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Kenneth T. Gillen

Researcher at Sandia National Laboratories

Publications -  97
Citations -  5166

Kenneth T. Gillen is an academic researcher from Sandia National Laboratories. The author has contributed to research in topics: Accelerated aging & Tensile testing. The author has an hindex of 42, co-authored 97 publications receiving 4812 citations. Previous affiliations of Kenneth T. Gillen include Bell Labs.

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Accelerated aging and lifetime prediction: Review of non-Arrhenius behaviour due to two competing processes

TL;DR: In this article, the authors examined the evidence of non-Arrhenius behavior (curvature) instead of linear extrapolations in polymer degradation studies, and found that the high temperature process had a considerably higher activation energy (107 −156 kJ/mol) than the low temperature process (35 −50 kJ /mol).
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Self-Diffusion in Liquid Water to -31°C

TL;DR: The self-diffusion coefficient of water is reported to be −31°C, where the activation energy reaches 11 kcal/mole compared with 45 kcal /mole at 25°C.
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An ultrasensitive technique for testing the Arrhenius extrapolation assumption for thermally aged elastomers

TL;DR: In this article, a general approach for more confidently correlating accelerated aging results with aging under service conditions using the Arrhenius methodology was presented, where oxygen consumption rates at high (accelerated) temperatures, to establish the necessary correlation, and at low temperatures (down to 23 °C), to determine their temperature-dependence in the extrapolation region.
MonographDOI

Polymer Durability: Degradation, Stabilization, and Lifetime Prediction

TL;DR: Auxiliary Mechanism for Transfer to Monomer during Vinyl Chloride Polymerization: Implications for Thermal Stability of Poly(vinyl chloride) Thermal Stability, Degradation, and Stabilization Mechanisms of Poly (vinyl chloride) Thermolysis of poly(n-Butyl methacrylate) Oxyluminescence of Cross-Linked Amine Epoxies: Diglycidylether of Bisphenol A-Diaminodiphenyl Sulfone System Chemiluminescence Analysis and Computed X
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Quantitative model for the time development of diffusion-limited oxidation profiles

TL;DR: In this article, the authors combine diffusion and kinetic expressions with chemical/mechanical property relationships to develop a complete quantitative model with no arbitrarily adjustable parameters for the time development of diffusion-limited oxidation profiles.