A genetic algorithm is presented that can simultaneously optimize size, shape, and topology
of skeletal structures, including both trusses and frames. The algorithm is unique because it …

The optimum structural shape design of skeletal structures has traditionally been solved by
using conceptual designs, often based on ground structures, in which the generated designs …

A genetic algorithm is applied for the optimal design of skeletal building structures
accounting for discrete sizing, geometrical and topological variables. An approximate fitness …

There are typically three broad categories of structural optimization namely size, shape and
topology. Over the past few decades various researchers have focused on developing …

In this paper we present an approach to the layout and shape‐optimization problem of
bridge truss structures using genetic algorithms. The objective is to find an optimal layout …

Early on in the design of structural systems, it is often desired to find the general layout of the
system that most naturally and efficiently supports the anticipated design loads. This is …

The focus of this paper is on the development and implementation of a methodology for
automated design of discrete structural systems. The research is aimed at utilizing Genetic …

A procedure is developed for the combined sizing, shape, and topology design of space
trusses. Discrete and continuous values are used to define the cross-sectional areas of the …

A genetic algorithm is applied for the optimal design of skeletal building structures
accounting for discrete sizing, geometrical and topological variables. An approximate …

A computational environment suitable for optimum design of structures in the general class
of plane frames is described. Design optimization is based on the use of a genetic algorithm …