Plants with modified anatomical structures capable of oxygenating the rhizopshere are threats to sulfidic soils under varying soil moisture regimes
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Abstract. Michael PS. 2020. Plants with modified anatomical structures capable of oxygenating the rhizosphere are threats to sulfidic soils under varying soil moisture regimes. Asian J Agric 4: 87-94. Acid sulfate soils (ASS) are naturally occurring soils, sediments or substrates formed under waterlogged, reducing conditions. These soils either contain sulfuric acid or have the potential to form it, in an amount that can have detrimental impacts on the environment. In general, ASS with sulfuric materials and that have acidified through oxidation of pyrite are referred to as sulfuric soils. ASS with sulfidic materials that contain pyrite and have the potential to acidify when exposed to air are referred to as sulfidic soils. In an undisturbed state below the water table, the sulfidic soils are benign, unless exposed due to various natural processes or anthropogenic activities. This study examined the importance of organic matter addition, plant macrophytes and turnover of organic matter from the plant macrophytes co-existing on pH, redox and sulfate content of sulfidic soil under flooded conditions. In almost all cases, organic matter without plants induced ameliorative effects. Presence of plants led to higher Eh values, low pH and higher sulfate contents, and acidified the sulfidic soil.
2017-01-01
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References
Ahern CR, McElnea AE, Sullivan LA. (2004). Acid Sulfate Soils Laboratory Methods Guidelines. Queensland Department of Natural Resources, Mines and Energy, Indooroopilly, Queensland, Australia. p. 132.
Aipa J, Michael PS. (2019). Different land use system improves soil fertility status of a sandy soil and increases the yield of rice under rain-fed wet tropical lowland conditions in Papua New Guinea. Int J Agric Environ 5:19-27.
Armstrong J, Armstrong W, Beckett PM, Halder JE, Lythe S, Holt R, Sinclair A. (1996). Pathways of aeration and the mechanisms and beneficial effects of humidity-and Venturi-induced convections in Phragmites australis (Cav.) Trin. ex Steud. Aquat Bot 54:177?197.
Baldwin DS, Fraser M. (2009). Rehabilitation options for inland waterways impacted by sulfidic sediments – A synthesis. J Environ Manage 91:311-319.
Buschmann J, Berg M, Stengel C, Winkel L, Sampson ML, Tang PT, Viet PH. (2008). Contamination of drinking water resources in the Mekong delta plains: arsenic and other trace metals pose serious health risks to population. Environ Int 34:756-764.
Charoenchamratcheep C, Smith CJ, Satawathananont S, Patrick WH. (1987). Reduction and oxidation of acid sulfate soils of Thailand. Soil Sci Soc Am J 5:630-634.
Fiedler S, Vepraskas MJ, Richardson JL. (2007). Soil redox potential: importance, field measurements, and observations. In: Donald LS. (ed). Advance in Agronomy. Academic Press. pp. 1-54.
Fitzpatrick RW, Powell B, Marvanek S. (2008). Atlas of Australian acid sulfate soils. In: Fitzpatrick RW, Shand P. (eds). Inland Acid Sulfate Soil Systems Across Australia. CRC LEME, Perth, Australia. pp. 75-89.
Fitzpatrick RW, Grealish G, Shand P, et al. (2009). Preliminary assessment of acid sulfate soil materials in Currency Creek, Finniss River, Tookayerta Creek and Black Swamp region, South Australia. CSIRO Land and Water Science Report 01/09, Adelaide, South Australia. http://www.clw.csiro.au/publications/science/2009/sr01-09.pdf. Accessed 13/07/2020.
Fitzpatrick RW. (2013). Demands on Soil Classification and Soil Survey Strategies: Special-Purpose Soil Classification Systems for Local Practical Use. In: Shahid SA, Taha FK, Abdelfattah MA. (eds). Developments in Soil Classification, Land Use Planning and Policy Implications. Springer Netherlands. pp. 51-83.
Fitzpatrick RW, Grealish G, Gardner EA, Carlin GD, Froggatt DW. (2010). Export of acidity in drainage water from acid sulfate soil. Mar Pollut Bull 41:319-326.
Hanhart K, Ni D van, Bakker N, Bil F, Mensvoort MEF van. (1997). Surface water management under varying drainage conditions for rice on an acid sulfate soil in the Mekong Delta, Vietnam. Agri Waste Manage 33:99-116.
Hoeft RG, Walsh LM, Keeney DR. (1973). Evaluation of various extractants for available soil sulfur1. Soil Sci Soc Am J 37:401?404.
