1. Reference problem#

1.1. Geometry#

_images/100007CE000029220000087A8E419B683BC9BD2C.svg

The geometric characteristics of the beam constituting the mechanical model are as follows:

Length: \(L=10m\)

Cross Section

Area

\(\mathrm{IZ}=\mathrm{IY}\)

\(\mathrm{JX}\)

\(3.439{10}^{-3}{m}^{2}\)

\(1.377{10}^{-5}{m}^{4}\)

\(2.754{10}^{-5}{m}^{4}\)

The coordinates (in meters) of the characteristic points of the beam are:

\(A\)

\(B\)

\(x\)

\(y\)

1.2. Material properties#

The properties of the material from which the beam is made are:

\(E=1.658\times {10}^{11}\mathit{Pa}\)

\(\nu =0.3\)

\(\mathrm{\rho }=1.3404106104\mathit{kg}\mathrm{.}{m}^{-3}\)

\(\alpha =\text{AMOR\_ALPHA}=0.001\)

\(\beta =\text{AMOR\_BETA}=0.\)

1.3. Boundary conditions and loads#

The boundary condition that characterizes this problem is the embedment of point \(A\) and is written as:

\(u=v=0.\)

\(\mathrm{\theta }=0.\)

For charging we have:

\(\mathrm{Fx}=3000.N\)

\(\mathrm{Fy}=\mathrm{Fz}=0.\)

(tractive force)

\(\mathrm{Fx}=0.\)

\(\mathrm{Fy}=3000.N\)

\(\mathrm{Fz}=0.\)

(bending force)