Eindhoven University of Technology

About: Eindhoven University of Technology is a education organization based out in Eindhoven, Noord-Brabant, Netherlands. It is known for research contribution in the topics: Catalysis & Computer science. The organization has 22309 authors who have published 52936 publications receiving 1584164 citations. The organization is also known as: Technische Hogeschool Eindhoven & TU/e.

Funology: from usability to enjoyment

Abstract: Theories and Concepts.- to Section 1.- Let's Make Things Engaging.- The Engineering of Experience.- The Thing and I: Understanding the Relationship Between User and Product.- Making Sense of Experience.- Enjoyment: Lessons from Karasek.- Fun on the Phone: The Situated Experience of Recreational Telephone Conferences.- The Enchantments of Technology.- The Semantics of Fun: Differentiating Enjoyable Eeperiences.- Methods and Techniques.- User Empowerment and the Fun Factor.- to Section 2.- Measuring Emotion: Development and Application of an Instrument to Measure Emotional Responses to Products.- That's Entertainment!.- Designing for Fun: User-Testing Case Studies.- Playing Games in the Emotional Space.- Deconstructing Experience: Pulling Crackers Apart.- Designing Engaging Experiences with Children and Artists.- Building Narrative Experiences for Children Through Real Time Media Manipulation: Pogo World.- Case Studies in Design.- to Section 3.- The Joy of Telephony: Designing Appealing Interactions.- From Usable to Enjoyable Information Displays.- Fun for All: Promoting Engagement and Paraticipation in Community Programming Projects.- Storytelling & Conversation to Improve the Fun Factor in Software Applications.- Deconstructing Ghosts.- Interfacing the Narrative Experience.- Whose Line is It Anyway? Enabling Creative Appropriation of Television.- The Interactive Installation ISH: In Search of Resonant Human Product Interaction.- Fun with Your Alarm Clock: Designing for Engaging Experiences Through Emotionally Rich Interaction.

The 2012 Plasma Roadmap

Abstract: Low-temperature plasma physics and technology are diverse and interdisciplinary fields. The plasma parameters can span many orders of magnitude and applications are found in quite different areas of daily life and industrial production. As a consequence, the trends in research, science and technology are difficult to follow and it is not easy to identify the major challenges of the field and their many sub-fields. Even for experts the road to the future is sometimes lost in the mist. Journal of Physics D: Applied Physics is addressing this need for clarity and thus providing guidance to the field by this special Review article, The 2012 Plasma Roadmap.

Contrasting the Theory of Planned Behavior With the Value‐Belief‐Norm Model in Explaining Conservation Behavior1

Abstract: In this paper, we contrast the value-belief-norm (VBN) model and the theory of planned behavior (TPB) for the first time regarding their ability to explain conservation behavior. The participants represent a convenience sample of 468 university students. Using survey data and adopting previously established compound measures, structural equation analyses revealed a remarkable explanatory power for both theories: TPB's intention accounted for 95% of people's conservation behavior and VBN's personal norms accounted for 64%. Compared to the VBN model, the TPB covered its concepts more fully in terms of proportions of explained variance. More importantly, the fit statistics revealed that only the TPB depicts the relations among its concepts appropriately, whereas the VBN model does not.

Flexible perovskite photovoltaic modules and cells rased on atomic layer deposited compact layers and UV-irradiated TiO2 scaffolds on plastic substrates

Abstract: Recently, research on hybrid organometal halide perovskites for photovoltaic applications has delivered impressive growth in power conversion effi ciencies (PCEs) with a current certifi ed record of 17.9% and growing. [ 1–6 ] Key advantages of perovskites devices, together with high PCEs, are represented by the ease of the solution processing steps and their low temperature (<140 °C). [ 7,8 ] These values enable the fabrication on plastic substrates, [ 9 ] compatible with a continuous roll-toroll manufacturing which can potentially contribute to dramatically lower the production costs of large area modules. [ 10 ] Moreover, fl exible devices can also be conformed to curved surfaces to enhance power conversion densities. [ 11,12 ]