We examine shape optimization problems in the context of inexact sequential quadratic programming. Inexactness is a consequence of using adaptive finite element methods (AFEM) to approximate the state and adjoint equations (via the dual weighted residual method), update the boundary, and compute the geometric functional. We present a novel algorithm that equidistributes the errors due to shape optimization and discretization, thereby leading to coarse resolution in the early stages and fine resolution upon convergence, and thus optimizing the computational effort. We discuss the ability of the algorithm to detect whether or not geometric singularities such as corners ...
This contribution is concerned with the coupling of finite element based shape optimization to metho...
[EN] This work analyzes the influence of the discretization error contained in the Finite Element (F...
This work analyzes the influence of the discretization error contained in the Finite Element (FE) an...
We examine shape optimization problems in the context of inexact sequential quadratic prog...
We examine shape optimization problems in the context of inexact sequential quadratic prog...
We examine shape optimization problems in the context of inexact sequential quadratic programming. I...
We examine shape optimization problems in the context of inexact sequential quadratic programming. I...
We examine shape optimization problems in the context of inexact sequential quadratic programming. I...
We examine shape optimization problems in the context of inexact sequential quadratic programming. I...
We examine shape optimization problems in the context of inexact sequential quadratic programming. I...
We examine shape optimization problems in the context of inexact sequential quadratic programming. I...
We introduce an adaptive strategy to monitor the rate of convergence of a Newton like method in nume...
Summary The aim of this work is to introduce an adaptive strat-egy to monitor the rate of convergenc...
This work analyzes the influence of the discretization error contained in the Finite Element (FE) an...
This contribution is concerned with the coupling of finite element based shape optimization to metho...
This contribution is concerned with the coupling of finite element based shape optimization to metho...
[EN] This work analyzes the influence of the discretization error contained in the Finite Element (F...
This work analyzes the influence of the discretization error contained in the Finite Element (FE) an...
We examine shape optimization problems in the context of inexact sequential quadratic prog...
We examine shape optimization problems in the context of inexact sequential quadratic prog...
We examine shape optimization problems in the context of inexact sequential quadratic programming. I...
We examine shape optimization problems in the context of inexact sequential quadratic programming. I...
We examine shape optimization problems in the context of inexact sequential quadratic programming. I...
We examine shape optimization problems in the context of inexact sequential quadratic programming. I...
We examine shape optimization problems in the context of inexact sequential quadratic programming. I...
We examine shape optimization problems in the context of inexact sequential quadratic programming. I...
We introduce an adaptive strategy to monitor the rate of convergence of a Newton like method in nume...
Summary The aim of this work is to introduce an adaptive strat-egy to monitor the rate of convergenc...
This work analyzes the influence of the discretization error contained in the Finite Element (FE) an...
This contribution is concerned with the coupling of finite element based shape optimization to metho...
This contribution is concerned with the coupling of finite element based shape optimization to metho...
[EN] This work analyzes the influence of the discretization error contained in the Finite Element (F...
This work analyzes the influence of the discretization error contained in the Finite Element (FE) an...