1996
DOI: 10.1016/0024-3795(94)00188-x
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On the complexity of nonnegative-matrix scaling

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Cited by 43 publications
(45 citation statements)
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“…Sinkhorn [22] shows that this procedure converges to a unique doubly stochastic matrix of the form RM C where R and C are diagonal matrices if M is a positive matrix. Although there are cases in which Sinkhorn balancing does not converge in finite time, many results show that the number of Sinkhorn iterations needed to scale a matrix so that row and column sums are 1 ± ǫ is polynomial in 1/ǫ [1,17,18].…”
Section: Considering Permutationsmentioning
confidence: 99%
“…Sinkhorn [22] shows that this procedure converges to a unique doubly stochastic matrix of the form RM C where R and C are diagonal matrices if M is a positive matrix. Although there are cases in which Sinkhorn balancing does not converge in finite time, many results show that the number of Sinkhorn iterations needed to scale a matrix so that row and column sums are 1 ± ǫ is polynomial in 1/ǫ [1,17,18].…”
Section: Considering Permutationsmentioning
confidence: 99%
“…Matrix scaling and, we believe, n-tuple scaling as well, are important problems, even without their ties to permanents and mixed discriminants. Matrix scaling problems were solved via a convex programming approach in [20] and, in a more general setting, in [22].…”
Section: An Overview Of the Mixed Discriminant Approximation Algorithmmentioning
confidence: 99%
“…So in general, this procedure requires an infinite number of iterations. A number of efficient algorithms have therefore been considered, as in Kalantari and Khachiyan [10] and Linial, Samorodnitsky and Wigderson [11], for producing in a finite number of steps, approximate solutions that are within acceptable error bounds.…”
Section: Theorem 1 For Any N × N Biadjacency Matrix a Resulting Frommentioning
confidence: 99%