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2017 | OriginalPaper | Buchkapitel

13. Macrophytes for the Reclamation of Degraded Waterbodies with Potential for Bioenergy Production

verfasst von : Sangeeta Anand, Sushil Kumar Bharti, Neetu Dviwedi, S. C. Barman, Narendra Kumar

Erschienen in: Phytoremediation Potential of Bioenergy Plants

Verlag: Springer Singapore

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Abstract

Macrophytes have excessive efficiency to remove various inorganic and organic contaminants including heavy metals, nutrients, pesticides, POPs, oils from wastewater. The removal of contaminants depends upon the concentration of contaminant, duration of exposure and others factors including environmental characteristics (pH, temperature etc.), physicochemical properties of pollutants (solubility, pressure etc.) and plants characteristics (species, root system etc.). To ascertain large scale execution of this process, management of phytoremediating macrophytes will be a chief concern bioenergy production is effective and low cost practices for the optimum utilization and eco-friendly management of these macrophytes. Due to high photosynthetic efficiency and higher biomass production, macrophytes can produce useful quantities of carbohydrate and cellulose; raw material forbio-gas, bioethanol and lipids which are non-polluting and renewable sources of energy. Several aquatic macrophytes, such as Eichhornia crassipes, Trapa natans, Typha latifolia, Pistiastratiotes, Phragmites australis, Lemna gibba can easily degraded, and produce high bioenergy yield. In addition, macrophytes can be used for several other purposes such as recreational, household, flowers, fodder, fertilizers, mulch etc. Macrophytes are also capable for sequestering carbon through photosynthesis and accumulation of organic matter in sediments and plant biomass. This chapter highlights the macrophytes potential for removal of inorganic and organic contaminants and their subsequent use for bioenergy production.

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Vorheriges Kapitel A Sustainable Approach to Clean Contaminated Land Using Terrestrial Grasses

Nächstes Kapitel Efficiency of Bioenergy Plant in Phytoremediation of Saline and Sodic Soil

Abbasi SA, Nipaney PC, Schaumberg GD (1990) Bioenergy potential of eight common aquatic weed. Biol Waste 134:359–366CrossRef

Afrous A, Manshouri M, Liaghat A, Pazira E, Sedghi H (2011) Mercury and arsenic accumulation by three species of aquatic plants in Dezful, Iran. Afr J Agric Res 6(24):5391–5397

Arber A (1920) A study of aquatic angiosperms. Cambridge University Press, Cambridge, 436 pp

Arora A, Sood A, Singh PK (2004) Hyperaccumulation of cadmium and nickel by Azolla species. Indian J Plant Physiol 3:302–304

Arora A, Saxena S, Sharma DK (2006) Tolerance and phytoaccumulation of chromium by three Azolla species. World J Microbiol Biotechnol 22:97–100CrossRef

Bennicelli R, Stezpniewska Z, Banach A, Szajnocha K, Strowski JO (2004) The ability of Azolla caroliniana to remove heavy metals (Hg(II), Cr(III), Cr(VI)) from municipal waste water. Chemosphere 55:141–146CrossRef

Blaylock MJ, Huang JW (2000) Phytoextraction of metals. In: Raskin I, Ensley BD (eds) Phytoremediation of toxic metals using plants to clean up the environment. Wiley, New York, pp 53–70

Boule MK, Vicentea AF, Nabaisa C, Prasad MNV, Freitas H (2009) Ecophysiological tolerance of duckweeds exposed to copper. Aquat Toxicol 91:1–9CrossRef

Bridgwater AV (1999) Principles and practice of biomass fast pyrolysis processes for liquids. J Anal Appl Pyrolysis 51:3CrossRef

Burke D (2001) Dairy waste anaerobic digestion handbook. Options for Gy Company, Olympia

Cai QY, Mo CH, Zenga QY, Q Ta W, Ferard JF, Ladislao BA (2008) Potential of Ipomoea aquatic cultivars in phytoremediation of soils contaminated with di-n-butyl phthalate. Environ Exp Bot 62:205–211CrossRef

Chambers PA, Lacoul P, Murphy KJ, Thomaz SM (2008) Global diversity of aquatic macrophytes in freshwater. Hydrobiologia 595:9–26CrossRef

