(Publisher of Peer Reviewed Open Access Journals)

International Journal of Advanced Technology and Engineering Exploration (IJATEE)

ISSN (Print):2394-5443    ISSN (Online):2394-7454
Volume-8 Issue-80 July-2021
Full-Text PDF
Paper Title : Contemporary practices in groundwater arsenic remediation and wastewater management in West Bengal, India: a systematic review
Author Name : Soumyajit Koley
Abstract :

Arsenic is a notorious carcinogen that is released into subsurface waters by virtue of natural geological and hydrological processes. Such a contaminated water has detrimental effects on human health when it is consumed for drinking. This paper is an effort to address the widely recognized public health crisis of arsenic poisoning in India’s state of West Bengal. It is intended to provide an environmentally safe and financially feasible solution for arsenic mitigation that combines both ground water remediation and waste management situations. Treatment of pumped groundwater by Arsenic Treatment Units (ATUs) for providing potable water has been a major arsenic remediation measure in rural villages of West Bengal. But, backwash cleaning of these units generates hazardous sludge rich in toxic arsenic, disposal of which is an environmental concern. Through a field examination, detailed information on the prevalent sludge management practices at remote ATU sites were acquired and reviewed for their suitability. It was ascertained that wrongful dumping of sludge can be avoided by disposal on certain iron–rich sand filters, constructed in–situ using naturally available ingredients. Also, the incorporation of sludge in building materials, especially the clay–bricks, can be an emphatic option for arsenic waste management at commercial scales. This paper thus presents a comprehensive overview of ‘in–situ’ and ‘ex–situ’ strategies of arsenic mitigation. An ‘in-situ’ management aspect utilizes iron–rich sand filters located within the premises of groundwater treatment units for recycling of arsenic-containing wastewater, followed by adsorption and concealment of residual arsenic. An alternative, hazard–free means of stabilizing toxic sludge off–site, with clay–bricks, at a brick manufacturing factory, has been proposed for the 'ex–situ' aspect. Many policy discussions around the globe do not feature arsenic–sludge disposal or stabilization as a topic. Keeping this is viewed, this review article concludes with innovative approaches to sustainable arsenic remediation and waste management in India.

Keywords : Arsenic, Groundwater, Treatment, Sludge, Sand filter, Bricks.
Cite this article : Koley S. Contemporary practices in groundwater arsenic remediation and wastewater management in West Bengal, India: a systematic review. International Journal of Advanced Technology and Engineering Exploration. 2021; 8(80):797-823. DOI:10.19101/IJATEE.2021.874281.
References :
[1]Koley S. Future perspectives and mitigation strategies towards groundwater arsenic contamination in West Bengal, India. Environmental Quality Management. 2021.
[Crossref] [Google Scholar]
[2]Kapaj S, Peterson H, Liber K, Bhattacharya P. Human health effects from chronic arsenic poisoning–a review. Journal of Environmental Science and Health, Part A. 2006; 41(10):2399-428.
[Crossref] [Google Scholar]
[3]Gentry PR, Clewell III HJ, Greene TB, Franzen AC, Yager JW. The impact of recent advances in research on arsenic cancer risk assessment. Regulatory Toxicology and Pharmacology. 2014; 69(1):91-104.
[Crossref] [Google Scholar]
[4]Mandal BK, Suzuki KT. Arsenic round the world: a review. Talanta. 2002; 58(1):201-35.
[Crossref] [Google Scholar]
[5]McCarty KM, Hanh HT, Kim KW. Arsenic geochemistry and human health in South East Asia. Reviews on Environmental Health 2011; 26(1):71-8.
[Crossref] [Google Scholar]
[6]Oremland RS, Stolz JF. Arsenic, microbes and contaminated aquifers. Trends in Microbiology. 2005 ;13(2):45-9.
[Crossref] [Google Scholar]
[7]Guo H, Yang S, Tang X, Li Y, Shen Z. Groundwater geochemistry and its implications for arsenic mobilization in shallow aquifers of the Hetao Basin, Inner Mongolia. Science of the Total Environment. 2008; 393(1):131-44.
