Arizona State University used a grant to obtain 140 Mirage Solo headsets from Lenovo. Just over one third of students have elected to receive one, at no cost, since the program piloted their use in 2018. Alternately, students can view simulations on a computer or a Google Daydream device
A lot of people wear corrective lenses. Designers may need to start thinking about how the devices accommodate glasses.”
For some disciplines and pedagogical objectives, VR experiences may not be readily available, says Dr. Matthew Bramlet, pediatric cardiologist and physician at OSF Children’s Hospital of Illinois, assistant professor of pediatrics at the University of Illinois College of Medicine at Peoria,
my note: Mark Gill, it seems similar to the WYSWYG interface you want to create:
To address that, U of I’s medical college developed its own content. Approximately 40 faculty members have created more than 250 VR lectures. The college provides access to Enduvo, a VR authoring tool Bramlet helped create, and lab space, featuring ceiling-mounted workstations equipped with HTC VIVE headsets powered by a variety of Dell, HP and other computers. Martina, do you want to approach them and ask how willing they would be to share their learning objects for our nursing programs?
my note: Martina, do same – approach this program
Alice Butzlaff, an assistant professor with The Valley Foundation School of Nursing at San Jose State University, created original teaching exercises through a program sponsored by eCampus, a university resource that offers design and training assistance to help faculty integrate AR/VR technology, including workshops and demos of its HTC VIVE, Samsung Gear VR and other equipment.
My note: Martina
Reality Check
Keep these factors in mind when designing a campus VR lab.
Connectivity: On-campus and online students may have different considerations in order to stream VR content smoothly, so plan accordingly to ensure everyone has high-quality access.
Staff oversight: A program manager or faculty member can manage access to equipment, particularly if limited headsets are available.
Alternative options: Some users experience vertigo or “VR sickness,” says EDUCAUSE’s D. Christopher Brooks, so instructors should consider other ways they can participate in VR-based projects.
A new virtual reality (VR) training lab at the University of Waterloo’s School of Optometry and Vision Science, will help Canada’s next generation of optometrists learn how to diagnose vision problems and eye diseases more quickly and accurately.
The new lab, funded through an $800,000 investment by national eye care provider FYidoctors, At a total cost of $1.5 million, the FYidoctors Simulation Lab is the first of its kind in Canada and will ensure the School remains at the forefront in optometric education in North America.
Dr. Al Ulsifer, CEO and Chairman of FYidoctors and Waterloo alumnus, said that this investment isn’t just an investment in the University, but a stake in the future generation of optometrists.
The Equipment:
The lab will initially include 5 Eyesi® Binocular Indirect Ophthalmoscopes (BIO) are state of the art augmented reality simulator for training of retinal examinations and provides a highly realistic and dynamic 3D simulation of the anatomical structures of the eye and ophthalmoscope optics.
Phase two of the lab, to be unveiled at a later date, will include the addition of the Eyesi® Slit Lamp simulators. This technology will allow students to practice basic handling of the device and skills required to conduct a corneal exam, retinal exam and Gonioscopy & Tonometry.
Kiwi enhances learning experiences by encouraging active participation with AR and social media. A student can use their smartphone or tablet to scan physical textbooks and unlock learning assistance tools, like highlighting, note creation and sharing, videos and AR guides—all features that encourage peer-to-peer learning. (my note, as reported at the discussion at the QQLM conference in Crete about Zois Koukopoulos, Dimitrios Koukopoulos Augmented Reality Dissemination and Exploitation Services for Libraries: https://blog.stcloudstate.edu/ims/2018/05/21/measuring-learning-outcomes-of-new-library-initiatives/
Street Smarts VR is a startup that is working to provide solutions for a major issue facing America’s communities: conflicts between police officers and citizens.
NYC Media Lab recently collaborated with Bloomberg and the augmented reality startup Lampix on a fellowship program to envision the future of learning in the workplace. Lampix technology looks like it sounds: a lamp-like hardware that projects AR capabilities, turning any flat surface into one that can visualize data and present collaborative workflows.
Calling Thunder: The Unsung History of Manhattan, a project that came out of a recent fellowship program with A+E Networks, re-imagines a time before industrialization, when the City we know now was lush with forests, freshwater ponds, and wildlife.
Lahav, O., Sharkey, P., & Merrick, J. (2014). Virtual and augmented reality environments for people with special needs. International Journal Of Child Health And Human Development, 7(4), 337-338.
Cai, Y., Chiew, R., Nay, Z. T., Indhumathi, C., & Huang, L. (2017). Design and development of VR learning environments for children with ASD. Interactive Learning Environments, 25(8), 1098-1109. doi:10.1080/10494820.2017.1282877
Passig, D. (2011). The Impact of Immersive Virtual Reality on Educators’ Awareness of the Cognitive Experiences of Pupils with Dyslexia. Teachers College Record, 113(1), 181-204.
