Hygrothermal Viscoelastic Response
Chapter
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Abstract
While the effects of moisture on the mechanical response of materials as different as wool and wood were recognized for a long time, their incorporation within the theory of viscoelasticity was not implemented until the 1970s.
Keywords
Residual Stress Master Curve Shift Factor Relaxation Modulus Moisture Diffusion
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References
- Abdel-Tawab K, Weitsman YJ (1998) A Coupled Viscoelasticity/Damage Model with Application to Swirl-Mat Composites. International Journal of Damage Mechanics 7(4):351–380CrossRefGoogle Scholar
- Biot MA (1954) Theory of Stress-Strain Relations in Anisotropic Viscoelasticity and Relaxation Phenomena. Journal of Applied Physics 25(11):1385MATHCrossRefGoogle Scholar
- Callen HB (1960) Thermodynamics. Wiley, New YorkMATHGoogle Scholar
- Crossman FW, Flaggs DL (1978) Viscoelastic analysis of hygrothermal altered laminate stresses and dimensions, Final report funded in part by Air Force Office of Scientific Research under contract F49620-77-C-0122 and in part by Lockhead Independent Research ProgramGoogle Scholar
- Crossman FW, Flaggs DL (1979) Dimensional Stability of Composite Laminates During Environmental Exposure. SAMPE Journal 15:15–20Google Scholar
- Crossman FW, Warren WJ (1985) The influence of environment on matrix dominated composite fracture. Final report N60921-81-C-0157, Dec 1985Google Scholar
- Crossman FW, Mauri RE, Warren WJ (1978) Moisture altered viscoelastic response of graphite/epoxy composite. In: Vinson JR (ed) Advanced Composite Materials - Environmental Effects, ASTM STP 658. American Society for Testing and Materials, Philadelpia, PA, pp 205–220Google Scholar
- Ferry JD (1980) Viscoelastic Properties of Polymers. Wiley, New YorkGoogle Scholar
- Flaggs DL, Crossman FW (1981) Analysis of the Viscoelastic Response of Composite Laminates During Hygrothermal Exposure. Journal of Composite Materials 15(1):21–40CrossRefGoogle Scholar
- Harper BD (1983) On the Effects of Post Cure Cool Down and Environmental Conditioning on Residual Stresses in Composite Laminates. Texas A & M University Report MM-4665-83-11, Aug 1983Google Scholar
- Harper BD, Weitsman Y (1985) On the effects of environmental conditioning on residual stresses in composite laminates. International Journal of Solids and Structures 21(8):907–926MATHCrossRefGoogle Scholar
- Harper B, Rao J, Kenner V, Popelar C (1997) Hygrothermal effects upon stress relaxation in a polyimide film. Journal of Electronic Materials 26(7):798–804CrossRefGoogle Scholar
- Jackle J, Frisch HL (1986) Properties of a generalized diffusion equation with a memory. J Chem Phys 85(3):1621–1627CrossRefGoogle Scholar
- Kibler KG (1980) Time-Dependent Environmental Behavior of Graphite/Epoxy composites. Final Report, General Dynamics Corporation, Fort Worth, TX, Contract F33615-77-C-5 109, Report AFWAL-TR-80-4052, February 1980Google Scholar
- Maksimov RD, Mochalov VP, Urzhumtsev YS (1972) Time — Moisture superposition. Mechanics of Composite Materials 8(5):685–689Google Scholar
- Maksimov RD, Sokolov EA, Mochalov VP (1975) Effect of temperature and humidity on the creep of polymer materials. Uniaxial elongation under variable temperatur e - humidity conditions. Mechanics of Composite Materials 11(6):834–839Google Scholar
- Maksimov RD, Mochalov VP, Sokolov EA (1976a) Influence of temperature and humidity on the creep of polymer materials. 3. Shear, and Shear and Tensile Strain Acting Together. Mechanics of Composite Materials 12(4):562–567Google Scholar
- Maksimov RD, Mochalov VP, Sokolov EA (1976b) Influence of temperature and humidity on the creep of polymeric materials. 4. Prediction on the basis of field test results. Mechanics of Composite Materials 12(6):859–864Google Scholar
- Onogi S, Sasaguri K, Adachi T, Ogihara S (1962) Time-humidity superposition in some crystalline polymers. Journal of Polymer Science 58(166):1–17CrossRefGoogle Scholar
- Patankar K, Dillard D, Case S, Ellis M, Lai Y, Budinski M, Gittleman C (2008) Hygrothermal characterization of the viscoelastic properties of Gore-Select® 57 proton exchange membrane. Mechanics of Time-Dependent Materials 12(3):221–236CrossRefGoogle Scholar
- Schapery RA (1964) Application of Thermodynamics to Thermomechanical, Fracture, and Birefringent Phenomena in Viscoelastic Media. Journal of Applied Physics 35(5):1451MathSciNetCrossRefGoogle Scholar
- Schapery RA (1966) An engineering theory of nonlinear viscoelasticity with applications. International Journal of Solids and Structures 2(3):407–425CrossRefGoogle Scholar
- Schapery RA (1969) On the characterization of nonlinear viscoelastic materials. Polymer Engineering & Science 9(4):295–310CrossRefGoogle Scholar
- Smith L, Weitsman Y (1999) The visco-damage mechanical response of swirl-mat composites. International Journal of Fracture 97(1):301–319CrossRefGoogle Scholar
- Struik LCE (1978) Physical Aging in Amorphous Polymers and Other Materials. Elsevier, New YorkGoogle Scholar
- Tsai Y, Bosze E, Barjasteh E, Nutt S (2009) Influence of hygrothermal environment on thermal and mechanical properties of carbon fiber/fiberglass hybrid composites. Composites Science and Technology 69(3–4):432–437CrossRefGoogle Scholar
- Weitsman YJ (1977) Effects of Fluctuating Moisture and Temperature on the Mechanical Response of Resin-Plates. Journal of Applied Mechanics ASME 44(4):571–576CrossRefGoogle Scholar
- Weitsman YJ (1979) Interfacial stresses in viscoelastic adhesive-layers due to moisture sorption. International Journal of Solids and Structures 15(9):701–713MATHCrossRefGoogle Scholar
- Weitsman YJ (1990) A continuum diffusion model for viscoelastic materials. J Phys Chem 94(2):961–968CrossRefGoogle Scholar
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