[Crossref] [Google Scholar]
[8]Biswas A, Majumder S, Neidhardt H, Halder D, Bhowmick S, Mukherjee-goswami A et al. Groundwater chemistry and redox processes: depth dependent arsenic release mechanism. Applied Geochemistry. 2011; 26(4):516-25.
[Crossref] [Google Scholar]
[9]Smedley PL, Kinniburgh DG. A review of the source, behaviour and distribution of arsenic in natural waters. Applied Geochemistry. 2002; 17(5):517-68.
[Crossref] [Google Scholar]
[10]Ford RG, Wilkin RT, Hernandez G. Arsenic cycling within the water column of a small lake receiving contaminated ground-water discharge. Chemical Geology. 2006; 228(1-3):137-55.
[Crossref] [Google Scholar]
[11]Sharma VK, Sohn M. Aquatic arsenic: toxicity, speciation, transformations, and remediation. Environment International. 2009; 35(4):743-59.
[Crossref] [Google Scholar]
[12]http://monographs.iarc.fr/ENG/Monographs/vol84/. Accessed 10 May 2021.
[13]Hanh HT, Kim JY, Bang S, Kim KW. Sources and fate of as in the environment. Geosystem Engineering. 2010; 13(1):35-42.
[Crossref] [Google Scholar]
[14]Yoshida T, Yamauchi H, Sun GF. Chronic health effects in people exposed to arsenic via the drinking water: dose–response relationships in review. Toxicology and Applied Pharmacology. 2004; 198(3):243-52.
[Crossref] [Google Scholar]
[15]Vahter ME, Li L, Nermell B, Rahman A, Arifeen SE, Rahman M, et al. Arsenic exposure in pregnancy: a population-based study in Matlab, Bangladesh. Journal of Health, Population and Nutrition. 2006; 24(2):236-45.
[Google Scholar]
[16]Tsuji JS, Alexander DD, Perez V, Mink PJ. Arsenic exposure and bladder cancer: Quantitative assessment of studies in human populations to detect risks at low doses. Toxicology. 2014; 317:17-30.
[Crossref] [Google Scholar]
[17]World Health Organization. Guidelines for drinking-water quality. World Health Organization; 1993.
[Google Scholar]
[18]Datta DK, Subramanian V. Distribution and fractionation of heavy metals in the surface sediments of the Ganges-Brahmaputra-Meghna river system in the Bengal basin. Environmental Geology. 1998; 36:93-101.
[Crossref] [Google Scholar]
[19]Mcarthur JM, Banerjee DM, Hudson-edwards KA, Mishra R, Purohit R, Ravenscroft P, et al. Natural organic matter in sedimentary basins and its relation to arsenic in anoxic ground water: the example of West Bengal and its worldwide implications. Applied Geochemistry. 2004; 19(8):1255-93.
[Crossref] [Google Scholar]
[20]Guillot S, Charlet L. Bengal arsenic, an archive of Himalaya orogeny and paleohydrology. Journal of Environmental Science and Health, Part A. 2007; 42(12):1785-94.
[Crossref] [Google Scholar]
[21]Dowling CB, Poreda RJ, Basu AR, Peters SL, Aggarwal PK. Geochemical study of arsenic release mechanisms in the Bengal basin groundwater. Water Resources Research. 2002; 38(9):1-18.
[Crossref] [Google Scholar]
[22]Shamsudduha M, Uddin A. Quaternary shoreline shifting and hydrogeologic influence on the distribution of groundwater arsenic in aquifers of the Bengal basin. Journal of Asian Earth Sciences. 2007; 31(2):177-94.
[Crossref] [Google Scholar]
[23]Van GA. International drilling to recover aquifer sands (IDRAs) and arsenic contaminated groundwater in Asia. Scientific Drilling. 2011; 12:49-52.
[Google Scholar]
[24]Chakraborti D, Rahman MM, Paul K, Chowdhury UK, Sengupta MK, Lodh D, et al. Arsenic calamity in the Indian subcontinent: what lessons have been learned? Talanta. 2002; 58(1):3-22.
[Crossref] [Google Scholar]
[25]Fendorf S, Michael HA, van Geen A. Spatial and temporal variations of groundwater arsenic in South and Southeast Asia. Science. 2010; 328(5982):1123-7.
