Micro-fibrillated lignocellulose films for high-performance sustainable packaging

Nanocellulosic materials, including nanofibers and microfibers, are promising sustainable alternatives for packaging due to their biodegradability, excellent film-forming ability, and robust mechanical performance. In this study, we produced microfibrillated lignocellulose (MFLC) from bleached chemithermomechanical aspen pulp using low-consistency refining (LCR) as a promising material for sustainable packaging. The MFLC was then converted into high-strength, water-resistant films with unique dual wettability—hydrophobic on one side and hydrophilic on the other—through casting, drying, and hot pressing. This opposing wettability naturally arises from the intrinsic hydrophobicity of lignin and its high interfacial energy with water, causing nano-lignin particles to accumulate at the film surface during formation. This feature provides promising potential for advanced packaging applications. Key packaging metrics—including mechanical strength, water vapor transmission rate, porosity, and thermal stability—were characterized. Increased thickness improved tensile strength and tear resistance, whereas hot pressing further improved tensile strength and thermal stability but reduced flexibility. These findings highlight MFLC produced though LCR as a promising precursor for bio-based packaging materials, particularly when high strength, thermal stability, and controlled surface hydrophilicity are required.

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Publication Details

Journal
Cellulose
Published
2026-08-24
DOI
https://doi.org/10.1007/s10570-026-07181-2
Primary Topic
Advanced Cellulose Research Studies
Type
article
Field-Weighted Citation Impact
0.00

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article

Micro-fibrillated lignocellulose films for high-performance sustainable packaging

Fariba Yeganeh, James A. Olson
Cellulose
Advanced Cellulose Research Studies
article

Micro-fibrillated lignocellulose films for high-performance sustainable packaging

Fariba Yeganeh, James A. Olson
article en

Abstract

Nanocellulosic materials, including nanofibers and microfibers, are promising sustainable alternatives for packaging due to their biodegradability, excellent film-forming ability, and robust mechanical performance. In this study, we produced microfibrillated lignocellulose (MFLC) from bleached chemithermomechanical aspen pulp using low-consistency refining (LCR) as a promising material for sustainable packaging. The MFLC was then converted into high-strength, water-resistant films with unique dual wettability—hydrophobic on one side and hydrophilic on the other—through casting, drying, and hot pressing. This opposing wettability naturally arises from the intrinsic hydrophobicity of lignin and its high interfacial energy with water, causing nano-lignin particles to accumulate at the film surface during formation. This feature provides promising potential for advanced packaging applications. Key packaging metrics—including mechanical strength, water vapor transmission rate, porosity, and thermal stability—were characterized. Increased thickness improved tensile strength and tear resistance, whereas hot pressing further improved tensile strength and thermal stability but reduced flexibility. These findings highlight MFLC produced though LCR as a promising precursor for bio-based packaging materials, particularly when high strength, thermal stability, and controlled surface hydrophilicity are required.

Cellulose
University of British Columbia (CA), National Bioproducts Institute (South Africa) (ZA)
McMaster University, BC Hydro, FPInnovations, Natural Sciences and Engineering Research Council of Canada
Responsible consumption and production
Openalex Percentile: Top 19%
Advanced Cellulose Research Studies
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