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The Use of Mosses in Biomonitoring of Air Pollution in the Terrestrial Environment: A Review Cover

The Use of Mosses in Biomonitoring of Air Pollution in the Terrestrial Environment: A Review

Open Access
|Jun 2023

Figures & Tables

Figure 1.

Figure 2.

Examples of the use of live mosses in biomonitoring of air pollution

Air pollutant/depositionMossEnvironmentCountryReferences
Native moss
8 elementsHypnum cupressiformecountrysideAlbaniaQarri et al. 2019
Fe, Cd, Cu, Pb, ZnHypnum cupressiformecountrysideAlbaniaLazo et al. 2022
37 elementsMultiple moss speciesPb-Zn smelterBułgariaHristozova et al. 2020
11 metals, NHylocomium splendens, Hypnum cupressiforme, Pseudoscleropodium purumcountrysideEurope, 15 countriesHarmens et al. 2015
12 metalsGrimmia pulvinatacemeteriesFranceLequy et al. 2022
9 elementsPseudocleropodium purum Hypnum cupressiformecountrysideKosowoMaxhuni et al. 2016
6 elementsPleurozium schrebericountrysideLatviaTabors et al. 2023
35 elementsHypnum cupressiformecountrysideMoldovaZinicovscaia et al. 2021
Cr, Cu, Fe, Ni, Pb, V, ZnPleurozium schreberi, Scleropodium purum, Hypnum cupressiforme, Hylocomium splendenscountrysideNetherlands, Germany, PolandHerpin et al. 1996
27 elementsHypnum cupressiforme, Homalothecium lutescens, Homalothecium sericeumcountrysideNorth MacedoniaBarandovski et al. 2020
Cd, PbPleurozium schreberiindustrialPolandDmuchowski et al. 2011a
S, δ34 SPleurozium schreberiindustrialPolandKosior et al. 2015
PAHsPleurozium schreberiIndustrial,PolandGodzik et al. 2014
PBDEs, PCBsPleurozium schreberiindustrialPolandKosior et al. 2017
17 elementsPleurozium schrebericountrysidePolandGodzik 2020
Cd, Cr, Cu, Fe, Ni, PbPleurozium schreberiurbanRussiaYushin et al. 2020
34 elementsPleurozium schreberiurbanRussiaVergel et al. 2022
Pb isotopes, 7 metalsHylocomium microphyllumcountrysideChinaZhou et al. 2021
Radionuclides: 210Po,210Pb, 226Ra,7Be,40K,226Ra,238U,232T h,137CsLeptobryum pyriforme, Ditrichum pallidum, Hypnodendron reinwardtiihighway, urban, industrialChinaZhong et al. 2019
NO3Leskeella nervosaurbanJapanLiu et al. 2012
Brachytheciun plumosummountain
Pb isotope ratios: 207Pb/206Pb,208Pb/206PbCalohypnum plumiformecountrysideJapanOishi 2022
Fe, AlCalymperes afzelli, Acanthorrhynchium papillatum.tropical forestMalaysiaBaharuddin, Zuhairi 2021
30 elementsBarbula indicaurbanVietnamDoan Phan et al. 2018
Cr, Zn, Cd, PbFabriona ciliaris, Leskea angustatacountryside, urban parksMexicoMacedo-Miranda et al. 2016
N compoundsBiaraun sp.urban, oak forestMexicoDíaz-Álvarez et al. 2016
21 elementsOrthotrichum lyelliiindustrialUSAJovan et al. 2021
22 elementsOrthotrichum lyelliiurbanUSAComess et al. 2021
PAHsOrthotrichum lyelliiurbanUSAJovan et al. 2022
Live transplanted
S, δ34 SPleurozium schreberiindustrialPolandKosior, et al. 2015
PBDEs, PCBsPleurozium schreberiindustrialPolandKosior, et al. 2017
7 elementsPleurozium schreberizinc smelterPolandKaczmarek et al. 2017
17 elementsSphagnum palustreurbanPolandAstel, et al. 2008
survivabilityLeucobryum glaucumurban, forestMalaysiaYatim, Azman 2021
8 elementsTaxiphyllum giraldii, Thuidium sparsifoliumtrafficNepalShakya et al., 2012
18 elementsmossstill millNigeriaOlise et al. 2019
Al, Fe, Mn, Pb, ZnRhacocarpus purpurascens, Sphagnum sp., Thuidium delicatulumurbanEquatorBenítez et al. 2021
As, Cd, Hg, PbCallicostella pallida, Versicularia versicularis, Isopterygium tenerumtrafficParaguayCoronel-Teixeira et al. 2022

