machine learning

Requirements for the Use of Digitization and AI

Requirements for the Use of Digitization and AI

Applications for increasing energy efficiency
Dennis Bode, Henry Ekwaro-Osire, Klaus-Dieter Thoben ORCID Icon
Innovative digital and AI solutions for more energy-efficient production can decisively contribute to the environmental impact and competitiveness of companies, especially in the manufacturing industry. Requirements for the functionality and implementation of these solutions are complex and diverse; multiple stakeholders need to be addressed when eliciting requirements and various technology and business aspects have to be considered. This article presents a procedure for requirements elicitation for energy efficiency digitalization and AI projects.
Industrie 4.0 Management | Volume 38 | 2022 | Edition 1 | Pages 17-22 | DOI 10.30844/I40M_22-1_17-22
Approach to the Condition Description of Technical Components

Approach to the Condition Description of Technical Components

Prediction of remaining useful life based on discretely recorded component states using mobile sensor technology
Lukas Egbert ORCID Icon, Anton Zitnikov ORCID Icon, Thorsten Tietjen, Klaus-Dieter Thoben ORCID Icon
This article describes a predictive maintenance approach in which a flexible sensor toolkit records and a prediction model monitors the component wear within technical systems. The condition of the components is not determined continuously, but based on time-discrete measurements. The prediction model predicts the presumable remaining useful life of the components based on the recorded data. A machine learning tool is trained with historical wear curves and used to generate the prediction. The training data is collected through statistical tests in which the influencing variables and characteristic curves of different types of wear are identified.
Industrie 4.0 Management | Volume 37 | 2021 | Edition 2 | Pages 35-38 | DOI 10.30844/I40M_21-2_S35-38
A Machine Learning Compass for Product Development and Production

A Machine Learning Compass for Product Development and Production

Identification and planning of machine learning algorithms in manufacturing companies
Alexander Jacob, Carmen Krahe, Rebecca Funk, Gisela Lanza ORCID Icon
Engineers are often uncertain about the application of machine learning (ML) due to the amount of different machine learning methods and the complexity of modeling. Thus, the use of ML applications in manufacturing companies remains behind the technical possibilities. This paper presents an intuitive ML guideline for engineers to reduce this uncertainty. The guideline comprises a process model with AI-based solutions to common problems of product development and production. An industrial example is used to demonstrate the functionality and the possibilities of the guide.
Industrie 4.0 Management | Volume 37 | 2021 | Edition 2 | Pages 7-11
Machine Learning in Production

Machine Learning in Production

Application areas and freely available data sets
Hendrik Mende, Jonas Dorißen, Jonathan Krauß, Maik Frye, Robert Schmitt ORCID Icon
Data sets increasing data bases and computing power as well as decreasing costs for computing and storage capacities form the basis for the use of Machine Learning (ML) in production. The challenges are the identification of promising application areas, the recognition of the associated learning tasks as well as the uncovering of suitable data sets. This article therefore answers the following questions: Which application areas in production offer the greatest potential for the use of ML? Which freely accessible data sets are suitable for gaining experience and which learning tasks are associated with them? What are best practices for the application areas?
Industrie 4.0 Management | Volume 35 | 2019 | Edition 4 | Pages 39-42 | DOI 10.30844/I40M_19-4_S39-42
Collaborative Robotics-Machine Learning by Imitation

Collaborative Robotics-Machine Learning by Imitation

Flexible Automation for SMEs Through Intelligent and Collaborative Robotic Assistants
Andrea Giusti, Dieter Steiner, Walter Gasparetto, Sebastian Bertoli, Michael Terzer, Michael Riedl, Dominik T. Matt
The trend towards customer-specific mass production poses great challenges for the classic production methods of small and medium-sized companies. The combination of flexible robotic solutions and artificial intelligence approaches is promising to enable production efficiency and fast adaptability in modern production systems. This paper presents such a solution in the form of a realized demonstrator setup composed of a collaborative robot assistant. The robotic system independently interprets the activities of a human employee and supports the employee in his or her activities by imitation.
Industrie 4.0 Management | Volume 35 | 2019 | Edition 3 | Pages 43-46 | DOI 10.30844/I40M_19-3_S46-46
Industrial Big Data: Data-Driven Process Understanding

Industrial Big Data: Data-Driven Process Understanding

Modern Information Management in Production
Thomas Thiele, Max Hoffmann, Tobias Meisen
The digital transformation led to disruptive changes in business models of leading companies. Big Data serves as one of the key enables in this area. The transfer of this concept in the production domain towards an Industrial Big Data is key challenge for producing companies. Although exemplary key projects exist, no available characterization of structural elements in Industrial Big Data Processes exists. Therefore, this article aims at presenting initial structural elements of Industrial Big Data projects based on exemplary use cases.
Industrie 4.0 Management | Volume 33 | 2017 | Edition 4 | Pages 57-60
AI-Supported System Design

AI-Supported System Design

Wenn Computer lernen, wie Computer arbeiten
Jannis Stoppe, Rolf Drechsler
To manage the increasing complexity in current hardware design processes, current systems are increasingly designed on abstract layers. While the more rapid development of prototypes is a clear advantage of this paradigm, these designs suffer from being closed up and hard to analyze. There is no simple way to extract a system’s structure from its description anymore. Nevertheless, the designers should get all the information they need during development. The computer is assisting in this process with the observation of its inner self: The simulated hardware is supervised by an artificial intelligence (AI). It learns about a system’s functions while the system itself is running. Dependencies and connections inside this system are retrieved independent from their availability, thus speeding up the development process.
Industrie Management | Volume 31 | 2015 | Edition 1 | Pages 21-24
1 2