Isbell RF. (2002). The Australian soil classification. CSIRO Publishing, CSIRO, Collingwood, Victoria, Australia.
Jayalath J, Mosely LM, Fitzpatrick RW. (2016). Addition of organic matter influences pH changes in reduced and oxidised acid sulfate soils. Geoderma 262:125-132.
Kamp MVD, Wilson GB, Singley ME, Richard TL, Kolega JJ, Gouin FR, et al. (1992). On-farm composting handbook. Natural Resource Agriculture and Engineering Service. Ithaca, New York.
Ljung K, Maley F, Cook A, Weinstein P. (2009). Acid sulphate soils and human health-A millenium ecosystem assessment. Environ Int 25:1234-1242.
Marks M, Lapin B, Randall J. (1994). Phragmites australis (P. communis): threats, management and monitoring. Nat Areas J 14:285-294.
Michael PS, Fitzpatrick RW, Reid R. (2015). The role of organic matter in ameliorating acid sulfate soils with sulfuric horizons. Geoderma 225:42-49.
Michael PS, Fitzpatrick RW, Reid R. (2016). The importance of carbon and nitrogen for amelioration of acid sulphate soils. Soil Use Manage 32:97-105.
Michael PS, Fitzpatrick RW, Reid R. (2017). Effects of live wetland plant macrophytes on acidification, redox potential and sulphate content in acid sulphate soils. Soil Use Manage 33:471-481.
Michael PS, Reid R, Fitzpatrick RW. (2012). Amelioration of slowly permeable hypersaline peaty-clayey sulfuric and sulfidic materials in acid sulfate soils by mixing with friable sandy loam soil. In: Burkitt LL, Sparrow LA. (eds). Proceedings of the 5th Joint Australian and New Zealand Soil Science Conference: Soil solutions for diverse landscapes. Hobart, Australia. pp.146-149). https://www.soilscienceaustralia.org.au/wp-content/uploads/2019/10/2012-AUSNZ-conference-proceedings.pdf
Michael PS, Reid R, Fitzpatrick RW. (2014). Effects of organic matter amendment on acid sulfate soil chemistry. In: Clay C. (ed). Proceedings of the 4th National Acid Sulfate Soil Conference. Rendezvous Hotel, Perth, Australia. pp. 80-81. http://soilscienceaustralia.com.au/soil2014/proceedings/Michael.pdf
Michael PS, Reid R. (2018). The combined effects of complex organic matter and plants on the chemistry of acid sulfate soils under aerobic and anaerobic soil conditions. J Soil Sci Plant Nutr 18:542-555.
Michael PS. (2013). Ecological impacts and management of acid sulphate soil: A review. Asian J Water Environ Pollut 10:13-24.
Michael PS. (2015). Effects of alkaline sandy loam on sulfuric soil acidity and sulfidic soil oxidation. Int J Environ 4:42-54.
Michael PS. (2018a). Effects of live plants and dead plant matter on the stability of pH, redox potential and sulfate content of sulfuric soil neutralized by addition of alkaline sandy loam. Malaysian J Soil Sci 22:1-18.
Michael PS. (2018b). The role of surface soil carbon and nitrogen in regulating surface soil pH and redox potential of sulfidic soil of acid sulfate soils. Pertanika J Trop Agric Sci 41:1627-1642.
Michael PS. (2018c). Comparative analysis of the ameliorative effects of soil carbon and nitrogen amendment on surface and subsurface soil pH, Eh and sulfate content of acid sulfate soils. Eur Soil Sci 51:1181-1190.
Michael PS. (2019a). Current evidences and future projections: a comparative analysis of the impacts of climate change on critical climate-sensitive areas of Papua New Guinea. J Soil Sci Agroc 16:229-253.
Michael PS. (2019b). Roles of Leucaena leucocephala on sandy loam soil pH, bulk density, water-holding capacity and carbon stock under humid lowland tropical climatic conditions. Bulg J Soil Sci 4:33-45.
Michael PS. (2020a). Simple carbon and organic matter addition in acid sulfate soils and time-dependent changes in pH and redox under varying moisture regimes. Asian J Agric 4:23-29.
Michael PS. (2020b). Effects of organic matter and live plants on sulfidic soil pH, redox and sulfate content under flooded conditions. Bulg J Soil Sci 5:34-49.
Michael PS. (2020c). Co-existence of organic matter and live plant macrophytes under flooded soil conditions acidify sulfidic soil of acid sulfate soils. Trop Plant Res 7:20-29.
