Methods of rapidly debonding encapsulant in solar modules and disassembling the modules for reuse or recycling of components. Electromagnetic radiation is applied to a solar module in a temperature and humidity-controlled environment to debond the encapsulant layers. Peel blocks are used to separate the front layer and back sheet of the module from the solar cells. The components are then sorted for reuse or recycling of valuable materials. The embodiments described also include a system of performing the methods that can be arranged in one or more shipping containers to be delivered to a solar module decommissioning site.

Methods of rapidly debonding encapsulant in solar modules and disassembling the modules for reuse or recycling of components. Electromagnetic radiation is applied to a solar module in a temperature and humidity-controlled environment to debond the encapsulant layers. Peel blocks are used to separate the front layer and back sheet of the module from the solar cells. The components are then sorted for reuse or recycling of valuable materials. The embodiments described also include a system of performing the methods that can be arranged in one or more shipping containers to be delivered to a solar module decommissioning site.

In one embodiment, an inventory storage module has a plurality of conveyor segments that define a movement path that is elongate along a longitudinal direction from a first end of the storage to a second end of the module. The module has a plurality of container carriers that are supported by the conveyor segments. Each container carrier supports at least one inventory storage container that supports at least one inventory item therein. The storage module can transfer the container carriers around the movement path until a desired one of the container carriers is presented at one of the first and second module ends. In another embodiment, a plurality of instances of the storage module are arranged in a vertical stack of independently controllable storage modules.

A level compensator system may be configured to receive containers of different heights and position them at the same level. The level compensator system can include engagement platforms for engaging with the containers. The engagement platforms can move between an engagement configuration for engaging with the containers and a conveyance configuration for conveying of the containers relative to the level compensator.

A plate delivery system provides storage for plates in a first-in, last-out configuration. As the kitchen staff completes a meal (plated), the plate holding the meal is presented to the plate delivery system and the plate moves into the plate delivery system to be ready for the next plate. After a number of plates are stored in the plate delivery system, the plate delivery system is transported from the kitchen to the eating area (e.g., restaurant table or banquet table) and each plate is sequentially presented to a delivery mechanism (e.g., a robot or a waitperson) for final delivery to the table. In some embodiments, the plate delivery system is enclosed and has a cover mechanism to prevent food contamination by foreign matter and in some embodiments, the plate delivery system has heating/cooling mechanisms to help keep warm food warm or cool food cool.

Systems are disclosed for dispensing, weighing, identifying, processing, and/or printing tag identifiers for items (e.g., bulk food items). In one embodiment, a storage system includes a scoop bin configured to store a product, wherein the scoop bin has a lid configured to be moved between a closed position and an open position, and wherein the product is configured to be scooped out of the scoop bin by a customer when the lid is in the open position. The system further includes a sensor configured to monitor a movement of the scoop bin, wherein the sensor is configured to transmit a notification to the computing device identifying the movement of the scoop bin. A printer is configured to receive an instruction from the computing device to automatically print a label identifying the product stored in the scoop bin following the computing device receiving the notification of the movement.

Systems are disclosed for dispensing, weighing, identifying, processing, and/or printing tag identifiers for items (e.g., bulk food items). In one embodiment, a storage system includes a scoop bin configured to store a product, wherein the scoop bin has a lid configured to be moved between a closed position and an open position, and wherein the product is configured to be scooped out of the scoop bin by a customer when the lid is in the open position. The system further includes a sensor configured to monitor a movement of the scoop bin, wherein the sensor is configured to transmit a notification to the computing device identifying the movement of the scoop bin. A printer is configured to receive an instruction from the computing device to automatically print a label identifying the product stored in the scoop bin following the computing device receiving the notification of the movement.

Item-management systems, apparatus, and methods are described, preferably for management of items such as medicaments. In embodiments, an item-management system comprises a container defining plural cells, a docking station configured to receive the container, sources of visible information to indicate the cell(s) into which an item is to be loaded, and at least one controller operable to control the visible information sources to indicate the cell into which the item is to be received.

Item-management systems, apparatus, and methods are described, preferably for management of items such as medicaments. In embodiments, an item-management system comprises a container defining plural cells, a docking station configured to receive the container, sources of visible information to indicate the cell(s) into which an item is to be loaded, and at least one controller operable to control the visible information sources to indicate the cell into which the item is to be received.

An apparatus is disclosed that provides a storage system designed to allow pickers to easily and efficiently pull products from all portions of the storage system from a single side of the storage system. The storage system includes a first storage rack that has a first plurality of columns and a first platform extending from one of the first plurality of columns. An outer edge of the first platform forms an end of the first storage rack. Positioned adjacent to the first storage rack is a second storage rack with a second plurality of columns and a second platform that extends from one of the second plurality of columns, where an outer edge of the second platform forms an end of the second storage rack. An aisle is formed by a predetermined distance between the outer edges of the first and second platforms.