Atmospheric Pollution Particulate Matter Absorption Efficiency by Bryophytes in Laboratory Conditions

The World Health Organization (WHO) has recognized Particulate Matter (PM) as the main threat to human health from air pollution. One of the solutions is Green Infrastructure (GI), which uses different plants to mitigate pollution. Among these plants are bryophytes (or more commonly used mosses), which have easier maintenance, lighter weight, and durability compared to vascular plants. However, currently, there is limited knowledge of its effectiveness in air pollution mitigation. By addressing this gap in current scientific knowledge, more effective deployment of GI could be introduced by municipalities for society’s health benefits. This study aimed to evaluate three species of mosses (Dicranum scoparium, Plagiomnium affine, and Hypnum cupressiforme) and one thuja (Thuja plicata) as a control species for a possible GI vertical barrier for local de-pollution. The objective was to assess different moss species’ effectiveness in air pollution PM2.5 and PM10 absorption in a laboratory setting. The practical experiment was conducted from June–July 2024 in the Laboratory of the Physics and Chemistry of Environment and Space in Orleans (LPC2E-CNRS), France. For the experiment, a unique air pollution chamber was engineered and built with a linear barrier of GI inside to measure pollution absorption before and after the barrier. With the obtained data from the sensors, the efficiency of the vegetation barrier was calculated. The total average efficiency of all 18 tests and tested moss species is 41% for PM2.5 and 47% for PM10 mass concentrations. Efficiency shows moss species’ maximum or optimal ability to absorb pollution PM2.5 and PM10 in laboratory environments, with the limitations indicated in this article. This research is an essential step towards further and more profound research on the effectiveness of GI barriers of mosses in urban environments. It significantly contributes to understanding GI effects on air pollution and presents the results for specific moss species and their capacity for PM2.5 and PM10 mitigation in the air. The novelty of the study lies in a particular application of the chosen moss species.

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Publication Details

Journal
Atmosphere
Published
2025-04-19
DOI
https://doi.org/10.3390/atmos16040479
Citations
2
Primary Topic
Lichen and fungal ecology
Type
article
Field-Weighted Citation Impact
6.05

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article

Atmospheric Pollution Particulate Matter Absorption Efficiency by Bryophytes in Laboratory Conditions

Lilita Ābele, Līga Strazdiņa, Jean-Baptiste Renard, Juta Kārkliņa et al.
2 citations
Atmosphere
Lichen and fungal ecology
6.05
article

Atmospheric Pollution Particulate Matter Absorption Efficiency by Bryophytes in Laboratory Conditions

Lilita Ābele, Līga Strazdiņa, Jean-Baptiste Renard, Juta Kārkliņa, Edgars Kārkliņš
article en
2 citations

Abstract

The World Health Organization (WHO) has recognized Particulate Matter (PM) as the main threat to human health from air pollution. One of the solutions is Green Infrastructure (GI), which uses different plants to mitigate pollution. Among these plants are bryophytes (or more commonly used mosses), which have easier maintenance, lighter weight, and durability compared to vascular plants. However, currently, there is limited knowledge of its effectiveness in air pollution mitigation. By addressing this gap in current scientific knowledge, more effective deployment of GI could be introduced by municipalities for society’s health benefits. This study aimed to evaluate three species of mosses (Dicranum scoparium, Plagiomnium affine, and Hypnum cupressiforme) and one thuja (Thuja plicata) as a control species for a possible GI vertical barrier for local de-pollution. The objective was to assess different moss species’ effectiveness in air pollution PM2.5 and PM10 absorption in a laboratory setting. The practical experiment was conducted from June–July 2024 in the Laboratory of the Physics and Chemistry of Environment and Space in Orleans (LPC2E-CNRS), France. For the experiment, a unique air pollution chamber was engineered and built with a linear barrier of GI inside to measure pollution absorption before and after the barrier. With the obtained data from the sensors, the efficiency of the vegetation barrier was calculated. The total average efficiency of all 18 tests and tested moss species is 41% for PM2.5 and 47% for PM10 mass concentrations. Efficiency shows moss species’ maximum or optimal ability to absorb pollution PM2.5 and PM10 in laboratory environments, with the limitations indicated in this article. This research is an essential step towards further and more profound research on the effectiveness of GI barriers of mosses in urban environments. It significantly contributes to understanding GI effects on air pollution and presents the results for specific moss species and their capacity for PM2.5 and PM10 mitigation in the air. The novelty of the study lies in a particular application of the chosen moss species.

AtmosphereVol. 16(4)
Université d'Orléans (FR), Centre National de la Recherche Scientifique (FR), Riga Technical University (LV), University of Liepāja (LV), Laboratoire de Physique et Chimie de l’Environnement et de l’Espace (FR), University of Latvia (LV)
Rīgas Tehniskā Universitāte
Openalex Percentile: Top 5%
Lichen and fungal ecology
6.05
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