Linear complexity of modulo-m related prime sequences

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Linear complexity of modulo-m related prime sequences

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The linear complexity of m-phase related prime sequences is investigated for the case when m is composite. For each relatively prime factor pik of m, the linear complexity and the characteristic polynomial of the shortest linear feedback shift register that generates the pik-phase version of the sequence can be deduced and these results can then be combined using the Chinese remainder theorem to derive the m-phase values. These values are shown to depend on the categories of the sequence length computed modulo each factor of m, rather than on the category of the length modulo m itself, and that these values depend on the primitive roots employed. For a given length, the highest values of linear complexity result from constructing the sequences using those values of primitive elements that lead to non-zero categories for each factor of m.

Inspec keywords: m-sequences; polynomials; shift registers; computational complexity; feedback

Other keywords: m-phase related prime sequences; linear complexity; Chinese remainder theorem; nonzero categories; primitive elements; shortest linear feedback shift register; modulo-m related prime sequences

Subjects: Switching theory; Interpolation and function approximation (numerical analysis); Interpolation and function approximation (numerical analysis); Codes; Computational complexity

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