Chandra R, Yadav S (2010) Potential of Typha angustifolia for phytoremediation of heavy metals from aqueous solution of phenol and melanoidin. Ecol Eng 36:1277–1284CrossRef

Chandra R, Yadav S (2011) Phytoremediation of Cd, Cr, Cu, Mn, Fe, Ni, Pb and Zn from aqueous solution using Phragmites cummunis, Typha angustifolia and Cyperus esculentus. Int J Phytoremed 13:580–591CrossRef

Chaudhry Q, Schrder P, Reichhart DW, Grajek W, Marecik R (2002) Prospects and limitations of phytoremediation for the removal of persistent pesticides in the environment. Environ Sci Pollut Res 9(1):4–17CrossRef

Delgado M, Bigeriego M, Guardiola E (1993) Uptake of Zn, Cr and Cd by water hyacinth. Water Res 27:269CrossRef

Denise EM, Akhere MA, Elsie Uand Ruth O (2013) Phytoextraction of total petroleum hydrocarbon in polluted environment using an aquatic macrophyte Heteranthera callifolia Rchb. Ex Kunth. Int J Eng Sci (IJES) 2(11):37–41

Deval CG, Mane AV, Joshi NP, Saratale GD (2012) Phytoremediation potential of aquatic macrophyte Azolla caroliniana with references to zinc plating effluent. Emir J Food Agric 24(3):208–223

Dhir B (2009) Salvinia: an aquatic fern with potential use in phytoremediation. Envion We Int J Sci Tech 4:23–27

Dhir B, Sharmila P, Pardha Saradhi P (2009) Potential of aquatic macrophytes for removing contaminants from the environment. Crit Rev Environ Sci Technol 39:754–781CrossRef

Dierberg FE, DeBusk TA, Goulet NA Jr (1987) Removal of copper and lead using a thin film technique. In: Reddy KB, Smith WH (eds) Aquatic plants for water treatment and resource recovery. Magnolia Publishing Inc., Orlando, pp 497–504

Dixit A, Dixit S, Goswami S (2011) Process and plants for wastewater remediation: a review. Sci Revs Chem Commun 1(1):71–77

Dohanyos M, Zabranska J (2001) Chapter 13: Anaerobic digestion. In: Spinosa L, Vesilind PA (eds) Sludge into biosolids. IWA Publishing, London

Dordio AV, Duarte C, Barreiros M, Palace A, Carvalho J, Pinto AP, Costa CT (2009) Toxicity and removal efficiency of pharmaceutical metabolite clofibric acid by Typha spp. – potential use for phytoremediation? Bioresour Technol 100:1156–1161CrossRef

Elhaak MA, Mohsen AA, Hamada EA, El-Gebaly FE (2015) Biofuel production from phragmites australis (cav.) and typha domingensis (pers.) plants of burullus lake. Egypt J Exp Biol 11(2):237–243

FAO/CMS (1996) A system approach to biogas technology. Biogas technology: a training manual for extension. website: http://www.fao.org

Forni C, Cascone A, Fiori M, Migliore L (2002) Sulfadimethoxine and Azolla filiculoides Lam. A model for drug remediation. Water Res 36:3398–3403CrossRef

Guo W, Zhang H, Huo S (2014) Organochlorine pesticides in aquatic hydrophyte tissues and surrounding sediments in Baiyangdian wetland, China. Ecol Eng 67:150–155CrossRef

Gaudernack B (1998) Photoproduction of hydrogen. IEA agreement on the production and utilization of hydrogen annual report, IEA/H2/AR-98

Gunnerson CG, Stuckey DC (1986) Anaerobic digestion: principles and practices for biogas system. World Bank technical paper 49. Washington, DC, World Bank

Greger M (1999) Metal availability and bioconcentration in plants. In: Prasad MNV, Hagemeyer J (eds) Heavy metal stress in plants: from molecule to ecosystems. Springer, Berlin/Heidelberg/Germany

Greipsson S (2011) Phytoremediation. Nat Educ Knowl 2:7

Halim R, Danquah MK, Webley PA (2012) Extraction of oil from microalgae for biodiesel production: a review. Biotechnol Adv 30:709–732CrossRef

