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Selection on X 1  +  X 2  + ⋯ +  X m via Cartesian product trees

Selection on the Cartesian product is a classic problem in computer science. Recently, an optimal algorithm for selection on  +  , based on soft heaps, was introduced. By combining this approach with layer-ordered heaps (LOHs), an algorithm using a balanced binary tree of  +  selections was proposed...

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Published in:PeerJ. Computer science 2021, Vol.7, p.e483-e483, Article e483
Main Authors: Kreitzberg, Patrick, Lucke, Kyle, Pennington, Jake, Serang, Oliver
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Language:English
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description Selection on the Cartesian product is a classic problem in computer science. Recently, an optimal algorithm for selection on  +  , based on soft heaps, was introduced. By combining this approach with layer-ordered heaps (LOHs), an algorithm using a balanced binary tree of  +  selections was proposed to perform selection on  +   + ⋯ +  in ( ⋅  +  ⋅ ), where have length . Here, that ( ⋅  +  ⋅ ) algorithm is combined with a novel, optimal LOH-based algorithm for selection on  +  (without a soft heap). Performance of algorithms for selection on  +   + ⋯ +  are compared empirically, demonstrating the benefit of the algorithm proposed here.
doi_str_mv 10.7717/peerj-cs.483
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title Selection on X 1  +  X 2  + ⋯ +  X m via Cartesian product trees
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