High-Performance Spatial Hybrid User Interfaces

高性能空间混合用户界面

• 批准号: RGPIN-2014-04337
• 负责人: Stuerzlinger, Wolfgang
• 金额: $ 1.46万
• 依托单位: Simon Fraser University
• 依托单位国家: 加拿大
• 项目类别: Discovery Grants Program - Individual
• 财政年份: 2015
• 资助国家: 加拿大
• 起止时间: 2015-01-01 至 2016-12-31
• 项目状态: 已结题
• 来源: https://www.nserc-crsng.gc.ca/ase-oro/Details-Detailles_eng.asp?id=587744
• 关键词: Performance; Spatial; Hybrid; User; Interfaces

Interaction with three-dimensional (3D), spatial data is increasingly common. Spatial data are important for many sectors, including interior design, architecture, urban planning, industrial planning and design, simulation, training, animation, the game and entertainment industry, and the new “maker” movement. Yet, user interfaces for spatial data are complex, difficult to learn, or limited in functionality. My research program investigates better spatial user interfaces for 3D content. The new spatial hybrid user interfaces are a combination of user interfaces, where the user manipulates virtual objects quickly in the air, with the best of desktop user interfaces. Working towards the vision of spatial user interfaces that are efficient as 2D interfaces, the research program involves three main thrusts: characterization of basic operations, accurate interaction, and new technologies. The first thrust investigates how well current, basic spatial interaction techniques, such as 3D rotations, docking, and travel, perform in terms of speed and accuracy. Moreover, the research also investigates how fast transitions between in-air and desktop interfaces are and how reliable gestures are as a substitute for buttons and keys. While in-air manipulation seems attractive, the available experimental data points to a lack of precision. Thus, we investigate hybrid combinations of in-air and desktop interfaces in the second thrust, where the desktop interface is used for fine-tuning of the final result. Such combinations will yield hybrid spatial user interfaces for 3D content creation and editing that are both fast and precise. Moreover, we study new techniques for resolving depth ambiguities and switching between mono- and stereoscopic viewing. The final thrust of this research program investigates new tracking technologies for fingers and pens, with the aim to further increase tracking accuracy. The fundamental contributions of my research program will be accurate quantifications of the throughput of existing and new spatial interaction techniques, new methodologies for evaluation of interaction methods, novel design guidelines, as well as new technologies. Together, the work constitutes a major step forward towards high-performance spatial user interfaces that are still easy to learn. Better spatial user interfaces will increase the accessibility of 3D modeling for non-specialists, which in turn will accelerate the adoption of 3D content manipulation and creation by the general public, e.g., driven by the new maker/3D printing movement. Moreover, 3D content creation and gaming are core Canadian strengths. Canada will benefit from the research program presented here through many globally competitive HQP in user interface design and 3D graphics, as well as a potential startup. Also, the broad applicability of the results will increase interest in science and technical disciplines.

与三维（3D）的相互作用，空间数据越来越普遍。空间数据对于许多领域都很重要，包括室内设计，建筑，城市规划，工业规划和设计，模拟，培训，动画，游戏和娱乐行业以及新的“制造商”运动。但是，空间数据的用户界面很复杂，难以学习或功能限制。我的研究计划研究了3D内容的更好的空间用户界面。 新的空间混合用户界面是用户界面的组合，其中用户在空中快速操纵虚拟对象，并具有最好的桌面用户界面。研究计划朝着有效地为2D接口的空间用户界面的愿景，涉及三个主要推力：基本操作的表征，准确的互动和新技术。 第一个推力研究了当前基本的空间相互作用技术，例如3D旋转，对接和旅行，在速度和准确性方面进行性能。此外，该研究还研究了空气内和桌面接口之间的过渡速度，以及可靠的手势替代按钮和钥匙的可靠手势。尽管空中操作似乎很有吸引力，但可用的实验数据指出了缺乏精度。这，我们研究了第二个推力的空气内和桌面接口的混合组合，其中桌面接口用于微调最终结果。此类组合将产生混合空间用户界面，用于快速和精确的3D内容创建和编辑。此外，我们研究了解决深度歧义并在单镜观看和立体观看之间切换的新技术。该研究计划的最后推力研究了针对手指和笔的新跟踪技术，目的是进一步提高跟踪准确性。 我的研究计划的基本贡献将是对现有和新的空间互动技术的吞吐量的准确量化，评估相互作用方法的新方法，新颖的设计准则以及新技术。一起，这项工作构成了迈向仍然易于学习的高性能空间用户界面的重要一步。 更好的空间用户界面将增加非专家的3D建模的可访问性，这又可以加速公众采用3D内容操纵和创建，例如，由新的Maker/3D打印运动开车。此外，3D内容创建和游戏是加拿大的核心优势。加拿大将从此处通过许多全球竞争性HQP在用户界面设计和3D图形以及潜在的创业公司中的研究计划中受益。此外，结果的广泛适用性将增加对科学和技术学科的兴趣。