[Crossref] [Google Scholar]
[26]https://jalshakti-ddws.gov.in/sites/default/files/JJM_Operational_Guidelines.pdf. Accessed 10 May 2021.
[27]Charlet L, Polya DA. Arsenic in shallow, reducing groundwaters in southern Asia: an environmental health disaster. Elements. 2006; 2(2):91-6.
[Crossref] [Google Scholar]
[28]Ghosh NC, Singh RD. Groundwater arsenic contamination in India: vulnerability and scope for remedy.
[Google Scholar]
[29]https://www.wbphed.gov.in/en/home. Accessed 10 May 2021.
[30]Jing C, Liu S, Patel M, Meng X. Arsenic leachability in water treatment adsorbents. Environmental Science & Technology. 2005; 39(14):5481-7.
[Crossref] [Google Scholar]
[31]http://etd.iitk.ac.in:8080/jspui/handle/123456789/14189. Accessed 10 May 2021.
[32]Mandal BK, Chowdhury TR, Samanta G, Basu GK, Chowdhury PP, Chanda CR, et al. Arsenic in groundwater in seven districts of West Bengal, India–the biggest arsenic calamity in the world. Current Science. 1996; 70(11):976-86.
[Google Scholar]
[33]Acharyya SK, Lahiri S, Raymahashay BC, Bhowmik A. Arsenic toxicity of groundwater in parts of the Bengal basin in India and Bangladesh: the role of quaternary stratigraphy and Holocene sea-level fluctuation. Environmental Geology. 2000; 39:1127-37.
[Crossref] [Google Scholar]
[34]Mukherjee A, Fryar AE, Thomas WA. Geologic, geomorphic and hydrologic framework and evolution of the Bengal basin, India and Bangladesh. Journal of Asian Earth Sciences. 2009; 34(3):227-44.
[Crossref] [Google Scholar]
[35]Neidhardt H, Berner ZA, Freikowski D, Biswas A, Majumder S, Winter J, et al. Organic carbon induced mobilization of iron and manganese in a West Bengal aquifer and the muted response of groundwater arsenic concentrations. Chemical Geology. 2014; 367:51-62.
[Crossref] [Google Scholar]
[36]Nickson RT, McArthur JM, Ravenscroft P, Burgess WG, Ahmed KM. Mechanism of arsenic release to groundwater, Bangladesh and West Bengal. Applied Geochemistry. 2000; 15(4):403-13.
[Crossref] [Google Scholar]
[37]Stüben D, Berner Z, Chandrasekharam D, Karmakar J. Arsenic enrichment in groundwater of West Bengal, India: geochemical evidence for mobilization of as under reducing conditions. Applied Geochemistry. 2003; 18(9):1417-34.
[Crossref] [Google Scholar]
[38]Guha S, Raymahashay BC, Banerjee A, Acharyya SK, Gupta A. Collection of depth-specific groundwater samples from an arsenic contaminated aquifer in West Bengal, India. Environmental Engineering Science. 2005; 22(6):870-81.
[Crossref] [Google Scholar]
[39]Berg M, Trang PT, Stengel C, Buschmann J, Viet PH, Van DN et al. Hydrological and sedimentary controls leading to arsenic contamination of groundwater in the Hanoi area, Vietnam: the impact of iron-arsenic ratios, peat, river bank deposits, and excessive groundwater abstraction. Chemical Geology. 2008; 249(1-2):91-112.
[Crossref] [Google Scholar]
[40]Mallick S, Rajagopal NR. Groundwater development in the arsenic-affected alluvial belt of West Bengal–some questions. Current Science. 1996; 70(11):956-8.
[Google Scholar]
[41]Das D, Samanta G, Mandal BK, Chowdhury TR, Chanda CR, Chowdhury PP, et al. Arsenic in groundwater in six districts of West Bengal, India. Environmental Geochemistry and Health. 1996; 18(1):5-15.
[Crossref] [Google Scholar]
[42]Mandal BK, Chowdhury TR, Samanta G, Mukherjee DP, Chanda CR, Saha KC, et al. Impact of safe water for drinking and cooking on five arsenic-affected families for 2 years in West Bengal, India. Science of the Total Environment. 1998; 218(2-3):185-201.
