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Study Membrane Solarelasticity Using a Wave Model and a Corpuscular Model of Light

Publication ,  Journal Article
Chen, J; Shi, A; He, Y; Dowell, EH; Ren, K; Pei, Y; Zhang, H
Published in: AIAA Journal
September 1, 2023

The difference between solarelastic interaction and aeroelastic interaction is illustrated from the perspective of external forces. Membrane solarelastic responses of the solar cell and solar sail are studied through a wave model and a corpuscular model of light, respectively, where the light intensity and phase are considered in the wave model to calculate the solar radiation pressure but the phase of light is neglected in the corpuscular model. The effects of the membrane optical properties, the thickness, and the size on the solarelastic flutter instability are investigated. The solar radiation pressure is divided into a part depending on the sail deformation and a part independent of sail deformation to investigate their respective influences. The results show that the former terms result in membrane flutter and the latter term results in membrane static deflection. A comparison is conducted between the wave model and the corpuscular model on the flutter boundaries and membrane responses. The membrane reflectivity is coupled with membrane stiffness by the membrane thickness in the wave model, but it is uncoupled in the corpuscular model. Therefore, the wave model has an advantage over the corpuscular model when evaluating the thickness effect of membrane reflectivity.

Duke Scholars

Published In

AIAA Journal

DOI

EISSN

1533-385X

ISSN

0001-1452

Publication Date

September 1, 2023

Volume

61

Issue

9

Start / End Page

3995 / 4007

Related Subject Headings

  • Aerospace & Aeronautics
  • 4012 Fluid mechanics and thermal engineering
  • 4001 Aerospace engineering
  • 0913 Mechanical Engineering
  • 0905 Civil Engineering
  • 0901 Aerospace Engineering
 

Citation

APA
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MLA
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Chen, J., Shi, A., He, Y., Dowell, E. H., Ren, K., Pei, Y., & Zhang, H. (2023). Study Membrane Solarelasticity Using a Wave Model and a Corpuscular Model of Light. AIAA Journal, 61(9), 3995–4007. https://doi.org/10.2514/1.J062751
Chen, J., A. Shi, Y. He, E. H. Dowell, K. Ren, Y. Pei, and H. Zhang. “Study Membrane Solarelasticity Using a Wave Model and a Corpuscular Model of Light.” AIAA Journal 61, no. 9 (September 1, 2023): 3995–4007. https://doi.org/10.2514/1.J062751.
Chen J, Shi A, He Y, Dowell EH, Ren K, Pei Y, et al. Study Membrane Solarelasticity Using a Wave Model and a Corpuscular Model of Light. AIAA Journal. 2023 Sep 1;61(9):3995–4007.
Chen, J., et al. “Study Membrane Solarelasticity Using a Wave Model and a Corpuscular Model of Light.” AIAA Journal, vol. 61, no. 9, Sept. 2023, pp. 3995–4007. Scopus, doi:10.2514/1.J062751.
Chen J, Shi A, He Y, Dowell EH, Ren K, Pei Y, Zhang H. Study Membrane Solarelasticity Using a Wave Model and a Corpuscular Model of Light. AIAA Journal. 2023 Sep 1;61(9):3995–4007.

Published In

AIAA Journal

DOI

EISSN

1533-385X

ISSN

0001-1452

Publication Date

September 1, 2023

Volume

61

Issue

9

Start / End Page

3995 / 4007

Related Subject Headings

  • Aerospace & Aeronautics
  • 4012 Fluid mechanics and thermal engineering
  • 4001 Aerospace engineering
  • 0913 Mechanical Engineering
  • 0905 Civil Engineering
  • 0901 Aerospace Engineering