Gillet Alexandre, Sanner Michel, Stoffler Daniel, Olson Arthur
The Scripps Research Institute, La Jolla, California 92037, USA.
Structure. 2005 Mar;13(3):483-91. doi: 10.1016/j.str.2005.01.009.
The evolving technology of computer autofabrication makes it possible to produce physical models for complex biological molecules and assemblies. Augmented reality has recently developed as a computer interface technology that enables the mixing of real-world objects and computer-generated graphics. We report an application that demonstrates the use of autofabricated tangible models and augmented reality for research and communication in molecular biology. We have extended our molecular modeling environment, PMV, to support the fabrication of a wide variety of physical molecular models, and have adapted an augmented reality system to allow virtual 3D representations to be overlaid onto the tangible molecular models. Users can easily change the overlaid information, switching between different representations of the molecule, displays of molecular properties, or dynamic information. The physical models provide a powerful, intuitive interface for manipulating the computer models, streamlining the interface between human intent, the physical model, and the computational activity.
计算机自动制造技术的不断发展,使得为复杂生物分子和组件制作物理模型成为可能。增强现实作为一种计算机接口技术,最近得到了发展,它能够将现实世界的物体与计算机生成的图形相融合。我们报告了一项应用,展示了使用自动制造的实体模型和增强现实技术在分子生物学研究与交流中的应用。我们扩展了分子建模环境PMV,以支持制作各种各样的物理分子模型,并适配了一个增强现实系统,使虚拟3D表示能够叠加在实体分子模型上。用户可以轻松更改叠加信息,在分子的不同表示形式、分子属性显示或动态信息之间进行切换。物理模型为操作计算机模型提供了一个强大、直观的界面,简化了人类意图、物理模型和计算活动之间的界面。