A lid for a utility enclosure having a front end, a rear end, a right side, a left side, a top lid portion, and a bottom, defining an interior. Large reinforcement ribs are on an interior surface of the top lid portion and form a lattice-type structure. Small reinforcement ribs are mounted in spaces formed by the lattice type structure. The lid is made of glass fiber-reinforced polypropylene and metal bars or rebar are embedded in the large reinforcement ribs. The metal bars are positioned near a bottom of the large reinforcement ribs and spaced above the bottom. The physical structure of the lid and the lid's composition, consisting essentially of glass fiber-reinforced polypropylene, are constructed so that the lid withstands up to 33,750 pounds of force without breaking or being deformed.

A closure includes an annular base to be fixed to an upper rim of a container. The base includes a peripheral skirt having an end portion to be arranged over the upper rim of the container. A peripheral locking rim is integrally formed on the end portion of the peripheral skirt. The locking rim has a proximal end hingedly connected to the peripheral skirt and allowing the peripheral locking rim to be folded inwardly towards an inner surface of the end portion, such that, when the locking rim is in the folded state, a distal end thereof can move beyond and engage under a peripheral ledge of the container to lock the base to the container. The end portion of the skirt has on the inner surface an engagement surface portion and a widening surface portion towards an end of the peripheral skirt.

An accessory for use with a portable container includes a jacket having a storage member and configured to extend around at least a portion of the sidewall of the container and a connection member connected to the jacket and configured to support the jacket in connection with the container. The connection member includes a connector configured to be connected to a port on the container such that a portion of the connector is received through the port.

A sheet metal lid has a rim portion removably secured and sealed to a container and the lid includes a vent button having a top wall portion surrounded by a side wall portion and an outwardly projecting flange portion. The flange portion of the button has a short arcuate score or shear line extending substantially into the sheet metal, and additional score lines extend into the flange portion at lesser depths to protect a coating on the inner surface of the lid. A resilient sealant material may be bonded to the inner surface of the vent button, and the opposing sheet metal portions of the score line form a small gap for releasing a vacuum or pressure from the container in response to a controlled downward pressure on the top wall portion of the vent button.

A recyclable or reusable assembly is described. The assembly includes a lid having a first side disposed opposite a second side that engages an opening of a container and a hole extending through a width of the lid. A corrugated flex pipe configured straw fully extendable for use of the assembly is configured to collapse on itself in a telescoping movement and has a first and a second portion. A second side of the first portion engages the hole on the first side of the lid and a second side of the second portion engages the hole on the second side of the lid. A first sealing plug is affixed to the first side of the first portion of the straw and a second sealing plug is affixed to the first side of the second portion of the straw to seal an inside of the straw.

A lid structure, which is used for covering an opening of a container, includes a mainbody, an elastic annular element, and a covering assembly. The mainbody includes a through hole. The elastic annular element is integrally disposed on a peripheral region of the mainbody, wherein the elastic annular element is used for positioning the lid structure on the opening. The covering assembly is disposed on the mainbody and includes a spacer element and a covering element. The spacer element is disposed on and covers the through hole. The spacer element includes a plurality of drain holes and a central connecting portion. The covering element is deformably disposed on the central connecting portion.

A child-resistant container including a container body, a lid, and at least one resilient tab is provided. The lid is pivotable about an axis through a hinge joining the lid to the container body to open and close the container. The resilient tab has a proximal portion fixed to the lid, a distal portion projecting from the lid, and at least one abutment on the distal portion. The abutment on the distal portion of the tab is normally biased into engagement with an abutment on the container body when the lid is in its closed position. The distal portion of the tab is displaceable against the bias to disengage the abutment of the tab from the abutment of the container. Displacement of the tab releases the lid so that it can be pivoted about the hinge to open the container.

A shipping container includes an insulated base, an upper perimeter portion including one or more securing mechanisms, insulated side panels, and an insulated lid. Each of the insulated side panels is movable between a respective first position and a respective second position, wherein the shipping container is in the first configuration when all of the insulated side panels are in the first positions and collapses into the second configuration when all of the side panels are in the second positions. The insulated lid is removably attachable for selectively closing and accessing an internal storage volume. Each of the securing mechanisms is configured to removably secure the upper perimeter portion to the insulated base when the shipping container is in the second configuration. Each of the securing mechanisms is also configured to removably secure the insulated lid to the upper perimeter portion in both the first and the second configurations.

A foldable, waterproof case includes a first wall and a second wall coupled to the first wall. The first and second walls at least partially define a cavity within the case. A lid is coupled to the second wall and is configured to selectively cover the cavity. A hinge is disposed between the first wall and the second wall. The first wall is rotatable relative to the second wall between a first, expanded position of the case and a second, collapsed position of the case. In the first position, the cavity includes a first volume and in the second position, the cavity includes a second volume that is less than the first volume. The hinge provides a waterproof connection between the first and second walls in the first position and in the second position.

A vacuum storage container includes a container body and a lid with a silicone ring operably positioned therebetween. A cavity is disposed in the lid, the cavity being sized and shaped to receive a vacuum device therein. A central through hole is provided in the cavity which enables air to enter and exit the container body. A silicone sealing plug is set inside the central through hole. The sealing plug body runs through the central through hole, an upper end of the lid is connected to the sealing plug top, and a lower end of the lid is connected to the sealing plug bottom. When the vacuum device is in operation, the silicone sealing plug is moved to the open state, so that air inside the vacuum storage container passes through first and second circumferential clearances, and between the lower end of the sealing plug top and the upper end of the lid, to discharge out of the vacuum storage container.