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Environmental Sources
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Airborne emissions of microplastic fibres from domestic laundry dryers
The Science of The Total Environment2020
234 citations
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Citation count from OpenAlex, updated daily. May differ slightly from the publisher's own count.
Score: 45
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0–100 AI score estimating relevance to the microplastics field. Papers below 30 are filtered from public browse.
Stephanie Wright,
Stephanie Wright,
Stephanie Wright,
Stephanie Wright,
Stephanie Wright,
Stephanie Wright,
Stephanie Wright,
Elvis D. Okoffo,
Elvis D. Okoffo,
Elvis D. Okoffo,
Cassandra Rauert,
Cassandra Rauert,
Elvis D. Okoffo,
Elvis D. Okoffo,
Elvis D. Okoffo,
Elvis D. Okoffo,
Cassandra Rauert,
Francisca Ribeiro,
Francisca Ribeiro,
Francisca Ribeiro,
Francisca Ribeiro,
Francisca Ribeiro,
Francisca Ribeiro,
Francisca Ribeiro,
Tania Toapanta,
Stacey O’Brien,
Stacey O’Brien,
Stacey O’Brien,
Stacey O’Brien,
Stacey O’Brien,
Stephanie Wright,
Cassandra Rauert,
Stephanie Wright,
Cassandra Rauert,
Cassandra Rauert,
Stephanie Wright,
Stephanie Wright,
Stephanie Wright,
Stephanie Wright,
Stephanie Wright,
Xianyu Wang,
Jake O’Brien,
Kevin V. Thomas
Kevin V. Thomas
Kevin V. Thomas
Kevin V. Thomas
Cassandra Rauert,
Stephanie Wright,
Cassandra Rauert,
Cassandra Rauert,
Saer Samanipour,
Saer Samanipour,
Francisca Ribeiro,
Francisca Ribeiro,
Stephanie Wright,
Elvis D. Okoffo,
Stephanie Wright,
Cassandra Rauert,
Elvis D. Okoffo,
Elvis D. Okoffo,
Elvis D. Okoffo,
Elvis D. Okoffo,
Elvis D. Okoffo,
Elvis D. Okoffo,
Cassandra Rauert,
Cassandra Rauert,
Elvis D. Okoffo,
Elvis D. Okoffo,
Elvis D. Okoffo,
Elvis D. Okoffo,
Elvis D. Okoffo,
Elvis D. Okoffo,
Elvis D. Okoffo,
Elvis D. Okoffo,
Elvis D. Okoffo,
Stacey O’Brien,
Stacey O’Brien,
Cassandra Rauert,
Stephanie Wright,
Stephanie Wright,
Stacey O’Brien,
Cassandra Rauert,
Stephanie Wright,
Kevin V. Thomas
Kevin V. Thomas
Elvis D. Okoffo,
Cassandra Rauert,
Elvis D. Okoffo,
Elvis D. Okoffo,
Cassandra Rauert,
Cassandra Rauert,
Elvis D. Okoffo,
Elvis D. Okoffo,
Cassandra Rauert,
Elvis D. Okoffo,
Cassandra Rauert,
Cassandra Rauert,
Stephanie Wright,
Stephanie Wright,
Stephanie Wright,
Stephanie Wright,
Kevin V. Thomas
Kevin V. Thomas
Kevin V. Thomas
Kevin V. Thomas
Kevin V. Thomas
Kevin V. Thomas
Stacey O’Brien,
Tania Toapanta,
Francisca Ribeiro,
Francisca Ribeiro,
Francisca Ribeiro,
Francisca Ribeiro,
Jake O’Brien,
Jake O’Brien,
Jake O’Brien,
Jake O’Brien,
Jake O’Brien,
Kevin V. Thomas
Kevin V. Thomas
Stacey O’Brien,
Stacey O’Brien,
Cassandra Rauert,
Stacey O’Brien,
Stephanie Wright,
Stephanie Wright,
Stephanie Wright,
Jake O’Brien,
Jake O’Brien,
Stephanie Wright,
Cassandra Rauert,
Kevin V. Thomas
Kevin V. Thomas
Jake O’Brien,
Elvis D. Okoffo,
Kevin V. Thomas
Elvis D. Okoffo,
Kevin V. Thomas
Jake O’Brien,
Kevin V. Thomas
Kevin V. Thomas
Francisca Ribeiro,
Francisca Ribeiro,
Kevin V. Thomas
Elvis D. Okoffo,
Elvis D. Okoffo,
Kevin V. Thomas
Elvis D. Okoffo,
Xianyu Wang,
Francisca Ribeiro,
Xianyu Wang,
Stacey O’Brien,
Elvis D. Okoffo,
Tania Toapanta,
Stephanie Wright,
Stephanie Wright,
Francisca Ribeiro,
Cassandra Rauert,
Kevin V. Thomas
Stephanie Wright,
Kevin V. Thomas
Cassandra Rauert,
Elvis D. Okoffo,
Elvis D. Okoffo,
Tania Toapanta,
Stephanie Wright,
Stephanie Wright,