Michael PS. (2020d). Management implication of acid sulfate soil under aerobic and anaerobic soil conditions revolves around organic matter and live plant macrophytes. Annals Trop Res 41:1-22.
Michael, PS. (2020e). Cogon grass biochar amendment and Panicum coloratum planting improve selected properties of sandy soil under humid lowland tropica climatic conditions. Bopchar: https://doi.org/10.1007/s42773-020-00057-z.
Poch RM, Thomas BP, Fitzpatrick RW, Merry RH. (2009). Micromorphological evidence for mineral weathering pathways in a coastal acid sulphate soil sequence with Mediteranean-type climate, South Australia. Aust J Soil Res 47:403-422.
Pons LJ. (1973). Outline of the genesis, characteristics, classifications and improvement of acid sulphate soils. International Symposium on Acid Sulphate Soils. Introductory Papers and Bibliography. In: Dost H (ed). International Institute for Land Reclaimation and Improvement (ILRI), Wageningen, The Netherlands. pp. 3-27.
Rabenhorst MC, Hively WD, James BR. (2009). Measurements of soil redox potential. Soil Sci Soc Am J 73:668-674.
Reid RJ, Butcher CS. (2011). Positive and negative impacts of plants on acid production in exposed acid sulphate soils. Plant Soil 349:183-190.
Schulte EE, Hopkins BG. (1996). Estimation of soil organic matter by weight loss-on-ignition. In: Magdoff FR, Tabatabai MA, Hanlon EA. (eds). Soil Organic Matter: Analysis and Interpretation. Soil Science Society of America. pp. 21-31.
Shamshuddin J, Muhrizal S, Fauziah I, Husni MHA. (2004). Effects of adding organic materials to an acid sulfate soil on the growth of cocoa (Theobroma cacao L.) seedlings. Sci Total Environ 323:33-45.
Simpson H, Pedini P. (1985). Brackish water aquaculture in the tropics: the problem of acid sulfate soil environment. Appl Geochem 19:1837-1853.
Simpson SL, Fitzpatrick RW, Shand P, Angel BM, Spadaro DA, Mosley L. (2010). Climate-driven mobilisation of acid and metals from acid sulfate soils. Mar Freshw Res 61:9–138.
Soil Survey Staff. (2014). Keys to Soil Taxonomy. United States Department of Agriculture Natural Resources Conservation Service, Washington, D.C.
Sullivan LA, Ward NJ, Bush RT, Burton ED. (2009). Improved identification of sulfuric soil materials by a modified method. Geoderma 149:33-38.
Sullivan LA, Bush RT, McConchie D, Lancaster G, Haskins PG, Clark MW. (1999). Comparison of peroxide-oxidisable sulfur and chromium- reducible sulfur methods for determination of reduced inorganic sulfur in soil. Soil Res 37:255-266.
Yan F, Schubert F, Mengel K. (1996). Soil pH changes during legume growth and application of plant materials. Biol Fertil Soil 23:236-242.
Aipa J, Michael PS. (2019). Different land use system improves soil fertility status of a sandy soil and increases the yield of rice under rain-fed wet tropical lowland conditions in Papua New Guinea. Int J Agric Environ 5:19-27.
Armstrong J, Armstrong W, Beckett PM, Halder JE, Lythe S, Holt R, Sinclair A. (1996). Pathways of aeration and the mechanisms and beneficial effects of humidity-and Venturi-induced convections in Phragmites australis (Cav.) Trin. ex Steud. Aquat Bot 54:177?197.
Baldwin DS, Fraser M. (2009). Rehabilitation options for inland waterways impacted by sulfidic sediments – A synthesis. J Environ Manage 91:311-319.
Buschmann J, Berg M, Stengel C, Winkel L, Sampson ML, Tang PT, Viet PH. (2008). Contamination of drinking water resources in the Mekong delta plains: arsenic and other trace metals pose serious health risks to population. Environ Int 34:756-764.
Charoenchamratcheep C, Smith CJ, Satawathananont S, Patrick WH. (1987). Reduction and oxidation of acid sulfate soils of Thailand. Soil Sci Soc Am J 5:630-634.
Fiedler S, Vepraskas MJ, Richardson JL. (2007). Soil redox potential: importance, field measurements, and observations. In: Donald LS. (ed). Advance in Agronomy. Academic Press. pp. 1-54.
