TY - JOUR
T1 - Frontal vs. bulk polymerization of fiber-reinforced polymer-matrix composites
AU - Vyas, S.
AU - Zhang, X.
AU - Goli, E.
AU - Geubelle, P. H.
N1 - This work was supported by the Air Force Office of Scientific Research, United States through Award FA9550-16-1-0017 (Dr. B. ?Les? Lee, Program Manager) as part of the Center for Excellence in Self-Healing, Regeneration, and Structural Remodeling. This work was also supported by the National Science Foundation, United States (NSF Grant No. 1830635) through the LEAP-HI: Manufacturing USA program. The authors would like to acknowledge Professors Nancy Sottos and Jeffrey Moore for insightful discussions on this work.
This work was supported by the Air Force Office of Scientific Research, United States through Award FA9550-16-1-0017 (Dr. B. \u2018Les\u2019 Lee, Program Manager) as part of the Center for Excellence in Self-Healing, Regeneration, and Structural Remodeling. This work was also supported by the National Science Foundation, United States (NSF Grant No. 1830635 ) through the LEAP-HI: Manufacturing USA program. The authors would like to acknowledge Professors Nancy Sottos and Jeffrey Moore for insightful discussions on this work.
PY - 2020/9/29
Y1 - 2020/9/29
N2 - As frontal polymerization (FP) is being considered as a faster, more energy-efficient, out-of-autoclave manufacturing method for fiber-reinforced thermosetting-polymer-matrix composites (Robertson et al., 2018), the competition between FP and bulk polymerization (BP) is an essential component of the feasibility analysis of the FP-based manufacturing process. To that effect, we present a comparative study of FP and BP based on a nondimensional form of the reaction–diffusion equations that describe the two polymerization processes. From the nondimensional formulation of the thermo-chemical relations, we extract two parameters that involve the key quantities of the cure kinetics model, i.e., the heat of reaction, the time constant, and the activation energy. Although the analysis is general and can be adapted to a wide range of thermosetting-polymer composites, emphasis is placed on unidirectional composites made of carbon or glass fibers embedded in a dicyclopentadiene (DCPD) matrix. The competition between FP and BP is formulated in terms of the time scales involved in the two polymerization processes for the manufacturing of composites of varying sizes and fiber volume fraction values.
AB - As frontal polymerization (FP) is being considered as a faster, more energy-efficient, out-of-autoclave manufacturing method for fiber-reinforced thermosetting-polymer-matrix composites (Robertson et al., 2018), the competition between FP and bulk polymerization (BP) is an essential component of the feasibility analysis of the FP-based manufacturing process. To that effect, we present a comparative study of FP and BP based on a nondimensional form of the reaction–diffusion equations that describe the two polymerization processes. From the nondimensional formulation of the thermo-chemical relations, we extract two parameters that involve the key quantities of the cure kinetics model, i.e., the heat of reaction, the time constant, and the activation energy. Although the analysis is general and can be adapted to a wide range of thermosetting-polymer composites, emphasis is placed on unidirectional composites made of carbon or glass fibers embedded in a dicyclopentadiene (DCPD) matrix. The competition between FP and BP is formulated in terms of the time scales involved in the two polymerization processes for the manufacturing of composites of varying sizes and fiber volume fraction values.
KW - Carbon fibers (A)
KW - Frontal polymerization (E)
KW - Glass fibers (A)
KW - Modeling (C)
KW - Polymer-matrix composites (A)
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U2 - 10.1016/j.compscitech.2020.108303
DO - 10.1016/j.compscitech.2020.108303
M3 - Article
AN - SCOPUS:85086501695
SN - 0266-3538
VL - 198
JO - Composites Science and Technology
JF - Composites Science and Technology
M1 - 108303
ER -