Epoxy nanocomposites for carbon fiber reinforced polymer matrix composites

J. H. Koo, L. A. Pilato, G. Wissler, A. Lee, A. Abusafieh, J. Weispfenning

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

    • 7 Citations

    Abstract

    Cytec Engineered Materials (CEM) CYCOM® 977-3, a high temperature damage tolerant multifunctional epoxy resin system was modified with three types of nanoparticles: chemically modified montmorillonite (MMT) organoclays, surface treated nanosilica, and surface modified carbon nanofibers (CNF) to create new types of epoxy nanocomposites. Wide angle X-ray diffraction (WAXD) and transmission electron microscopy (TEM) were used to determine the degree of dispersion. Dynamic mechanical thermal analysis (DMTA) was used to determine the T g and complex modulus of the polymer nanocomposites. The TEM analyses indicated that the MMT clay, nanosilica, and CNF dispersed very well in the epoxy resin system. Evidence is presented that a nanophase is formed when nanoparticles such as surface treated clay, surface treated nanosilica, or carbon nanofibers are introduced into the epoxy resin. Higher T g and complex modulus values from DMTA for the nanomodified materials are presented as evidence for nanophase presence in the epoxy resin system as compared to lower T g and complex modulus for the epoxy resin control. The DMTA data of the neat epoxy nanosilica nanocomposite (2% Aerosil® R202) show the highest T g (258°C) and the highest complex modulus (964 MPa). Five epoxy nanocomposites were selected to produce prepregs using AS4-6K fabric, followed by fabrication into composite panels. The short beam shear values of all epoxy nanocomposites were slightly lower than the baseline with 3% Aerosil® R202 and 2% PR-19-PS-Ox CNF higher than the baseline. The flexural strength of all the epoxy nanocomposites were slightly lower than the baseline with the 2% Cloisite® 10A and 3% Aerosil® R202 materials higher than the baseline. Flatwise tension strength values of all the epoxy nanocomposites were slightly lower than the baseline with 2% PR-19-PS-Ox and 2% Aerosil® R202 samples higher than the baseline material. The G 1C and G 2C values of all the epoxy nanocomposites were below the baseline except for 2% Aerosil® R805 (G 1C) and 2% PR-19-PS-Ox (G 2C) being higher than the baseline.

    Original languageEnglish (US)
    Title of host publicationInternational SAMPE Symposium and Exhibition (Proceedings)
    Pages1935-1948
    Number of pages14
    Volume50
    StatePublished - 2005
    Event50th International SAMPE Symposium and Exhibition - Long Beach, CA, United States

    Other

    Other50th International SAMPE Symposium and Exhibition
    CountryUnited States
    CityLong Beach, CA
    Period5/1/055/5/05

    Profile

    Laryngeal Mucosa
    Nanocomposites
    Epoxy resins
    Edema Disease of Swine
    Carbon nanofibers
    Traffic Accidents
    Classical Complement Pathway
    Spontaneous Fractures
    Thermoanalysis
    Myosins
    Transmission electron microscopy
    Clay minerals
    Clay
    Nanoparticles
    Acetanilides
    Carbamoyl-Phosphate Synthase (Ammonia)
    beta-Amylase
    Acyl Carrier Protein
    Polymer matrix composites
    Animal Welfare

    ASJC Scopus subject areas

    • Building and Construction
    • Chemical Engineering(all)
    • Polymers and Plastics
    • Chemical Engineering (miscellaneous)

    Cite this

    Koo, J. H., Pilato, L. A., Wissler, G., Lee, A., Abusafieh, A., & Weispfenning, J. (2005). Epoxy nanocomposites for carbon fiber reinforced polymer matrix composites. In International SAMPE Symposium and Exhibition (Proceedings) (Vol. 50, pp. 1935-1948)

    Epoxy nanocomposites for carbon fiber reinforced polymer matrix composites. / Koo, J. H.; Pilato, L. A.; Wissler, G.; Lee, A.; Abusafieh, A.; Weispfenning, J.

    International SAMPE Symposium and Exhibition (Proceedings). Vol. 50 2005. p. 1935-1948.

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

    Koo, JH, Pilato, LA, Wissler, G, Lee, A, Abusafieh, A & Weispfenning, J 2005, Epoxy nanocomposites for carbon fiber reinforced polymer matrix composites. in International SAMPE Symposium and Exhibition (Proceedings). vol. 50, pp. 1935-1948, 50th International SAMPE Symposium and Exhibition, Long Beach, CA, United States, 1-5 May.
    Koo JH, Pilato LA, Wissler G, Lee A, Abusafieh A, Weispfenning J. Epoxy nanocomposites for carbon fiber reinforced polymer matrix composites. In International SAMPE Symposium and Exhibition (Proceedings). Vol. 50. 2005. p. 1935-1948.

