In this study, an optimality criterion is presented for thickness optimization of plate structures with geometric nonlinearity. The optimization problem considers the thickness of each element of the finite element mesh as a design variable and aims to maximize the load-carrying capacity of the structure subject to constant total volume. The result of the thickness optimization of a nonstiffened panel is then used for locating the potential places to add the stiffeners. It is shown that the load-carrying capacity of the original panel may be improved significantly while having the same volume of material. Application of the method is illustrated by numerical examples. 1
Summary. We use the “configurational forces method” to determine the optimal shapes of stiffened pla...
this work deals with the problem of the least-weight design of a composite stiffened panel. The desi...
this work deals with the problem of the least-weight design of a composite stiffened panel. The desi...
This study investigates the weight minimization of stiffened panels simultaneously optimizing size, ...
This study investigates the weight minimization of stiffened panels simultaneously optimizing size, ...
This paper investigates the weight minimization of stiffened panels simultaneously optimizing sizing...
This paper investigates the weight minimization of stiffened panels simultaneously optimizing sizing...
This paper investigates the weight minimization of stiffened panels simultaneously optimizing sizing...
Simultaneous layout and topology optimization of stiffened panels is investigated in this paper by a...
Simultaneous layout and topology optimization of stiffened panels is investigated in this paper usin...
Simultaneous layout and topology optimization of stiffened panels is investigated in this paper usin...
In this study, an efficient, accurate and robust methodology for nonlinear finite element analysis a...
In this paper, an innovative design methodology is proposed to simultaneously optimize the size, lay...
In this paper, a topology optimization methodology for the minimum weight of the composite stiffened...
The design of stiffeners is an effective approach to enhance the stiffness of panel-type structures....
Summary. We use the “configurational forces method” to determine the optimal shapes of stiffened pla...
this work deals with the problem of the least-weight design of a composite stiffened panel. The desi...
this work deals with the problem of the least-weight design of a composite stiffened panel. The desi...
This study investigates the weight minimization of stiffened panels simultaneously optimizing size, ...
This study investigates the weight minimization of stiffened panels simultaneously optimizing size, ...
This paper investigates the weight minimization of stiffened panels simultaneously optimizing sizing...
This paper investigates the weight minimization of stiffened panels simultaneously optimizing sizing...
This paper investigates the weight minimization of stiffened panels simultaneously optimizing sizing...
Simultaneous layout and topology optimization of stiffened panels is investigated in this paper by a...
Simultaneous layout and topology optimization of stiffened panels is investigated in this paper usin...
Simultaneous layout and topology optimization of stiffened panels is investigated in this paper usin...
In this study, an efficient, accurate and robust methodology for nonlinear finite element analysis a...
In this paper, an innovative design methodology is proposed to simultaneously optimize the size, lay...
In this paper, a topology optimization methodology for the minimum weight of the composite stiffened...
The design of stiffeners is an effective approach to enhance the stiffness of panel-type structures....
Summary. We use the “configurational forces method” to determine the optimal shapes of stiffened pla...
this work deals with the problem of the least-weight design of a composite stiffened panel. The desi...
this work deals with the problem of the least-weight design of a composite stiffened panel. The desi...