Map of a Bending Problem for Self-Similar Beams into the Fractal Continuum Using the Euler–Bernoulli Principle

Didier Samayoa Ochoa, Lucero Damián Adame, Andriy Kryvko

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9 Scopus citations

Abstract

The bending of self-similar beams applying the Euler–Bernoulli principle is studied in this paper. A generalization of the standard Euler–Bernoulli beam equation in the F3dH continuum using local fractional differential operators is obtained. The mapping of a bending problem for a self-similar beam into the corresponding problem for a fractal continuum is defined. Displacements, rotations, bending moments and shear forces as functions of fractal parameters of the beam are estimated, allowing the mechanical response for self-similar beams to be established. An example of the structural behavior of a cantilever beam with a load at the free end is considered to study the influence of fractality on the mechanical properties of beams.

Original languageEnglish
Article number230
JournalFractal and Fractional
Volume6
Issue number5
DOIs
StatePublished - May 2022

Keywords

  • Euler–Bernoulli bending principle
  • Menger sponge
  • Sierpinski carpet
  • fractal continuum
  • self-similar beam

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