TY - JOUR
T1 - Artificial cognition in production systems
AU - Bannat, Alexander
AU - Bautze, Thibault
AU - Beetz, Michael
AU - Blume, Juergen
AU - Diepold, Klaus
AU - Ertelt, Christoph
AU - Geiger, Florian
AU - Gmeiner, Thomas
AU - Gyger, Tobias
AU - Knoll, Alois
AU - Lau, Christian
AU - Lenz, Claus
AU - Ostgathe, Martin
AU - Reinhart, Gunther
AU - Roesel, Wolfgang
AU - Ruehr, Thomas
AU - Schuboe, Anna
AU - Shea, Kristina
AU - Stork Genannt Wersborg, Ingo
AU - Stork, Sonja
AU - Tekouo, William
AU - Wallhoff, Frank
AU - Wiesbeck, Mathey
AU - Zaeh, Michael F.
N1 - Funding Information:
Manuscript received December 10, 2009; accepted February 18, 2010. Date of publication July 26, 2010; date of current version January 07, 2011. This paper was recommended for publication by Associate Editor Y. Ma and Editor M. Zhou upon evaluation of the reviewers’ comments. This ongoing work is supported by the DFG Excellence Initiative Research Cluster Cognition for Technical Systems—CoTeSys, see www.cotesys.org for further details.
PY - 2011/1
Y1 - 2011/1
N2 - Today's manufacturing and assembly systems have to be flexible to adapt quickly to an increasing number and variety of products, and changing market volumes. To manage these dynamics, several production concepts (e.g., flexible, reconfigurable, changeable or autonomous manufacturing and assembly systems) were proposed and partly realized in the past years. This paper presents the general principles of autonomy and the proposed concepts, methods and technologies to realize cognitive planning, cognitive control and cognitive operation of production systems. Starting with an introduction on the historical context of different paradigms of production (e.g., evolution of production and planning systems), different approaches for the design, planning, and operation of production systems are lined out and future trends towards fully autonomous components of an production system as well as autonomous parts and products are discussed. In flexible production systems with manual and automatic assembly tasks, human-robot cooperation is an opportunity for an ergonomic and economic manufacturing system especially for low lot sizes. The state-of-the-art and a cognitive approach in this area are outlined. Furthermore, introducing self-optimizing and self-learning control systems is a crucial factor for cognitive systems. This principles are demonstrated by a quality assurance and process control in laser welding that is used to perform improved quality monitoring. Finally, as the integration of human workers into the workflow of a production system is of the highest priority for an efficient production, worker guidance systems for manual assembly with environmentally- and situationally dependent triggered paths on state-based graphs are described in this paper.
AB - Today's manufacturing and assembly systems have to be flexible to adapt quickly to an increasing number and variety of products, and changing market volumes. To manage these dynamics, several production concepts (e.g., flexible, reconfigurable, changeable or autonomous manufacturing and assembly systems) were proposed and partly realized in the past years. This paper presents the general principles of autonomy and the proposed concepts, methods and technologies to realize cognitive planning, cognitive control and cognitive operation of production systems. Starting with an introduction on the historical context of different paradigms of production (e.g., evolution of production and planning systems), different approaches for the design, planning, and operation of production systems are lined out and future trends towards fully autonomous components of an production system as well as autonomous parts and products are discussed. In flexible production systems with manual and automatic assembly tasks, human-robot cooperation is an opportunity for an ergonomic and economic manufacturing system especially for low lot sizes. The state-of-the-art and a cognitive approach in this area are outlined. Furthermore, introducing self-optimizing and self-learning control systems is a crucial factor for cognitive systems. This principles are demonstrated by a quality assurance and process control in laser welding that is used to perform improved quality monitoring. Finally, as the integration of human workers into the workflow of a production system is of the highest priority for an efficient production, worker guidance systems for manual assembly with environmentally- and situationally dependent triggered paths on state-based graphs are described in this paper.
KW - Adaptive control
KW - assembly systems
KW - assistance systems
KW - autonomous processes
KW - cognitive factory
KW - computer aided design
KW - computer aided process planning
KW - computer integrated manufacturing
KW - computer-aided manufacturing
KW - flexible manufacturing systems
KW - human-robot cooperation
KW - manufacturing systems
KW - multi-agent systems
KW - paradigms of production
KW - production planning and control
KW - quality assurance
KW - radio-frequency identification
KW - reconfigurable manufacturing systems
UR - http://www.scopus.com/inward/record.url?scp=78651075251&partnerID=8YFLogxK
U2 - 10.1109/TASE.2010.2053534
DO - 10.1109/TASE.2010.2053534
M3 - Article
AN - SCOPUS:78651075251
SN - 1545-5955
VL - 8
SP - 148
EP - 174
JO - IEEE Transactions on Automation Science and Engineering
JF - IEEE Transactions on Automation Science and Engineering
IS - 1
M1 - 5524092
ER -