AbstractThere are many randomized “divide and conquer” algorithms, such as randomized Quicksort, whose operation involves partitioning a problem of size n uniformly at random into two subproblems of size k and n-k that are solved recursively. We present a simple combinatorial method for analyzing the expected running time of such algorithms, and prove that under very weak assumptions this expected running time will be asymptotically equivalent to the running time obtained when problems are always split evenly into two subproblems of size n/2
We present the first average-case analysis proving a polynomial upper bound on the expected running ...
The satisfiability problem is a basic core NP-complete problem. In recent years, a lot of heuristic ...
A number of open questions are settled about the expected costs of two disjoint set Union and Find a...
AbstractThere are many randomized “divide and conquer” algorithms, such as randomized Quicksort, who...
This article presents a wp–style calculus for obtaining bounds on the expected runtime of randomized...
AbstractThe first complete running time analysis of a stochastic divide and conquer algorithm was gi...
The technique of randomization has been employed to solve numerous prob lems of computing both sequ...
We study the average-case performance of algorithms for the binary knapsack problem. Our focus lies...
We consider the problem of developing automated techniques for solving recurrence relations to aid t...
The uncertainty of running time of randomized algorithms provides a better opportunity for asynchron...
In this paper, we present the first average-case analysis proving an expected polynomial running tim...
AbstractWe present the first average-case analysis proving a polynomial upper bound on the expected ...
In this paper, we present the first average-case analysis proving an expected polynomial running tim...
In theoretical computer science, various notions of efficiency are used for algorithms. The most com...
UnrestrictedAn algorithm can be defined as a set of computational steps that transform the input to ...
We present the first average-case analysis proving a polynomial upper bound on the expected running ...
The satisfiability problem is a basic core NP-complete problem. In recent years, a lot of heuristic ...
A number of open questions are settled about the expected costs of two disjoint set Union and Find a...
AbstractThere are many randomized “divide and conquer” algorithms, such as randomized Quicksort, who...
This article presents a wp–style calculus for obtaining bounds on the expected runtime of randomized...
AbstractThe first complete running time analysis of a stochastic divide and conquer algorithm was gi...
The technique of randomization has been employed to solve numerous prob lems of computing both sequ...
We study the average-case performance of algorithms for the binary knapsack problem. Our focus lies...
We consider the problem of developing automated techniques for solving recurrence relations to aid t...
The uncertainty of running time of randomized algorithms provides a better opportunity for asynchron...
In this paper, we present the first average-case analysis proving an expected polynomial running tim...
AbstractWe present the first average-case analysis proving a polynomial upper bound on the expected ...
In this paper, we present the first average-case analysis proving an expected polynomial running tim...
In theoretical computer science, various notions of efficiency are used for algorithms. The most com...
UnrestrictedAn algorithm can be defined as a set of computational steps that transform the input to ...
We present the first average-case analysis proving a polynomial upper bound on the expected running ...
The satisfiability problem is a basic core NP-complete problem. In recent years, a lot of heuristic ...
A number of open questions are settled about the expected costs of two disjoint set Union and Find a...