While the big-river scientists work on launching satellites to keep an eye on the world’s giant rivers and lakes, the best monitoring device for these little streams remains people, walking around on the ground looking for streams instead of Pokemon — especially in dry states like this one.
The Augmented Reality Game, Pokemon Go, took the world by storm in the summer of 2016. City landscapes were decorated with amusing, colourful objects called Pokemon, and the holiday activities were enhanced by catching these wonderful creatures. In light of this, it is inevitable for mobile language learning researchers to reflect on the impact oft his game on learning and how it may be leveraged to enhance the design of mobile and ubiquitous technologies for mobile and situated language learning. This paper analyses the game Pokemon Go and the players’ experiences accordingto a framework developed for evaluating mobile language learning and discusses how Pokemon Go can help to meetsome of the challenges faced by earlier research activities.
A comparison between PG and Geocashing will illustrate the evolution of the concept of location-based games a concept that is very close to that of situated learning that we have explored in several previous works.
Pokémon Go is a free, location-based augmented reality game developed for mobile devices. Players useGPS on their mobile device to locate, capture, battle, and train virtual creatures (a.k.a. Pokémon), whichappear on screen overlaying the image seen through the device’s camera. This makes it seem like thePokemon are in the same real-world location as the player
“Put simply, augmented reality is a technology that overlays computer generated visuals over the real worldthrough a device camera bringing your surroundings to life and interacting with sensors such as location and heart rate to provide additional information”(Ramirez, 2014).
Apply the evaluation framework developed in 2015 for mobile learning applications(Cacchione, Procter-Legg, Petersen, & Winter, 2015). The framework is composed of a set offactors of different nature neuroscientific, technological, organisational and pedagogical and aim toprovide a comprehensive account of what plays a major role in ensuring effective learning via mobile devices
By creating engaging 360° tours, students are not only learning these new tools for themselves but are also helping local organizations see the possibility of VR for marketing and public relations.
some key takeaways from the projects that we have seen:
Let the students lead: In all of these projects, students are taking the initiative. The institutions are providing the technology, the space, organizational vision, and in some cases, academic credit. At NYU Tandon, students organized the entire conference, doing publicity, registration, catering, and scheduling (see figure 4). They brought in a diverse group of speakers from academic, tech, and startup backgrounds. The event included TED-style spotlights, talks, workshops, and demos.
Don’t compromise on space: Brown University’s Granoff Center for the Creative Arts is designed to encourage cross-discipline collaboration. The Tandon event used the main auditorium and the flagship NYU MakerSpace. Space influences behavior and is crucial in driving collaboration and active participation. In addition, to produce VR and AR/MR experiences students need access to high-end technology and, in some cases, motion-capture studios and 360° cameras.
Create opportunities for social impact: Many of these programs are open to the local community or have been designed to have an impact outside higher education. At Emporia State, students are using VR and 360° video to help local businesses. The Gaspee Affair VR experience at Brown University will become a resource for teaching middle and high school students.
Showcase student work: So often in education, the work students do in a course is only seen by others in the same class. Like the example at Texas A&M, all of these experiences have a connection with their campus or larger community. VR and AR engender a level of excitement that gets students engaged with each other and encourage peer learning. It’s worth it to seek out opportunities to bring this work to community events.
more on VR in education in this IMS blog
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Oculus Connect, starting Wednesday in San Jose, California. Facebook’s Oculus VR division promises discussions on how health care, movies and video games are adapting to this still nascent technology. One panel will explore how the disability community can benefit from VR gear and presentations.
Over the summer, Apple and Google announced new technologies called ARKit and ARCore, respectively, that are designed to help iPhones and iPads or any device powered by Google’s Android software marry computer-generated images with the real world.
A $2.99 app, Star Guide AR, highlights stars and constellations in the sky once you point your phone at them. Another, Ikea Place, previews furniture in your home with a tap. Walk around your living room and you can see the furniture you placed while looking through the screen on your phone. So far, both are available only for the iPhone.
App developers I spoke with say they’re excited by augmented reality and believe it may help spur people to buy VR systems as well.
Canada will see the fastest growth, with a CAGR of 145.2 percent over the forecast period. Other leaders in terms of growth include Central and Eastern Europe at 133.5 percent, Western Europe at 121.2 percent and the U.S. at 120.5 percent.
Leslie Fisher Thinks Augmented Reality First, Then VR in the Classroom
An interview with the former Apple K–12 systems engineer, who will participate in multiple sessions during ISTE.
THE Journal: What do you think about virtual reality (VR) and augmented reality (AR) in the classroom? Is the cost point for VR prohibitive?
In virtual reality, one of my favorite apps is CoSpaces. It allows anyone to design a 3D space, and then interact with it in virtual reality.
Virtual reality can be quite affordable with Google Cardboard. We can get into basic interaction in VR with Cardboard. There are 40 or 50 VR apps where you can simply use Cardboard and explore. Google Street View allows you to do virtual viewing of many different locations. That technology augments what the teacher is doing.
Most kids can’t afford to buy their own Oculus headset. That price point is quite a bit higher. But we don’t need to have 30 kids using Oculus all of the time. Two or three might work
We’re now seeing a move toward mid-range, standalone VR headsets with everything built into the device. Some include their own processors, while others, like the forthcoming Microsoft headset, will work with current desktops. Microsoft’s device claims to do both VR and a modified version of mixed reality
The low end of the VR spectrum has been dominated by Google Cardboard, with over 10 million distributed
AR burst into the public’s consciousness with the Pokemon Go craze in 2016. And Snap (formerly Snapchat) expanded the range of their social media platform with the release of Spectacles, their wearable glasses and World Lens filters that add digital objects to your environment. A second version of Spectacles may include far more extensive AR capabilities.
At Facebook’s spring F8 conference, Mark Zuckerberg made the case that our mobile cameras will be the first popular AR platform. Apple just announced ARKit for iOS at their June WWDC developers conference.
Meta Glasses has been developing its own mixed reality unit that offers a wider field of view than the 40° of HoloLens. And Intel’s Project Alloy promises a “Merged Reality” headset prototype combining both VR and AR by the end of this year.
Aryzon which is creating a Google Cardboard-like device for simple AR experiences. Another is the NOLO Project, which offers an HTC Vive-like experience with full freedom of movement using only a plastic headset and your phone.