Modeling frequency- and temperature-dependent longitudinal dynamic behavior of linear viscoelastic, thermorheologically complex long fiber composites

Research output: Chapter in Book/Report/Conference proceedingConference contribution

Abstract

An approach to modeling the longitudinal dynamic behavior of unidirectional long fiber composites made from constituents having frequency- and temperature-dependent material properties is described. In this approach, the total displacement field is considered to be comprised of an elastic part and anelastic part. Distinct anelastic displacement fields are initially associated with the constituent fiber and matrix materials. Because the materials have different temperature shift functions, the resulting composite is thermorheologically complex. The determination of frequency- and temperature-dependent composite modulus and damping properties from corresponding constituent properties is illustrated.

Original languageEnglish (US)
Title of host publicationMaterials for Noise and Vibration Control
PublisherASME
Pages9-15
Number of pages7
Volume18
StatePublished - 1994
EventProceedings of the 1994 International Mechanical Engineering Congress and Exposition - Chicago, IL, USA
Duration: Nov 6 1994Nov 11 1994

Other

OtherProceedings of the 1994 International Mechanical Engineering Congress and Exposition
CityChicago, IL, USA
Period11/6/9411/11/94

Fingerprint

fiber composites
Fibers
Composite materials
matrix materials
composite materials
Temperature
temperature
Materials properties
Damping
damping
fibers
shift

All Science Journal Classification (ASJC) codes

  • Mechanical Engineering
  • Acoustics and Ultrasonics

Cite this

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title = "Modeling frequency- and temperature-dependent longitudinal dynamic behavior of linear viscoelastic, thermorheologically complex long fiber composites",
abstract = "An approach to modeling the longitudinal dynamic behavior of unidirectional long fiber composites made from constituents having frequency- and temperature-dependent material properties is described. In this approach, the total displacement field is considered to be comprised of an elastic part and anelastic part. Distinct anelastic displacement fields are initially associated with the constituent fiber and matrix materials. Because the materials have different temperature shift functions, the resulting composite is thermorheologically complex. The determination of frequency- and temperature-dependent composite modulus and damping properties from corresponding constituent properties is illustrated.",
author = "Lesieutre, {George A.}",
year = "1994",
language = "English (US)",
volume = "18",
pages = "9--15",
booktitle = "Materials for Noise and Vibration Control",
publisher = "ASME",

}

Lesieutre, GA 1994, Modeling frequency- and temperature-dependent longitudinal dynamic behavior of linear viscoelastic, thermorheologically complex long fiber composites. in Materials for Noise and Vibration Control. vol. 18, ASME, pp. 9-15, Proceedings of the 1994 International Mechanical Engineering Congress and Exposition, Chicago, IL, USA, 11/6/94.

Modeling frequency- and temperature-dependent longitudinal dynamic behavior of linear viscoelastic, thermorheologically complex long fiber composites. / Lesieutre, George A.

Materials for Noise and Vibration Control. Vol. 18 ASME, 1994. p. 9-15.

Research output: Chapter in Book/Report/Conference proceedingConference contribution

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PY - 1994

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N2 - An approach to modeling the longitudinal dynamic behavior of unidirectional long fiber composites made from constituents having frequency- and temperature-dependent material properties is described. In this approach, the total displacement field is considered to be comprised of an elastic part and anelastic part. Distinct anelastic displacement fields are initially associated with the constituent fiber and matrix materials. Because the materials have different temperature shift functions, the resulting composite is thermorheologically complex. The determination of frequency- and temperature-dependent composite modulus and damping properties from corresponding constituent properties is illustrated.

AB - An approach to modeling the longitudinal dynamic behavior of unidirectional long fiber composites made from constituents having frequency- and temperature-dependent material properties is described. In this approach, the total displacement field is considered to be comprised of an elastic part and anelastic part. Distinct anelastic displacement fields are initially associated with the constituent fiber and matrix materials. Because the materials have different temperature shift functions, the resulting composite is thermorheologically complex. The determination of frequency- and temperature-dependent composite modulus and damping properties from corresponding constituent properties is illustrated.

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