2017
DOI: 10.1002/jcd.21571
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Further results on almost resolvable cycle systems and the Hamilton–Waterloo problem

Abstract: In this paper, we almost completely solve the existence of almost resolvable cycle systems with odd cycle length. We also use almost resolvable cycle systems as well as other combinatorial structures to give some new solutions to the Hamilton-Waterloo problem. K E Y W O R D Salmost resolvable cycle system, Hamilton-Waterloo problem, 2-factorization

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Cited by 13 publications
(21 citation statements)
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“…For the case g=1, we recall a result proven in [, Theorem and Lemma 3.15]. We point out that the exceptions (m,n,α)=(3,11,6), (3, 13, 8), (3, 15, 8) in [, Theorem 1.6] have been dealt with in . We state this result as follows.…”
Section: Factoring Cmfalse[gnfalse] Into Cgm‐factors and Cgn‐factorsmentioning
confidence: 86%
See 1 more Smart Citation
“…For the case g=1, we recall a result proven in [, Theorem and Lemma 3.15]. We point out that the exceptions (m,n,α)=(3,11,6), (3, 13, 8), (3, 15, 8) in [, Theorem 1.6] have been dealt with in . We state this result as follows.…”
Section: Factoring Cmfalse[gnfalse] Into Cgm‐factors and Cgn‐factorsmentioning
confidence: 86%
“…If (α,gcd(m!,n))(2,1), or (α,m)(4,3), or (m,n,α){(3,11,6), (3, 13, 8), (3, 15, 8)}, we apply Theorem . Finally, the cases (m,n,α)=(3,11,6), (3, 13, 8), (3, 15, 8) have been proven in . If g=3 or 5, then the result comes from Lemmas and , respectively.…”
Section: Factoring Cmfalse[gnfalse] Into Cgm‐factors and Cgn‐factorsmentioning
confidence: 99%
“…In this section, we present some preliminary notation and definitions, and provide lemma for the construction of a k ‐ARCS(2k+1) for k2(mod4). We point out that similar methods have been used for many years (see ).…”
Section: Preliminarymentioning
confidence: 99%
“…) presented the following open problem “The outstanding problem remains the construction of almost resolvable 2 k ‐cycle systems of order 4k+1, since this will determine the spectrum for almost resolvable 2 k ‐cycle systems with the one possible exception of orders 8k+1.” Since then, many authors have contributed to proving the following known conclusions. Theorem () Let n1(mod2k). There exists a k ‐ARCS( n ) for any odd k3 and any even k{4,6,8,10,14}, except for (k,n){(3,7),(3,13),(4,9)} and except possibly for (k,n){(8,33),(14,57)}.…”
Section: Introductionmentioning
confidence: 99%
“…Many infinite classes of HW(v; 3, 3x; α, β)s are constructed in [3]. For more results on the Hamilton-Waterloo problem, the reader can see [5,8,11,15,16,25]. In this paper, we focus on the existence of an HW(8mt; 8, m; α, β).…”
Section: Introductionmentioning
confidence: 99%