Hu C, Zhang L, Hamilton D, Zhou W, Yang T, Zhu D (2007) Physiological responses induced by copper bioaccumulation in Eichhornia crassipes (Mart.). Hydrobiologia 579:211–218CrossRef

Ismail Z, Othman SZ, Law KH, Sulaiman AH, Hashim R (2015) Comparative performance of water hyacinth (Eichhornia crassipes) and water lettuce (Pistia stratiotes) in preventing nutrients Build-up in municipal wastewater. CLEAN Soil Air Water 43:521–531CrossRef

Kalve S, Sarangi BK, Pandey RA, Chakrabarti T (2011) Arsenic and chromium hyperaccumulation by an ecotype of Pteris vittata-prospective for phytoextraction from contaminated water and soil. Curr Sci 100:888–894

Kamel AK (2013) Phytoremediation potentiality of aquatic macrophytes in heavy metal contaminated water of El-Temsah Lake, Ismailia, Egypt. Middle-East J Sci Res 14(12):1555–1568

Kanabkaew T, Puetpaiboon U (2004) Aquatic plants for domestic wastewater treatment: lotus (Nelumbo nucifera) and hydrilla (Hydrilla verticillata) systems. Songklanakarin. J Sci Technol 26(5):749–756

Kay SH, Haller WT, Garrad LA (1984) Effect of heavy metals on water hyacinth (Eichhornia crassipes (Mart.) Solms.). Aquat Toxicol 5:117–128CrossRef

Koyamaa M, Yamamotoa S, Ishikawab K, Banc S, Toda T (2014) Anaerobic digestion of submerged macrophytes: chemical composition and anaerobic digestibility. Ecol Eng 69:304–309CrossRef

Kumar N, Bauddh K, Barman SC, Singh DP (2012) Accumulation of metals in selected macrophytes grown in mixture of drain water and tannery effluent and their phytoremediation potential. J Environ Biol 33:323–327

Kumar N, Bauddh K, Kumar S, Dwivedi N, Singh DP, Barman SC (2013a) Extractability and phytotoxicity of heavy metals present in petrochemical industry sludge. Clean Techn Environ Policy 15:1033–1039CrossRef

Kumar N, Bauddh K, Kumar S, Dwivedi N, Singh DP, Barman SC (2013b) Heavy metal uptake by plants naturally grown on industrially contaminated soil and their phytoremediation potential. Ecol Eng 61:491–495CrossRef

Leblebici Z, Aksoy A (2011) Growth and lead accumulation capacity of Lemna minor and Spirodela polyrhiza (Lemnaceae): interactions with nutrient enrichment. Water Air Soil Pollut 214:175–184CrossRef

Levin DB, Pitt L, Love M (2004) Biohydrogen production: prospects and limitations to practical application. Int J Hydrog Energy 29:173CrossRef

Lin CY, Jo CH (2003) Hydrogen production from sucrose using an anaerobic sequencing batch reactor process. J Chem Technol Biotechnol 78:678CrossRef

Low KS, Lee CK, Tai CH (1994) Biosorption of copper by water hyacinth roots. J Environ Sci Health A 29(1):171

Manahan S (2000) Environmental chemistry, 7th edn. Lewis Publishers/CRC Press LLC, London

Mete AM, Ulgen KO, Kirdar B, Lsen OZ, Oliver SG (2002) Improvement of ethanol production from starch by recombinant yeast through manipulation of environmental factors. Enzyme Microb Technol 31:640–647CrossRef

Mishina D, Tateda M, Ike M, Fujita M (2006) Comparative study on chemical pretreatment to accelerate enzymatic hydrolysis of aquatic macrophyte biomass used in water purification process. Bioresour Technol 97:2166–2217CrossRef

Mishra VK, Tripathi BD (2008) Concurrent removal and accumulation of heavy metals by the three aquatic macrophytes. Bioresour Technol 99(15):7091–7097CrossRef

Mkandawire M, Taubert B, Dude EG (2004) Capacity of Lemna gibba L. (Duckweed) for uranium and arsenic phytoremediation in mine tailing waters. Int J Phytoremed 6(4):347–362CrossRef

