Study on temperature dependence of loss function in a model cord-adhesive-rubber system

Energy dissipation (loss function) measurements for characterizing adhesion using the H-pull test have been applied to the tire cord/rubber composite system and the relationship between the loss function and test temperature was also investigated. Test samples consisted of commercial nylon 66 tire c...

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Published in:Journal of adhesion science and technology 2007, Vol.21 (2), p.169-177
Main Authors: Jamshidi, M., Taromi, F. Afshar
Format: Article
Language:English
Subjects:
Application fields
Applied sciences
Composites
CORD TO RUBBER ADHESION
Exact sciences and technology
Forms of application and semi-finished materials
H-ADHESION
INTERFACIAL INTERACTIONS
LOSS FUNCTION
Polymer industry, paints, wood
RFL
Technology of polymers
THERMODYNAMIC WORK OF ADHESION
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cited_by cdi_FETCH-LOGICAL-c411t-ab33cc27f9151b389f7042f5679f5a71c1a25a8687c405d142dbe28052b46f053
cites cdi_FETCH-LOGICAL-c411t-ab33cc27f9151b389f7042f5679f5a71c1a25a8687c405d142dbe28052b46f053
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container_title Journal of adhesion science and technology
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creator Jamshidi, M.
Taromi, F. Afshar
description Energy dissipation (loss function) measurements for characterizing adhesion using the H-pull test have been applied to the tire cord/rubber composite system and the relationship between the loss function and test temperature was also investigated. Test samples consisted of commercial nylon 66 tire cord, commercial resorcinol-formaldehyde-latex (RFL) adhesive system and NR/SBR rubber compound. The H-adhesion of cord/rubber samples decreased with increasing test temperature. The surface tensions of RFL-coated cord and rubber were determined using Young and Fowkes equations. Also the interfacial tension was determined using the harmonic-mean equation. Then the thermodynamic work of adhesion (W) was determined using these data. Finally the loss function (ϕ) of the adhesive was determined using the Gent equation. When the cord-rubber interface was heated, the loss function decreased. We have proposed a Weibull model equation which describes the temperature dependence of the loss function in a model cord/RFL/rubber system.
doi_str_mv 10.1163/156856107780437453
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subjects Application fields
Applied sciences
Composites
CORD TO RUBBER ADHESION
Exact sciences and technology
Forms of application and semi-finished materials
H-ADHESION
INTERFACIAL INTERACTIONS
LOSS FUNCTION
Polymer industry, paints, wood
RFL
Technology of polymers
THERMODYNAMIC WORK OF ADHESION
title Study on temperature dependence of loss function in a model cord-adhesive-rubber system
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