Towards the efficient preparation of tough cellulose nanopapers

Cellulose nanopapers are attractive materials with outstanding mechanical and optical properties, yet their production is slow. The use of non-aqueous suspension media, in particular ethanol, for nanopaper production reduced filtration times by 73 %. Nanopapers prepared from ethanolic suspensions possessed higher porosities than those prepared from aqueous suspensions, reducing their transparency and tensile properties. Rewetting nanopapers prepared from ethanolic suspensions with water and subsequent drying yielded nanopapers with densities essentially the same as those prepared from aqueous suspensions, which in turn greatly increased mechanical properties and transparency. The strain to failure of rewetted and dried nanopapers prepared from ethanolic suspensions increased from 2.8 % to 7.5 %. The strain to failure of rewetted and dried nanopapers prepared from ethanolic suspensions was also greater than that of nanopapers prepared from aqueous suspensions (3.3 %) albeit at the expense of a 20 % decrease in tensile strength and modulus, which was shown to be attributable to a lower bonding contribution between fibrils in the network. The increased strain to failure results in significantly increased work of fracture. The rewetting and drying treatment also yielded nanopapers with high total luminous transmittance and haze.

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Publication Details

Journal
Carbohydrate Polymers
Published
2025-09-22
DOI
https://doi.org/10.1016/j.carbpol.2025.124443
Primary Topic
Advanced Cellulose Research Studies
Type
article
Field-Weighted Citation Impact
0.00

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article

Towards the efficient preparation of tough cellulose nanopapers

William W. Sampson, Alexander Bismarck, Andreas Mautner, Florian Mayer et al.
Carbohydrate Polymers
Advanced Cellulose Research Studies
article

Towards the efficient preparation of tough cellulose nanopapers

William W. Sampson, Alexander Bismarck, Andreas Mautner, Florian Mayer, Daniela Wloch
article en

Abstract

Cellulose nanopapers are attractive materials with outstanding mechanical and optical properties, yet their production is slow. The use of non-aqueous suspension media, in particular ethanol, for nanopaper production reduced filtration times by 73 %. Nanopapers prepared from ethanolic suspensions possessed higher porosities than those prepared from aqueous suspensions, reducing their transparency and tensile properties. Rewetting nanopapers prepared from ethanolic suspensions with water and subsequent drying yielded nanopapers with densities essentially the same as those prepared from aqueous suspensions, which in turn greatly increased mechanical properties and transparency. The strain to failure of rewetted and dried nanopapers prepared from ethanolic suspensions increased from 2.8 % to 7.5 %. The strain to failure of rewetted and dried nanopapers prepared from ethanolic suspensions was also greater than that of nanopapers prepared from aqueous suspensions (3.3 %) albeit at the expense of a 20 % decrease in tensile strength and modulus, which was shown to be attributable to a lower bonding contribution between fibrils in the network. The increased strain to failure results in significantly increased work of fracture. The rewetting and drying treatment also yielded nanopapers with high total luminous transmittance and haze.

Carbohydrate PolymersVol. 370
University of Manchester (GB), Imperial College London (GB), BOKU University (AT), Aalto University (FI)
Universität Wien
Openalex Percentile: Top 83%
Advanced Cellulose Research Studies
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Towards the efficient preparation of tough cellulose nanopapers — William W. Sampson, Alexander Bismarck, et al. · Carbohydrate Polymers (2025) | TGRS Research Map | TGRS