Fitzpatrick RW, Powell B, Marvanek S. (2008). Atlas of Australian acid sulfate soils. In: Fitzpatrick RW, Shand P. (eds). Inland Acid Sulfate Soil Systems Across Australia. CRC LEME, Perth, Australia. pp. 75-89.
Fitzpatrick RW, Grealish G, Shand P, et al. (2009). Preliminary assessment of acid sulfate soil materials in Currency Creek, Finniss River, Tookayerta Creek and Black Swamp region, South Australia. CSIRO Land and Water Science Report 01/09, Adelaide, South Australia. http://www.clw.csiro.au/publications/science/2009/sr01-09.pdf. Accessed 13/07/2020.
Fitzpatrick RW. (2013). Demands on Soil Classification and Soil Survey Strategies: Special-Purpose Soil Classification Systems for Local Practical Use. In: Shahid SA, Taha FK, Abdelfattah MA. (eds). Developments in Soil Classification, Land Use Planning and Policy Implications. Springer Netherlands. pp. 51-83.
Fitzpatrick RW, Grealish G, Gardner EA, Carlin GD, Froggatt DW. (2010). Export of acidity in drainage water from acid sulfate soil. Mar Pollut Bull 41:319-326.
Hanhart K, Ni D van, Bakker N, Bil F, Mensvoort MEF van. (1997). Surface water management under varying drainage conditions for rice on an acid sulfate soil in the Mekong Delta, Vietnam. Agri Waste Manage 33:99-116.
Hoeft RG, Walsh LM, Keeney DR. (1973). Evaluation of various extractants for available soil sulfur1. Soil Sci Soc Am J 37:401?404.
Isbell RF. (2002). The Australian soil classification. CSIRO Publishing, CSIRO, Collingwood, Victoria, Australia.
Jayalath J, Mosely LM, Fitzpatrick RW. (2016). Addition of organic matter influences pH changes in reduced and oxidised acid sulfate soils. Geoderma 262:125-132.
Kamp MVD, Wilson GB, Singley ME, Richard TL, Kolega JJ, Gouin FR, et al. (1992). On-farm composting handbook. Natural Resource Agriculture and Engineering Service. Ithaca, New York.
Ljung K, Maley F, Cook A, Weinstein P. (2009). Acid sulphate soils and human health-A millenium ecosystem assessment. Environ Int 25:1234-1242.
Marks M, Lapin B, Randall J. (1994). Phragmites australis (P. communis): threats, management and monitoring. Nat Areas J 14:285-294.
Michael PS, Fitzpatrick RW, Reid R. (2015). The role of organic matter in ameliorating acid sulfate soils with sulfuric horizons. Geoderma 225:42-49.
Michael PS, Fitzpatrick RW, Reid R. (2016). The importance of carbon and nitrogen for amelioration of acid sulphate soils. Soil Use Manage 32:97-105.
Michael PS, Fitzpatrick RW, Reid R. (2017). Effects of live wetland plant macrophytes on acidification, redox potential and sulphate content in acid sulphate soils. Soil Use Manage 33:471-481.
Michael PS, Reid R, Fitzpatrick RW. (2012). Amelioration of slowly permeable hypersaline peaty-clayey sulfuric and sulfidic materials in acid sulfate soils by mixing with friable sandy loam soil. In: Burkitt LL, Sparrow LA. (eds). Proceedings of the 5th Joint Australian and New Zealand Soil Science Conference: Soil solutions for diverse landscapes. Hobart, Australia. pp.146-149). https://www.soilscienceaustralia.org.au/wp-content/uploads/2019/10/2012-AUSNZ-conference-proceedings.pdf
Michael PS, Reid R, Fitzpatrick RW. (2014). Effects of organic matter amendment on acid sulfate soil chemistry. In: Clay C. (ed). Proceedings of the 4th National Acid Sulfate Soil Conference. Rendezvous Hotel, Perth, Australia. pp. 80-81. http://soilscienceaustralia.com.au/soil2014/proceedings/Michael.pdf
Michael PS, Reid R. (2018). The combined effects of complex organic matter and plants on the chemistry of acid sulfate soils under aerobic and anaerobic soil conditions. J Soil Sci Plant Nutr 18:542-555.
Michael PS. (2013). Ecological impacts and management of acid sulphate soil: A review. Asian J Water Environ Pollut 10:13-24.
Michael PS. (2015). Effects of alkaline sandy loam on sulfuric soil acidity and sulfidic soil oxidation. Int J Environ 4:42-54.
