2010
DOI: 10.1002/jcd.20256
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Exponential bounds on the number of designs with affine parameters

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Cited by 5 publications
(21 citation statements)
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“…Similar results can also be obtained in the affine case: in [6] lower bounds are proved on the number of non-isomorphic designs having the same parameters as an affine geometry design AG d (n, q) whose blocks are the d-subspaces of AG(n, q), for any 2 ≤ d ≤ n − 1, as well as resolvable designs with these parameters. We note that the case d = 1 has not yet been dealt with in the affine setting.…”
Section: Boundssupporting
confidence: 59%
See 1 more Smart Citation
“…Similar results can also be obtained in the affine case: in [6] lower bounds are proved on the number of non-isomorphic designs having the same parameters as an affine geometry design AG d (n, q) whose blocks are the d-subspaces of AG(n, q), for any 2 ≤ d ≤ n − 1, as well as resolvable designs with these parameters. We note that the case d = 1 has not yet been dealt with in the affine setting.…”
Section: Boundssupporting
confidence: 59%
“…Let us simply mention one small example and then state the general corollary one obtains. For instance, applied to the parameters n = 5, d = 3, q = 2, the results of [6] imply that the number of non-isomorphic (32,8,35)-designs is larger than 10 180 , and that the number of non-isomorphic resolvable designs with these parameters is larger than 1.7 · 10 27 . Theorem 2.6.…”
Section: Boundsmentioning
confidence: 99%
“…It was shown in [3] that the number of non-isomorphic resolvable designs with the parameters of AG d (n, q) grows exponentially with linear growth of n whenever d ≥ 2. Analogous results were previously established for designs with the parameters of PG d (n, q); see [14] for d = 1 and [15] for d ≥ 2.…”
Section: A Lower Boundmentioning
confidence: 99%
“…The constructions presented below have some similarities to constructions presented in [1,4,10,11]. In [4] and [1], new designs are created from PG d (n, q) and AG d (n, q) by rearranging parts of these designs.…”
mentioning
confidence: 96%
“…In [4] and [1], new designs are created from PG d (n, q) and AG d (n, q) by rearranging parts of these designs. In Constructions 2.1 and 2.2, we start with arbitrary constituent parts P(d , n , q) and R A(d , n , q) and combine these to form new designs P(d, n, q) and R A(d, n, q).…”
mentioning
confidence: 99%