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Canonical representations of discrete curves

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Abstract

A new representation of digital curves is introduced. It has the property of being unique and canonical when computed on closed curves. The representation is based on the discrete notion of tangents and is complete in the sense that it contains all discrete segments and all polygonalizations which can be constructed with connected subsets of the original curve. This representation is extended for dealing with noisy curves and we also propose a multi-scale extension. An application is given to curve decomposition into concave–convex parts and with application in syntactical based methods.

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Acknowledgements

We thank Jacques Olivier Lachaud for the flower function and the anonymous referees whose comments greatly improved a previous version of the paper. Special thanks to F. Mokhtarian for making the SQUID database freely available.

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  1. LLAIC1 - IUT Clermont-Ferrand 1 - Campus des Cézeaux, BP 86 - 63172, Aubière, France

    Fabien Feschet

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  1. Fabien Feschet
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Correspondence to Fabien Feschet.

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Feschet, F. Canonical representations of discrete curves. Pattern Anal Applic 8, 84–94 (2005). https://doi.org/10.1007/s10044-005-0246-5

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