Engineering product development has developed considerably over the past decade.
In order for industry to keep up with continuously changing requirements, it is
necessary to develop new and innovative simulation methods. However, few tools
and methods for simulation-driven design have been applied in industrial
settings and proven to actually drive the development and selection of the ideal
solution. Such tools, based on fundamental equations, are the focus of this
paper.
In this paper the work is based on two cases of mechanics of materials and
structures: welding and rotor dynamical simulations. These two examples of
simulation-driven design indicate that a larger design space can be explored and that
more possible solutions can be evaluated. Therefore, the approach improves the
probability of innovations and finding optimal solutions.
A calibrated block dumping approach can be used to increase the efficiency of
welding simulations when many simulations are required.