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Pixel-by-pixel absolute phase retrieval assisted by an additional three-dimensional scanner

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Abstract

This paper presents a novel absolute phase unwrapping method assisted by a low-cost three-dimensional (3D) scanner. The proposed absolute phase unwrapping method leverages a low-cost 3D scanner to capture rough 3D data of the scene and transforms the rough 3D data to the world coordinate system to generate an artificial reference phase map ϕref. By referring to ϕref, we can do absolute phase unwrapping directly without projecting any additional patterns, such that the digital fringe projection (DFP) system can achieve higher measurement speed. We develop a multiresolution system consisting of a DFP system and a Kinect V2 to validate our method. Experiments demonstrate that our method works for a large depth range, and the speed of the low-cost 3D scanner is not necessarily the maximum speed of our proposed method. Assisted by the Kinect V2, whose maximum speed is only 30 Hz, our DFP system achieves 53 Hz with a resolution 1600×1000 pixels when we measure dynamic objects that are moving in a large depth range of 400 mm.

© 2019 Optical Society of America

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Supplementary Material (8)

NameDescription
Visualization 1       Texture of the two isolated objects to be measured
Visualization 2       3D shape measurement result on the two isolated objects using Kinect (the data is up-sampled and transformed to the DFP coordinate system, and the video plays in approximately 27 Hz)
Visualization 3       3D shape measurement result on the two isolated objects using our proposed method (the video plays in approximately 53 Hz)
Visualization 4       Another perspective of the 3D shape measurement result on the two isolated objects using our proposed method (the video plays in approximately 53 Hz)
Visualization 5       Texture of the human body to be measured
Visualization 6       3D shape measurement result on the dynamic human body using Kinect (the data is up-sampled and transformed to the DFP coordinate system, and the video plays in approximately 27 Hz)
Visualization 7       3D shape measurement result on the dynamic human body using our proposed method (the video plays in approximately 53 Hz)
Visualization 8       Another perspective of the 3D shape measurement result on the dynamic human body using our proposed method (the video plays in approximately 53 Hz)

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Figures (12)

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Equations (21)

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