    Koo, J. H.; Pilato, L. A.; Wissler, G.; Lee, A.; Abusafieh, A.; Weispfenning, J. / Epoxy nanocomposites for carbon fiber reinforced polymer matrix composites.

    International SAMPE Symposium and Exhibition (Proceedings). Vol. 50 2005. p. 1935-1948.

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

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    abstract = "Cytec Engineered Materials (CEM) CYCOM® 977-3, a high temperature damage tolerant multifunctional epoxy resin system was modified with three types of nanoparticles: chemically modified montmorillonite (MMT) organoclays, surface treated nanosilica, and surface modified carbon nanofibers (CNF) to create new types of epoxy nanocomposites. Wide angle X-ray diffraction (WAXD) and transmission electron microscopy (TEM) were used to determine the degree of dispersion. Dynamic mechanical thermal analysis (DMTA) was used to determine the T g and complex modulus of the polymer nanocomposites. The TEM analyses indicated that the MMT clay, nanosilica, and CNF dispersed very well in the epoxy resin system. Evidence is presented that a nanophase is formed when nanoparticles such as surface treated clay, surface treated nanosilica, or carbon nanofibers are introduced into the epoxy resin. Higher T g and complex modulus values from DMTA for the nanomodified materials are presented as evidence for nanophase presence in the epoxy resin system as compared to lower T g and complex modulus for the epoxy resin control. The DMTA data of the neat epoxy nanosilica nanocomposite (2% Aerosil® R202) show the highest T g (258°C) and the highest complex modulus (964 MPa). Five epoxy nanocomposites were selected to produce prepregs using AS4-6K fabric, followed by fabrication into composite panels. The short beam shear values of all epoxy nanocomposites were slightly lower than the baseline with 3% Aerosil® R202 and 2% PR-19-PS-Ox CNF higher than the baseline. The flexural strength of all the epoxy nanocomposites were slightly lower than the baseline with the 2% Cloisite® 10A and 3% Aerosil® R202 materials higher than the baseline. Flatwise tension strength values of all the epoxy nanocomposites were slightly lower than the baseline with 2% PR-19-PS-Ox and 2% Aerosil® R202 samples higher than the baseline material. The G 1C and G 2C values of all the epoxy nanocomposites were below the baseline except for 2% Aerosil® R805 (G 1C) and 2% PR-19-PS-Ox (G 2C) being higher than the baseline.",
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    AU - Pilato,L. A.

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    AB - Cytec Engineered Materials (CEM) CYCOM® 977-3, a high temperature damage tolerant multifunctional epoxy resin system was modified with three types of nanoparticles: chemically modified montmorillonite (MMT) organoclays, surface treated nanosilica, and surface modified carbon nanofibers (CNF) to create new types of epoxy nanocomposites. Wide angle X-ray diffraction (WAXD) and transmission electron microscopy (TEM) were used to determine the degree of dispersion. Dynamic mechanical thermal analysis (DMTA) was used to determine the T g and complex modulus of the polymer nanocomposites. The TEM analyses indicated that the MMT clay, nanosilica, and CNF dispersed very well in the epoxy resin system. Evidence is presented that a nanophase is formed when nanoparticles such as surface treated clay, surface treated nanosilica, or carbon nanofibers are introduced into the epoxy resin. Higher T g and complex modulus values from DMTA for the nanomodified materials are presented as evidence for nanophase presence in the epoxy resin system as compared to lower T g and complex modulus for the epoxy resin control. The DMTA data of the neat epoxy nanosilica nanocomposite (2% Aerosil® R202) show the highest T g (258°C) and the highest complex modulus (964 MPa). Five epoxy nanocomposites were selected to produce prepregs using AS4-6K fabric, followed by fabrication into composite panels. The short beam shear values of all epoxy nanocomposites were slightly lower than the baseline with 3% Aerosil® R202 and 2% PR-19-PS-Ox CNF higher than the baseline. The flexural strength of all the epoxy nanocomposites were slightly lower than the baseline with the 2% Cloisite® 10A and 3% Aerosil® R202 materials higher than the baseline. Flatwise tension strength values of all the epoxy nanocomposites were slightly lower than the baseline with 2% PR-19-PS-Ox and 2% Aerosil® R202 samples higher than the baseline material. The G 1C and G 2C values of all the epoxy nanocomposites were below the baseline except for 2% Aerosil® R805 (G 1C) and 2% PR-19-PS-Ox (G 2C) being higher than the baseline.

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