Automation

Robotic Process Automation (RPA) in Logistics − Implementation Model and Success Factors

Robotic Process Automation (RPA) in Logistics − Implementation Model and Success Factors

Vorgehensmodell und Erfolgsfaktoren für die Implementierung
Carsten Feldmann, Jan Krakau, Victor Kaupe
RPA refers to bots that automate repetitive, rulebased tasks in a business process. This paper describes general areas of application for RPA in logistics as well as two practical logistics examples. In addition, a procedure model for the implementation of RPA in logistics is presented. The paper answers the following questions: What are suitable use cases for RPA in logistics? What criteria support the selection of suitable processes? And how should an implementation guide be designed to systematically support an implementation project taking into account critical success factors?
Industrie 4.0 Management | Volume 38 | 2022 | Edition 3 | Pages 35-40
Digital Assistance and Learning Systems

Digital Assistance and Learning Systems

Design of Systems for Manual Assembly Conducive to Learning
Tina Haase, Dirk Berndt, Wilhelm Termath, Michael Dick
The authors present a methodological approach for designing assistance systems conducive to learning and derive requirements for their design. They base the design of these systems on a fundamental understanding of the cooperation between humans and machines, which still places decisions and responsibility with humans. Finally, the authors show concrete requirements and measures of a participatory design and implementation process.
Industrie 4.0 Management | Volume 38 | 2022 | Edition 2 | Pages 19-22
Container Terminal Automation − Success Factors for the Management of Straddle Carrier Automation

Container Terminal Automation − Success Factors for the Management of Straddle Carrier Automation

Erfolgsfaktoren für das Management der Automatisierung von Straddle Carriern
Sebastian Eberlein, Stephan Oelker, Serge Jacovis, Vanessa Beckmann, Michael Freitag ORCID Icon
Efficiency in container terminal operations is key for competitiveness. Many large German terminals use the flexible but relatively risk-laden manned straddle carriers (SCs). The research project STRADegy evaluated the reliability and profitability of automated SCs in northern-German container terminals via a combination of a pilot installation and an emulation at the container terminal in Wilhelmshaven. Parallel to that, rollout-guidelines were developed. This paper introduces central results regarding a successful rollout of auto-SC-systems.
Industrie 4.0 Management | Volume 37 | 2021 | Edition 6 | Pages 6-10
The Path from Automation to Autonomy

The Path from Automation to Autonomy

Evolutionary Steps of a Fully Autonomous Logistics Process in Manufacturing Companies
Benjamin Nitsche, Tobias Marc Wringe, Frank Straube
The automation of informational logistics processes is already one of the core challenges of manufacturing firms on their way to autonomous logistics systems. It is quite realistic that the majority of informational logistics processes will be running autonomously by the end of this decade. However, the path to this goal is still uncertain. Therefore, this article aims at defining the evolutionary stages of autonomy of logistics processes with the involvement of industry experts, describing prerequisites for reaching individual stages and discussing challenges along the way. In addition, the most important informational logistics processes with high autonomization potential are identified and an estimate is made of when the autonomy levels can be expected to be reached industry-wide.
Industrie 4.0 Management | Volume 37 | 2021 | Edition 6 | Pages 15-19
Industry 4.0 in Remanufacturing

Industry 4.0 in Remanufacturing

Analysis and evaluation of current research approaches
Kim Sprenger, Jan-Felix Klein, Marco Wurster, Nicole Stricker, Gisela Lanza ORCID Icon, Kai Furmans
Remanufacturing, previously characterized by manual and cost-intensive processes, is a critical step on the way to a resource-efficient circular economy. Industry and research agree that the introduction of Industry 4.0 technologies is the key to the development of automated and economical remanufacturing systems. Based on a systematic literature review, this paper is dedicated to the analysis of promising Industry 4.0 approaches with a focus on the overall process as well as the sub-processes of disassembly and inspection. The results suggest that there is a need for additional knowledge, experience and research in the development and real demonstration of the approaches and their transferability to broader application fields.
Industrie 4.0 Management | Volume 37 | 2021 | Edition 4 | Pages 37-40 | DOI 10.30844/I40M_21-4_S37-40
Smart Factory

