Cellulose-based wet wipes undergo limited degradation in river environments

The environmental fate of cellulose-based "biodegradable" wet wipes in freshwater ecosystems remains poorly understood, despite growing market demand and legislative shifts banning plastic-containing alternatives. This study evaluated the degradation behaviour of two commercially available biodegradable wet wipe brands in upland stream mesocosms mimicking real-world river conditions. Using tensile strength loss (TSL) as the primary degradation metric, wipe degradation was compared across varied pH, temperature, nutrient, and light regimes, alongside cotton strip controls. Results revealed that although degradation rates varied by material and environmental context, both wet wipe brands persisted in river systems for 5 weeks, with Brand A degrading ∼50 % faster than Brand B and nearly twice as fast as cotton controls. Degradation was significantly influenced by pH, temperature, and total dissolved solids, but not by wipe positioning in the water column (hyporheic, submerged, surface) or microbial biomass alone. Temperature-adjusted TSL (% per degree day) emerged as the most robust degradation metric, suggesting initial physical disintegration preceded microbial breakdown. These findings challenge current biodegradability claims and highlight the need for regulatory testing under environmentally relevant freshwater conditions to ensure truly biodegradable wet wipe products.

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Publication Details

Journal
Environmental Pollution
Published
2025-08-11
DOI
https://doi.org/10.1016/j.envpol.2025.126971
Citations
2
Primary Topic
Advanced Cellulose Research Studies
Type
article
Field-Weighted Citation Impact
1.19

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article

Cellulose-based wet wipes undergo limited degradation in river environments

Benjamin D. Ward, Thomas C. Allison, Michael Harbottle, Isabelle Durance
2 citations
Environmental Pollution
Advanced Cellulose Research Studies
1.19
article

Cellulose-based wet wipes undergo limited degradation in river environments

Benjamin D. Ward, Thomas C. Allison, Michael Harbottle, Isabelle Durance
article en
2 citations

Abstract

The environmental fate of cellulose-based "biodegradable" wet wipes in freshwater ecosystems remains poorly understood, despite growing market demand and legislative shifts banning plastic-containing alternatives. This study evaluated the degradation behaviour of two commercially available biodegradable wet wipe brands in upland stream mesocosms mimicking real-world river conditions. Using tensile strength loss (TSL) as the primary degradation metric, wipe degradation was compared across varied pH, temperature, nutrient, and light regimes, alongside cotton strip controls. Results revealed that although degradation rates varied by material and environmental context, both wet wipe brands persisted in river systems for 5 weeks, with Brand A degrading ∼50 % faster than Brand B and nearly twice as fast as cotton controls. Degradation was significantly influenced by pH, temperature, and total dissolved solids, but not by wipe positioning in the water column (hyporheic, submerged, surface) or microbial biomass alone. Temperature-adjusted TSL (% per degree day) emerged as the most robust degradation metric, suggesting initial physical disintegration preceded microbial breakdown. These findings challenge current biodegradability claims and highlight the need for regulatory testing under environmentally relevant freshwater conditions to ensure truly biodegradable wet wipe products.

Environmental PollutionVol. 384
Cardiff University (GB)
Engineering and Physical Sciences Research Council
Openalex Percentile: Top 20%
Advanced Cellulose Research Studies
1.19
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