Summarization: We consider the problems of nonnegative tensor factorization and completion. Our aim is to derive efficient algorithms that are also suitable for parallel implementation. We adopt the alternating optimization framework and solve each matrix nonnegative least-squares problem via a Nesterov-type algorithm for convex and strongly convex problems. We describe parallel implementations of the algorithms and measure the attained speedup in a multi-core computing environment. It turns out that the derived algorithms are competitive candidates for the solution of very large-scale nonnegative tensor factorization and completion
International audienceThis paper deals with the minimum polyadic decomposition of a nonnegative thre...
International audienceComputing the minimal polyadic decomposition (also often referred to as canoni...
Abstract. Higher-order low-rank tensors naturally arise in many applications including hyperspectral...
Summarization: We consider the problem of nonnegative tensor factorization. Our aim is to derive an ...
Summarization: We consider the problem of nonnegative tensor completion. Our aim is to derive an eff...
Summarization: We consider the problem of nonnegative tensor factorization. Our aim is to derive an ...
Summarization: We consider the problem of nonnegative tensor factorization. Our aim is to derive an ...
Summarization: We consider the problem of tensor factorization in the cases where one of the factors...
Summarization: Tensors are generalizations of matrices to higher dimensions and are very powerful to...
Summarization: Most tensor decomposition algorithms were developed for in-memory computation on a si...
AbstractThe tensor completion problem is to recover a low-n-rank tensor from a subset of its entries...
This paper considers block multi-convex optimization, where the feasible set and objective function ...
Tensors can be viewed as multilinear arrays or generalizations of the notion of matrices. Tensor dec...
Unlike matrix completion, tensor completion does not have an algorithm that is known to achieve the ...
In this paper, the low-complexity tensor completion (LTC) scheme is proposed to improve the efficien...
International audienceThis paper deals with the minimum polyadic decomposition of a nonnegative thre...
International audienceComputing the minimal polyadic decomposition (also often referred to as canoni...
Abstract. Higher-order low-rank tensors naturally arise in many applications including hyperspectral...
Summarization: We consider the problem of nonnegative tensor factorization. Our aim is to derive an ...
Summarization: We consider the problem of nonnegative tensor completion. Our aim is to derive an eff...
Summarization: We consider the problem of nonnegative tensor factorization. Our aim is to derive an ...
Summarization: We consider the problem of nonnegative tensor factorization. Our aim is to derive an ...
Summarization: We consider the problem of tensor factorization in the cases where one of the factors...
Summarization: Tensors are generalizations of matrices to higher dimensions and are very powerful to...
Summarization: Most tensor decomposition algorithms were developed for in-memory computation on a si...
AbstractThe tensor completion problem is to recover a low-n-rank tensor from a subset of its entries...
This paper considers block multi-convex optimization, where the feasible set and objective function ...
Tensors can be viewed as multilinear arrays or generalizations of the notion of matrices. Tensor dec...
Unlike matrix completion, tensor completion does not have an algorithm that is known to achieve the ...
In this paper, the low-complexity tensor completion (LTC) scheme is proposed to improve the efficien...
International audienceThis paper deals with the minimum polyadic decomposition of a nonnegative thre...
International audienceComputing the minimal polyadic decomposition (also often referred to as canoni...
Abstract. Higher-order low-rank tensors naturally arise in many applications including hyperspectral...