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Air Quality, Atmosphere & Health

, Volume 12, Issue 12, pp 1427–1439 | Cite as

Active botanical biofiltration of air pollutants using Australian native plants

  • Naomi J. Paull
  • Peter J. IrgaEmail author
  • Fraser R. TorpyEmail author
Article
  • 23 Downloads

Abstract

Air pollutants are of public concern due to their adverse health effects. Biological air filters have shown great promise for the bioremediation of air pollutants. Different plant species have previously been shown to significantly influence pollutant removal capacities, although the number of species tested to date is small. The aims of this paper were to determine the pollutant removal capacity of different Australian native species for their effect on active biowall particulate matter, volatile organic compounds and carbon dioxide removal, and to compare removal rates with previously tested ornamental species. The single-pass removal efficiency for PM and VOCs of native planted biofilters was determined with a flow-through chamber. CO2 removal was tested by a static chamber pull down study. The results indicated that the native species were not effective for CO2 removal likely due to their high light level requirements in conjunction with substrate respiration. Additionally, the native species had lower PM removal efficiencies compared to ornamental species, with this potentially being due to the ornamental species possessing advantageous leaf traits for increased PM accumulation. Lastly, the native species were found to have similar benzene removal efficiencies to ornamental species. As such, whilst the native species showed a capacity to phytoremediate air pollutants, ornamental species have a comparatively greater capacity to do so and are more appropriate for air filtration purposes in indoor circumstances. However, as Australian native plants have structural and metabolic adaptations that enhance their ability to tolerate harsh environments, they may find use in botanical biofilters in situations where common ornamental plants may be suitable, especially in the outdoor environment.

Keywords

Australian native plants Single-pass removal efficiency Green walls Indoor phytoremediation Green buildings Sustainability 