Mkandawire M, Dudel EG (2007) Are Lemna spp. effective phytoremediation agents. Biorem Biodiv Bioavail 1:56–71

Mo SC, Choi DS, Robinson JW (1989) Uptake of mercury from aqueous solutions by duckweed: The effect of pH, copper and humic acid. J Environ Sci Health 24:135–146

Molisani MM, Rocha R, Machado W, Barreto RC, Lacerda ID (2006) Mercury contents in aquatic macrophytes from two reservoirs in the paraiba do sul: Guandu river system Se Brazil. Braz J Biol:66–101

Moorhead KK, Nordstedr RA (1993) Anaerobic digestion of water hyacinth: effects of particles size, plants nitrogen content and inoculums volume. Bioresour Technol 44:71–76CrossRef

Nautiyal P, Subramanian KA, Dastidar MG (2014) Production and characterization of biodiesel from algae. Fuel Process Technol 120:79–88CrossRef

Nguyen TTT, Davy FB, Rimmer M, De Silva S (2009) Use and exchange of genetic resources of emerging species for aquaculture and other purposes. FAO/NACA expert meeting on the use and exchange of aquatic genetic resources relevant for food and agriculture, Chonburi, Thailand, 31 March–02 April 2009

Nichols PB, Couch JD, Al-Hamdani SH (2000) Selected physiological responses of Salvinia minima to different chromium concentrations. Aquat Bot 68:313–319CrossRef

Odjegba VJ, Fasidi IO (2004) Accumulation of trace elements by Pistia stratiotes: implications for phytoremediation. Ecotoxicology 13:637–646CrossRef

Olette R, Couderchet M, Biagianti S, Eullaffroy P (2008) Toxicity and removal of pesticides by selected aquatic plants. Chemosphere 70:1414–1421CrossRef

Olette R, Couderchet M, Eullaffroy P (2009) Phytoremediation of fungicides by aquatic macrophytes: toxicity and removal rate. Ecotoxicol Environ Saf 72:2096–2101CrossRef

Olguın EJ, Sánchez-Galván G, Pérez-Pérez T, Pérez-Orozco A (2005) Surface adsorption, intracellular accumulation and compartmentalization of Pb (II) in batch-operated lagoons with Salvinia minima as affected by environmental conditions, EDTA and nutrients. J Ind Microbiol Biotechnol 32:577–586CrossRef

Patel SI, Patel NG (2015) Production of bioethanol using water hyacinth, an aquatic weed, as a substrate. J Environ Soc Sci 2(1):108

Paterson S, Mackay D, Tam D, Shiu WY (1990) Uptake of organic chemicals by plants: a review of processes, correlations and models. Chemosphere 21:297–331CrossRef

Prasertsup P, Ariyakanon N (2011) Removal of chlorpyrifos by water lettuce (Pistia stratiotes L.) and duckweed (Lemna minor L.). Int J Phytoremed 13(4):383–395CrossRef

Rai PK (2007a) Phytoremediation of Pb and Ni from industrial effluents using Lemna minor: an eco-sustainable approach. ull. Bioscience 5(1):67–73

Rai PK (2007b) Wastewater management through biomass of Azolla pinnata: an ecosustainable approach. Ambio 36(5):426–428CrossRef

Rai PK (2008) Phytoremediation of Hg and Cd from industrial effluents using an aquatic free floating macrophyte Azolla pinnata. Int J Phytoremed 10:430–439CrossRef

Rai PK (2009) Heavy metal phytoremediation from aquatic ecosystems with special reference to macrophytes. Environ Sci Technol 39:697–753CrossRef

Rai PK (2010) Microcosm investigation of phytoremediation of Cr using Azolla pinnata. Int J Phytoremed 12:96–104CrossRef

Rai PK, Tripathi BD (2009) Comparative assessment of Azolla pinnata and Vallisneria spiralis in Hg removal from G.B. Pant Sagar of Singrauli Industrial region, India. Environ Monit Assess 148:75–84CrossRef

Randive V, Belhekar S, Paigude S (2015) Production of bioethanol from Eichhornia crassipes (Water Hyacinth). Int J Curr Microbiol Appl Sci 2:399–406

