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用于重建具有任意未知反射率的动态场景的彩色亥姆霍兹立体视觉

Colour Helmholtz Stereopsis for Reconstruction of Dynamic Scenes with Arbitrary Unknown Reflectance.

作者信息

Roubtsova Nadejda, Guillemaut Jean-Yves

机构信息

Centre for Vision, Speech and Signal Processing, University of Surrey, Guildford, GU2 7XH UK.

出版信息

Int J Comput Vis. 2017;124(1):18-48. doi: 10.1007/s11263-016-0951-0. Epub 2016 Sep 20.

DOI:10.1007/s11263-016-0951-0
PMID:32025092
原文链接:https://pmc.ncbi.nlm.nih.gov/articles/PMC6979544/
Abstract

Helmholtz Stereopsis is a powerful technique for reconstruction of scenes with arbitrary reflectance properties. However, previous formulations have been limited to static objects due to the requirement to sequentially capture reciprocal image pairs (i.e. two images with the camera and light source positions mutually interchanged). In this paper, we propose colour Helmholtz Stereopsis-a novel framework for Helmholtz Stereopsis based on wavelength multiplexing. To address the new set of challenges introduced by multispectral data acquisition, the proposed Colour Helmholtz Stereopsis pipeline uniquely combines a tailored photometric calibration for multiple camera/light source pairs, a novel procedure for spatio-temporal surface chromaticity calibration and a state-of-the-art Bayesian formulation necessary for accurate reconstruction from a minimal number of reciprocal pairs. In this framework, reflectance is spatially unconstrained both in terms of its chromaticity and the directional component dependent on the illumination incidence and viewing angles. The proposed approach for the first time enables modelling of dynamic scenes with arbitrary unknown and spatially varying reflectance using a practical acquisition set-up consisting of a small number of cameras and light sources. Experimental results demonstrate the accuracy and flexibility of the technique on a variety of static and dynamic scenes with arbitrary unknown BRDF and chromaticity ranging from uniform to arbitrary and spatially varying.

摘要

亥姆霍兹立体视觉是一种用于重建具有任意反射特性场景的强大技术。然而,由于需要顺序捕获互易图像对(即相机和光源位置相互互换的两幅图像),先前的公式仅限于静态物体。在本文中,我们提出了彩色亥姆霍兹立体视觉——一种基于波长复用的亥姆霍兹立体视觉新框架。为应对多光谱数据采集带来的一系列新挑战,所提出的彩色亥姆霍兹立体视觉流程独特地结合了针对多个相机/光源对的定制光度校准、一种用于时空表面色度校准的新颖程序以及从最少数量的互易对进行精确重建所需的最新贝叶斯公式。在这个框架中,反射率在色度方面以及取决于光照入射角和视角的方向分量方面在空间上不受约束。所提出的方法首次能够使用由少量相机和光源组成的实际采集设置,对具有任意未知且空间变化反射率的动态场景进行建模。实验结果证明了该技术在各种具有任意未知双向反射分布函数(BRDF)和色度(从均匀到任意且空间变化)的静态和动态场景上的准确性和灵活性。

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本文引用的文献

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The Geometry of Reflectance Symmetries.反射对称的几何学。
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Video Normals from Colored Lights.彩色光照视频常态。
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