Algorithms to Compute the Lyndon Array
May 28, 2016 Β· Declared Dead Β· π Prague Stringology Conference
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Authors
Frantisek Franek, A. S. M. Sohidull Islam, M. Sohel Rahman, W. F. Smyth
arXiv ID
1605.08935
Category
cs.DS: Data Structures & Algorithms
Citations
31
Venue
Prague Stringology Conference
Last Checked
3 months ago
Abstract
We first describe three algorithms for computing the Lyndon array that have been suggested in the literature, but for which no structured exposition has been given. Two of these algorithms execute in quadratic time in the worst case, the third achieves linear time, but at the expense of prior computation of both the suffix array and the inverse suffix array of x. We then go on to describe two variants of a new algorithm that avoids prior computation of global data structures and executes in worst-case n log n time. Experimental evidence suggests that all but one of these five algorithms require only linear execution time in practice, with the two new algorithms faster by a small factor. We conjecture that there exists a fast and worst-case linear-time algorithm to compute the Lyndon array that is also elementary (making no use of global data structures such as the suffix array).
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