Material properties
E=E=
GPa\text{GPa}
Young’s modulus
ν=\nu=
[-]\text{[-]}
Poisson’s ratio
ρ=\rho=
kg/m3\text{kg} / \text{m}^{3}
Density
α=\alpha=
10−6/ºC10^{-6} / \text{ºC}
Thermal expansion coefficient
u=u= v=v= ω=\omega=
x0=\mathbf{x}_0=
mm\text{mm}
x0=\mathbf{x}_0=
mm\text{mm}
a=\mathbf{a}=
θ=\theta=
[deg.]\text{[deg.]}
Advanced expression for boundary conditions. Only for Fino experts.
u=u= v=v= ω=\omega=
x0=\mathbf{x}_0=
mm\text{mm}
x0=\mathbf{x}_0=
mm\text{mm}
a=\mathbf{a}=
θ=\theta=
[deg.]\text{[deg.]}
Advanced expression for boundary conditions. Only for Fino experts.
u=u= v=v= ω=\omega=
x0=\mathbf{x}_0=
mm\text{mm}
x0=\mathbf{x}_0=
mm\text{mm}
a=\mathbf{a}=
θ=\theta=
[deg.]\text{[deg.]}
Advanced expression for boundary conditions. Only for Fino experts.
u=u= v=v= ω=\omega=
x0=\mathbf{x}_0=
mm\text{mm}
x0=\mathbf{x}_0=
mm\text{mm}
a=\mathbf{a}=
θ=\theta=
[deg.]\text{[deg.]}
Advanced expression for boundary conditions. Only for Fino experts.
u=u= v=v= ω=\omega=
x0=\mathbf{x}_0=
mm\text{mm}
x0=\mathbf{x}_0=
mm\text{mm}
a=\mathbf{a}=
θ=\theta=
[deg.]\text{[deg.]}
Advanced expression for boundary conditions. Only for Fino experts.
u=u= v=v= ω=\omega=
x0=\mathbf{x}_0=
mm\text{mm}
x0=\mathbf{x}_0=
mm\text{mm}
a=\mathbf{a}=
θ=\theta=
[deg.]\text{[deg.]}
Advanced expression for boundary conditions. Only for Fino experts.
u=u= v=v= ω=\omega=
x0=\mathbf{x}_0=
mm\text{mm}
x0=\mathbf{x}_0=
mm\text{mm}
a=\mathbf{a}=
θ=\theta=
[deg.]\text{[deg.]}
Advanced expression for boundary conditions. Only for Fino experts.
u=u= v=v= ω=\omega=
x0=\mathbf{x}_0=
mm\text{mm}
x0=\mathbf{x}_0=
mm\text{mm}
a=\mathbf{a}=
θ=\theta=
[deg.]\text{[deg.]}
Advanced expression for boundary conditions. Only for Fino experts.
u=u= v=v= ω=\omega=
x0=\mathbf{x}_0=
mm\text{mm}
x0=\mathbf{x}_0=
mm\text{mm}
a=\mathbf{a}=
θ=\theta=
[deg.]\text{[deg.]}
Advanced expression for boundary conditions. Only for Fino experts.
u=u= v=v= ω=\omega=
x0=\mathbf{x}_0=
mm\text{mm}
x0=\mathbf{x}_0=
mm\text{mm}
a=\mathbf{a}=
θ=\theta=
[deg.]\text{[deg.]}
Advanced expression for boundary conditions. Only for Fino experts.
p=p=
MPa\text{MPa}
F=\mathbf{F}=
[kN]\text{[kN]}
M=\mathbf{M}=
[kN⋅m]\text{[kN}\cdot\text{m]}
x0=\mathbf{x}_0=
mm\text{mm}
Advanced expression for boundary conditions. Only for Fino experts.
p=p=
MPa\text{MPa}
F=\mathbf{F}=
[kN]\text{[kN]}
M=\mathbf{M}=
[kN⋅m]\text{[kN}\cdot\text{m]}
x0=\mathbf{x}_0=
mm\text{mm}
Advanced expression for boundary conditions. Only for Fino experts.
p=p=
MPa\text{MPa}
F=\mathbf{F}=
[kN]\text{[kN]}
M=\mathbf{M}=
[kN⋅m]\text{[kN}\cdot\text{m]}
x0=\mathbf{x}_0=
mm\text{mm}
Advanced expression for boundary conditions. Only for Fino experts.
p=p=
MPa\text{MPa}
F=\mathbf{F}=
[kN]\text{[kN]}
M=\mathbf{M}=
[kN⋅m]\text{[kN}\cdot\text{m]}
x0=\mathbf{x}_0=
mm\text{mm}
Advanced expression for boundary conditions. Only for Fino experts.
p=p=
MPa\text{MPa}
F=\mathbf{F}=
[kN]\text{[kN]}
M=\mathbf{M}=
[kN⋅m]\text{[kN}\cdot\text{m]}
x0=\mathbf{x}_0=
mm\text{mm}
Advanced expression for boundary conditions. Only for Fino experts.
p=p=
MPa\text{MPa}
F=\mathbf{F}=
[kN]\text{[kN]}
M=\mathbf{M}=
[kN⋅m]\text{[kN}\cdot\text{m]}
x0=\mathbf{x}_0=
mm\text{mm}
Advanced expression for boundary conditions. Only for Fino experts.
p=p=
MPa\text{MPa}
F=\mathbf{F}=
[kN]\text{[kN]}
M=\mathbf{M}=
[kN⋅m]\text{[kN}\cdot\text{m]}
x0=\mathbf{x}_0=
mm\text{mm}
Advanced expression for boundary conditions. Only for Fino experts.
p=p=
MPa\text{MPa}
F=\mathbf{F}=
[kN]\text{[kN]}
M=\mathbf{M}=
[kN⋅m]\text{[kN}\cdot\text{m]}
x0=\mathbf{x}_0=
mm\text{mm}
Advanced expression for boundary conditions. Only for Fino experts.
p=p=
MPa\text{MPa}
F=\mathbf{F}=
[kN]\text{[kN]}
M=\mathbf{M}=
[kN⋅m]\text{[kN}\cdot\text{m]}
x0=\mathbf{x}_0=
mm\text{mm}
Advanced expression for boundary conditions. Only for Fino experts.
p=p=
MPa\text{MPa}
F=\mathbf{F}=
[kN]\text{[kN]}
M=\mathbf{M}=
[kN⋅m]\text{[kN}\cdot\text{m]}
x0=\mathbf{x}_0=
mm\text{mm}
Advanced expression for boundary conditions. Only for Fino experts.
Internal loads: none
g=g=
[m/s2]\text{[}\text{m} / \text{s}^{2}\text{]}
ω=\omega=
[RPM]\text{[RPM]}
fx=f_x=
[N/mm3]\text{[}\text{N} / \text{mm}^{3}\text{]}
fy=f_y=
[N/mm3]\text{[}\text{N} / \text{mm}^{3}\text{]}
fz=f_z=
[N/mm3]\text{[}\text{N} / \text{mm}^{3}\text{]}
Do not forget to define the material’s density ρ above.
Temperature distribution: none
T0=T_0=
ºC\text{ºC}
Reference temperature
T(x)=T(\mathbf{x})=
ºC\text{ºC}
Do not forget to define the material’s α above.
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