An embodiment relates to a trash collection device comprising a trash receptacle with a unique identification and an opening to receive a class of trash; an identification scanner for recognizing a user; a trash item counter; a fill level sensor; a display configured to interact with the user; a compactor; a solar panel configured to charge a battery; a data communicator configured to communicate date to a cloud storage; a processor configured to generate incentive for the user; wherein the trash collection device is configured to be modular and configurable to connect with another similar trash collection device to enable to collect additional trash class and is configured to interact with each other through a common software. The device, method and system are further used to generate recycling analytics by using the stored data to provide incentives to users and to facilitate planning of downstream operations.

An embodiment relates to a trash collection device comprising a trash receptacle with a unique identification and an opening to receive a class of trash; an identification scanner for recognizing a user; a trash item counter; a fill level sensor; a display configured to interact with the user; a compactor; a solar panel configured to charge a battery; a data communicator configured to communicate date to a cloud storage; a processor configured to generate incentive for the user; wherein the trash collection device is configured to be modular and configurable to connect with another similar trash collection device to enable to collect additional trash class and is configured to interact with each other through a common software. The device, method and system are further used to generate recycling analytics by using the stored data to provide incentives to users and to facilitate planning of downstream operations.

The lid comprises a horizontal front surface, a horizontal rear surface, and a recycling chute disposed between the horizontal front surface and the horizontal rear surface. The recycling chute comprises a front surface having an opening, a first sidewall connected with the front face, a second sidewall connected with the front face, and an angled top surface. The angled top surface is connected to the front surface, the first sidewall, the second sidewall, and the horizontal rear surface and the angled top surface is angled downward from the front surface towards the horizontal rear surface. The opening comprises an obround slot and a widened central section, with the widened central section being a cut out in the front surface above the obround slot.

An embodiment relates to a trash collection device comprising a trash receptacle with a unique identification and an opening to receive a class of trash; an identification scanner for recognizing a user; a trash item counter; a fill level sensor; a display configured to interact with the user; a compactor; a solar panel configured to charge a battery; a data communicator configured to communicate date to a cloud storage; a processor configured to generate incentive for the user; wherein the trash collection device is configured to be modular and configurable to connect with another similar trash collection device to enable to collect additional trash class and is configured to interact with each other through a common software. The device, method and system are further used to generate recycling analytics by using the stored data to provide incentives to users and to facilitate planning of downstream operations.

The lid comprises a horizontal front surface, a horizontal rear surface, and a recycling chute disposed between the horizontal front surface and the horizontal rear surface. The recycling chute comprises a front surface having an opening, a first sidewall connected with the front face, a second sidewall connected with the front face, and an angled top surface. The angled top surface is connected to the front surface, the first sidewall, the second sidewall, and the horizontal rear surface and the angled top surface is angled downward from the front surface towards the horizontal rear surface. The opening comprises an obround slot and a widened central section, with the widened central section being a cut out in the front surface above the obround slot.

Methods and apparatus for maintaining a sanitary disposal and storage bin for consumed medical products using a storage bin with a liner bag and an attached shielding grommet in the shape of a circle flattened on one end which, when soiled, may itself be placed in the liner bag within the container.

Methods and apparatus for maintaining a sanitary disposal and storage bin for consumed medical products using a storage bin with a liner bag and an attached shielding grommet in the shape of a circle flattened on one end which, when soiled, may itself be placed in the liner bag within the container.

This multiplant bioactive composting pot of chosen shape, size, and material has a central composting chamber (1) with two or more outer plant chambers(2) separated by a partition (4) forming soil loaded plant and waste loaded composting parts. Each plant chamber has water drain hole (6) on the side, an inside a stem support insert (7) and is filled with soil. The compost chamber is pre-coated with composting microbes. The compost chamber has a lid (3)in rainy& snowy areas. The waste is composted in few days. The plant roots grow into partition holes (5) and suck up this nutrition for faster growth and more yield. Any excess water is drained out by hole (6) in the soil part. Series of these pots form an organic garbage garden to add nutrition and clean up air too.

Methods and apparatus for maintaining a sanitary disposal and storage bin for consumed medical products using a storage bin with a liner bag and an attached shielding grommet in the shape of a circle flattened on one end which, when soiled, may itself be placed in the liner bag within the container.

A material removal system includes a collection conduit having a distal end that is positionable adjacent particulate material. A primary particle separator system connected to the collection conduit separates quantities of particulate material entrained in an air stream. A secondary particle separator system connected to an outlet of the primary particle separator system separates additional quantities of particulate material entrained in an air stream exiting the primary particle separator system. An air pump connected to an outlet of the secondary particle separator system creates an airflow through the collection conduit and the primary and secondary particle separator systems. A conveyor system operatively associated with material discharge ports of the primary and secondary particle separator systems collects separated particulate material from the material discharge ports of the primary and secondary particle separator systems and transports the separated particulate material to a material discharge end of the conveyor system.