Insights into volatile presence within epoxy amine coatings using nano-thermal analysis

Thermoset polymers are widely used as the matrix in protective organic coatings, where solvents are commonly added to adjust viscosity and control drying times. Whilst the majority of solvent evaporates rapidly during the curing process, it is well-known that some degree of residual solvent is often retained in the matrix. Here we examine the effect of solvent retention on local thermal properties in both well-defined model coatings assembled using reagent grade materials and simplified industrial epoxy-phenalkamine formulations. Whilst for ambient cured systems conventional DSC analysis is unable to detect the presence of solvent, uniquely, nano-thermal analysis (NanoTA) is used to provide evidence of exacerbated solvent retention at the polymer-metal interface in model epoxy-amine systems, whereas in the industrial coating, multiple transition temperatures are detected, corresponding to solvent mixtures within the network. • NanoTA able to detect volatile species and solvent in coatings • Solvents bound to polymer network • Detected differences between polymer-air and polymer-metal interfaces • Phenalkamine crosslinker interacts strongly with solvent

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Publication Details

Journal
Progress in Organic Coatings
Published
2025-06-03
DOI
https://doi.org/10.1016/j.porgcoat.2025.109406
Primary Topic
Thermal and Kinetic Analysis
Type
article
Field-Weighted Citation Impact
0.00

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article

Insights into volatile presence within epoxy amine coatings using nano-thermal analysis

Suzanne Morsch, Douglas Beaumont, S.B. Lyon, W. R. Edwards et al.
Progress in Organic Coatings
Thermal and Kinetic Analysis
article

Insights into volatile presence within epoxy amine coatings using nano-thermal analysis

Suzanne Morsch, Douglas Beaumont, S.B. Lyon, W. R. Edwards, Naomi Farrer, Woraphan Intaphan
article en

Abstract

Thermoset polymers are widely used as the matrix in protective organic coatings, where solvents are commonly added to adjust viscosity and control drying times. Whilst the majority of solvent evaporates rapidly during the curing process, it is well-known that some degree of residual solvent is often retained in the matrix. Here we examine the effect of solvent retention on local thermal properties in both well-defined model coatings assembled using reagent grade materials and simplified industrial epoxy-phenalkamine formulations. Whilst for ambient cured systems conventional DSC analysis is unable to detect the presence of solvent, uniquely, nano-thermal analysis (NanoTA) is used to provide evidence of exacerbated solvent retention at the polymer-metal interface in model epoxy-amine systems, whereas in the industrial coating, multiple transition temperatures are detected, corresponding to solvent mixtures within the network. • NanoTA able to detect volatile species and solvent in coatings • Solvents bound to polymer network • Detected differences between polymer-air and polymer-metal interfaces • Phenalkamine crosslinker interacts strongly with solvent

Progress in Organic CoatingsVol. 207
Burapha University (TH), University of Manchester (GB), AkzoNobel (United Kingdom) (GB)
AkzoNobel, Engineering and Physical Sciences Research Council
Openalex Percentile: Top 91%
Thermal and Kinetic Analysis
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Insights into volatile presence within epoxy amine coatings using nano-thermal analysis — Suzanne Morsch, Douglas Beaumont, et al. · Progress in Organic Coatings (2025) | TGRS Research Map | TGRS