Ke, F., & Im, T. (2013). Virtual-Reality-Based Social Interaction Training for Children with High-Functioning Autism. Journal Of Educational Research, 106(6), 441-461. doi:10.1080/00220671.2013.832999
Collins, J., Hoermann, S., & Regenbrecht, H. (2016). Comparing a finger dexterity assessment in virtual, video-mediated, and unmediated reality. International Journal Of Child Health And Human Development, 9(3), 333-341.
Epure, P., Gheorghe, C., Nissen, T., Toader, L. O., Macovei, A. N., Nielsen, S. M., & … Brooks, E. P. (2016). Effect of the Oculus Rift head mounted display on postural stability. International Journal Of Child Health And Human Development, 9(3), 343-350.
Sánchez, J., & Espinoza, M. (2016). Usability and redesign of a university entrance test based on audio for learners who are blind. International Journal Of Child Health And Human Development, 9(3), 379-387.
Rizzo, A. A., Bowerly, T., Shahabi, C., Buckwalter, J. G., Klimchuk, D., & Mitura, R. (2004). Diagnosing Attention Disorders in a Virtual Classroom. Computer (00189162), 37(6), 87-89.
Eden, S. (2008). The effect of 3D virtual reality on sequential time perception among deaf and hard-of-hearing children. European Journal Of Special Needs Education, 23(4), 349-363. doi:10.1080/08856250802387315
Eden, S., & Bezer, M. (2011). Three-dimensions vs. two-dimensions intervention programs: the effect on the mediation level and behavioural aspects of children with intellectual disability. European Journal Of Special Needs Education, 26(3), 337-353. doi:10.1080/08856257.2011.593827
Lorenzo, G., Lledó, A., Roig, R., Lorenzo, A., & Pomares, J. (2016). New Educational Challenges and Innovations: Students with Disability in Immersive Learning Environments. In Virtual Learning. InTech. https://doi.org/10.5772/65219
Virtual Reality (VR) training tools are here to help, ensuring that healthcare professionals can be trained remotely, immersively, and more thoroughly than traditional methods for both front-line medicine and in specialist procedures.
Their VR platform uses personalized prediction software and “gamification and varied content formats to engage users and embed knowledge”, and has been used to “deliver typically labor-intensive training quickly and at scale”
“VR enables medics to immerse themselves in these infrequent scenarios, and can reduce skill fade by 52% and improve learning retention rates by up to 75% (compared to 10% for traditional methods),”
Simulated virtual learning can also ease the psychological burden of notoriously intensive medical training and place more emphasis on wellbeing.
So while we know that there are incredible applications for emergent technologies such as VR/AR, the goal for organizations isn’t to look to implement these types of solutions immediately while in the midst of a pandemic, adding layers of training and cost concerns to the already existing uncertainty. Rather, an approach that involves short and long term planning as well as data collection to inform decision making is a much more prudent approach.
Zoom, Teams, Skype, and FaceTime all became daily fixtures, and many of us quickly became fatigued by seeing our colleagues, students and far-away loved ones almost exclusively in 2D. Most video conferencing solutions were not designed to be online classrooms. what is missing from the current video platforms that could improve online teaching: tools to better facilitate student interactions, including enhanced polling and quizzing features, group work tools, and more.
While universities continue to increase in-person and HyFlex courses, hoping to soon see campuses return to normalcy, there is mounting evidence that the increased interest in digital tools for teaching and learning will persist even after the pandemic.
We should move beyond 2D solutions and take advantage of what extended reality (XR) and virtual reality (VR) have to offer us.
Professor Courtney Cogburn created the 1,000 Cut Journey, an immersive VR research project that allows participants to embody an avatar that experiences various forms of racism. Professor Shantanu Lal has implemented VR headsets for pediatric dentistry patients who become anxious during procedures. At Columbia Engineering, professor Steven Feiner’s Computer Graphics and User Interfaces Lab explores the design and development of 2D and 3D user interfaces for a broad range of applications and devices. Professor Letty Moss-Salentijn is working with Feiner’s lab to create dental training simulations to guide dental students through the process of nerve block injection. Faculty, students and staff at Columbia’s Media Center for Art History have created hundreds of virtual reality panoramas of archaeology projects and fieldwork that are available on the Art Atlas platform.
In spring 2020, a group of Columbia students began to build “LionCraft,” a recreation of Columbia’s Morningside campus in Minecraft. Even though students were spread out around the world, they still found creative and fun ways to run into each other on campus, in an immersive online format.
