Provided is a method for managing garbage disposal credit reporting. The method comprises: a smart garbage can performing online real-time marking of bagged garbage, photographing scattered garbage after it is disposed of, and a system obtaining information transmitted by the smart garbage can, after each time garbage is disposed of, the smart garbage can saving for a certain period of time the traceable information generated by the disposed garbage; when inspecting the disposed garbage, if a delivery error is discovered, the inspecting client uploading the erroneous marking information on the garbage bag and uploading the erroneous scattered garbage photograph, in order to evaluate the credit of the person who throws garbage into the garbage according to whether the information about the type of garbage disposed is correct.

A waste container monitoring system may include a monitoring device configured to be positioned in a waste container, a remote processing system, and sensors to monitor conditions of the container. A communication connection communicates the one or more conditions to the remote processing system. A waste compactor monitoring system may include a monitoring assembly having a hub device and one or more sensors connected to the hub device and distributed around the waste compactor system, the one or more sensors being configured to monitor one or more conditions of the waste compactor system. A sensor assembly for a waste container monitoring system may connect to a hydraulic reservoir in a waste compactor. The sensor assembly may include a breather cap, a sensing element for detecting a level and/or a temperature of fluid in the hydraulic reservoir, and a dip tube to support the sensing element inside the hydraulic reservoir.

A waste container monitoring system may include a monitoring device configured to be positioned in a waste container, a remote processing system, and sensors to monitor conditions of the container. A communication connection communicates the one or more conditions to the remote processing system. A waste compactor monitoring system may include a monitoring assembly having a hub device and one or more sensors connected to the hub device and distributed around the waste compactor system, the one or more sensors being configured to monitor one or more conditions of the waste compactor system. A sensor assembly for a waste container monitoring system may connect to a hydraulic reservoir in a waste compactor. The sensor assembly may include a breather cap, a sensing element for detecting a level and/or a temperature of fluid in the hydraulic reservoir, and a dip tube to support the sensing element inside the hydraulic reservoir.

An enhanced local node to be installed to a waste collection site. A radio interface unit is configured for communication using signals specified for radio access in a radio access network, and a radar unit is configured to use information on received or transmitted signals of the radio interface unit to determine a distance from the local node to refuse objects inside a container. The local node thus uses the same signals to detect a fill state of a container and to transmit the fill state of the container from the local node to the control node.

A disposal unit includes a housing surrounding a cavity and an indication slot formed in the housing. An indicator system is mounted within the housing and includes an indicator arm movable between a start point not aligned with the indication slot and an end point aligned with the indication slot. When the indicator arm is in the start position, the indicator arm is configured to transition from the start point to the end point upon opening of a door of the housing. Conversely, when the indicator arm is in the end position, the indicator arm is configured to remain in the end point upon opening of the door of the housing.

A disposal unit includes a housing surrounding a cavity and an indication slot formed in the housing. An indicator system is mounted within the housing and includes an indicator arm movable between a start point not aligned with the indication slot and an end point aligned with the indication slot. When the indicator arm is in the start position, the indicator arm is configured to transition from the start point to the end point upon opening of a door of the housing. Conversely, when the indicator arm is in the end position, the indicator arm is configured to remain in the end point upon opening of the door of the housing.

Devices, systems and methods for providing a mechanical flag indicator device that can be used to keep a refuse container lid closed, while being in a down position or in a raised position prevents the lid from being raised to a vertical position perpendicular to a top of the container. When the refuse container is turned upside down to be emptied, the hinged lid on the refuse container opens up to a less 90 degree position limited by the flag indicator moves to its' limited raised position. When the refuse container is turned right side up, the flag indicator remains in the raised position, which indicates to the user/consumer that the refuse container has been emptied. Overtime the lid will fall back on its' own weight to close over the top opening to the refuse container.

Methods, non-transitory computer readable media, and waste collection apparatuses are disclosed that provide artificial intelligence based waste management and optimized waste collection scheduling. In some examples, an artificial intelligence model can be used to classify images of waste and determine whether a correct waste type is deposited in a collection bin. In other examples, utilization data is periodically received via communication network(s) from a waste collection device within a collection area. The utilization data is determined from sensor data obtained at the waste collection device. A waste collection schedule is determined for the waste collection device based on the utilization data for the waste collection device and stored historical utilization data for other waste collection device(s) within the collection area. The determined waste collection schedule is then provided to an operational management device via other communication network(s) to facilitate more efficient waste collection for the collection area.

A refuse bag roll comprises a plurality of refuse bags (10.sup.IV) which have at least two refuse bag areas (16.sup.IV-1, 16.sup.IV-2, 16.sup.IV-3 and 16.sup.IV-4), which may be filled from a common side (filling opening), and which are each separable from the refuse bag non-destructively, so that the refuse bag areas (16.sup.IV-1, 16.sup.IV-2, 16.sup.IV-3 and 16.sup.IV-4) each form separate refuse bags after separation from the refuse bag.

The present disclosure relates to securable recycling receptacles. In one example, a securable recycling receptacle includes a housing defining a housing cavity, a lid coupled to the housing by a hinge that is coupled to a first side of the lid, an opening defined in a top surface of the lid, and a locking mechanism coupled to a second side of the lid. A size of the opening is about a size of a regulated recyclable and the size of the opening limits access to the housing cavity. The locking mechanism secures the lid to the housing to prevent opening the lid to access the housing cavity. The securable recycling receptacle is configured for recycling regulated recyclables in compliance with laws or regulations related to disposal of the regulated recyclables.