Linking Polyelectrolyte Modification and Enzyme‐Catalyzed Phenolic Acid Functionalization of Cellulose Fiber for Functional Foams

ABSTRACT A 2‐step modification system using polyelectrolyte and laccase‐catalyzed ferulic acid is used to make functionalized cellulose fibers. The functionalized fibers are converted into low‐density and highly porous cellulose‐based foams with bioactive and moisture‐resistant properties, showing high potential for food packaging applications. The functional fibers present high antioxidant (88%) and antibacterial (60%) activity, along with moderately reduced moisture adsorption rates (0.009 g min −1 ) compared to non‐functionalized fibers. The best laccase and ferulic acid formulations are selected for foam preparation, using a wet processing technique. The behavior of the wet foam is correlated with the extent of functionalization through measurements of foam capacity and stability. Functionalization affects the foam performance, especially when comparing anionic, cationic, and non‐ionic surfactants. Increasing the laccase and ferulic acid loads disrupt the foam stability when ionic surfactants are used over long times and results in foam collapse during the drying process, resulting in extremely large pores. Nevertheless, stable foams are achieved with a flexible compression modulus, 50% structural resilience, 99% porosity, and densities as low as 15 kg m −3 density along with the retained bioactive properties.

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Publication Details

Journal
Advanced Materials Technologies
Published
2026-10-07
DOI
https://doi.org/10.1002/admt.71366
Primary Topic
Advanced Cellulose Research Studies
Type
article
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article

Linking Polyelectrolyte Modification and Enzyme‐Catalyzed Phenolic Acid Functionalization of Cellulose Fiber for Functional Foams

Paul Christakopoulos, Ulrika Rova, Io Antonopoulou, Sara Wallstén et al.
Advanced Materials Technologies
Advanced Cellulose Research Studies
article

Linking Polyelectrolyte Modification and Enzyme‐Catalyzed Phenolic Acid Functionalization of Cellulose Fiber for Functional Foams

Paul Christakopoulos, Ulrika Rova, Io Antonopoulou, Sara Wallstén, Abirami SENTHIL
article en

Abstract

ABSTRACT A 2‐step modification system using polyelectrolyte and laccase‐catalyzed ferulic acid is used to make functionalized cellulose fibers. The functionalized fibers are converted into low‐density and highly porous cellulose‐based foams with bioactive and moisture‐resistant properties, showing high potential for food packaging applications. The functional fibers present high antioxidant (88%) and antibacterial (60%) activity, along with moderately reduced moisture adsorption rates (0.009 g min −1 ) compared to non‐functionalized fibers. The best laccase and ferulic acid formulations are selected for foam preparation, using a wet processing technique. The behavior of the wet foam is correlated with the extent of functionalization through measurements of foam capacity and stability. Functionalization affects the foam performance, especially when comparing anionic, cationic, and non‐ionic surfactants. Increasing the laccase and ferulic acid loads disrupt the foam stability when ionic surfactants are used over long times and results in foam collapse during the drying process, resulting in extremely large pores. Nevertheless, stable foams are achieved with a flexible compression modulus, 50% structural resilience, 99% porosity, and densities as low as 15 kg m −3 density along with the retained bioactive properties.

Advanced Materials Technologies
Luleå University of Technology (SE), Ornsköldsvik Hospital (SE)
Openalex Percentile: Top 28%
Advanced Cellulose Research Studies
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Linking Polyelectrolyte Modification and Enzyme‐Catalyzed Phenolic Acid Functionalization of Cellulose Fiber for Functional Foams — Paul Christakopoulos, Ulrika Rova, et al. · Advanced Materials Technologies (2026) | TGRS Research Map | TGRS