.

A plastic keg includes a liner including a neck portion and a body portion. A lid having an opening is disposed at least partially over the liner. The liner is disposed in an outer container having a wall with at least one locking rib projecting therefrom. The locking rib angles downward and the lid secured to the outer container by the at least one locking rib. Optionally, a locking ring securing the neck portion of the liner to the lid may be configured to release the liner when the filled keg is dropped.

A container includes: a skeleton shell defining a container body of the container, the skeleton shell being formed from a recycled and/or biodegradable pulp material; and, a bag or liner removably disposed within the skeleton shell. Wherein the skeleton shell includes at least one separation feature that facilitates separation of the skeleton shell from the bag or liner.

A disposable container comprising a side wall, top and bottom, wherein the side wall comprises a first flexible material and the bottom comprises a rigid or semi-rigid material. The side wall top and bottom are joined together to define the container with an interior compartment for keeping a fluid inside the container. The bottom comprises at least one opening that is fluid-tightly covered with an assembly comprising a second flexible material. The assembly comprises at least one port which provides access to the interior compartment of the container. The invention also relates to a mixing system comprising the disposable container.

A plastic keg includes a liner including a neck portion and a body portion. A lid having an opening is disposed at least partially over the liner. A retainer is secured to the neck portion of the liner and aligned with the opening in the lid, the retainer including external threads. A locking ring having internal threads is secured to the external threads of the retainer. The internal threads of the locking ring and the external threads of the retainer include a ratcheting mechanism permitting attachment of the locking ring to the retainer and inhibiting removal of the locking ring from the retainer, the locking ring contacting the lid. A beer keg valve assembly includes a port having a head portion having a convex upper surface and at least one leg extending downwardly from a lower surface. The leg includes a stop surface projecting radially outward further than the head portion. A piston defines an opening. A spring biases the port against a periphery of the opening defined by the piston to seal the convex upper surface of the head portion over the opening.

The present invention relates to a closed-head drum (10) with inserted thin-walled inliner (22) of multilayer plastic film for storing and transporting liquid or free-flowing filling materials. In order to improve the use of liners in closed-head drums, and to facilitate in particular the handling for the users such as the filling and emptying operators, so as to allow the closed-head drum (10) with liner (22) to be handled in precisely the same way as a closed-head drum without a liner, the present invention provides for the liner surface to adhere, or be adhesively bonded in a detachable manner, to the inner wall of the drum by virtue of a vacuum being created in the intermediate air space between the inner wall of the drum and liner surface and by thermal activation by means of hot air injection into the interior of the inliner.

A method for creating a container is disclosed. The method can include creating a container body from a thermoplastic material via a blow molding process to thereby form a first opening extending through a top of the container body, creating a bung attachment part via an injection molding process to thereby form a second opening extending through the bung attachment part and an internally threaded surface located within the second opening, and attaching the bung attachment part to the top of the container body such that the second opening is at least partially aligned with the first opening.

A container for a medical device having a housing defining a cavity for receiving a device, such as a lung volume reduction coil, is disclosed. In some embodiments, the container includes a coupling zone external to the cavity, an exit aperture between the cavity and the coupling zone, and a bearing surface located within the cavity, the bearing surface, exit aperture and coupling zone defining an exit path along which the device can be moved for deployment from the container. The bearing surface is spaced from the exit aperture and arranged, together with the coupling zone, such that the exit path is substantially straight. In some embodiments, the cavity may be approximately cylindrical, and the bearing surface, the exit aperture, and the coupling zone are aligned such that the exit path extends in a direction that is substantially tangential to the cavity.