Abstract
On-site investigation is a natural efficient way to cognize tangible, while immersive visualization engages human senses to percept information from data. Hence on-site immersive visualization is able to provide a better stereo environment for enhancing the understanding of real scene and gathering insight. With the development of technology, optical see-through head-mounted devices can help researchers achieve the goals. However, worldwide ancient murals suffer from various degradations related to compound environmental factors, which requires interdisciplinary researches. And because of the importance of on-site investigation in heritage protection field, on-site visualization has to meet the requirements of relative professors. In this paper, we present a novel mixed reality, on-site immersive mural degradation visualization solution for analyzing relevance between degradation and environment data. And a rapid, simple, low-cost and interactive method of degradation contour annotation is provided to solve the data sparse problem of standard degradation data. To demonstrate the visualization solution and the annotation method, two application results with real data from Mogao Grottoes and domain-expert feedback are given. The solution is on-site, immersive oriented and integrates secure designs for heritages. Our solution is flexible and effective so that it can provide a better data analysis environment than conventional planar visualizations. It also provides a promising way to change work styles.
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Acknowledgements
The authors wish to thank Prof. Xin Tong, Dr. Yue Dong, Microsoft Research Asia, for discussions with us. We appreciate Xudong Wang, Bomin Su, Xiaowei Wang and Bolong Chai and all the Dunhuang Academics, for providing us the Dunhuang Mogao wall painting survey data. We also thank the anonymous reviewers for their helpful suggestions and comments. This project is funded by Microsoft Research Asia through grants “Holo-Heritage: Dunhuang Cultural Heritage Conservation Research and Development based on Microsoft Hololens”.
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Zhang, J., Tao, H. On-site immersive visualization and rapid degradation annotation for mural degradation interactive analysis. J Vis 21, 841–855 (2018). https://doi.org/10.1007/s12650-018-0492-4
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DOI: https://doi.org/10.1007/s12650-018-0492-4