Lignin-based membranes for health, food safety, environmental, and energy applications: current trends and future directions

Polymer-based membrane technologies aim to address critical needs for separation, purification , transport, wound healing, contaminant removal, and more. While robust performance from these membranes is a priority, there is also a pressing need for sustainable, cost-effective solutions for membrane materials to replace perfluorinated and petroleum-derived polymers, which pose significant environmental concerns. Lignin, the second most naturally abundant polymer and a waste by-product of pulp and paper industries and cellulosic biorefineries , offers immense potential to drive sustainable materials revolution. This largely underutilized biopolymer possesses many physical and chemical attributes, making it suitable for biomedical, environmental, and energy applications. For instance, lignin and its functionalized derivatives offer antimicrobial, antioxidant , ultraviolet (UV)-blocking, and barrier properties, which are essential for slow drug release, wound healing with reduced stress, combating antibiotic resistance , and sterile food packaging/preservation. On the other hand, lignin’s 3D, hyperbranched architecture, phenolic units, and facile functionalization opportunities enable unique physical, mechanical, thermal, chemical, and ion transport/separation characteristics, critical for clean water and clean energy technologies. Therefore, by transforming lignin-rich biomass feedstock and industrial waste into value-added, efficient products, we can potentially address global needs for clean water, safe food, affordable healthcare, and renewable energy, as outlined in the United Nations’ Sustainable Development Goals . This mini-review highlights recent advancements in lignin-based membrane designs for biomedical, environmental, and energy applications, alongside a brief discussion on rooms for improvement in this emerging field via lignin valorization. • Lignin can bring sustainable, cost-effective, and efficient solutions to membranes. • Lignin and its derivatives offer antioxidant, antimicrobial, UV-blocking properties. • 3D, hollow lignin with polar groups permits analyte uptake and water-ion transport. • Bounty of functionalization sites makes lignin suitable for diverse applications. • Lignin’s low cost and sustainability can support the bio- and energy economy.

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Publication Details

Journal
Current Opinion in Chemical Engineering
Published
2025-02-07
DOI
https://doi.org/10.1016/j.coche.2025.101098
Citations
6
Primary Topic
Lignin and Wood Chemistry
Type
article
Field-Weighted Citation Impact
4.04

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article

Lignin-based membranes for health, food safety, environmental, and energy applications: current trends and future directions

Shudipto Konika Dishari, Oghenetega Allen Obewhere, Rajesh Keloth, Karen Acurio-Cerda
6 citations
Current Opinion in Chemical Engineering
Lignin and Wood Chemistry
4.04
article

Lignin-based membranes for health, food safety, environmental, and energy applications: current trends and future directions

Shudipto Konika Dishari, Oghenetega Allen Obewhere, Rajesh Keloth, Karen Acurio-Cerda
article en
6 citations

Abstract

Polymer-based membrane technologies aim to address critical needs for separation, purification , transport, wound healing, contaminant removal, and more. While robust performance from these membranes is a priority, there is also a pressing need for sustainable, cost-effective solutions for membrane materials to replace perfluorinated and petroleum-derived polymers, which pose significant environmental concerns. Lignin, the second most naturally abundant polymer and a waste by-product of pulp and paper industries and cellulosic biorefineries , offers immense potential to drive sustainable materials revolution. This largely underutilized biopolymer possesses many physical and chemical attributes, making it suitable for biomedical, environmental, and energy applications. For instance, lignin and its functionalized derivatives offer antimicrobial, antioxidant , ultraviolet (UV)-blocking, and barrier properties, which are essential for slow drug release, wound healing with reduced stress, combating antibiotic resistance , and sterile food packaging/preservation. On the other hand, lignin’s 3D, hyperbranched architecture, phenolic units, and facile functionalization opportunities enable unique physical, mechanical, thermal, chemical, and ion transport/separation characteristics, critical for clean water and clean energy technologies. Therefore, by transforming lignin-rich biomass feedstock and industrial waste into value-added, efficient products, we can potentially address global needs for clean water, safe food, affordable healthcare, and renewable energy, as outlined in the United Nations’ Sustainable Development Goals . This mini-review highlights recent advancements in lignin-based membrane designs for biomedical, environmental, and energy applications, alongside a brief discussion on rooms for improvement in this emerging field via lignin valorization. • Lignin can bring sustainable, cost-effective, and efficient solutions to membranes. • Lignin and its derivatives offer antioxidant, antimicrobial, UV-blocking properties. • 3D, hollow lignin with polar groups permits analyte uptake and water-ion transport. • Bounty of functionalization sites makes lignin suitable for diverse applications. • Lignin’s low cost and sustainability can support the bio- and energy economy.

Current Opinion in Chemical EngineeringVol. 47
University of Nebraska–Lincoln (US)
Iowa Energy Center, Directorate for Engineering, Directorate for Mathematical and Physical Sciences, Office of Science
Zero hunger
Openalex Percentile: Top 7%
Lignin and Wood Chemistry
4.04
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