Reddy HK, Muppaneni T, Sun Y, Li Y, Ponnusamy S, Patil PD, Dailey P, Schaub T, Holguin FO, Dungan B, Cooke P, Lammers P, Voorhies W, Lu X, Deng S (2014) Subcritical water extraction of lipids from wet algae for biodiesel production. Fuel 133:73–81CrossRef

Rezania S, Ponraj M, Talaiekhozani A, Mohamad SE, Din MFM, Taib SM (2015) Perspectives of phytoremediation using water hyacinth for removal of heavy metals, organic and inorganic pollutants in wastewater. J Environ Manag 163:125–133CrossRef

Sánchez-Galván G, Monroy O, Gómez G, Olguín EJ (2008) Assessment of the hyperaccumulating lead capacity of Salvinia minima using bioadsorption and intracellular accumulation factors. Water Air Soil Pollut 194:77–90CrossRef

Sarma H (2011) Metal hyperaccumulation in plants: a review focusing on phytoremediation technology. J Environ Sci Technol 4:118–138CrossRef

Sasmaz A, Obek E (2009) The accumulation of arsenic, uranium, and boron in Lemna gibba L. exposed to secondary effluents. Ecol Eng 35:1564–1567CrossRef

Sasmaz A, Obekb E, Hasarb H (2008) The accumulation of heavy metals in Typha latifolia L. grown in a stream carrying secondary effluent. Ecol Eng 33:278–284CrossRef

Schnoor JL, Licht LA, McCutcheon SC, Wolfe NL, Carreira LH (1995) Phytoremediation of organic and nutrient contaminants. Environ Sci Technol 29:318A–323ACrossRef

Sculthorpe CD (1967) The biology of aquatic vascular plants. St. Martin’s Press, New York, 610 pp

Sharma SS, Gaur JP (1995) Potential of Lemna polyrhiza for removal of heavy metals. Ecol Eng 4:37–43CrossRef

Shrimp JF, Tracy JC, Davies LC, Lee E, Huang W, Erikson LE, Schooner JL (1993) Beneficial effects of plants in the remediation of soils and ground water contaminated with organic materials. Crit Rev Environ Sci Technol 23(1):41–77CrossRef

Simonich SL, Hites RA (1995) Organic pollutant accumulation in vegetation. Environ Sci Technol 29:2905–2914CrossRef

Singh A, Prasad SM (2011) Reduction of heavy metal load in food chain: technology assessment. Rev Environ Sci Biotechnol 10:199–214CrossRef

Skinner K, Wright N, Porter-Goff E (2007) Mercury uptake and accumulation by four species of aquatic plants. Environ Pollut 145:234–237CrossRef

Slade R, Bauen A (2013) Micro-algae cultivation for biofuels: cost, energy balance, environmental impacts and future prospects. Biomass Bioenergy 53:29–38CrossRef

Sood A, Pabbi S, Uniyal PL (2011) Effect of paraquat on lipid peroxidation and antioxidant enzymes in aquatic fern Azolla microphylla Kual. Russ J Plant Physiol 58:667–673CrossRef

Souza FA, Dziedzic M, Cubas SA, Maranho LT (2013) Restoration of polluted waters by phytoremediation using Myriophyllum aquaticum (Vell.) Verdc., Haloragaceae. J Environ Manag 120:5–9CrossRef

Srivastava S, Mishra S, Dwivedi S, Tripathi R (2010) Role of thiol-metabolism in arsenic detoxification in Hydrilla verticillata (L.f.) Royle. Water Air Soil Pollut 212:155–165CrossRef

Srivastava S, Srivastava M, Suprasanna S, D’Souza F (2011) Phytofiltration of arsenic from simulated contaminated water using Hydrilla verticillata in field conditions. Ecol Eng 37:1937–1941CrossRef

Sudhakar K, Ananthakrishnan R, Goyal AV (2013) Biogas production from a mixture of water hyacinth, water chestnut and cow dung. Int J Sci Eng Technol Res 2:1

Sune N, Sanchez G, Caffaratti S, Maine MA (2007) Cadmium and chromium, removal kinetics from solution by two aquatic macrophytes. Environ Pollut 145:467–473CrossRef

