Pathogen-resistant biodegradable SMS materials: a solution for medical applications

The study aims to develop and assess a biodegradable spun-bond-melt-blown-spun-bond (SMS) structure composed of polylactic acid (PLA) for medical applications. The innovation addresses the environmental impacts of petroleum-based disposable materials by proposing a sustainable, pathogen-resistant alternative with effective filtration capabilities.The PLA-based SMS structure was fabricated with spun-bonded and melt-blown technologies, incorporating triethyl citrate (TEC) as a plasticiser to enhance the melt-flow rate and facilitate the production of fine fibre filtration. Thermal, mechanical, molecular, and biodegradability properties were evaluated through standard laboratory tests, including GPC/SEC analysis, SEM imaging, FTIR spectroscopy, and composting experiments.The developed SMS structure exhibited excellent filtration efficiency (98.5% for 0.3 m particles) and biodegradation potential, achieving an 84.3% mass reduction after 24 weeks in a composting environment. The material’s spun-bonded layers provided mechanical durability, while the melt-blown layer ensured superior filtration properties. The results demonstrate the structure’s suitability for medical protective equipment while reducing environmental harm.While the study highlights the potential of PLA-based SMS materials, further work should focus on developing industrial-scale production, long-term biodegradability under different environmental conditions and cost-effectiveness compared to commercially available products.Adopting PLA-based SMS materials in protective medical textiles could significantly lower plastic waste and greenhouse gas emissions associated with single-use polypropylene products. The biodegradable solution aligns with global sustainability goals and addresses the demand for disposable protective gear.The study presents a new biodegradable material for medical textiles that combines high performance with environmental responsibility. It brings a possible development path for researchers and identifies solutions for manufacturers and customers looking to create more sustainable healthcare solutions.

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Publication Details

Journal
Journal of Achievements of Materials and Manufacturing Engineering
Published
2024-12-01
DOI
https://doi.org/10.5604/01.3001.0054.9906
Primary Topic
biodegradable polymer synthesis and properties
Type
article
Field-Weighted Citation Impact
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article

Pathogen-resistant biodegradable SMS materials: a solution for medical applications

Karolina Gzyra‐Jagieła, Nina Tarzyńska, Longina Madej‐Kiełbik, Anna Bednarowicz et al.
Journal of Achievements of Materials and Manufacturing Engineering
biodegradable polymer synthesis and properties
article

Pathogen-resistant biodegradable SMS materials: a solution for medical applications

Karolina Gzyra‐Jagieła, Nina Tarzyńska, Longina Madej‐Kiełbik, Anna Bednarowicz, Sławomir Kęska, Dorota Zielińska, P. Czarnecki
article en

Abstract

The study aims to develop and assess a biodegradable spun-bond-melt-blown-spun-bond (SMS) structure composed of polylactic acid (PLA) for medical applications. The innovation addresses the environmental impacts of petroleum-based disposable materials by proposing a sustainable, pathogen-resistant alternative with effective filtration capabilities.The PLA-based SMS structure was fabricated with spun-bonded and melt-blown technologies, incorporating triethyl citrate (TEC) as a plasticiser to enhance the melt-flow rate and facilitate the production of fine fibre filtration. Thermal, mechanical, molecular, and biodegradability properties were evaluated through standard laboratory tests, including GPC/SEC analysis, SEM imaging, FTIR spectroscopy, and composting experiments.The developed SMS structure exhibited excellent filtration efficiency (98.5% for 0.3 m particles) and biodegradation potential, achieving an 84.3% mass reduction after 24 weeks in a composting environment. The material’s spun-bonded layers provided mechanical durability, while the melt-blown layer ensured superior filtration properties. The results demonstrate the structure’s suitability for medical protective equipment while reducing environmental harm.While the study highlights the potential of PLA-based SMS materials, further work should focus on developing industrial-scale production, long-term biodegradability under different environmental conditions and cost-effectiveness compared to commercially available products.Adopting PLA-based SMS materials in protective medical textiles could significantly lower plastic waste and greenhouse gas emissions associated with single-use polypropylene products. The biodegradable solution aligns with global sustainability goals and addresses the demand for disposable protective gear.The study presents a new biodegradable material for medical textiles that combines high performance with environmental responsibility. It brings a possible development path for researchers and identifies solutions for manufacturers and customers looking to create more sustainable healthcare solutions.

Journal of Achievements of Materials and Manufacturing EngineeringVol. 127(1)
Lodz University of Technology (PL)
Openalex Percentile: Top 87%
biodegradable polymer synthesis and properties
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