Simulating self-motion II: A virtual reality tricycle
When simulating self-motion, virtual reality designers ignore non-visual cues at their peril. But providing non-visual cues presents significant challenges. One approach is to accompany visual displays with corresponding real physical motion to stimulate the non-visual, motion-detecting sensory syst...
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| Veröffentlicht in: | Virtual reality : the journal of the Virtual Reality Society 2002-09, Vol.6 (2), p.86-95 |
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| container_title | Virtual reality : the journal of the Virtual Reality Society |
| container_volume | 6 |
| creator | ALLISON, R. S HARRIS, L. R ZACHER, J ZIKOVITZ, D HOGUE, A. R JASIOBEDZAK, U. T JENKIN, H. L JENKIN, M. R JAEKL, P LAURENCE, J. R PENTILE, G REDLICK, F |
| description | When simulating self-motion, virtual reality designers ignore non-visual cues at their peril. But providing non-visual cues presents significant challenges. One approach is to accompany visual displays with corresponding real physical motion to stimulate the non-visual, motion-detecting sensory systems in a natural way. However, allowing real movement requires real space. Technologies such as Head Mounted Displays (HMDs) and CAVEs can be used to provide large immersive visual displays within small physical spaces. It is difficult, however, to provide virtual environments that are as large physically as they are visually. A fundamental problem is that tracking technologies that work well in a small, enclosed environment do not function well over longer distances. Here we describe Trike - a 'rideable' computer system that can be used to present large virtual spaces both visually and physically, and thus provide appropriately matched stimulation to both visual and non-visual sensory systems. [PUBLICATION ABSTRACT] |
| doi_str_mv | 10.1007/s100550200009 |
| format | Article |
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S ; HARRIS, L. R ; ZACHER, J ; ZIKOVITZ, D ; HOGUE, A. R ; JASIOBEDZAK, U. T ; JENKIN, H. L ; JENKIN, M. R ; JAEKL, P ; LAURENCE, J. R ; PENTILE, G ; REDLICK, F</creator><creatorcontrib>ALLISON, R. S ; HARRIS, L. R ; ZACHER, J ; ZIKOVITZ, D ; HOGUE, A. R ; JASIOBEDZAK, U. T ; JENKIN, H. L ; JENKIN, M. R ; JAEKL, P ; LAURENCE, J. R ; PENTILE, G ; REDLICK, F</creatorcontrib><description>When simulating self-motion, virtual reality designers ignore non-visual cues at their peril. But providing non-visual cues presents significant challenges. One approach is to accompany visual displays with corresponding real physical motion to stimulate the non-visual, motion-detecting sensory systems in a natural way. However, allowing real movement requires real space. Technologies such as Head Mounted Displays (HMDs) and CAVEs can be used to provide large immersive visual displays within small physical spaces. It is difficult, however, to provide virtual environments that are as large physically as they are visually. A fundamental problem is that tracking technologies that work well in a small, enclosed environment do not function well over longer distances. Here we describe Trike - a 'rideable' computer system that can be used to present large virtual spaces both visually and physically, and thus provide appropriately matched stimulation to both visual and non-visual sensory systems. 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| subjects | Applied sciences Computer aided design Computer science control theory systems Design Exact sciences and technology Motion detectors Simulation Software Virtual reality |
| title | Simulating self-motion II: A virtual reality tricycle |
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