Target Brands, Inc.

Carlos A Loza

Gervasio Mutarelli

Ernesto Saldana Pena

Gregory Lisso

Justin Feider

Michael G Frank

Michael R Tripp

Thomas E McMillan

Slade A Lewis

David J Sales

Azariah J Israel

Sukie C Ewald

Jeremy J Gustin

Max A Kondrath

Noah S Paley

This document describes systems and methods for enhancing the efficiencies of order fulfillment and inventory management processes. For example, this document describes automated robotic systems that can autonomously pick and place a particular quantity of desired items from a container that is storing the items. The autonomous robotic systems can thereby facilitate order fulfillment and inventory management processes in an efficient manner. In particular, the systems and methods described herein can greatly reduce the amount of time required for a human worker to pick orders. Accordingly, the efficiency of item picking processes, as measured by the number of line items picked per human labor hour for example, is greatly enhanced.

Automated item picking systems and methods

Warehouse automation and methods of automatically sorting and sequencing items can be implemented to streamline and expedite order fulfillment and store replenishment processes in a cost-effective manner. Some embodiments described herein include: (i) picking or retrieving items from an inventory storage area, (ii) decanting individual items and placing them on carriers of a high-speed sorting and conveyance system, and (iii) final sortation as per customer orders. In some embodiments, the high-speed sorting and conveyance system includes multiple shuttles that each carry an individual item to a designated final order sortation system.

Systems and methods for high-speed warehouse order sortation

Warehouse automation and methods of handling materials can be used to enhance the safety and efficiencies of warehouse operations. For example, automation systems and methods that make depalletization processes safer and more efficient are described. In some examples, the depalletization systems described herein include multiple work cells/stations and a depalletization robot that traverses the work cells/stations on a rail so the robot can autonomously move between the stations.

Door and light curtain control system for depalletization systems and methods

A sled includes a deck having a top surface and a cradle section configured to hold a shipping vessel. The cradle section includes a length that extends from a back of the deck towards a front of the deck. First and second wedges extend at least the length of the cradle section and each include at least an outer facing surface and an upper facing surface. The outer facing surface of the first wedge defines a first side of the cradle section and the outer facing surface of the second wedge defines a second side of the cradle section. The upper facing surfaces of each of the first wedge and the second wedge is oriented at an angle relative to the top surface of the deck such that each upper facing surface of each wedge slopes downwardly from an outer edge to an opposing inner edge.

Sled configured for shipping vessel

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Sunnyvale, CA, United States of America

Carlos A Loza