Notes

References

  1. Abbass OA, Sailor DJ, Gall ET (2017) Effectiveness of indoor plants for passive removal of indoor ozone. Build Environ 119:62–70.  https://doi.org/10.1016/j.buildenv.2017.04.007 CrossRefGoogle Scholar
  2. Abdo P, Huynh BP, Avakian V, Nguyen T, Torpy FR, Irga PJ (2016) Measurement of air flow through a green-wall module. Australasian Fluid Mechanics Conference, 5-8 December 2016 Perth, Australia.Google Scholar
  3. ASHRAE (2011) GreenGuide: the design, construction, and operation of sustainable buildings, 3rd edn. ASHRAE, AtlantaGoogle Scholar
  4. Australia SW (2011) Managing the work environment and facilities: code of practice. Safe Work Australia, Canberra https://www.safeworkaustralia.gov.au/system/files/documents/1702/managing_work_environment_and_facilities2.pdf Google Scholar
  5. Aydogan A, Montoya LD (2011) Formaldehyde removal by common indoor plant species and various growing media. Atmos Environ 45:2675–2682.  https://doi.org/10.1016/j.atmosenv.2011.02.062 CrossRefGoogle Scholar
  6. Beckett P, Free-Smith P, Taylor G (2000) Effective tree species for local air-quality management. J Arboric 26:12–19Google Scholar
  7. Beecham S, Razzaghmanesh M, Bustami R, Ward J (2019) The role of green roofs and living walls as WSUD approaches in a dry climate. In: Sharma, A.K., Gardner, T. and Begbie, D. (eds) Approaches to water sensitive urban design, Woodhead publishing, pp. 409-430.Google Scholar
  8. Bell DT (1993) Germination responses to variations in light quality of eight species from sandy habitats in Western Australia. Aust J Bot 41:321–326Google Scholar
  9. Borthwick HA, Hendricks SB, Parker MW, Toole EH, Toole VK (1952) A reversible photoreaction controlling seed germination. Proc Natl Acad Sci, USA 28:662–666Google Scholar
  10. Brodribb T, Hill RS (1993) A physiological comparison of leaves and phyllodes in Acacia melanoxylon. Aust J Bot 41:293–305Google Scholar
  11. Chen W, Zhang JS, Zhang Z (2005) Performance of air cleaners for removing multiple volatile organic compounds in indoor air. ASHRAE Trans 111:1101–1104Google Scholar
  12. Chen L, Liu C, Zou R, Yang M, Zhang Z (2016) Experimental examination of effectiveness of vegetation as bio-filter of particulate matters in the urban environment. Environ Pollut 208:198–208Google Scholar
  13. Chen L, Liu C, Zhang L, Zou R, Zhang Z (2017) Variation in tree species ability to capture and retain airborne fine particulate matter (PM2.5). Sci Rep 7:3206.  https://doi.org/10.1038/s41598-017-03360-1 CrossRefGoogle Scholar
  14. Coelho LFM, Ribeiro MC, Pereira RAS (2014) Water availability determines the richness and density of fig trees within Brazilian semideciduous forest landscapes. Acta Oecol 57:109–116Google Scholar
  15. Darlington A, Dat J, Dixon M (2001) The biofiltration of indoor air: air flux and temperature influences the removal of toluene, ethylbenzene, and xylene. Environ Sci Technol 35:240–246Google Scholar
  16. Deng L, Deng Q (2018) The basic roles of indoor plants in human health and comfort. Environ Sci Pollut Res 25:36087–36101.  https://doi.org/10.1007/s11356-018-3554-1 CrossRefGoogle Scholar
  17. Dong X, Wang H, Gu J, Wang Y, Wang Z (2015) Root morphology, histology and chemistry of nine fern species (pteridophyta) in a temperate forest. Plant Soil 393:215–227Google Scholar
  18. Fowler D (2002) Pollutant deposition and uptake by vegetation. In: Bell JNB, Treshow M. (Eds.). Air Pollution and Plant Life. Second Edition, p 43Google Scholar
  19. Gawrońska H, Bakera B (2015) Phytoremediation of particulate matter from indoor air by Chlorophytum comosum L. plants. Air Qual Atmos Health 8:265–272Google Scholar
  20. Gkorezis P, Daghio M, Franzetti A, Van Hamme JD, Sillen W, Vangronsveld J (2016) The interaction between plants and bacteria in the remediation of petroleum hydrocarbons: an environmental perspective. Front Microbiol 7:1836Google Scholar
  21. Godish T, Guindon C (1989) An assessment of botanical air purification as a formaldehyde mitigation measure under dynamic laboratory chamber conditions. Environ Pollut 62:13–20Google Scholar