For the purpose of this chapter, Cross Reality or XR refers to technologies and applications that involve combinations of mixed reality (MR), augmented reality (AR), virtual reality (VR), and virtual worlds (VWs). These are technologies that connect computer technology (such as informational overlays) to the physical world for the purposes of augmenting or extending experiences beyond the real. Especially relevant to the definition of XR is the fact that this term encompasses a wide range of options for delivering learning experiences, from minimal technology and episodic experiences to deep immersion and persistent platforms. The preponderance of different terms for slightly different technologies indicate that this is a growth area within the field. Here we provide a few definitions of these technologies.
MR—Mixed reality refers to a blend of technologies used to influence the human perception of an experience. Motion sensors, body tracking, and eye tracking interplay with overlaid technology to give a rich and full version of reality displayed to the user. For example, technology could add sound or additional graphics to an experience in real time. Examples include the Magic Leap One and Microsoft HoloLens 2.0. MR and XR are often used interchangeably.
AR—Augmented reality refers to technology systems that overlay information onto the real world, but the technology might not allow for real-time feedback. As such, AR experiences can move or animate, but they might not interact with changes in depth of view or external light conditions. Currently, AR is considered the first generation of the newer and more interactive MR experiences.
VR—Virtual reality, as a technological product, traces its history to approximately 1960 and tends to encompass user experiences that are visually and auditorily different from the real world. Indeed, the real world is often blocked from interacting with the virtual one. Headsets, headphones, haptics, and haptic clothing might purposely cut off all input except that which is virtual. In general, VR is a widely recognizable term, often found in gaming and workplace training, where learners need to be transported to a different time and place. VR experiences in STEM often consist of virtual labs or short virtual field trips.
VW—Virtual worlds are frequently considered a subset of VR with the difference that VWs are inherently social and collaborative; VWs frequently contain multiple simultaneous users, while VRs are often solo experiences. Another discrimination between virtual reality and virtual worlds is the persistence of the virtual space. VR tends to be episodic, with the learner in the virtual experience for a few minutes and the reality created within the experience ends when the learner experience ends. VWs are persistent in that the worlds continue to exist on computer servers whether or not there are active avatars within the virtual space (Bell 2008). This discrimination between VR and VW, however, is dissolving. VR experiences can be created to exist for days, and some users have been known to wear headsets for extended periods of time. Additionally, more and more VR experiences are being designed to be for game play, socialization, or mental relaxation. The IEEE VR 2020 online conference and the Educators in VR International Summit 2020 offered participants opportunities to experience conference presentations in virtual rooms as avatars while interacting with presenters and conference attendees (see Sect. 2.5 for more information).
CVEs—Collaborative virtual environments are communication systems in which multiple interactants share the same three-dimensional digital space despite occupying remote physical locations (Yee and Bailenson 2006).
Embodiment—Embodiment is defined by Lindgren and Johnson-Glenberg (2013) as the enactment of knowledge and concepts through the activity of our bodies within an MR (mixed reality) and physical environment
Human-Centered Design philosophy that involves putting human needs, capabilities, and behavior first (Jerald 2018: 15). XR provides the opportunity to experience just-in-time immersive, experiential learning that uses concrete yet exploratory experiences involving senses that result in lasting memories. Here we discuss opportunities for social applications with XR.
XR learner activities are usually created for individual use, which may or may not need to be simultaneously experienced as a class together at the same time or place with the instructor. Activities can be designed into instruction with VR headsets, high-resolution screens, smartphones, or other solo technological devices for use inside and outside of the classroom.
Do we address the challenges in the grant proposal?
some learners will be held back from full XR activity by visual, physical, and social abilities such as stroke, vertigo, epilepsy, or age-related reaction time. It should also be noted that the encompassing nature of VR headsets might create some discomfort or danger for any learners as they can no longer fully see and control their body and body space.
Nurse’s Escape is a VR game that simulates an escape room based on the five stages of the Sepsis Bundle. The purpose is to supplement nurse’s lecture-style curriculum with an interactive way to test nurse’s Sepsis knowledge. Sepsis is one of the leading causes of deaths and hospitalizations yearly, so equipping nurses with the right skills and information to treat sepsis in a timely manner can save lives and money. Help treat the millionaire’s illness before time runs out!
This game is sponsored by the University of Nebraska Medical Center’s College of Nursing-Lincoln.
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Australian hospitals leveraging VR tech to fast-track clinician training
It only takes 10 minutes to practice a procedure in a session through a VR platform such as Vantari VR.
Using flight-simulator technology, Vantari VR provides medical training using a VR headset and laptop. Its modules cover 90% of medical procedures as part of doctors’ core training and deliver steps that are recommended by college guidelines.
In Fiona Stanley Hospital, for example, over 20 registrars have been educated to perform chest drain insertions.
Vantari VR was awarded a $100,000 grant from Epic Games, the American video game company behind the online game Fortnite. Presently, the startup seeks to raise $2 million from a funding round that will close in August.