Holographic method for stress distribution analysis in photoelastic materials

article
Autores

Da Silva, Sidney L.

Prado, Felipe M.

Brito, Isis V.

Soga, Diogo

Gomes, Lígia F.

Wetter, Niklaus U.

Muramatsu, Mikiya

Data de Publicação

1 de janeiro de 2024

Resumo

textlessptextgreaterAn alternative method to obtain the internal stress distribution in photoelastic materials using digital holography (DH) is presented. Two orthogonally polarized holograms were used to obtain the phase maps and analyzed using the proposed approach. This method directly determines the stress distributions from the phase differences obtained in the reconstructed phase maps, unlike methods obtained by photoelasticity. Optical information, such as index of refraction, phase differences, etc., are not measured directly in traditional photoelasticity. However, this approach was validated with both the finite element method and the RGB (red, green, and blue) photoelasticity method that is traditionally used.textless/ptextgreater

Citação

BibTeX
@online{silva,_sidney_l.2024,
  author = {Silva, Sidney L., Da and Felipe M. , Prado and Isis V. ,
    Brito and Diogo , Soga and Lígia F. , Gomes and Niklaus U. , Wetter
    and Mikiya , Muramatsu},
  title = {Holographic method for stress distribution analysis in
    photoelastic materials},
  volume = {11},
  number = {4},
  date = {2024-01-01},
  doi = {10.3934/matersci.2024032},
  langid = {pt-BR},
  abstract = {textlessptextgreaterAn alternative method to obtain the
    internal stress distribution in photoelastic materials using digital
    holography (DH) is presented. Two orthogonally polarized holograms
    were used to obtain the phase maps and analyzed using the proposed
    approach. This method directly determines the stress distributions
    from the phase differences obtained in the reconstructed phase maps,
    unlike methods obtained by photoelasticity. Optical information,
    such as index of refraction, phase differences, etc., are not
    measured directly in traditional photoelasticity. However, this
    approach was validated with both the finite element method and the
    RGB (red, green, and blue) photoelasticity method that is
    traditionally used.textless/ptextgreater}
}
Por favor, cite este trabalho como:
Silva, Sidney L., Da, Prado Felipe M., Brito Isis V., Soga Diogo, Gomes Lígia F., Wetter Niklaus U., and Muramatsu Mikiya. 2024. “Holographic method for stress distribution analysis in photoelastic materials.” AIMS Materials Science. January 1, 2024. https://doi.org/10.3934/matersci.2024032.