  22. Gubb C, Blanusa T, Griffiths A, Pfrang C (2019) Interaction between plant species and substrate type in the removal of CO2 indoors. Air Qual Atmos Health:1–10.  https://doi.org/10.1007/s11869-019-00736-2 Google Scholar
  23. Hosker RP, Lindberg SE (1982) Review: atmospheric deposition and plant assimilation of gases and particles. Atmos Environ 16:889–910Google Scholar
  24. Hwang SH, Park WM (2017) Concentrations of PM 10 and airborne bacteria in daycare centers in Seoul relative to indoor environmental factors and daycare center characteristics. Air Qual Atmos Health 1:139–145Google Scholar
  25. Irga PJ, Torpy FR, Burchett MD (2013) Can hydroculture be used to enhance the performance of indoor plants for the removal of air pollutants? Atmos Environ 77:267–271Google Scholar
  26. Irga PJ, Paull NJ, Abdo P, Torpy FR (2017) An assessment of the atmospheric particle removal efficiency of an in-room botanical biofilter system. Build Environ 115:281–290Google Scholar
  27. Irga PJ, Pettit T, Irga RF, Paull NJ, Douglas ANJ, Torpy FR (2019) Does plant species selection in functional active green walls influence VOC phytoremediation efficiency? Environ Sci Pollut Res 26:12851–12858Google Scholar
  28. Jindachot W, Treesubsuntorn C, Thiravetyan P (2018) Effect of individual/co-culture of native phyllosphere organisms to enhance Dracaena sanderiana for benzene phytoremediation. Water Air Soil Pollut 229:80–11.  https://doi.org/10.1007/s11270-018-3735-z CrossRefGoogle Scholar
  29. Kim KJ, Il Jeong M, Lee DW, Song JS, Kim HD, Yoo EH, Jeong SJ, Han SW, Kays SJ, Lim YW, HH K. (2010) Variation in formaldehyde removal efficiency among indoor plant species. Hortic Sci 45:1489–1495Google Scholar
  30. Kim KJ, Kim HJ, Khalekuzzaman M, Yoo EH, Jung HH, Jang HS (2016) Removal ratio of gaseous toluene and xylene transported from air to root zone via the stem by indoor plants. Environ Sci Pollut Res 23:6149–6158Google Scholar
  31. Kim KJ, Khalekuzzaman M, Suh JN, Kim HJ, Shagol C, Kim H-H, Kim HJ (2018) Phytoremediation of volatile organic compounds by indoor plants: a review. Hortic Environ Biotechnol 59:143–157.  https://doi.org/10.1007/s13580-018-0032-0 CrossRefGoogle Scholar
  32. Kooyman RM, Laffan SW, Westoby M (2017) The incidence of low phosphorus soils in Australia. Plant Soil 412:143–150.  https://doi.org/10.1007/s11104-016-3057-0 CrossRefGoogle Scholar
  33. Large M, Farrington L (2016) The Nephrolepis Boston fern complex (including Nephrolepis exaltata [L.] Schott), Nephrolepidaceae, naturalised in New Zealand. Unitec ePress Perspectives in Biosecurity Research Series (2). Retrieved from https://hdl.handle.net/10652/3614
  34. Lee C, Choi B, Chun M (2015) Stabilization of soil moisture and improvement of indoor air quality by a plant-biofilter integration system. Korean J Horticult Sci Technol 33:751–762Google Scholar
  35. Leonard RJ, McArthur C, Hochuli DF (2016) Particulate matter deposition on roadside plants and the importance of leaf trait combinations. Urban For Urban Green 20:249–253.  https://doi.org/10.1016/j.ufug.2016.09.008 CrossRefGoogle Scholar
  36. Lin MW, Chen LY, Chuah YK (2017) Investigation of a potted plant (Hedera helix) with photo-regulation to remove volatile formaldehyde for improving indoor air quality. Aerosol Air Qual Res 17:2543–2554Google Scholar
  37. Litschke T, Kuttler WJ (2008) On the reduction of urban particle concentration by vegetation—a review. Meteorol Z 17:229–240Google Scholar
  38. Llewellyn D, Dixon M (2011) Can plants really improve indoor air quality? In: M.-Y. Editor-in-Chief: Murray (ed.) Comprehensive biotechnology (Second Edition). Academic Press, Burlington, pp. 331-8.Google Scholar
  39. Massa GD, Kim H-H, Wheeler RM, Mitchell CA (2008) Plant productivity in response to LED lighting. Hortic Sci 43:1951–1956Google Scholar
  40. Montgomery JF, Green SI, Rogak SN, Bartlett K (2012) Predicting the energy use and operation cost of HVAC air filters. Energy and Buildings 47:643–650.  https://doi.org/10.1016/j.enbuild.2012.01.001 CrossRefGoogle Scholar
  41. Ng CWW, Ni JJ, Leung AK, Zhou C, Wang ZJ (2016) Effects of planting density on tree growth and induced soil suction. Géotechnique 66:711–724.  https://doi.org/10.1680/jgeot.15.P.196 CrossRefGoogle Scholar
