The present disclosure describes a device for transporting waste or recyclable material. An example device may include a base and a collapsible sleeve, wherein the collapsible sleeve is movable between an open state and a collapsed state. The collapsible sleeve is structured to interface, in the open state, with the base to form a bin for receiving and transporting waste or recyclable material. The example device may further include an RFID as part of the base or the collapsible sleeve.

A receptacle storage unit, or bin has surfaces for retaining four smaller waste receptacles, or carts therein. The receptacle storage unit is formed on a pallet base with three lateral sides, and an open front through which the receptacles are removed and replaced once full. The receptacle storage unit includes two opposing walls between which two receptacles are held. At the top of the receptacles, they are held by surfaces on the opposite edges of the handle against the walls. At the bottom of the receptacles, the receptacles are held by edges at the outside of the wheels. In a central part of the receptacle, a frame of the receptacle storage unit holds the central part of the receptacle. The receptacle storage unit has surfaces and flanges enabling multiple units to be stacked on top of one another.

A device for transporting waste or recyclable material is disclosed. The device can include a base with at least one temporary attachment mechanism to secure a collapsible sleeve in an open state to the base. The device may further include a collapsible sleeve movable between an open state and a collapsed state, the collapsible sleeve including at least one opening for interfacing with the at least one temporary attachment mechanism to secure the collapsible sleeve in an open state to the base, thus forming a bin for receiving and transporting waste or recyclable material.

A waste or recycling container system is disclosed. The container system includes a container and a rigid liner for inserting into the container. The liner includes a supporting structure provided on a wall of the liner. The liner also includes bag retention structures. The liner is capable of being placed in the container in a first position and a second position. In the first position, the bag retention structures are below an opening of the container. In the second position, the supporting structure rests on a resting portion of the container walls and the liner is elevated with respect to the first position such that the bag retention structures are above the opening of the container.

Systems and methods for processing debris from job sites are disclosed. Carts for receiving the debris are also disclosed. Each cart has a base, a plurality of wheels extending downwardly from the base relative to a vertical axis, and a plurality of walls extending upwardly from the base. The walls and the base of each cart cooperate to define a debris-receiving space. The carts can be engaged by a lifting apparatus that rotates along an arcuate path to position the carts in an unloading position.

A roll-out cart includes a container body having a side wall extending upward to a mouth of the container body. A lid is pivotably connected to a rear portion of the container body. The lid is pivotable between an open position and a closed position covering the mouth of the container body. A latch selectively secures a front portion of the lid to a front portion of the container body. The latch includes an outer latch assembly having a first actuator. A guard defines a recess on the front portion of the container body. The first actuator of the latch is within the recess.

The receptacle includes an outer body, one end of the outer body forming a base, the other end of the outer body forming a rim extending inwardly from the periphery of the outer body, and at least one inner waste containing compartment extending inwardly and downwardly from the rim. The outer body, rim and at least one inner waste containing compartment are integrally formed.

An automated carting assembly includes a cart that has a plurality of garbage containers each being positioned thereon. The cart has a slidably adjustable length for accommodation a varying number of the garbage containers. A pair of rear wheels is each rotatably coupled to the cart for rolling on a support surface and each of the front wheels is steerable on the cart. A pair of front wheels is each rotatably coupled to the cart for rolling along the support surface. A pair of steering actuators is each coupled to a respective one of the front wheels for steering the cart. A pair of drive motors is each rotatably coupled to a respective one of the front wheels for driving the cart between a storage point and a pickup point.

Systems and methods for processing debris from job sites are disclosed. Carts for receiving the debris are also disclosed. Each cart has a base, a plurality of wheels extending downwardly from the base relative to a vertical axis, and a plurality of walls extending upwardly from the base. The walls and the base of each cart cooperate to define a debris-receiving space. The carts can be engaged by a lifting apparatus that rotates along an arcuate path to position the carts in an unloading position.

A container transporter systems, vehicle, and methods are disclosed. The container transporter can be automatically or manually controlled allowing for ease of use in moving a coupled container. The container transporter can be used with virtually any container, such as a refuse container. The automatic movement of the container transporter can assist users with time constrains or physical constraints in moving their refuse for pickup.