Refine
Year of publication
Document Type
- Conference Proceeding (633)
- Article (unreviewed) (443)
- Article (reviewed) (416)
- Part of a Book (349)
- Bachelor Thesis (307)
- Contribution to a Periodical (215)
- Book (184)
- Other (128)
- Master's Thesis (75)
- Periodical Part (46)
Language
- German (1781)
- English (1115)
- Multiple languages (3)
- Russian (3)
- Other language (2)
- Spanish (1)
Keywords
- Kommunikation (30)
- Digitalisierung (28)
- Dünnschichtchromatographie (27)
- Marketing (25)
- Energieversorgung (21)
- Management (18)
- Social Media (18)
- E-Learning (17)
- COVID-19 (16)
- Industrie 4.0 (16)
Institute
- Fakultät Medien und Informationswesen (M+I) (956)
- Fakultät Elektrotechnik und Informationstechnik (E+I) (bis 03/2019) (683)
- Fakultät Maschinenbau und Verfahrenstechnik (M+V) (551)
- Fakultät Betriebswirtschaft und Wirtschaftsingenieurwesen (B+W) (387)
- Fakultät Elektrotechnik, Medizintechnik und Informatik (EMI) (ab 04/2019) (187)
- INES - Institut für Energiesystemtechnik (123)
- Zentrale Einrichtungen (75)
- ivESK - Institut für verlässliche Embedded Systems und Kommunikationselektronik (45)
- ACI - Affective and Cognitive Institute (39)
- IaF - Institut für angewandte Forschung (27)
Elektronische Türschilder zur Darstellung von Informationen sind insbesondere in öffentlichen Gebäuden zwischenzeitlich weit verbreitet. Die Varianz dieser elektronischen Türschilder reicht vom Tablet-basierten Türschild bis hin zum PC-basierten Türschild mit externem Bildschirm. Zumeist werden die Systeme mit 230 V betrieben. Bei einer großen Summe von Türschildern in öffentlichen Gebäuden kann dies zu einem signifikanten Umsatz an Energie führen. Im Rahmen dieses Papers wird die Entwicklung eines energieautarken arbeiten Türschildes vorgestellt, bei dem ein E-Paper-Display zum Einsatz kommt. Das Türschild lässt sich per Smartphone-App und NFC-Schnittstelle konfigurieren. Es wird insbesondere auf das Low-Power-Hardware-Design der Elektronik und energetische Aspekte eingegangen.
Environmentally-friendly implementation of new technologies and eco-innovative solutions often faces additional secondary ecological problems. On the other hand, existing biological systems show a lesser environmental impact as compared to the human-made products or technologies. The paper defines a research agenda for identification of underlying eco-inventive principles used in the natural systems created through evolution. Finally, the paper proposes a comprehensive method for capturing eco-innovation principles in biological systems in addition and complementary to the existing biomimetic methods and TRIZ methodology and illustrates it with an example.
Cross-industry innovation is commonly understood as identification of analogies and interdisciplinary transfer or copying of technologies, processes, technical solutions, working principles or models between industrial sectors. In general, creative thinking in analogies belongs to the efficient ideation techniques. However, engineering graduates and specialists frequently lack the skills to think across the industry boundaries systematically. To overcome this drawback an easy-to-use method based on five analogies has been evaluated through its applications by students and engineers in numerous experiments and industrial case studies. The proposed analogies help to identify and resolve engineering contradictions and apply approaches of the Theory of Inventive Problem Solving TRIZ and biomimetics. The paper analyses the outcomes of the systematized analogies-based ideation and outlines that its performance continuously grows with the engineering experience. It defines metrics for ideation efficiency and ideation performance function.
This book constitutes the refereed proceedings of the 20th International TRIZ Future Conference, TFC 2020, held online at the University Cluj-Napoca, Romania, in October 2020 and sponsored by the International Federation for Information Processing.
34 chapters were carefully peer reviewed and selected from 91 conference submissions. They are organized in the following thematic sections: computing TRIZ; education and pedagogy; sustainable development; tools and techniques of TRIZ for enhancing design; TRIZ and system engineering; TRIZ and complexity; and cross-fertilization of TRIZ for innovation management.
Sustainable design of equipment for process intensification requires a comprehensive and correct identification of relevant stakeholder requirements, design problems and tasks crucial for innovation success. Combining the principles of the Quality Function Deployment with the Importance-Satisfaction Analysis and Contradiction Analysis of requirements gives an opportunity to define a proper process innovation strategy more reliably and to develop an optimal process intensification technology with less secondary engineering and ecological problems.