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Archive for the ‘Digital Twin’ Category

PROSTEP whitepaper about Digital Twin and Digital Consistency

Wednesday, July 31st, 2019

PROSTEP has published a white paper covering a number of important aspects to consider when implementing a Digital Twin. These include what information should be included in these twins, how they can be structured, and what role cloud and platforms play for Digital Twin applications. The white paper underlines the importance of digital consistency.

PROSTEP has published a white paper covering a number of important aspects to consider when implementing a Digital Twin. These include what information should be included in these twins, how they can be structured, and what role cloud and platforms play for Digital Twin applications. The white paper underlines the importance of digital consistency.

For some years now, digitalization has been the central future topic for German industry. The manufacturing industry in particular is shaping the digital future of production with many initiatives, often inspired by the Industry 4.0 future project launched by the German government in 2012. Industry 4.0 is the manufacturing-focused variant of the digital transformation process that needs to be successfully shaped for society as a whole. In particular, the digital future of production goods that were previously completely dominated by mechanics is generating constant pressure to innovate.

It is not only in the automotive industry that future business success will depend to a large extent on new, innovative business models. These need to be met by adapting product development and production accordingly, and by providing good support for digital usage concepts. The Digital Twin is one of the central innovations that enables companies to successfully shape this digital transformation.

The forms of the Digital Twin are as different as the various products that the manufacturing industry produces. As different as the business models on the market are, as diverse are the information required in the Digital Twin. For many Digital Twin concepts, it is very important to combine production information with information from the current use of the product. In the best case scenario, the service technician of the elevator optimized by predictive maintenance mechanisms is already provided with the parts list of the parts actually installed in this elevator instance in the service center.

But product development also wants to participate in the Digital Twin. Unusual accumulations of faults in certain components are to be eliminated quickly during the further development of the product. Skilful use of this feedback has the potential to directly improve product quality and to reduce service costs, which are particularly relevant for manufacturers with “as a service” concepts, more quickly.

In order to fully exploit the potential of the Digital Twin, a digital end-to-end process chain must be created that provides the right information in the Digital Twin reliably, quickly and automatically.

A particular challenge for the Digital Twin is that the required data must come from a wide variety of sources. During the usage phase, the status data is ideally available via an IoT solution. However, production data relating to the specific product instance may also be required. Ideally, one would also like to be able to access information from product development. These areas are characterized by a multitude of information systems and are themselves under strong pressure to change, which is characterized by the topics Systems Engineering, Industry 4.0 and Industrial IoT.

With regard to the Digital Twin, decision-makers in companies are faced with the question of how to make it successful in a highly complex infrastructure. Closely related to this are further topics such as the question of what effects the emerging platform structures will have on this process, how to find the appropriate cloud strategy, which are the most important skills for designing a continuous process chain spanning several independent and individual platforms and which architecture concepts are necessary for this.

Since its foundation 25 years ago, PROSTEP AG has been designing and implementing digital end-to-end processes in product development. On the basis of the experience gained, we have compiled a number of topics in a white paper that are intended to help companies move from their status quo to a sustainable design of their process and IT landscape and to master the diverse challenges of the Digital Twin. The white paper is available for download here.

By Martin Strietze

PROSTEP evaluates scan data in the DigiTwin project

Sunday, February 3rd, 2019

Digital twins make it possible to perform material flow simulations for plant layout and bottleneck analyses. Building digital twins for existing production systems is, however, extremely complicated. As part of the DigiTwin joint project, PROSTEP and three partners are developing a procedure for creating digital simulation models from the 3D scan data generated by production systems largely automatically.

Material flow simulations for bottleneck analyses, plant layout and inventory analyses help improve operational workflows. Up until now, developing corresponding simulation models was extremely complicated, making it difficult for small and medium-sized companies to use them. Digitalization, however, offers new possibilities for simulating and optimizing the real-life situation in production with the help of a digital twin. In the DigiTwin project, the Institute of Production Engineering and Machine Tools (IFW) at the University of Hanover, together with PROSTEP, isb – innovative software businesses and Bornemann Gewindetechnik, are examining how digital twins for existing production systems can be created more easily.

The research project, the full name of which is “DigiTwin – Effiziente Erstellung eines digitalen Zwillings der Fertigung” (Efficient Creation of a Digital Twin for Production), is being funded by the “SME innovation: Service research” initiative of the German Federal Ministry of Education and Research. Within the framework of the project, the partners are developing a service concept for deriving simulation models from scans of the factory floors largely automatically. The idea is to use object recognition to convert, with a maximum of automation, the 3D scan data from production into digital models that can be mapped one-to-one in the simulation software. The aim is to make both the layout of the production facilities and the logic of the production processes transparent.

In the project, PROSTEP is responsible for transforming dumb point clouds of machines, robots, transport equipment, etc. into intelligent CAD models that can then be used to simulate the manufacturing  processes. With the help of methods from artificial intelligence and machine learning, the solution uses the point cloud, or the network geometry derived from it, to identify similar system components, which are stored in a library together with their CAD models.

It is intended that system components for which there is no equivalent in the library be converted into CAD models and parameterized with the help of feature recognition so that they can be prepared for simulation. This means that the simulation models can easily be adapted to take account of company-specific characteristics. PROSTEP’s data management team will make the services for object recognition, object harmonization and conversion available via the data logistics portal www.OpenDESC.com.

Production systems generally vary from company to company. Company-specific machine configurations and special chaining logic cannot, of course, be derived directly from the scan data, which is why the scientists at IFW query this data using standardized forms. This minimizes the amount of time and effort needed to adapt the simulation models, thus also ensuring that the concept remains attractive to small and medium-sized companies. The project partners need only a few days to create a digital twin that can also be adapted quickly in the event of changes to production. As this is a service concept, no programming knowledge is required on the part of the customer.

By Dr. Josip Stjepandic



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