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We develop a new kind of "space-filling" curves, connected Fermat spirals , and show their compelling properties as a tool path fill pattern for layered fabrication. Unlike classical space-filling curves such as the Peano or Hilbert curves, which constantly wind and bind to preserve locality, connected Fermat spirals are formed mostly by long, low-curvature paths. This geometric property, along with continuity, influences the quality and efficiency of layered fabrication. Given a connected 2D region, we first decompose it into a set of sub-regions, each of which can be filled with a single continuous Fermat spiral. We show that it is always possible to start and end a Fermat spiral fill at approximately the same location on the outer boundary of the filled region. This special property allows the Fermat spiral fills to be joined systematically along a graph traversal of the decomposed sub-regions. The result is a globally continuous curve. We demonstrate that printing 2D layers following tool paths as connected Fermat spirals leads to efficient and quality fabrication, compared to conventional fill patterns.
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Haisen Zhao
Shandong University
Fanglin Gu
National University of Defense Technology
Qixing Huang
East China Normal University
ACM Transactions on Graphics
Purdue University West Lafayette
Tel Aviv University
Simon Fraser University
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Zhao et al. (Mon,) studied this question.
synapsesocial.com/papers/6a13b069fa9f47b070f17ec9 — DOI: https://doi.org/10.1145/2897824.2925958