  42. Orwell RL, Wood RA, Tarran J, Torpy F, Burchett MD (2004) Removal of benzene by the indoor plant/substrate microcosm and implications for air quality. Water Air Soil Pollut 157:193–207Google Scholar
  43. Ottelé M, van Bohemen HD, Fraaij A (2010) Quantifying the deposition of particulate matter on climber vegetation on living walls. Ecol Eng 36:154–162Google Scholar
  44. Parseh I, Teiri H, Hajizadeh Y, Ebrahimpour K (2018) Phytoremediation of benzene vapors from indoor air by Schefflera arboricola and Spathiphyllum wallisii plants. Atmos Pollut Res 9:1083–1087Google Scholar
  45. Pasquet-Kok J, Creese C, Sack L (2010) Turning over a new ‘leaf’: multiple functional significances of leaves versus phyllodes in Hawaiian Acacia koa. Plant Cell Environ 33:2084–2100Google Scholar
  46. Pennisi SV, van Iersel MW (2012) Quantification of carbon assimilation of plants in simulated and in situ interiorscapes. Hortscience 47:468–476Google Scholar
  47. Petroff A, Mailliat A, Amielh M, Anselmet FJ (2008) Aerosol dry deposition on vegetative canopies. Part II: a new modelling approach and applications. Atmos Environ 42:3654–3683Google Scholar
  48. Pettit T, Irga PJ, Abdo P, Torpy FR (2017) Do the plants in functional green walls contribute to their ability to filter particulate matter? Build Environ 125:299–307.  https://doi.org/10.1016/j.buildenv.2017.09.004 CrossRefGoogle Scholar
  49. Pettit T, Irga PJ, Torpy FR (2019) The in situ pilot-scale phytoremediation of airborne VOCs and particulate matter with an active green wall. Air Qual Atmos Health 12(1):33–44Google Scholar
  50. Ram SS, Majumder S, Chaudhuri P, Chanda S, Santra SC, Maiti PK, Sudarshan M, Chakraborty A (2014) Plant canopies: bio-monitor and trap for re-suspended dust particulates contaminated with heavy metals. Mitig Adapt Strateg Glob Chang 19:499–508.  https://doi.org/10.1007/s11027-012-9445-8 CrossRefGoogle Scholar
  51. Redlich C, Sparer J, Cullen M (1997) Sick-building syndrome. Lancet 349:1013–1016Google Scholar
  52. Sæbø A, Popek R, Nawrot B, Hanslin HM, Gawronska H, Gawronski SW (2012) Plant species differences in particulate matter accumulation on leaf surfaces. Science of The Total Environment 427–428:347-354 doi: https://doi.org/10.1016/j.scitotenv.2012.03.084 Google Scholar
  53. Schenk HJ, Jackson R (2002) The global biogeography of roots. Monographs 72:311–328Google Scholar
  54. Setsungnern A, Treesubsuntorn C, Thiravetyan P, biochemistry (2017) The influence of different light quality and benzene on gene expression and benzene degradation of Chlorophytum comosum. Plant Physiol Biochem 120:95-102Google Scholar
  55. Singh S, Verma A (2007) Phytoremediation of air pollutants: a review. In: Environmental bioremediation technologies. Springer, Berlin, Heidelberg, pp 293–314Google Scholar
  56. Somova LA, Pechurkin NS (2001) Functional, regulatory and indicator features of microorganisms in man-made ecosystems. Adv Space Res 27:1563–1570Google Scholar
  57. Soreanu G, Dixon M, Darlington A (2013) Botanical biofiltration of indoor gaseous pollutants—a mini-review. Chem Eng J 229:585–594Google Scholar
  58. Sprent JI, Ardley J, James EK (2017) Biogeography of nodulated legumes and their nitrogen-fixing symbionts. New Phytol 215:40–56Google Scholar
  59. Sternberg T, Viles H, Cathersides A, Edwards M (2010) Dust particulate absorption by ivy (Hedera helix L.) on historic walls in urban environments. Sci Total Environ 409:162–168Google Scholar
  60. Su YM, Lin CH (2015) Removal of indoor carbon dioxide and formaldehyde using green walls by bird nest fern. Journal of Horticulture 84:69–76Google Scholar
  61. Sulpice R et al (2014) Low levels of ribosomal RNA partly account for the very high photosynthetic phosphorus-use efficiency of P roteaceae species. Plant Cell Environ 37:1276–1298Google Scholar
  62. Thompson JD (2005) Plant evolution in the Mediterranean. Oxford University Press, Oxford, UKGoogle Scholar
  63. Tong X, Wang B, Dai WT, Cao JJ, Ho SS, Kwok TC, Lui KH, Lo CM, Ho KF (2018) Indoor air pollutant exposure and determinant factors controlling household air quality for elderly people in Hong Kong. Air Qual Atmos Health 1:695–704Google Scholar
