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0102 - Cantilever with transverse loading (Postbuckling)

1 min read • 157 words

In this case the cantilever beam is subjected only to a transverse force of $\boldsymbol{F} = 10 \, \mathbf{E}_2$ in a single step.

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Python
  • column.py

Delta Geometry  

Exact Geometry  

image

In this case the cantilever beam is subjected only to a transverse force of F=10 E2\boldsymbol{F} = 10 \, \mathbf{E}_2 in a single step. The simulation uses the following geometric and material properties from the literature:

L=1E=10.A=107I=1J=107 \begin{array}{lr} L =& 1 \\ E =& 10 \\ \hphantom{.} % G = GAv/A \end{array} \qquad \begin{array}{lr} A =& 10^7 \\ I =& 1 \\ J =& 10^7 \\ \end{array}

Two values for the shear modulus GG are used with a shear stiffness GAGA of 500500 and 1010 , respectively, the latter representing the case with significant shear deformations. Table (#tab:transv) presents the numerical tip displacements and the analytic solution from using Jacobi elliptic functions and accounting for flexural and shear deformations. The analysis uses both 2-node and 4-node elements. For the sake of brevity, the results are reported only for the variants using the same parameterization as the wrapped element’s interpolation.

References  

 0100 - Plastic hinging
021 - Concrete columns with shear 
On this page:
Delta Geometry   Exact Geometry   References  
0102 - Cantilever with transverse loading (Postbuckling)
0102 - Cantilever with transverse loading (Postbuckling)
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