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This introduction to the special issue on events as platforms, networks, and communities reviews recent research on these subjects. It outlines the previous work of the ATLAS Events Group in developing a “network approach to events,” as well as conceptualizing the differences between event networks and platforms.
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An introduction of the Hybrid Publications group of the research project Going Hybrid. The blog-post discusses affiliated researchers and organizations, working questions, expert opinions, and previous work done by partners.
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Events play an increasingly big role in our society. Whereas events were mainly considered entertainment in the past, the social function of events is becoming more and more apparent, in particular, in the field of social bonding and in creating a feeling of solidarity.During an event, visitors identify with a theme or topic, and interact with each other about it. Thanks to social media, they can continue these interactions online, which leads to a hybrid network of individuals sharing the same interests. Eventually, this may lead to forming new communities, who communicate with each other both online and offline. However, it is not clear yet how exactly these new communities are being created.This PhD research studies the online and offline interaction rituals of various events and online communities. Through interviews and participating observations at events such as Redhead Days and the Elfia fantasy event, processes are mapped out that result in forming communities at and around events.Partner: Tilburg University
TU Delft, in collaboration with Gravity Energy BV, has conducted a feasibility study on harvesting electric energy from wind and vibrations using a wobbling triboelectric nanogenerator (WTENG). Unlike conventional wind turbines, the WTENG converts wind/vibration energy into contact-separation events through a wobbling structure and unbalanced mass. Initial experimental findings demonstrated a peak power density of 1.6 W/m² under optimal conditions. Additionally, the harvester successfully charged a 3.7V lithium-ion battery with over 4.5 μA, illustrated in a self-powered light mast as a practical demonstration in collaboration with TimberLAB. This project aims to advance this research by developing a functioning prototype for public spaces, particularly lanterns, in partnership with TimberLAB and Gravity Energy. The study will explore the potential of triboelectric nanogenerators (TENG) and piezoelectric materials to optimize energy harvesting efficiency and power output. Specifically, the project will focus on improving the WTENG's output power for practical applications by optimizing parameters such as electrode dimensions and contact-separation quality. It will also explore cost-effective, commercially available materials and best fabrication/assembly strategies to simplify scalability for different length scales and power outputs. The research will proceed with the following steps: Design and Prototype Development: Create a prototype WTENG to evaluate energy harvesting efficiency and the quantity of energy harvested. A hybrid of TENG and piezoelectric materials will be designed and assessed. Optimization: Refine the system's design by considering the scaling effect and combinations of TENG-piezoelectric materials, focusing on maximizing energy efficiency (power output). This includes exploring size effects and optimal dimensions. Real-World Application Demonstration: Assess the optimized system's potential to power lanterns in close collaboration with TimberLAB, DVC Groep BV and Gravity Energy. Identify key parameters affecting the efficiency of WTENG technology and propose a roadmap for its exploitation in other applications such as public space lighting and charging.