“Natural” fibers in lakes: A 150-year sedimentary perspective on persistence

Natural fiber textiles, such as cotton, are widely marketed as greener, biodegradable materials within the fashion and textiles industry. However, contemporary environmental assessments of whole (plastic and non-plastic) textile fiber pollution regularly find natural, not plastic, fibers dominate environmental samples. Here we combine palaeolimnological, archival, and forensic science methodologies to evaluate long-term fiber preservation in sediments. We recover individual textile fibers from a unique 150-year lake sediment record from Rudyard lake, Staffordshire, UK. Between c.1876 and c.1979, all bar two fibers recovered from this sediment were natural. After c.1979, fiber accumulation rates increase, driven primarily by an increase in cotton accumulation. These data challenge assumptions of natural fiber biodegradability and add to the technofossil record of historic human activity. We conclude that there is a pressing need to reconsider whether natural textile fibers are as benign as is largely assumed, particularly in pursuit of plastic alternatives for fashion and textiles.

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Publication Details

Journal
iScience
Published
2026-02-04
DOI
https://doi.org/10.1016/j.isci.2026.114904
Primary Topic
Geology and Paleoclimatology Research
Type
article
Field-Weighted Citation Impact
0.00

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article

“Natural” fibers in lakes: A 150-year sedimentary perspective on persistence

Deirdre McKay, Edwin Baynes, Chimdia KeChi-Okafor, Kelly J. Sheridan et al.
iScience
Geology and Paleoclimatology Research
article

“Natural” fibers in lakes: A 150-year sedimentary perspective on persistence

Deirdre McKay, Edwin Baynes, Chimdia KeChi-Okafor, Kelly J. Sheridan, Andrew B. Cundy, David B. Ryves, Antonia Law, Savannah Worne, Anna Bateman, Pawel Gaca, Thomas Stanton, Alana Wheat, Alexander Wood, Naomi Richardson, Carry Somers
article en

Abstract

Natural fiber textiles, such as cotton, are widely marketed as greener, biodegradable materials within the fashion and textiles industry. However, contemporary environmental assessments of whole (plastic and non-plastic) textile fiber pollution regularly find natural, not plastic, fibers dominate environmental samples. Here we combine palaeolimnological, archival, and forensic science methodologies to evaluate long-term fiber preservation in sediments. We recover individual textile fibers from a unique 150-year lake sediment record from Rudyard lake, Staffordshire, UK. Between c.1876 and c.1979, all bar two fibers recovered from this sediment were natural. After c.1979, fiber accumulation rates increase, driven primarily by an increase in cotton accumulation. These data challenge assumptions of natural fiber biodegradability and add to the technofossil record of historic human activity. We conclude that there is a pressing need to reconsider whether natural textile fibers are as benign as is largely assumed, particularly in pursuit of plastic alternatives for fashion and textiles.

iScienceVol. 29(3)
University of Nottingham (GB), Loughborough University (GB), National Oceanography Centre (GB), University of Staffordshire (GB), National Institute of Fashion Technology (IN), Loughborough College (GB), Northumbria University (GB), University of Southampton (GB), Keele University (GB)
Northumbria University, UK Research and Innovation, Loughborough University, AXA Research Fund, Keele University, Arts and Humanities Research Council, Natural Environment Research Council
Openalex Percentile: Top 76%
Geology and Paleoclimatology Research
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