@inbook{31475, author = {{Scharlau, Ingrid}}, booktitle = {{Kleppart - Ausstellungen 2010-2013}}, editor = {{Kürz, Alexandra}}, pages = {{12--20}}, title = {{{Textilien - Eine Beobachtung}}}, year = {{2014}}, } @inbook{47717, author = {{Bartz, Christina}}, booktitle = {{Medienreflexionen im Film}}, editor = {{Kirchmann, Kay and Ruchatz, Jens}}, isbn = {{978-3-8376-1091-8}}, pages = {{243--256}}, publisher = {{transcript}}, title = {{{Absender unbekannt. Postkarte, Brief und E-Mail im Film}}}, year = {{2014}}, } @article{28194, author = {{Gausemeier, Jürgen and Amshoff, Benjamin}}, journal = {{ZWF magazine for economic factory operation}}, pages = {{428--434}}, title = {{{Discursive business model development - Successful positioning in the competitive arena through integrative development of market performance and business}}}, volume = {{109}}, year = {{2014}}, } @article{28101, author = {{Gausemeier, Jürgen and Iwanek, Peter and Vaßholz, Mareen and Reinhart, Felix}}, journal = {{Industry Management}}, title = {{{Self-optimization in mechanical and plant engineering}}}, volume = {{2014/6}}, year = {{2014}}, } @article{28381, abstract = {{With self-reinforced thermoplastics, it is possible to produce composite systems that, unlike traditional fiber composite materials, do not contain any foreign fibers for reinforcement. Instead, thermoplastic fibers or tapes, for example made of PP or PE, are used in an identical matrix. This opens up a high potential for lightweight construction and, at the same time, very good recyclability. }}, author = {{Heim, Hans-Peter and Ries, Angela and Schöppner, Volker and Wibbeke,, Andrea and Turek, Stefan and Damanik, Hogenrich and Mahnken, Rolf and Dammann, Christian and Wünsch, Olaf and Al-Baldawi, Ammar and Rohde, Björn and Brückner-Foit, Angelika and Gausemeier, Jürgen and Gräßler, Iris and Petersen, Marcus}}, journal = {{Kunststoffe international}}}, pages = {{31--35}}, title = {{{Self-Reinforced Thermoplastic Composites - Composite Materials (Part 1)}}}, volume = {{104}}, year = {{2014}}, } @article{28379, abstract = {{Based on research results from the Collaborative Research Center Transregio 30, it is shown how composites made of self-reinforced, partially crystalline or highly stretched amorphous foils and fabrics for lightweight construction applications can be produced and which properties can be achieved. A locally differential, thermo-mechanical process control can be varied very efficiently, and thus graded properties can be set in the sense of functionalization. }}, author = {{Heim, Hans-Peter and Ries, Angela and Schöppner, Volker and Wibbeke, Andrea and Turek, Stefan and Damanik, Hogenrich and Mahnken, Rolf and Dammann, Christian and Wünsch, Olaf and Al-Baldawi, Ammar and Rohde, Björn and Brükner-Foit, Angelika and Gausemeier, Jürgen and Gräßler, Iris and Petersen, Marcus}}, journal = {{Kunststoffe international}}, title = {{{Self-Reinforced Thermoplastic Composites - Composite Materials (Part 2)}}}, year = {{2014}}, } @article{28408, author = {{Wiederkehr, Olga and Dumitrescu, Roman and Gausemeier, Jürgen}}, journal = {{Systems Engineering Day 2014}}, title = {{{The development order as the basis for a forward-looking and system-oriented product creation}}}, year = {{2014}}, } @inproceedings{28136, abstract = {{In order to achieve a sustainable competitive advantage, technology-oriented companies are more than ever asked to identify potentials of technologies for future business at an early stage and to convert them into innovations. Emergent technologies in particular have a high potential for radical innovations. However, the high innovation potential is offset by high market and technology uncertainties, which are caused by incomplete knowledge of the technology potential and development as well as of potential application contexts. In connection with emergent technologies, the finding of potential - i.e. the generation of knowledge regarding the potentials - is essential, as it lays the foundation for the search for potential application contexts. At the same time, this represents a challenge, since conventional market research approaches only have a limited effect here. The question that arises is how technology potentials can be derived in a discursive way. Furthermore, we hypothesize that the TRIZ approach has great potential for this: (1) In a reversal of the TRIZ logic, we see a way of accessing the TRIZ knowledge base via an analogy; (2) In this way, contradictions within the meaning of TRIZ can be determined, which can be addressed by the technology; (3) A continuous specification of the contradictions represents a possibility to infer technology potentials. The present article presents an approach developed at the Heinz Nixdorf Institute for a TRIZ-based potential finding within the framework of technology-induced innovation processes. The approach comprises the three phases of technology analysis, technology foresight and technology potential analysis. Based on the analysis of the current performance of the technology, the future performance is anticipated using the TRIZ development pattern. By reversing the TRIZ logic, technology potentials are finally determined. }}, author = {{Wall, Marina and Gausemeier, Jürgen and Peter, Stefan}}, editor = {{Gausemeier, Jürgen}}, pages = {{95--123}}, publisher = {{publishing series of the Heinz Nixdorf Institute, Paderborn}}, title = {{{TRIZ-based potential finding in technology-induced innovation processes}}}, year = {{2014}}, } @inproceedings{28186, abstract = {{Product innovations are of great strategic importance for securing the long-term competitiveness of companies. Often, however, companies are faced with two core problems when introducing product innovations to the market: There is a lack of a methodology for systematic customer integration in the product development process. In addition, due to their complexity and the novelty of the technologies used, the product concepts exceed the customers' imagination. This means that customers do not evaluate new product concepts objectively because they do not fully understand the product benefits. In this article, a software-supported procedure for early customer integration is presented. The core of the process is a multi-stage limit conjoint analysis with an integrated virtual reality application.}}, author = {{Backhaus, Klaus and Gausemeier, Jürgen and Stöcklein, Jörg and Jasper, Jonas and Westhoff, Katharina and Grafe, Michael}}, publisher = {{Fraunhofer IFF}}, title = {{{VR-based conjoint analysis for the early determination of customer benefits}}}, year = {{2014}}, } @inbook{28411, author = {{Gausemeier, Jürgen and Amshoff, Benjamin and Dülme, Christian and Kage, Martin}}, booktitle = {{Foresight and Technology Planning}}, editor = {{Gausemeier, Jürgen}}, pages = {{6--36}}, publisher = {{publishing series of the Heinz Nixdorf Institute, Paderborn}}, title = {{{Strategic planning of market services in the context of Industry 4.0}}}, volume = {{334}}, year = {{2014}}, } @inproceedings{28189, abstract = {{Innovative products are based on an interdisciplinary interaction between mechanics, electronics and information technology. The close interplay of the specialist disciplines makes special demands on the development process. For example, a uniform understanding of the specialists is particularly important for an efficient development of the product and the associated production system. Furthermore, the product concept often already determines the production system, even though new production technologies make innovative products possible in the first place. Therefore, the interactions between the product and the production system must be taken into account from the start during development. Currently, the development is mostly carried out separately in the specialist disciplines on the basis of existing methods and systematics, who often do not fully consider the existing interactions. Time-consuming and costly iteration loops are the result. This article therefore addresses the interactions and mutual dependencies between the product and the production system in the early phases of product development, such as an adaptation of the product design due to assembly requirements. The development process of a flashlight serves as an example. First, the interactions are described and analyzed. A methodology is then presented that takes these interactions into account in the context of the integrative development of product and production system in the early phases of product development. The methodology consists of a process model, a specification technique and a software tool. The process model serves as a guideline for the integrative development of product and production system, whereas the specification technology forms the core of the methodology and enables interdisciplinary collaboration of all people involved. For the product concept, the specification technology encompasses the aspects of the environment, application scenarios, requirements, functions, effective structure, behavior and design. The principle solution of the production system is represented by the aspects of production requirements, process sequence, resources and design. The software tool supports the developer in applying the methodology. The methodology presented is then demonstrated using the example product. whereas the specification technology forms the core of the methodology and enables interdisciplinary collaboration of all people involved. For the product concept, the specification technology encompasses the aspects of the environment, application scenarios, requirements, functions, effective structure, behavior and design. The principle solution of the production system is represented by the aspects of production requirements, process sequence, resources and design. The software tool supports the developer in applying the methodology. The methodology presented is then demonstrated using the example product. whereas the specification technology forms the core of the methodology and enables interdisciplinary collaboration of all people involved. For the product concept, the specification technology encompasses the aspects of the environment, application scenarios, requirements, functions, effective structure, behavior and design. The principle solution of the production system is represented by the aspects of production requirements, process sequence, resources and design. The software tool supports the developer in applying the methodology. The methodology presented is then demonstrated using the example product. Active structure, behavior and shape. The principle solution of the production system is represented by the aspects of production requirements, process sequence, resources and design. The software tool supports the developer in applying the methodology. The methodology presented is then demonstrated using the example product. Active structure, behavior and shape. The principle solution of the production system is represented by the aspects of production requirements, process sequence, resources and design. The software tool supports the developer in applying the methodology. The methodology presented is then demonstrated using the example product.