aerosandbox.structures.legacy.beams
===================================

.. py:module:: aerosandbox.structures.legacy.beams


Attributes
----------

.. autoapisummary::

   aerosandbox.structures.legacy.beams.opti


Classes
-------

.. autoapisummary::

   aerosandbox.structures.legacy.beams.TubeBeam1


Module Contents
---------------

.. py:class:: TubeBeam1(opti, length, points_per_point_load=100, E=228000000000.0, isotropic=True, poisson_ratio=0.5, diameter_guess=100, thickness=0.00014 * 5, max_allowable_stress=570000000.0 / 1.75, density=1600, G=None, bending=True, torsion=True)

   Bases: :py:obj:`aerosandbox.common.AeroSandboxObject`


   Helper class that provides a standard way to create an ABC using
   inheritance.


   .. py:attribute:: opti


   .. py:attribute:: length


   .. py:attribute:: points_per_point_load
      :value: 100



   .. py:attribute:: E
      :value: 228000000000.0



   .. py:attribute:: isotropic
      :value: True



   .. py:attribute:: poisson_ratio
      :value: 0.5



   .. py:attribute:: diameter_guess
      :value: 100



   .. py:attribute:: thickness
      :value: 0.0006999999999999999



   .. py:attribute:: max_allowable_stress
      :value: 325714285.71428573



   .. py:attribute:: density
      :value: 1600



   .. py:attribute:: G
      :value: None



   .. py:attribute:: bending
      :value: True



   .. py:attribute:: torsion
      :value: True



   .. py:attribute:: point_loads
      :value: []



   .. py:attribute:: distributed_loads
      :value: []



   .. py:method:: add_point_load(location, force=0, bending_moment=0, torsional_moment=0)

      Adds a point force and/or moment.
      :param location: Location of the point force along the beam [m]
      :param force: Force to add [N]
      :param bending_moment: Bending moment to add [N-m] # TODO make this work
      :param torsional_moment: Torsional moment to add [N-m] # TODO make this work
      :return: None (in-place)



   .. py:method:: add_uniform_load(force=0, bending_moment=0, torsional_moment=0)

      Adds a uniformly distributed force and/or moment across the entire length of the beam.
      :param force: Total force applied to beam [N]
      :param bending_moment: Bending moment to add [N-m] # TODO make this work
      :param torsional_moment: Torsional moment to add [N-m] # TODO make this work
      :return: None (in-place)



   .. py:method:: add_elliptical_load(force=0, bending_moment=0, torsional_moment=0)

      Adds an elliptically distributed force and/or moment across the entire length of the beam.
      :param force: Total force applied to beam [N]
      :param bending_moment: Bending moment to add [N-m] # TODO make this work
      :param torsional_moment: Torsional moment to add [N-m] # TODO make this work
      :return: None (in-place)



   .. py:method:: setup(bending_BC_type='cantilevered')

      Sets up the problem. Run this last.
      :return: None (in-place)



   .. py:method:: draw_bending(show=True, for_print=False, equal_scale=True)

      Draws a figure that illustrates some bending properties. Must be called on a solved object (i.e. using the substitute_sol method).
      :param show: Whether or not to show the figure [boolean]
      :param for_print: Whether or not the figure should be shaped for printing in a paper [boolean]
      :param equal_scale: Whether or not to make the displacement plot have equal scale (i.e. true deformation only)
      :return:



.. py:data:: opti