Sweta BK, Singh R, Singh RP (2015) The suitability of Trapa natans for phytoremediation of inorganic contaminants from the aquatic ecosystems. Ecol Eng 83:39–42CrossRef

Taheruzzaman Q, Kushari DP (1988) The effect of sewage enriched River Ganga water on the biomass production of Azolla-Anabaena complex. Hydrobiol Bull (Amsterdam) 22:173–181

Thayaparan M, Iqbal SS, Chathuranga PKD, Iqbal MCM (2013) Rhizofiltration of Pb by Azolla pinnata. Int J Environ Sci 3:6

Tredici MR (2010) Photobiology of microalgae mass cultures: understanding the tools for the next green revolution. Future Sci 1:143–162

Tripathi BD, Shukla SC (1991) Biological treatment of wastewater by selected aquatic plants. Environ Pollut 69:69–78CrossRef

Verma R, Suthar S (2014) Synchronized urban wastewater treatment and biomass production using duckweed Lemna gibba L. Ecol Eng 64:337–343CrossRef

Vesely T, Tlustos P, Szakova J (2011) The use of water lettuce (Pistia stratiotes) for rhizofiltration of a highly polluted solution by cadmium and lead. Int J Phytoremed 13:859–872CrossRef

Vithanage M, Dabrowska BB, Mukherjee B, Sandhi A, Bhattacharya P (2012) Arsenic uptake by plants and possible phytoremediation applications: a brief overview. Environ Chem Lett 10:217–224CrossRef

Wang Z, Zhang Z, Zhang J, Zhang Y, Liu H, Yan S (2011) Large-scale utilization of water hyacinth for nutrient removal in Lake Dianchi in China: the effects on the water quality, macrozoobenthos and zooplankton. Chemosphere 89:1255–1261CrossRef

Watanabe ME (1997) Phytoremediation on the brink of commercialization. Envion Sci Technol 31:182A–186ACrossRef

Xia H, Ma X (2006) Phytoremediation of ethion by water hyacinth (Eichhornia crassipes) from water. Bioresour Technol 97:1050–1054CrossRef

Xie Y, Yu D (2003) The significance of lateral roots in phosphorus (P) acquisition of water hyacinth (Eichhornia crassipes). Aquat Bot 75:311–321CrossRef

Xu QS, Ji WD, Yang HY, Wang HX, Xu Y, Zhao J, Shi GX (2009) Cadmium accumulation and phytotoxicity in an aquatic fern, Salvinia natans (Linn.). Acta Ecol Sincia 29:3019–3027

Yang D, Lauridsen H, Buels K, Chi LH, La Du J, Bruun DA et al (2011) Chlorpyrifos-oxon disrupts zebrafish axonal growth and motor behavior. Toxicol Sci 121(1):146–159CrossRef

Zhang X, Lin AJ, Zhao FJ, Xu GZ, Duan GL, Zhu YG (2008) Arsenic accumulation by aquatic fern Azolla: comparison of arsenate uptake, speciation and efflux by A. caroliniana and A. filiculoides. Environ Pollut 156:1149–1155CrossRef

Zhang X, Zhao FJ, Huang Q, Williams PN, Sun GX, Zhu YG (2009) Arsenic uptake and speciation in the rootless duckweed Wolffia globosa. New Phytol 182:421–428CrossRef

Zhu YL, Zayed AM, Quian JH, Desouza M, Terry N (1999) Phytoaccumulation of trace elements by wetland plants, II: water hyacinth. J Environ Qual 28:339–444CrossRef

Titel: Macrophytes for the Reclamation of Degraded Waterbodies with Potential for Bioenergy Production
verfasst von: Sangeeta Anand
Sushil Kumar Bharti
Neetu Dviwedi
S. C. Barman
Narendra Kumar
Verlag: Springer Singapore
Buch: Phytoremediation Potential of Bioenergy Plants
Print ISBN: 978-981-10-3083-3

Electronic ISBN: 978-981-10-3084-0

Copyright-Jahr: 2017
DOI: https://doi.org/10.1007/978-981-10-3084-0_13