2013
DOI: 10.37236/2554
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The Complexity of Generalized Domino Tilings

Abstract: Tiling planar regions with dominoes is a classical problem in which the decision and counting problems are polynomial. We prove a variety of hardness results (both NP-and #Pcompleteness) for different generalizations of dominoes in three and higher dimensions.

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Cited by 12 publications
(9 citation statements)
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“…There are instances where results of tilings in the plane do not extend to higher dimensions. For example, the number of tilings of a finite region by dominoes can be counted efficiently in the plane, but is #P-complete in higher dimensions [PY2]. However, all of the results in this paper extend easily to higher dimensions.…”
Section: Final Remarks and Open Problemsmentioning
confidence: 93%
“…There are instances where results of tilings in the plane do not extend to higher dimensions. For example, the number of tilings of a finite region by dominoes can be counted efficiently in the plane, but is #P-complete in higher dimensions [PY2]. However, all of the results in this paper extend easily to higher dimensions.…”
Section: Final Remarks and Open Problemsmentioning
confidence: 93%
“…the previous case, t is equivalent to a product of copies of t +1 and t −1 , completing this last case and the proof of the lemma. 10. Regularity of boxes for n = 4…”
Section: Domino Tilings In Higher Dimensionsmentioning
confidence: 99%
“…Bodini [1] considered tileability problems of pyramidal polycubes. Pak and Yang [14] studied the complexity of the problems of tileability and counting for domino tilings in three and higher dimensions, and proved some hardness results in this respect. If R is a cubiculated region in R 3 , a floor of R is R ∩ (R 2 × [n, n + 1]), for some n ∈ Z.…”
Section: Introductionmentioning
confidence: 99%