Page 251 - Engineered Interfaces in Fiber Reinforced Composites
P. 251

232                Engineered interfaces in jiber reinforced composites

                   Hild,  D.N.  and  Schwartz,  P.  (1992a). Plasma  treated  ultrahigh  strength  polyethylene fibers. part  I.
                      Characterization  by  elctron  spectroscopy  for  chemical analysis. J. Adhesion Sci.  Technol. 6, 879-
                      896.
                   Hild,  D.N. and  Schwartz, P. (1992b). Plasma  treated  ultrahigh  strength  polyethylene fibers. Part  11.
                      Increased adhesion to poly(methy1 methacrylate). J. Adhesion Sri  Terhnol. 6, 897-917.
                   Hoh, K.P., Ishida, H. and Koenig, J.L. (1988). Spectroscopic studies of the gradient in the silane coupling
                      agent/matrix interface in fiber glass-reinforced epoxy. Polym. Composites 9, 151-1 57.
                   Holms, S. and Schwartz, P. (1990). Amination of ultra-high strength polyethylene using ammonia plasma.
                      Composites Sci. Technol. 38, 1-21.
                   Hooper, R.C. (1956). In Proc. 11th Annual  Tech. Conf. Reinforced Plastics Div., SPI, Sec. 8-B.
                   Hopfgarten, F. (1978). Surface study of carbon fibers with ESCA and Auger electron spectroscopy. Fibre
                      Sci. Technol. 11, 67-79.
                   Horie. K., Murai, H., Mita, I. (1977). Bonding of epoxy resin to graphite fibers. Fibre Sci. Technol. 9, 253-
                      264.
                   Hughes, J.D.H. (1991). The carbon fiber-epoxy interfaces - a review. Composites Sci. Technol. 41, 1345.
                   Hull, D. (1981). An Introduction to Composite Materials. Cambridge University Press. Cambridge.
                   Hwang, L.R., Jang, B.Z. (1991). In Proc. ICCM-VIII: Composites: Design, Manufacture and Applications
                      (S.W. Tsai and G.S. Springer, eds.). SAMPE Pub, Paper 24G.
                    Inagaki, N., Tasaka, S. and Kawai, H. (1992). Surface modification of Kevlar 49 fiber by a combination
                      of  plasma  treatment  and coupling  agent  treatment  for  silicon rubber  composite.  J. Adhesion Sri.
                      Technol. 6, 279-29 1.
                    Ishida, H. (1984). A review of recent progress in the studies of molecular and micro structures of coupling
                      agents and their functions in composites, coatings and adhesive joints. Polym. Composites 5, 101-1 23.
                    Ishida,  H.,  Chiang,  C.H. and  Koenig,  J.L.  (1982). The  structure  of  aminofunctional  silane coupling
                      agents. Polymer 23, 251-262.
                    Ishida, H., Koenig, J.L. (1978). Fourier transformed infrared spectroscopic study of the silane coupling
                      agentlporous silica interface. J. Colloid. Interface Sci. 64, 555-564.
                    Ishida,  H.,  Koenig,  J.L.  (1979). An  investigation  of  the  coupling  agent/matrix interface of  fiberglass
                      reinforced plastic by  fourier transform  infrared  spectroscopy. J. Polym. Sci.: Part  B. Polym. Phys.
                      Edition  17, 61 5-626.
                    Ishida, H., Koenig, J.L. (1980). Effect of hydrolysis and drying on the siloxane bonds of a silane coupling
                      agent deposited on E-glass fibers. J. Polym. Sci., Part  B. Polym. Phys. Ed. 18, 233-237.
                    hens, J., Wevers, M. and Verpoest, I. (1991). In Proc. 8th Intern. ConJ  Composite Mater. (ICCM-VM),
                      Composite Design, manufacture and Applications (S.W. Tsai and G.S. Springer, eds.) SAMPE Publ.,
                      Corina, CA, Paper  11  C.
                    James,  N.A.,  Lovett,  D.J.  and  Warwick,  C.M.  (1991).  Mechanical  behavior  of  a  continuous  fiber
                      reinforced  titanium  matrix  composites.  In  Proc.  ICCM/8, Composires:  Design,  Manufacture  and
                      Application (S.W. Tsai and G.S. Springer, eds.), SAMPE Pub., paper  191.
                    Jang, B.J., Das, H., Hwang, L.R., Chang, T.C. (1988). Plasma treatments of fiber surfaces for improved
                      composite  performance.  In  Proc.  ICCI-II,  Interfaces  in  Polymer,  Ceramic  and  Metal  Matrix
                      Composites (H. Ishida ed.), Elsevier Sci. Pub. New York, pp. 319-333.
                    Janssens, W.,  Doxsee Jr., L., Verpoest, I. and de Meester, P. (1989). Influence of the fiber-matrix interface
                      on the transverse bending strength of dry and moist aramid-epoxy composites. In Proc. Interfacial
                      Phenomena in  Composite Materials’89, (F.R.  Jones ed.), Butterworths,  London, pp 147-1 54.
                    Jeng,  S.M.,  Yang,  C.J.,  Alassoeur,  P.,  Yang,  J.M.  (1991). In  Proc. ICCM-IIIV,  Composites: Design,
                      Manufacture and Application (S.W.  Tsai and G.S. Springer, eds.), SAMPE Pub, Paper 25C.
                    Jeng, S.M., Yang, J.M. and Aksoy, S. (1992). Damage mechanisms of SCS-6/Ti-6A1-4V composites under
                      thermal-mechanical  fatigue. Mater. Sei. Eng. A  156, 117-124.
                    Johnson, S.M., Brittain, R.D., Lamoreaux, R.H. and Rowcliff, D.J. (1988). Degradation  mechanisms of
                      silicon carbide fibers. J. Am. Ceram. SOC. 71, C  132-135.
                    Johnston,  W.D.  and  Greenfield,  I.G.  (1991).  Evaluation  of  techniques  for  interface  modification  in
                      aluminum matrix composites. In Proc. ICCM- VIII. Composites Design. Manufacture and Application
                      (S.W. Tsai and G.S. Springer, eds.), SAMPE Pub., Paper  19E.
   246   247   248   249   250   251   252   253   254   255   256