In ons dagelijkse leven hebben we veel met technologie te maken, vaak met interactieve, informatie-gerichte technologie: als consument doen we online boodschappen – zeker in deze pandemische tijd; als reiziger in het openbaar vervoer plannen en betalen we onze reis met interactieve technologie – nu weliswaar even wat minder; als weggebruiker navigeren we op basis van technologie; en ons energieverbruik in huis wordt ‘smart’ gemeten en geadministreerd. Als burger staan we steeds vaker middels technologie in contact met overheden. Denk aan alle online communicatie met de overheid, zo als de belastingdienst en gemeenten die middels apps, websites en de ‘Berichtenbox’ van ‘MijnOverheid’ met burgers communiceren. En er wordt over burgers en ons gedrag al heel wat data verzameld, door gemeenten, de politie, door bijvoorbeeld de zorgsector. En ook in de publieke ruimte wordt data verzameld – met smart city technologie, zoals camera’s en sensoren – met als doel om de stad veiliger, efficiënter en leefbaarder te maken. Al die ‘big data’ maakt het mogelijk om inzichten te genereren – al dan niet met kunstmatige intelligentie – en besluiten te nemen. We gebruiken technologie ook om als burger zelf actie te ondernemen. Bij de overheid kunnen we met apps melden wat er op straat verbeterd of onderhouden moet worden. Met onze buren zitten we in een WhatsApp groep of NextDoor, om bij te dragen aan de leefbaarheid en veiligheid van de buurt. We kunnen met smart home tools of citizen science kits de luchtkwaliteit meten, binnenshuis, maar ook buitenshuis. We tekenen petities, doen mee aan peilingen en enquêtes. En social networking sites (SNS) worden intensief gebruikt, voor sociale en professionele relaties, maar ook om maatschappelijk actief te zijn, voor het organiseren van het samenleven in een buurt. We weten inmiddels dat social media ook een effectief kanaal zijn om de democratie te beïnvloeden. Burgers komen dus in aanraking met veel verschillende technologieën, met verschillende doelstellingen, resultaten en bijeffecten, en waaraan mensen in allerlei functies en rollen deelnemen. Wat centraal staat in het vakgebied Civic Technology is dat de technologie in dienst staat van het burgerschap.
(This is part III of a series of essays on meme theory, all published on this site. Part I is called They Say That We Can’t Meme: Politics of Idea Compression. Part II is entitled Rude Awakening: Memes as Dialectical Images)
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Urgent publishing pertains both to timeliness and relevance. What strategies are available to publishers in the cultural and research domains to conceive, produce, and position their contents in an urgent way? Revolving around the key notions of relations, trust, and remediation, Here and Now? Explorations in Urgent Publishing presents methods and prototypes that counter the contemporary speedy information sphere in new and different ways. It develops a situated account of hybrid publishing, where authors, editors, publishers, designers, and readers operate together.
Electrohydrodynamic Atomization (EHDA), also known as Electrospray (ES), is a technology which uses strong electric fields to manipulate liquid atomization. Among many other areas, electrospray is currently used as an important tool for biomedical applications (droplet encapsulation), water technology (thermal desalination and metal recovery) and material sciences (nanofibers and nano spheres fabrication, metal recovery, selective membranes and batteries). A complete review about the particularities of this technology and its applications was recently published in a special edition of the Journal of Aerosol Sciences [1]. Even though EHDA is already applied in many different industrial processes, there are not many controlling tools commercially available which can be used to remotely operate the system as well as identify some spray characteristics, e.g. droplet size, operational mode, droplet production ratio. The AECTion project proposes the development of an innovative controlling system based on the electrospray current, signal processing & control and artificial intelligence to build a non-visual tool to control and characterize EHDA processes.
Alcohol use disorder (AUD) is a pattern of alcohol use that involves having trouble controlling drinking behaviour, even when it causes health issues (addiction) or problems functioning in daily (social and professional) life. Moreover, festivals are a common place where large crowds of festival-goers experience challenges refusing or controlling alcohol and substance use. Studies have shown that interventions at festivals are still very problematic. ARise is the first project that wants to help prevent AUD at festivals using Augmented Reality (AR) as a tool to help people, particular festival visitors, to say no to alcohol (and other substances). ARise is based on the on the first Augmented Reality Exposure Therapy (ARET) in the world that we developed for clinical treatment of AUD. It is an AR smartphone driven application in which (potential) visitors are confronted with virtual humans that will try to seduce the user to accept an alcoholic beverage. These virtual humans are projected in the real physical context (of a festival), using innovative AR glasses. Using intuitive phone, voice and gesture interactions, it allows users to personalize the safe experience by choosing different drinks and virtual humans with different looks and levels of realism. ARET has been successfully developed and tested on (former) AUD patients within a clinical setting. Research with patients and healthcare specialists revealed the wish to further develop ARET as a prevention tool to reach people before being diagnosed with AUD and to extend the application for other substances (smoking and pills). In this project, festival visitors will experience ARise and provide feedback on the following topics: (a) experience, (b) awareness and confidence to refuse alcohol drinks, (c) intention to use ARise, (d) usability & efficiency (the level of realism needed), and (e) ideas on how to extend ARise with new substances.
The CARTS (Collaborative Aerial Robotic Team for Safety and Security) project aims to improve autonomous firefighting operations through an collaborative drone system. The system combines a sensing drone optimized for patrolling and fire detection with an action drone equipped for fire suppression. While current urban safety operations rely on manually operated drones that face significant limitations in speed, accessibility, and coordination, CARTS addresses these challenges by creating a system that enhances operational efficiency through minimal human intervention, while building on previous research with the IFFS drone project. This feasibility study focuses on developing effective coordination between the sensing and action drones, implementing fire detection and localization algorithms, and establishing parameters for autonomous flight planning. Through this innovative collaborative drone approach, we aim to significantly improve both fire detection and suppression capabilities. A critical aspect of the project involves ensuring reliable and safe operation under various environmental conditions. This feasibility study aims to explore the potential of a sensing drone with detection capabilities while investigating coordination mechanisms between the sensing and action drones. We will examine autonomous flight planning approaches and test initial prototypes in controlled environments to assess technical feasibility and safety considerations. If successful, this exploratory work will provide valuable insights for future research into autonomous collaborative drone systems, currently focused on firefighting. This could lead to larger follow-up projects expanding the concept to other safety and security applications.
