CHI TIẾT NGHIÊN CỨU …
Tiêu đề
The MARquette Visualization Lab (MARVL): An Immersive Virtual Environment for Research, Teaching and Collaboration
Tác giả
LaDisa J.F., Jr.; Larkee C.E.
Năm xuất bản
2020
Source title
Frontiers in Education
Số trích dẫn
1
DOI
10.3389/feduc.2020.00038
Liên kết
Tóm tắt
The MARquette Visualization Lab (MARVL) is a large-scale immersive virtual environment for research, teaching, collaboration and outreach at our mid-sized liberal arts university. MARVL consists of multiple display surfaces including an extra wide front wall and floor, and two side walls. This resource includes stereoscopic viewing, motion tracking and space for a large audience. MARVL’s versatile configuration facilitates viewing of content by 30 people, while also projecting on the entire width of the floor. This feature uniquely facilitates comparative or separate content visible simultaneously via “split mode” operation (two 3-sided environments), as well as detailed motion for applications such as gait analysis and performing arts. Since establishing the lab, its members have received numerous queries and requests pertaining to how system attributes and applications were determined, suggesting these and related decisions remain a challenge nearly three decades since the first CAVE was constructed. This paper provides an overview of MARVL including the processes used in identifying a diverse group of cross campus users, understanding their collective vision for potential use, and synthesizing this information to create the resource described above. The subsequent design, qualitative and quantitative approaches to vendor selection, and software decisions are then discussed. Steps implemented for dealing with simulator sickness and latency are presented along with current approaches being implemented for project development with end users. Finally, we present results from the use of MARVL by several end users identified in the early planning stage, and recent upgrades to the system. © Copyright © 2020 LaDisa and Larkee.
Từ khóa
augmented reality; immersive visualization; mixed reality; simulation; student-centered learning; virtual reality
Tài liệu tham khảo
Baddeley A., Your Memory: A Users Guide, (1993); Borg J.P., Numerical simulation of pressure drop through a rotating plenum fan, ASME 2005 Power Conference, pp. 95-100, (2005); Borojeni A.A.T., Frank-Ito D.O., Kimbell J.S., Rhee J.S., Garcia G.J.M., Creation of an idealized nasopharynx geometry for accurate computational fluid dynamics simulations of nasal airflow in patient-specific models lacking the nasopharynx anatomy, Int. J. Numer Method Biomed. Eng, 33, 10.1002/cnm.2825, (2017); Bowman A.J., Park H., Cfd study on laminar flow pressure drop and heat transfer characteristics in toroidal and spiral coil system, ASME 2004 International Mechanical Engineering Congress and Exposition, pp. 11-19, (2004); Brennan P.F., Arnott Smith C., Ponto K., Radwin R., Kreutz K., Envisioning the future of home care: applications of immersive virtual reality, Stud Health Technol. Inform, 192, pp. 599-602, (2013); Brennan P.F., Nicolalde F.D., Ponto K., Kinneberg M., Freese V., Paz D., Cultivating imagination: development and pilot test of a therapeutic use of an immersive virtual reality cave, AMIA Annu. Symp. Proc, 2013, pp. 135-144, (2013); Conover E., 3d Technology Adds New Dimension to Marquette University Teaching, (2014); Cruz-Neira C., Sandin D.J., DeFanti T.A., Kenyon R.V., Hart J.C., The cave: audio visual experience automatic virtual environment, Commun. ACM, 35, pp. 64-72, (1992); Ellwein L., Samyn M.M., Danduran M., Schindler-Ivens S., Liebham S., LaDisa J.F., Toward translating near-infrared spectroscopy oxygen saturation data for the non-invasive prediction of spatial and temporal hemodynamics during exercise, Biomech Model Mechanobiol, 16, pp. 75-96, (2017); Febretti A., Nishimoto A., Thigpen T., Talandis J., Long L., Pirtle J.D., Et al., Cave2: a hybrid reality environment for immersive simulation and information analysis, Eng. Real. Virtual Real, 2013, 8649, (2013); Hauer S., Marquette 3d lab adds virtual ghosts and witches to ‘macbeth’, Milwaukee J. Sentinel, (2017); Kageyama A., Tomiyama A., Visualization framework for cave virtual reality systems, Int. J. Model Simul. Sci, 7, (2016); Nishimoto A., Tsoupikova D., Rettberg S., Coover R., From cave2tm to mobile: adaptation of hearts and minds virtual reality project interaction, Human-Computer Interaction. Interaction Platforms and Techniques: 18th International Conference, HCI International 2016, pp. 400-411, (2016); Patel K., Bailenson J.N., Hack-Jung S., Diankov R., Bajcsy R., The effects of fully immersive virtual reality on the learning of physical tasks, The 9th Annual International Workshop on Presence, (2006); Plato, Allegory of the Cave. Republic, pp. 240-248, (1974); Quam D.J., Gundert T.J., Ellwein L., Larkee C.E., Hayden P., Migrino R.Q., Et al., Immersive visualization for enhanced computational fluid dynamics analysis, J. Biomech. Eng, 137, pp. 0310041-03100412, (2015); Renambot L., Marrinan T., Aurisano J., Nishimoto A., Mateevitsi V., Bharadwaj K., Et al., Sage2: a collaboration portal for scalable resolution displays, Future Gener. Comp. Syst, 54, pp. 296-305, (2016); Solari F., Chessa M., Garibotti M., Sabatini S.P., Natural perception in dynamic stereoscopic augmented reality environments, Display, 34, pp. 142-152, (2013)
Nơi xuất bản
Frontiers Media S.A.
Hình thức xuất bản
Article
Open Access
All Open Access; Gold Open Access
Nguồn
Scopus