Kevin V. Thomas
Elvis D. Okoffo,
Saer Samanipour,
Elvis D. Okoffo,
Elvis D. Okoffo,
Cassandra Rauert,
Kevin V. Thomas
Kevin V. Thomas
Kevin V. Thomas
Jake O’Brien,
Kevin V. Thomas
Francisca Ribeiro,
Francisca Ribeiro,
Cassandra Rauert,
Stephanie Wright,
Cassandra Rauert,
Cassandra Rauert,
Cassandra Rauert,
Cassandra Rauert,
Cassandra Rauert,
Elvis D. Okoffo,
Stephanie Wright,
Stephanie Wright,
Cassandra Rauert,
Tania Toapanta,
Cassandra Rauert,
Saer Samanipour,
Saer Samanipour,
Cassandra Rauert,
Kevin V. Thomas
Kevin V. Thomas
Jake O’Brien,
Kevin V. Thomas
Xianyu Wang,
Kevin V. Thomas
Kevin V. Thomas
Kevin V. Thomas
Kevin V. Thomas
Kevin V. Thomas
Elvis D. Okoffo,
Elvis D. Okoffo,
Stacey O’Brien,
Tania Toapanta,
Tania Toapanta,
Saer Samanipour,
Saer Samanipour,
Saer Samanipour,
Stephanie Wright,
Stephanie Wright,
Xianyu Wang,
Cassandra Rauert,
Tania Toapanta,
Xianyu Wang,
Stephanie Wright,
Xianyu Wang,
Kevin V. Thomas
Stephanie Wright,
Kevin V. Thomas
Stephanie Wright,
Stephanie Wright,
Tania Toapanta,
Kevin V. Thomas
Cassandra Rauert,
Kevin V. Thomas
Kevin V. Thomas
Xianyu Wang,
Tania Toapanta,
Kevin V. Thomas
Kevin V. Thomas
Francisca Ribeiro,
Rizsa Albarracin,
Rizsa Albarracin,
Rizsa Albarracin,
Kevin V. Thomas
Kevin V. Thomas
Francisca Ribeiro,
Francisca Ribeiro,
Francisca Ribeiro,
Rizsa Albarracin,
Kevin V. Thomas
Kevin V. Thomas
Kevin V. Thomas
Kevin V. Thomas
Kevin V. Thomas
Kevin V. Thomas
Kevin V. Thomas
Kevin V. Thomas
Stephanie Wright,
Stephanie Wright,
Cassandra Rauert,
Elvis D. Okoffo,
Cassandra Rauert,
Saer Samanipour,
Stephanie Wright,
Elvis D. Okoffo,
Stephanie Wright,
Kevin V. Thomas
Stephanie Wright,
Stephanie Wright,
Saer Samanipour,
Jake O’Brien,
Saer Samanipour,
Cassandra Rauert,
Elvis D. Okoffo,
Kevin V. Thomas
Summary
Domestic tumble dryers were confirmed as a source of airborne microplastic fibers, with samples taken during operation containing significantly more fibers than background air levels. The study is the first to measure microplastic fiber emissions from mechanical drying, identifying indoor air as a key exposure environment.
An emission source of microplastics into the environment is laundering synthetic textiles and clothing. Mechanical drying as a pathway for emitting microplastics, however, is poorly understood. In this study, emissions of microplastic fibres were sampled from a domestic vented dryer to assess whether mechanical drying of synthetic textiles releases microplastic fibres into the surrounding air or are captured by the inbuilt filtration system. A blue polyester fleece blanket was repeatedly washed and dried using the 'Normal Dry' program of a common domestic dryer operated at temperatures between 56 and 59 °C for 20 min. Microfibres in the ambient air and during operation of the dryer were sampled and analysed using microscopy for particle quantification and characterisation followed by Fourier-Transform Infrared Spectroscopy (FTIR) and Pyrolysis Gas Chromatography-Mass Spectrometry (Pyr-GC/MS) for chemical characterisation. Blue fibres averaged 6.4 ± 9.2 fibres in the room blank (0.17 ± 0.27 fibres/m), 8.8 ± 8.5 fibres (0.05 ± 0.05 fibres/m) in the procedural blank and 58 ± 60 (1.6 ± 1.8 fibres/m) in the sample. This is the first study to measure airborne emissions of microplastic fibres from mechanical drying, confirming that it is an emission source of microplastic fibres into air - particularly indoor air.