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Etching of wood surfaces by glow discharge plasma

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Abstract

This research tests the hypothesis that plasma will cause differential etching of wood cell walls because of variation in the susceptibility of aromatic and aliphatic polymers to degradation by plasma. Wood was exposed to glow discharge plasma, and scanning electron microscopy and chromatic confocal profilometry were used to examine etching of cell walls. Plasma etched cell walls and made them thinner, but the middle lamella was more resistant to etching than the secondary wall. Plasma created small voids within the secondary wall, which were separated by thin lamellae connected to the middle lamella and tertiary wall layers. Larger voids were created in cell walls by the etching of bordered and half-bordered pits. Etching of the uppermost layer of cells at wood surfaces occurs first and when large voids are created in the walls of these cells then significant plasma etching of the underlying cells occurs. Etching of wood cell walls can be quantified using confocal profilometry, and using this technique a strong relationship between applied plasma energy and volume of cell wall etched by plasma was observed. It is concluded that all of wood’s polymers can be degraded by plasma even though cell wall layers that are rich in lignin are etched more slowly than other parts of the cell wall.

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Acknowledgments

We thank Natural Resources Canada (Value-to-Wood), NSERC (ForValueNet), FP-Innovations (Forintek), Université Laval (Professors’ Bernard Riedl and Alain Cloutier), Canadian Foundation for Innovation and British Columbia Knowledge Development Fund for their financial support of this research. Phil Evans would like to thank Anthony Hyde at the Department of Applied Mathematics, The Australian National University for building the plasma device used in this research and Professor Tim Senden from the same department for his encouragement and helpful advice.

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Jamali, A., Evans, P.D. Etching of wood surfaces by glow discharge plasma. Wood Sci Technol 45, 169–182 (2011). https://doi.org/10.1007/s00226-010-0317-7

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