Based on the techniques of Euclidean Jordan algebras, we prove complexity estimates for a long-step primal-dual interior-point algorithm for the optimization problem of the minimization of a linear function on a feasible set obtained as the intersection of an ane subspace and a symmetric cone. This result provides a meaningful illustration of a power of the technique of Euclidean Jordan algebras applied to problems under consideration
We propose a new method for simplifying semidefinite programs (SDP) inspired by symmetry reduction. ...
A class of Linear Complementarity Problems (LCP) is an important class of problems closely related t...
A new initialization or `Phase I' strategy for feasible interior point methods for linear programmin...
We discuss a possibility of the extension of a primal-dual interior-point algorithm suggested recent...
AbstractWe discuss a possibility of the extension of a primal-dual interior-point algorithm suggeste...
We consider the linear monotone complementarity problem for domains obtained as the intersection of ...
In this thesis we present a generalization of interior-point methods for linear optimization based o...
summary:A full Nesterov-Todd step infeasible interior-point algorithm is proposed for solving linear...
In this paper, an improved complexity analysis of full Nesterov–Todd step feasible interior-point me...
In this talk, an improved complexity analysis of full Nesterov-Todd step feasible interior-point met...
Euclidean Jordan algebras were proved more than a decade ago to be an indispensable tool in the unif...
In [SIAM J. Optim., 16(4):1110--1136 (electronic), 2006] Roos proposed a full-Newton step Infeasible...
We present a unified analysis for a class of long-step primal-dual path-following algorithms for sem...
In this paper the abstract of the thesis "New Interior Point Algorithms in Linear Programming&...
This paper presents the convergence proof and complexity analysis of an interior-point framework tha...
We propose a new method for simplifying semidefinite programs (SDP) inspired by symmetry reduction. ...
A class of Linear Complementarity Problems (LCP) is an important class of problems closely related t...
A new initialization or `Phase I' strategy for feasible interior point methods for linear programmin...
We discuss a possibility of the extension of a primal-dual interior-point algorithm suggested recent...
AbstractWe discuss a possibility of the extension of a primal-dual interior-point algorithm suggeste...
We consider the linear monotone complementarity problem for domains obtained as the intersection of ...
In this thesis we present a generalization of interior-point methods for linear optimization based o...
summary:A full Nesterov-Todd step infeasible interior-point algorithm is proposed for solving linear...
In this paper, an improved complexity analysis of full Nesterov–Todd step feasible interior-point me...
In this talk, an improved complexity analysis of full Nesterov-Todd step feasible interior-point met...
Euclidean Jordan algebras were proved more than a decade ago to be an indispensable tool in the unif...
In [SIAM J. Optim., 16(4):1110--1136 (electronic), 2006] Roos proposed a full-Newton step Infeasible...
We present a unified analysis for a class of long-step primal-dual path-following algorithms for sem...
In this paper the abstract of the thesis "New Interior Point Algorithms in Linear Programming&...
This paper presents the convergence proof and complexity analysis of an interior-point framework tha...
We propose a new method for simplifying semidefinite programs (SDP) inspired by symmetry reduction. ...
A class of Linear Complementarity Problems (LCP) is an important class of problems closely related t...
A new initialization or `Phase I' strategy for feasible interior point methods for linear programmin...