A system, method and device for waste measurement for garbage truck fleets operated by waste pickup service are provided. The waste measurement device comprises one or more visible light cameras; one or more volume sensors; and a controller. The waste measurement device is deployed in front of a hopper of the garbage truck and the device is configured to measure the waste volume in the hopper using the volume sensors. The method calculates the waste volume emptied from the waste container by at least subtracting the measurement of the volume in the hopper before loading from the measurement of the volume after loading. The system manages the waste pickup services having garbage truck fleet with the waste measurement devices. The system optimizes and monitors the system operation conditioned upon the measurements provided from the waste measuring devices.

According to an embodiment of the present invention, a container collecting apparatus is provided. The container collecting apparatus includes: a container input unit for at least temporarily accommodating a container inserted; and a collection unit provided below the container input unit to collect the container transferred from the container input unit, wherein the container input unit includes: a holding unit on which the container is seated; an opening penetratively formed at one side of the holding unit to transfer the container to the collection unit; and a transfer unit provided with a transfer plate for transferring the container put on the holding unit to the opening by moving from the opposite side of the holding unit toward the opening.

Waste chute devices and methods for using the same are provided. In some embodiments, a method for operating waste chutes comprises: receiving, using a hardware processor of a waste chute device, an identity associated with a user of the waste chute device; in response to receiving the identity associated with the user, allowing, using the hardware processor, a door of the waste chute device to be opened; determining, using the hardware processor, a number of items and at least one type associated with the items that have been placed in an opening of the waste chute device; determining, using the hardware processor, that the door of the waste chute device has been closed; updating, using the hardware processor, information associated with the user based on the number of items and the at least one type of items that have been placed in the opening of the waste chute device; and providing, using the hardware processor, the user with the updated information.

A personal hygiene product disposal apparatus for sealing personal hygiene products in a sanitary manner includes a housing having a housing inside. A plurality of doors is coupled to the housing and comprises a first door coupled to a first aperture extending through the housing front side, a second door coupled to a second aperture extending through the housing front side, and a third door coupled to a third aperture extending through the housing front side. A bag dispenser is coupled within the housing inside adjacent the first aperture. The bag dispenser has a waste bag accessible through the bag slot and is configured to receive a personal hygiene product. A bag sealer is coupled within the housing inside adjacent the second aperture. A cutter is coupled within the housing inside adjacent the third aperture. The cutter separates the sealed portion of the waste bag for removal from the apparatus.

The present disclosure describes a computer-implemented method for determining and reporting compliance with rules regarding discarded material from an originating site. The method may include obtaining, for each batch of a plurality of batches of discarded material, identification information of a respective originating site, capturing image data for each batch and associating the identification and image data. The identification and image data may be sent to a server having rules regarding the discarded material. The server may then determine data regarding compliance and generate a report including data regarding compliance with the rules regarding the discarded material for each originating site.

A trash container includes a container unit and an ultrasonic deodorizing device. The container unit includes a container having a top opening and a container cavity, and a container cover being moved between an opened position and a closed position. The ultrasonic deodorizing device includes a deodorizing carrier supported above the top opening of the container body for containing deodorant in liquid form, an ultrasonic nozzle operatively coupled at the deodorizing carrier for downwardly injecting the deodorant in an atomization manner below the top opening of the container body, and a nozzle controller configured to control and activate the ultrasonic nozzle.

Systems and methods for determining shrinkage of a commodity sold by a store are provided which may include: identifying data indicative of a volume of the commodity, associating a label with a container that holds the commodity, collecting the label information with a reader and transmitting collected label information to at least one server, automatically determining data characterizing the material in the container, associating the label information and the data characterizing the material in the container, and determining performance data related to the commodity by comparing the data indicative of the volume of the commodity supplied to the store, the data indicative of the volume of the commodity sold by the store, and the data characterizing the material in the container.

A recycling system for recycling reusable objects comprises one or more separating and receiving apparatuses and at least one recyclable object. The separating and receiving apparatus for separating reusable objects and residual waste comprises: a first receiving container for receiving residual waste; a second receiving container for receiving labeled objects; and a sorting device. The sorting device is designed to detect labeled objects, transfer detected objects to the second receiving container, and transfer other objects to the first receiving container.

Provided is an automatic classification system. The automatic classification system is designed based on a YOLOV3 technical framework, so that garbage can be classified and recycled, garbage pollution is reduced, and waste is recycled at the maximum cost. The system is designed with a box of a double-layer structure, wherein an upper box is provided with a garbage throwing-in opening, a camera is mounted at the upper box, and the upper top of the upper box is provided with an partition layer for the installation of a solar panel and a storage battery, so as to meet the power supply requirement of the system. The camera captures thrown-in garbage and uses the recognition algorithm to recognize and classify the garbage classes. A lower box is designed into a double-box structure or a multi-box structure according to the class of the garbage, a mechanical and electric control part is arranged at the joint of the upper box and the lower box, two steering engines are used for respectively controlling the rotation of control baffles and a classification baffle so as to automatically drive the garbage to fall into classification boxes corresponding to the class of the garbage. The automatic classification of the garbage can be realized by the disclosure.

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.