Smart Factory

Reducing lead time in toolmaking by 90%
Christian Ludwig, Hilmar Gensert, Thomas Farrenkopf, Thomas Panske
Smart Factory is the vision of a production environment in which manufacturing plants and logistics systems organize themselves as far as possible without human intervention. The article describes a project, at the start of which none of the participants created a relation to “Smart Factory” or “Industry 4.0”. Rather, the objective was to drastically reduce the current delivery time of 6-8 weeks. The result is a completely digitized business process from order creation, product development, design, manufacturing as well as processing for “batch size 1” with a reduction in lead time to less than 10 %.
Industrie 4.0 Management | Volume 37 | 2021 | Edition 4 | Pages 29-33 | DOI 10.30844/I40M_21-4_S29-33
IT-supported Process Management

IT-supported Process Management

Status and Use Cases in the Construction Industry
Tim Scherzinger, Sabrina Guschlbauer, Fabian Diefenbach ORCID Icon
The construction industry has taken first steps towards digitalized processes with the use of Building Information Modeling (BIM) systems and the modelling of processes. However, there are few successful examples of IT-supported processes in the largely manual construction phase. This article provides insights from a practical study, which examined the implementation of a workflow management system as a potential next step.
Industrie 4.0 Management | Volume 37 | 2021 | Edition 3 | Pages 58-62 | DOI 10.30844/I40M_21-3_S58-62
Humans in Industry 4.0

Humans in Industry 4.0

A process model for a practice-oriented analysis
Sven Winkelhaus, Anke Sutter, Eric Grosse ORCID Icon, Stefan Morana
The development of Industry 4.0 changes the role of humans in operations systems. In sociotechnical systems, there is ongoing interaction between humans and technology, impacting human life and work. However, human factors are broadly ignored in research on Industry 4.0 technologies and implementation. In this work, a process model is described that supports the evaluation of the impact of a technology implementation on human factors and performance indicators. This can avoid negative consequences for employees as well as phantom profits and can contribute to a successful digital transformation.
Industrie 4.0 Management | Volume 37 | 2021 | Edition 3 | Pages 45-48 | DOI 10.30844/I40M_21-3_S45-48
Necessary Further Developments for the Success of Industry 4.0

Necessary Further Developments for the Success of Industry 4.0

Dirk Schmalzried
Based on known deficits, the article recommends measures for a successful realization of the concept Industry 4.0 on the levels “Business”, “Functional” and “Information” of the RAMI-4.0-Framework. The technical foundations to meet the expectations of Industry 4.0 and Smart Manufacturing are in place; a correction of the named deficits in the near future seems realistic.
Industrie 4.0 Management | Volume 36 | 2020 | Edition 5 | Pages 58-62
The Loop of Cognition

The Loop of Cognition

How “intelligence” is constellated on a silicon basis
Claus Riehle, Thorsten Pötter, Thomas Steckenreiter
In process engineering, one thinks of production operations that are controlled or regulated by sensors and actuators. And any realization of matter transformation is based on a physical substratum, which holds equally for living systems and their behaviour. The article distinguishes between three system levels: the functional level, the interface to the environment and the cognitive level of. Using these three levels, the learning cycle or the previous Cognitive Loop can be very well illustrated. If one compares with this way of distinction the Bio-Informatization of human intelligence with the technical development stages of mechanization, automation, regulation and deep learning, then the cybernetic-sociological term “operational closure” becomes understandable. It becomes obvious that in the context of a digitized culture of production and organization, we should be prepared for a new kind of cognitive loop based on silicon (SI), an intelligent system behavior via ...
Industrie 4.0 Management | Volume 36 | 2020 | Edition 2 | Pages 52-56 | DOI 10.30844/I40M_20-2_S52-56
1 3 4 5 6