fbpx How technology can extend our senses | Science in the net

How technology can extend our senses

Primary tabs

di Cristina Da Rold
Pubblicato il 28/01/2015Read time: 3 mins
Electronics
Technology and applied sciences

Imagine that you are on the top of a mountain, looking at a beautiful panorama. Then imagine being able, thanks to modern technology, to read the names of the peaks you are watching, their altitude and the composition of their rocks. This ability is called augmented reality.

Actually, augmented reality is no longer a dream, but something concrete that we can have literally in our pockets. There are augmented reality apps for our mobile phones that enable us to digitally interact with historical monuments in our towns and villages. A glimpse of this can be seen with the famous Google Glass, which can give us traffic news, as well as updates on received messages. In other words, an enrichment of our sensory perception can be achieved through the augmentation of digital information, effectively extending our five senses. This is, and will be, a very powerful technology, and Italy is at the forefront of the research in this field.

Virtual Reality vs Augmented Reality

"There is a huge difference between what is called virtual reality and term augmented reality," explains Stefano Messelodi, researcher at the Fondazione Bruno Kessler and among those who have taken part in the VENTURI Project, which focused on vision-enhanced augmented reality and ended in autumn 2014. "Virtual reality creates artificial environments that do not exist in reality and enables virtual subjects to move within them." A good example of this research field is Euroversity, which is a tool designed to support the development of virtual world environments. "Augmented reality is another thing," Messelodi continues. "It means the insertion of digital information into a real environment, and to ensure that this additional information is harmonized with the environment in which the user is located." To sum up, augmented reality represents a natural enrichment and not an artificial substitution, thus deepening the environment around us.

The VENTURI Project

In 2011, the European Commission invested 3.6 million Euro in the VENTURI Project (immersiVe ENhancemenT of User-WoRld Interactions), coordinated by Fondazione Bruno Kessler, and this money paid off handsomely with a very positive final outcome during the final meeting of the project in Grenoble, France.

“A lot of the technologies developed inside VENTURI are ready to become consumer products, giving citizens the possibility to visualise historical content and observe social information through a three-dimensional mechanism,” Messelodi says. For instance, VENTURI developed a prototype mobile platform, equipped with advanced sensors, which was able to understand the context where the user was moving. Taking advantage of data available on the Internet and within the social networks, the system can also provide useful inter-personal information and social context, moment by moment, whilst on the go. This software technology exploits the power of modern mobile devices such as smartphones, smartwatches or head-mounted glasses to give a decisive boost to augmented reality applications right now.

The AR Tour of Grenoble is just one of the many possible exploitable outcomes coming from the project. The VENTURI team represented an international effort and included Fraunhofer HHI (Germany), ST-Microelectronics (Italy), metaio (Germany), e-Diam Sistemas (Spain), Sony Mobile (Sweden) and INRIA (France). The two-day final review of the project culminated with an ‘augmented’ walk through Grenoble city centre, together with representatives of the European Commission. Researchers presented various cutting edge technologies that are ready to become products, available soon on Android devices and downloadable by tourists. “We made a beautiful experience in Grenoble,” Messelodi concludes. “There are other cities, like Trento, Munich and Barcelona that are already interested in replicating this experience in their own centres”.


Scienza in rete è un giornale senza pubblicità e aperto a tutti per garantire l’indipendenza dell’informazione e il diritto universale alla cittadinanza scientifica. Contribuisci a dar voce alla ricerca sostenendo Scienza in rete. In questo modo, potrai entrare a far parte della nostra comunità e condividere il nostro percorso. Clicca sul pulsante e scegli liberamente quanto donare! Anche una piccola somma è importante. Se vuoi fare una donazione ricorrente, ci consenti di programmare meglio il nostro lavoro e resti comunque libero di interromperla quando credi.


  • 34207 reads

prossimo articolo

Why have neural networks won the Nobel Prizes in Physics and Chemistry?

di Chiara Sabelli
Pubblicato il 15/10/2024

This year, Artificial Intelligence played a leading role in the Nobel Prizes for Physics and Chemistry. More specifically, it would be better to say machine learning and neural networks, thanks to whose development we now have systems ranging from image recognition to generative AI like Chat-GPT. In this article, Chiara Sabelli tells the story of the research that led physicist and biologist John J. Hopfield and computer scientist and neuroscientist Geoffrey Hinton to lay the foundations of current machine learning.

Image modified from the article "Biohybrid and Bioinspired Magnetic Microswimmers" https://onlinelibrary.wiley.com/doi/epdf/10.1002/smll.201704374

Physics

The 2024 Nobel Prize in Physics was awarded to John J. Hopfield, an American physicist and biologist from Princeton University, and to Geoffrey Hinton, a British computer scientist and neuroscientist from the University of Toronto, for utilizing tools from statistical physics in the development of methods underlying today's powerful machine learning technologies.