Abstract

Noisy pattern matching problems arise in many areas, e.g., computational vision, robotics, guidance and control, stereophotogrammetry, astronomy, genetics, and high-energy physics. Least-squares pattern matching over the Euclidean space E(n) for unordered sets of cardinalities p and q is commonly formulated as a combinatorial optimization problem having complexity p(p-1)...(p-q+1), q=/<p. Since p and q may be 10 (3) or larger in typical applications, less than satisfactory suboptimal methods are usually employed. A hybrid approach is described for solving the pattern matching problem under rigid motion constraints, which often apply. The method reduces the complexity to l(21).n(4)+l(12).p(3), where l(12) and l(21) are the number of iterations required by steepest-ascent and singular value decomposition (SVD)-based procedures, respectively.

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