Mode Surfaces of Symmetric Tensor Fields: Topological Analysis and Seamless Extraction
Botong Qu, Lawrence Roy, Yue Zhang, and Eugene Zhang

TL;DR
This paper introduces a topological analysis and seamless extraction method for mode surfaces in 3D symmetric tensor fields, enhancing understanding and visualization of tensor field features.
Contribution
It provides a novel topological framework and a unified parameterization for mode surfaces, enabling seamless extraction and improved analysis of tensor field features.
Findings
Unified parameterization of mode surfaces using 2D asymmetric tensors
Efficient algorithm for seamless mode surface extraction
Application to solid mechanics datasets demonstrates effectiveness
Abstract
Mode surfaces are the generalization of degenerate curves and neutral surfaces, which constitute 3D symmetric tensor field topology. Efficient analysis and visualization of mode surfaces can provide additional insight into not only degenerate curves and neutral surfaces, but also how these features transition into each other. Moreover, the geometry and topology of mode surfaces can help domain scientists better understand the tensor fields in their applications. Existing mode surface extraction methods can miss features in the surfaces. Moreover, the mode surfaces extracted from neighboring cells have gaps, which make their subsequent analysis difficult. In this paper, we provide novel analysis on the topological structures of mode surfaces, including a common parameterization of all mode surfaces of a tensor field using 2D asymmetric tensors. This allows us to not only better…
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Taxonomy
TopicsComputer Graphics and Visualization Techniques · Advanced Neuroimaging Techniques and Applications · Theoretical and Computational Physics