}}, author = {{Petersen, Marcus and Bandak, Shatha and Gausemeier, Jürgen and Iwanek, Peter and Schneider, Marcel}}, editor = {{Schenk, Michael}}, issn = {{2196-7598}}, pages = {{13--21}}, publisher = {{Fraunhofer IFF}}, title = {{{Methodology for reporting Interactions between product and production system in the early phases of product development - a practical example}}}, year = {{2014}}, } @inproceedings{28293, abstract = {{Functional gradation means a tailored distribution of properties over the spatial dimensions of a component based on a complex manufacturing process chain. The synthetisation of these processes requires a framework that generates numerous information for the production system elaboration during the further design phases. Therefore a production system specification technique for functionally graded components is presented. The specification technique enables the visualisation of the resulting process chain with all information in a descriptive manner and offers an interface for Microsoft Visio.}}, author = {{Petersen, Marcus and Bauer, Frank and Hess, Stefan and Gausemeier, Jürgen and Gräßler, Iris}}, booktitle = {{Proceedings of the DESIGN 2014 - 13th International DESIGN Conference }}, issn = {{1847-9073}}, pages = {{1157--1166}}, publisher = {{Faculty of Mechanical Engineering and Naval Architecture, University of Zagreb / The Design Society, Glasgow}}, title = {{{Towards a Production System Specification Technique for Functionally Graded Components}}}, volume = {{2}}, year = {{2014}}, } @inproceedings{64453, author = {{Jaedicke, Volker and Agcaer, Semih and Gerhardt, Nils Christopher and Hofmann, Martin and Robles, Francisco E. and Steinert, Marian and Jones, David and Goebel, Sebastian and Welp, Hubert}}, booktitle = {{Biomedical applications of light scattering VIII}}, pages = {{1 -- 10}}, title = {{{Performance comparison of different metrics for spectroscopic optical coherence tomography}}}, doi = {{10.1117/12.2038891}}, year = {{2014}}, } @inproceedings{64451, author = {{Koukourakis, Nektarios and Finkeldey, Markus and Gerhardt, Nils Christopher and Hofmann, Martin and Stürmer, Moritz and Wallrabe, Ulrike and Czarske, Jürgen and Fischer, Andreas}}, booktitle = {{Optical micro- and nanometrology V}}, title = {{{Effects of axial scanning in confocal microscopy employing adaptive lenses (CAL)}}}, doi = {{10.1117/12.2052152}}, year = {{2014}}, } @article{64448, author = {{Koukourakis, Nektarios and Finkeldey, Markus and Gerhardt, Nils Christopher and Hofmann, Martin R. and Fischer, Andreas and Stürmer, Moritz and Leithold, Christoph and Wallrabe, Ulrike and Czarske, Jürgen W.}}, journal = {{Optics express}}, number = {{5}}, pages = {{6025 -- 6039}}, title = {{{Axial scanning in confocal microscopy employing adaptive lenses (CAL)}}}, doi = {{10.1364/oe.22.006025}}, volume = {{22}}, year = {{2014}}, } @article{64450, author = {{Höpfner, Henning and Lindemann, Markus and Gerhardt, Nils Christopher and Hofmann, Martin}}, journal = {{Applied physics letters}}, number = {{2}}, pages = {{1 -- 5}}, title = {{{Controlled switching of ultrafast circular polarization oscillations in spin-polarized vertical-cavity surface-emitting lasers}}}, doi = {{10.1063/1.4862330}}, volume = {{104}}, year = {{2014}}, } @article{64452, author = {{Koukourakis, Nektarios and Gerhardt, Nils Christopher and Hofmann, Martin R. and Jädicke, Volker and Göbel, Sebastian and Welp, Hubert}}, journal = {{Optics letters}}, number = {{14}}, pages = {{4160 -- 4163}}, title = {{{Multiwavelength phase unwrapping and aberration correction using depth filtered digital holography}}}, doi = {{10.1364/ol.39.004160}}, volume = {{39}}, year = {{2014}}, } @inproceedings{64449, author = {{Höpfner, Henning and Lindemann, Markus and Gerhardt, Nils Christopher and Hofmann, Martin}}, booktitle = {{Vertical-cavity surface-emitting lasers XVIII}}, pages = {{9001--15}}, title = {{{Coherent switching of polarization oscillations in vertical-cavity surface-emitting lasers}}}, doi = {{10.1117/12.2039196}}, year = {{2014}}, } @inproceedings{64447, author = {{Höpfner, Henning and Lindemann, Markus and Gerhardt, Nils Christopher and Hofmann, Martin R.}}, booktitle = {{Semiconductor lasers and laser dynamics VI}}, pages = {{1 -- 6}}, title = {{{Spin-controlled ultrafast vertical-cavity surface-emitting lasers}}}, doi = {{10.1117/12.2049684}}, year = {{2014}}, } @inproceedings{64445, author = {{Gerhardt, Nils Christopher and Höpfner, Henning and Lindemann, Markus and Hofmann, Martin R.}}, booktitle = {{Spintronics VII}}, pages = {{1 -- 10}}, title = {{{Polarization dynamics in spin-polarized vertical-cavity surface-emitting lasers}}}, doi = {{10.1117/12.2063723}}, year = {{2014}}, }