The warehouses of the future will come in a variety of forms, but with a few common ingredients. Firstly, human operational handling of items in warehouses is increasingly being replaced by automated item handling. Extended warehouse automation counteracts the scarcity of human operators and supports the quality of picking processes. Secondly, the development of models to simulate and analyse warehouse designs and their components facilitates the challenging task of developing warehouses that take into account each customer’s individual requirements and logistic processes.
Automation in Warehouse Development addresses both types of automation from the innovative perspective of applied science. In particular, it describes the outcomes of the Falcon project, a joint endeavour by a consortium of industrial and academic partners. The results include a model-based approach to automate warehouse control design, analysis models for warehouse design, concepts for robotic item handling and computer vision, and autonomous transport in warehouses.
Automation in Warehouse Development is targeted at both academic researchers and industrial practitioners. It provides state-of-the art research on warehouse automation and model-based warehouse design. These topics have been addressed from a systems engineering perspective by researchers from different disciplines including software, control, and mechanical engineering, with a clear focus on the industrial applications of their research.
Automation in Warehouse Development | Roelof Hamberg (Editor), Jacques Verriet (Editor) | Springer
Table of Contents
Chapter 1: The Falcon Project: Model-Based Design of Automated Warehouses
Chapter 2: A Reference Architecture Capturing Structure and Behaviour of Warehouse Control
Chapter 3: Decentralised Warehouse Control Through Agent Organisations
Chapter 4: Model-Driven Software Engineering
Chapter 5: Aggregate Models of Order-Picking Workstations
Chapter 6: Model Support for New Warehouse Concept Development
Chapter 7: Warehouse System Configuration Support Through Models
Chapter 8: An Industrial Solution to Automated Item Picking
Chapter 9: Underactuated Robotic Hands for Grasping in Warehouses
Chapter 10: Item Recognition, Learning, and Manipulation in a Warehouse Input Station
Chapter 11: Object Recognition and Localisation for Item Picking
Chapter 12: Integration of an Automated Order-Picking System
Chapter 13: Self-Localisation and Map Building for Collision-Free Robot Motion
Chapter 14: Flexible Transportation in Warehouses
Chapter 15: Reflections on the Falcon Project