Michael PS. (2018a). Effects of live plants and dead plant matter on the stability of pH, redox potential and sulfate content of sulfuric soil neutralized by addition of alkaline sandy loam. Malaysian J Soil Sci 22:1-18.
Michael PS. (2018b). The role of surface soil carbon and nitrogen in regulating surface soil pH and redox potential of sulfidic soil of acid sulfate soils. Pertanika J Trop Agric Sci 41:1627-1642.
Michael PS. (2018c). Comparative analysis of the ameliorative effects of soil carbon and nitrogen amendment on surface and subsurface soil pH, Eh and sulfate content of acid sulfate soils. Eur Soil Sci 51:1181-1190.
Michael PS. (2019a). Current evidences and future projections: a comparative analysis of the impacts of climate change on critical climate-sensitive areas of Papua New Guinea. J Soil Sci Agroc 16:229-253.
Michael PS. (2019b). Roles of Leucaena leucocephala on sandy loam soil pH, bulk density, water-holding capacity and carbon stock under humid lowland tropical climatic conditions. Bulg J Soil Sci 4:33-45.
Michael PS. (2020a). Simple carbon and organic matter addition in acid sulfate soils and time-dependent changes in pH and redox under varying moisture regimes. Asian J Agric 4:23-29.
Michael PS. (2020b). Effects of organic matter and live plants on sulfidic soil pH, redox and sulfate content under flooded conditions. Bulg J Soil Sci 5:34-49.
Michael PS. (2020c). Co-existence of organic matter and live plant macrophytes under flooded soil conditions acidify sulfidic soil of acid sulfate soils. Trop Plant Res 7:20-29.
Michael PS. (2020d). Management implication of acid sulfate soil under aerobic and anaerobic soil conditions revolves around organic matter and live plant macrophytes. Annals Trop Res 41:1-22.
Michael, PS. (2020e). Cogon grass biochar amendment and Panicum coloratum planting improve selected properties of sandy soil under humid lowland tropica climatic conditions. Bopchar: https://doi.org/10.1007/s42773-020-00057-z.
Poch RM, Thomas BP, Fitzpatrick RW, Merry RH. (2009). Micromorphological evidence for mineral weathering pathways in a coastal acid sulphate soil sequence with Mediteranean-type climate, South Australia. Aust J Soil Res 47:403-422.
Pons LJ. (1973). Outline of the genesis, characteristics, classifications and improvement of acid sulphate soils. International Symposium on Acid Sulphate Soils. Introductory Papers and Bibliography. In: Dost H (ed). International Institute for Land Reclaimation and Improvement (ILRI), Wageningen, The Netherlands. pp. 3-27.
Rabenhorst MC, Hively WD, James BR. (2009). Measurements of soil redox potential. Soil Sci Soc Am J 73:668-674.
Reid RJ, Butcher CS. (2011). Positive and negative impacts of plants on acid production in exposed acid sulphate soils. Plant Soil 349:183-190.
Schulte EE, Hopkins BG. (1996). Estimation of soil organic matter by weight loss-on-ignition. In: Magdoff FR, Tabatabai MA, Hanlon EA. (eds). Soil Organic Matter: Analysis and Interpretation. Soil Science Society of America. pp. 21-31.
Shamshuddin J, Muhrizal S, Fauziah I, Husni MHA. (2004). Effects of adding organic materials to an acid sulfate soil on the growth of cocoa (Theobroma cacao L.) seedlings. Sci Total Environ 323:33-45.
Simpson H, Pedini P. (1985). Brackish water aquaculture in the tropics: the problem of acid sulfate soil environment. Appl Geochem 19:1837-1853.
Simpson SL, Fitzpatrick RW, Shand P, Angel BM, Spadaro DA, Mosley L. (2010). Climate-driven mobilisation of acid and metals from acid sulfate soils. Mar Freshw Res 61:9–138.
Soil Survey Staff. (2014). Keys to Soil Taxonomy. United States Department of Agriculture Natural Resources Conservation Service, Washington, D.C.
Sullivan LA, Ward NJ, Bush RT, Burton ED. (2009). Improved identification of sulfuric soil materials by a modified method. Geoderma 149:33-38.
Sullivan LA, Bush RT, McConchie D, Lancaster G, Haskins PG, Clark MW. (1999). Comparison of peroxide-oxidisable sulfur and chromium- reducible sulfur methods for determination of reduced inorganic sulfur in soil. Soil Res 37:255-266.
Yan F, Schubert F, Mengel K. (1996). Soil pH changes during legume growth and application of plant materials. Biol Fertil Soil 23:236-242.