  64. Toole EH, Toole VK, Borthwick HA, Hendricks SB (1955) Interaction of temperature and light on germination of seeds. Plant Physiol 30:473–478Google Scholar
  65. Torpy FR, Irga PJ, Moldovan D, Tarran J, Burchett MD (2013) Characterization and biostimulation of benzene biodegradation in the potting-mix of indoor plants. J Appl Hortic 15:10–15Google Scholar
  66. Torpy FR, Irga PJ, Burchett MD (2014) Profiling indoor plants for the amelioration of high CO2 concentrations. Urban For Urban Green 13:227–233.  https://doi.org/10.1016/j.ufug.2013.12.004 CrossRefGoogle Scholar
  67. Torpy FR, Irga PJ, Burchett MD (2015) Reducing indoor air pollutants through biotechnology. In: Labrincha JA, Diamanti MV, Yu CP, Lee HK (eds) Pacheco Torgal F. Springer International Publishing, Biotechnologies and biomimetics for civil engineering, pp 181–210.  https://doi.org/10.1007/978-3-319-09287-4_8 CrossRefGoogle Scholar
  68. Torpy FR, Zavattaro M, Irga PJ (2017) Green wall technology for the phytoremediation of indoor air: a system for the reduction of high CO2 concentrations. Air Qual Atmos Health 10:575–585.  https://doi.org/10.1007/s11869-016-0452-x CrossRefGoogle Scholar
  69. Torpy FR, Clements N, Pollinger M, Dengel A, Mulvihill I, He C, Irga P (2018) Testing the single-pass VOC removal efficiency of an active green wall using methyl ethyl ketone (MEK). Air Qual Atmos Health 11(2):163–170Google Scholar
  70. Ullmann I (1989) Stomatal conductance and transpiration of Acacia under field conditions: similarities and differences between leaves and phyllodes. Structure and Function of Trees 3:45–56Google Scholar
  71. Wang Z, Zhang JS (2011) Characterization and performance evaluation of a full-scale activated carbon-based dynamic botanical air filtration system for improving indoor air quality. Build Environ 46:758–768.  https://doi.org/10.1016/j.buildenv.2010.10.008 CrossRefGoogle Scholar
  72. Wang Z, Pei J, Zhang JS (2014) Experimental investigation of the formaldehyde removal mechanisms in a dynamic botanical filtration system for indoor air purification. J Hazard Mater 280:235–243.  https://doi.org/10.1016/j.jhazmat.2014.07.059 CrossRefGoogle Scholar
  73. Wei X, Lyu S, Yu Y, Wang Z, Liu H, Pan D, Chen J (2017) Phylloremediation of air pollutants: exploiting the potential of plant leaves and leaf-associated microbes. Front Plant Sci 28:1318.  https://doi.org/10.3389/fpls.2017.01318 CrossRefGoogle Scholar
  74. Willis AJ, Groves RH (1991) Temperature and light effects on the germination of seven native forbs. Aust J Bot 39:219–228Google Scholar
  75. Wolverton BD, Wolverton JD (1993) Plants and soil microorganisms: removal of formaldehyde, xylene and ammonia from the indoor environment. J Mississippi Acad Sci 38:11–15Google Scholar
  76. Wolverton BC, McDonald RC, Watkins EA Jr (1984) Foliage plants for removing indoor air pollutants from energy-efficient homes. Econ Bot 38:224–228Google Scholar
  77. Wood RA, Orwell RL, Tarran J, Torpy F (2002) Potted plant-growth media: interactions and capacities in removal of volatiles from indoor air. J Environ Horticult Biotechnol 77:120–129Google Scholar
  78. Wood RA, Burchett MD, Alquezar R, Orwell RL, Tarran J, Torpy F (2006) The potted-plant microcosm substantially reduces indoor air VOC pollution: I. Office field-study. Water Air Soil Pollut 175:163–180Google Scholar
  79. Wright IJ, Reich P, Westoby M (2001) Strategy shifts in leaf physiology, structure and nutrient content between species of high-and low-rainfall and high-and low-nutrient habitats. Journal of Functional Ecology 15:423–434Google Scholar

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© Springer Nature B.V. 2019

Authors and Affiliations

  1. 1.Plants and Environmental Quality Research Group, School of Life Sciences, Faculty of ScienceUniversity of Technology SydneySydneyAustralia
  2. 2.Plants and Environmental Quality Research Group, School of Civil and Environmental Engineering, Faculty of Engineering and Information TechnologyUniversity of Technology SydneySydneyAustralia

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