An insulated container assembly includes an outer box defining a box cavity; and an insulated insert positioned within the box cavity, the insulated insert including a pair of opposing side panels including a first side panel and a second side panel; and a pair of opposing main panels including a first main panel and a second main panel, the first main panel connected to the first side panel by a first crease line, the second main panel connected to the first side panel by a second crease line, the second main panel connected to the second side panel by a third crease line, the pair of opposing side panels and the pair of opposing main panels defining a top end and a bottom end of the insulated insert, the first crease line, the second crease line, and the third crease line extending from the top end to the bottom end.

The use of hemp paper for use in bags or newsprint.

An insulated bag includes a pair of opposing main panels; and a pair of opposing side panels, each side panel attached to each main panel, the main panels and the side panels defining a bag cavity within the insulated bag; the main panels and the side panels defined in an insulated blank, the insulated blank including a first paper layer; and a paper fiber pad coupled to the first paper layer, the paper fiber pad having paper reinforcement fibers interlocked with about 2% to about 25% by weight of a meltable PE/PP bi-component thermoplastic binder fiber distributed substantially randomly, wherein subjecting the repulpable shipping container to a repulpability test produces greater than 85% fiber yield.

An insulated bag includes a pair of opposing main panels; and a pair of opposing side panels, each side panel attached to each main panel, the main panels and the side panels defining a bag cavity within the insulated bag; the main panels and the side panels defined in an insulated blank, the insulated blank including a first paper layer; and a paper fiber pad coupled to the first paper layer, the paper fiber pad having paper reinforcement fibers interlocked with about 2% to about 25% by weight of a meltable PE/PP bi-component thermoplastic binder fiber distributed substantially randomly, wherein subjecting the repulpable shipping container to a repulpability test produces greater than 85% fiber yield.

The present invention relates to a restaurant highchair tray topper device that is comprised of a body that has a tray and a pair of arms, in addition to a carrying bag. The body of the device further preferably resembles a cafeteria-style tray and is flexible or semi-flexible, such that it is child-safe and sturdy. The pair of arms extend from the tray and attach to a restaurant highchair. In this manner, the device can be applied to any restaurant highchair that does not already have a tray, such that a child may store all food, beverages, and toys safely, and without disturbing others, or allowing said items to fall to the floor

The present invention relates to a restaurant highchair tray topper device that is comprised of a body that has a tray and a pair of arms, in addition to a carrying bag. The body of the device further preferably resembles a cafeteria-style tray and is flexible or semi-flexible, such that it is child-safe and sturdy. The pair of arms extend from the tray and attach to a restaurant highchair. In this manner, the device can be applied to any restaurant highchair that does not already have a tray, such that a child may store all food, beverages, and toys safely, and without disturbing others, or allowing said items to fall to the floor

A lawn refuse bag insert includes a rear wall disposed at a rear end of the lawn refuse bag insert; a first side wall hingedly coupled to the rear wall at a first side of the lawn refuse bag insert; and a second side wall hingedly coupled to the rear wall at a second side of the lawn refuse bag insert opposite the first side; wherein the lawn refuse bag insert further defines a front end opposite the rear end, and wherein the lawn refuse bag insert is unobstructed at the front end from a top end of the lawn refuse bag insert to a bottom end of the lawn refuse bag insert.

A method of assembling an insulated container can include folding a body portion of an insulated blank including folding a first panel of the body portion relative to a second panel of the body portion, the first panel defining a first end of the insulated blank; folding the second panel relative to a third panel of the body portion; folding the third panel relative to a fourth panel of the body portion, the fourth panel defining a second end of the insulated blank; attaching the first end of the insulated blank to the second end of the insulated blank to at least partially enclose an insulated cavity; folding a first bottom flap of the insulated blank relative to the first panel to further enclose the insulated cavity; and folding a second bottom flap of the insulated blank relative to the second panel to further enclose the insulated cavity.

Example aspects of a lawn refuse bag insert, a lawn refuse disposal assembly, and method for using a lawn refuse disposal assembly are disclosed. The lawn refuse bag insert can comprise a bag stand defining a top stand end and a bottom stand end and comprising an end wall and a first side wall, the first side wall hingedly coupled to the end wall; and a first rake detachably coupled to the bag stand, wherein the lawn refuse bag insert is formed as a blank.

An insulated bag includes a pair of opposing main panels; and a pair of opposing side panels, each side panel attached to each main panel, the main panels and the side panels defining a bag cavity within the insulated bag; the main panels and the side panels defined in an insulated blank, the insulated blank including a first paper layer; and a paper fiber pad coupled to the first paper layer, the paper fiber pad having paper reinforcement fibers interlocked with about 2% to about 25% by weight of a meltable PE/PP bi-component thermoplastic binder fiber distributed substantially randomly, wherein subjecting the repulpable shipping container to a repulpability test produces greater than 85% fiber yield.