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A Technique for Constructing Symmetric Designs

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Abstract

Let M be a set of incidence matrices of symmetric (v,k,λ)-designs and G a group of mappings M→ M. We give a sufficient condition for the matrix W⊗ M, where Mε M and W is a balanced generalized weighing matrix over G, to be the incidence matrix of a larger symmetric design. This condition is then applied to the designs corresponding to McFarland and Spence difference sets, and it results in four families of symmetric (v,k,λ )-designs with the following parameters k and λ (m and d are positive integers, p and q are prime powers): (i) \(k = q^{2m-1} p^d ,\lambda = (q-1)q^{2m-2} p^{d-1} ,q= \frac{p^{d+1} - 1}{p-1}\); (ii) \(k = \frac{(q^{2m-1} p^d - 1)p^d}{(p-1)(p^d + 1)},\lambda = \frac{{(q^{2m - 2} p^{2d} - 1)p^d }}{{(p - 1)(p^d + 1)}},q = p^{d + 1} + p - 1\); (iii) \(k = 3^d q^{2m - 1} ,\lambda = \frac{{3^d (3^d + 1)q^{2m - 2} }} {2},q = \frac{{3^{d + 1} + 1}} {2} \); (iv) \(k = \frac{{3^d (3^d q^{2m - 1} - 1)}} {{2(3^d - 1)}},\lambda = \frac{{3^d (3^{2d} q^{2m - 2} - 1)}} {{2(3^d - 1)}},q = 3^{d + 1} - 2 \).

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Ionin, Y.J. A Technique for Constructing Symmetric Designs. Designs, Codes and Cryptography 14, 147–158 (1998). https://doi.org/10.1023/A:1008288012934

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