Recycling systems can include a conveyor system, an optical device, and a processor operable to detect, identify, and count redeemable objects. The conveyor system can include a plurality of bins and be configured to move the bins from a first end of the conveyor system to a second end of the conveyor system. The optical device can be situated and configured to capture an image of a plurality of objects within a bin of the conveyor system. A processor including computer-readable instructions can be configured to detect and identify the objects within an image captured by the optical device as belonging to one or more object classes. Each object class can determine whether an object is redeemable or unredeemable. The processor can be configured to provide a count of only those objects identified as redeemable.

Recycling systems can include a conveyor system, an optical device, and a processor operable to detect, identify, and count redeemable objects. The conveyor system can include a plurality of bins and be configured to move the bins from a first end of the conveyor system to a second end of the conveyor system. The optical device can be situated and configured to capture an image of a plurality of objects within a bin of the conveyor system. A processor including computer-readable instructions can be configured to detect and identify the objects within an image captured by the optical device as belonging to one or more object classes. Each object class can determine whether an object is redeemable or unredeemable. The processor can be configured to provide a count of only those objects identified as redeemable.

A resource collection apparatus is an apparatus for collecting waste reusable as a resource. The resource collection apparatus includes an opening associated with a predetermined sorting type, an opening/closing unit configured to open and close the opening, a first detector configured to perform an operation to detect a target waste belonging to a user, and a controller configured to specify a sorting type into which the target waste is to be sorted, by using a result of the detection by the first detector. The controller switches the opening/closing unit from a closed state to an open state when the specified sorting type matches the sorting type associated with the opening.

A method and a waste handling system, wherein waste or recyclable material is transported in carrier bags, bags or sack to a disposal point, and from there onwards by a transport vehicle for further processing. An RFID identifier is used in connection with the carrier bag, bag, or sack, or used in waste transport. A closing member is provided with an RFID) identifier used in closing, or as verification of the closing of the carrier bag, bag, sack. A sensor is arranged in connection with, or in the proximity of, a disposal point, such as a waste room, of the waste system. Information read from the RFID identifier by the sensor is transmitted to a control unit, that is fitted to control the waste transport system based on the information given by the RFID identifier.

A waste sorting system uses various sensors to automatically determine whether a piece of waste is recyclable, and to dispense the waste into an appropriate waste bin of a multi-bin device, at least one of which is a recyclable waste bin. The system also uses sensors to determine a type of the waste, and it causes a display device or speaker to output information about the type of waste.

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.

An apparatus for the separate collection of rubbish includes a containing structure provided with an internal compartment in which there are a plurality of rubbish collection containers and at least a first and a second aperture for access to the internal compartment from the outside, in order to introduce the rubbish.

Systems and methods for operating a system. The methods comprise: generating sensor data by at least one sensor of a waste receptacle that specifies at least one characteristic of at least one item; performing operations by the waste receptacle to identify first media content that is associated with the at least one characteristic of the at least one item; causing the first media content to be output from the waste receptacle or an external device when the first media content is identified by the waste receptacle; and selecting second media content different from the first media content and causing the second media content to be output from the waste receptacle or the external device, when the first media content is unable to be identified by the waste receptacle.

A centralized hub system for improving automatic waste transport and collection using a self-driving robot, which allows for self-driving and efficient collection of waste in densely populated areas, such as apartment complexes and residential neighborhoods, and areas with a floating population by using robots with built-in artificial intelligence software and hardware and self-driving waste collection and driving functions and an integrated management server for monitoring these robots, and which helps to put information together in this process and use it as base data for the efficient operation of future waste policies and the corresponding systems. The centralized hub system for improving automatic waste transport and collection using a self-driving robot comprises self-driving inlet robots, an integrated management server, and a self-driving vehicle robot.

The present disclosure relates to a waste management system comprising a first waste bin having a first camera operatively configured to a controller. Images of waste captured by the first camera are analyzed by the controller to ensure that the waste is a plastic waste. Further, a categorization mechanism executing at the controller classifies the plastic waste in at least one of a plastic category using a machine learning mechanism. The system comprises a motor for shredding the plastic waste and a sieve for collecting the shredded plastic waste. Containers attached at an end of the sieve receive and store the shredded plastic waste. The system comprises a second waste bin having a second camera for capturing images of the general/wet waste and categorizing the images to alert user about potential food waste. Categorized wet waste is collected in the second bin.