Examples of application of the moss-bag method in biomonitoring of air pollution

Air pollutant/depositionMossEnvironmentCountryReferences
PbHypnum cupressiformeindustrialEnglandGoodman ans Roberts 1971
Cd, Pb, ZnSphagnum fallaxurbanPolandDmuchowski and Bytnerowicz 2009
18 elementsHypnum cupressiformeindustrialItalyTretiach et al. 2011
Cd, PbSphagnum fallaxindustrialPolandDmuchowski et al. 2001a
Cd, Cr, PbSphagnum fallaxstill millPolandDmuchowski et al. 2011b
19 elementsHypnum cupressiformeurbanItalyGiordano et al. 2013
Particulate matterSphagnum papillosumindustrialFinlandSalo and Mäkinen 2014
PAHs*, 39 elementsHypnum cupressiformeurbanItalyCapozzi et al. 2016a
10 elementsPseudoscleropodium purumagricultural, urban, industrialAustria, Italy, SpainCapozzi et al. 2016b
Sb, Cu, CrSphagnum girgensohnii, Hypnum cupressiformeurbanSerbiaVuković et al. 2016
7 elementsPleurozium ssp, Polytrichum ssp, Rhytidiadelphus ssp.miningSlovakiaDemková et al. 2017
Particulate matter, 23 elementsPseudoscleropodium purumagricultural, urban, industrialAustria, Italy, SpainDi Palma et al. 2017
9 elementsSphagnum fallax, Dicranum polysetumurbanPolandŚwisłowski et al. 2022
134Cs, 137CsHypnum cupressiforme, Hypnum plumaeformeFukushima breakdownJapanDi Palma et al. 2022
12 elementsTaxiphyllum taxirameumagricultural, urban, traffic, industrialChinaMao et el. 2022
MicroplasticPleurozium schreberiurban, traffic. ruralCanadaBertrim and Aherne 2023
PAHs*Hypnum plumaeformeurbanMalysiaHanifah and Sani 2023
35 elementsHypnum cupressiforme, Sphagnum girgensohniiurban, ruralSoutheastern Europe, 10 countriesUrošević et al. 2023

Comparing the advantages and disadvantages of biological monitoring (compiled by authors)

BenefitsDisadvantages
Plants have a great ability to absorb and store pollutantsPlants absorb pollutants from the air and soil, which makes it difficult to interpret the results
Contaminants accumulated in plants or on their surface can be analysed by physical or chemical methodsThe results of determining the content of pollutants in plants are not as precise as their measurements directly in the air
Plant research enables comprehensive and long-term measurementsShort-term fluctuations in the level of contamination distort the results
Plants can be used to identify sources of pollutant emissions, their dispersion and depositionThe need to use specific plant taxa
Relatively low cost
Possibility to select a large number of measuring points over a large areaDifficulties in finding a suitable taxon in the entire study area
The use of plants enables a real assessment of the state of pollution and threatIt is not possible to compare the results with legal environmental pollution standards
Independence from the source of energy in the field. No risk of equipment damageThe condition and condition of the indicator plant depends on many factors such as climate change, pathogens, etc.

Changes in (in %) the value of the median of elements contained in European mosses in the years 1990–2015 (100% content in 1995) (based on Frontasyeva et al_ 2020)

ElementMedian changes
Al− 24*
An− 38*
As−13
Cd− 63
Cr− 24
Cu− 30
Fe− 22
Pb− 82
Hg− 2**
Ni− 25
V− 57
Zn− 23
N− 1.5*
DOI: https://doi.org/10.2478/oszn-2023-0005 | Journal eISSN: 2353-8589 | Journal ISSN: 1230-7831
Language: English
Page range: 19 - 30
Published on: Jun 30, 2023
Published by: National Research Institute, Institute of Environmental Protection
In partnership with: Paradigm Publishing Services
Publication frequency: 4 times per year
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© 2023 Aneta Helena Baczewska-Dąbrowska, Barbara Gworek, Wojciech Dmuchowski, published by National Research Institute, Institute of Environmental Protection
This work is licensed under the Creative Commons Attribution-NonCommercial-NoDerivatives 3.0 License.