[Crossref] [Google Scholar]
[43]Mukherjee A, Fryar AE, Scanlon BR, Bhattacharya P, Bhattacharya A. Elevated arsenic in deeper groundwater of the western Bengal basin, India: extent and controls from regional to local scale. Applied Geochemistry. 2011; 26(4):600-13.
[Crossref] [Google Scholar]
[44]Bagla P, Kaiser J. Indias spreading health crisis draws global arsenic experts. Science. 1996; 274(5285):174-5.
[Crossref] [Google Scholar]
[45]Chowdhury TR, Basu GK, Mandal BK, Biswas BK, Samanta G, Chowdhury UK, et al. Arsenic poisoning in the Ganges delta. Nature. 1999; 401:545-6.
[Crossref] [Google Scholar]
[46]Pandey PK, Yadav S, Nair S, Bhui A. Arsenic contamination of the environment: a new perspective from central-east India. Environment International. 2002; 28(4):235-45.
[Crossref] [Google Scholar]
[47]Bose P, Sharma A. Role of iron in controlling speciation and mobilization of arsenic in subsurface environment. Water Research. 2002; 36(19):4916-26.
[Crossref] [Google Scholar]
[48]Bhattacharya P, Welch AH, Ahmed KM, Jacks G, Naidu R. Arsenic in groundwater of sedimentary aquifers. Applied Geochemistry. 2004; 19(2):163-7.
[Crossref] [Google Scholar]
[49]Mukherjee A, Scanlon BR, Fryar AE, Saha D, Ghosh A, Chowdhuri S et al. Solute chemistry and arsenic fate in aquifers between the Himalayan foothills and Indian craton (including central Gangetic plain): influence of geology and geomorphology. Geochimica et Cosmochimica Acta. 2012; 90:283-302.
[Crossref] [Google Scholar]
[50]Kim SH, Kim K, Ko KS, Kim Y, Lee KS. Co-contamination of arsenic and fluoride in the groundwater of unconsolidated aquifers under reducing environments. Chemosphere. 2012; 87(8):851-6.
[Crossref] [Google Scholar]
[51]Chakroborty C, Chattopadhyay GS. Quaternary geology of south Ganga plain in Bihar. Indian Minerals. 2001; 55(3&4):133-42.
[Google Scholar]
[52]Chakraborti D, Singh EJ, Das B, Shah BA, Hossain MA, Nayak B et al. Groundwater arsenic contamination in Manipur, one of the seven North-Eastern hill states of India: a future danger. Environmental Geology. 2008; 56:381-90.
[Crossref] [Google Scholar]
[53]Saha D, Sahu S. A decade of investigations on groundwater arsenic contamination in middle Ganga plain, India. Environmental Geochemistry and Health. 2016; 38:315-37.
[Crossref] [Google Scholar]
[54]Bindal S, Singh CK. Predicting groundwater arsenic contamination: regions at risk in highest populated state of India. Water Research. 2019; 159:65-76.
[Crossref] [Google Scholar]
[55]Patel AK, Das N, Goswami R, Kumar M. Arsenic mobility and potential co-leaching of fluoride from the sediments of three tributaries of the upper Brahmaputra floodplain, Lakhimpur, Assam, India. Journal of Geochemical Exploration. 2019; 203:45-58.
[Crossref] [Google Scholar]
[56]Chowdhury UK, Biswas BK, Chowdhury TR, Samanta G, Mandal BK, Basu GC, e al. Groundwater arsenic contamination in Bangladesh and West Bengal, India. Environmental Health Perspectives. 2000; 108(5):393-7.
[Crossref] [Google Scholar]
[57]Uppal JS, Zheng Q, Le XC. Arsenic in drinking water—recent examples and updates from Southeast Asia. Current Opinion in Environmental Science & Health. 2019; 7:126-35.
[Crossref] [Google Scholar]
[58]Biswas A, Bhattacharya P, Mukherjee A, Nath B, Alexanderson H, Kundu AK, et al. Shallow hydrostratigraphy in an arsenic affected region of Bengal basin: implication for targeting safe aquifers for drinking water supply. Science of the Total Environment. 2014; 485:12-22.
[Crossref] [Google Scholar]
[59]Singh IB. Late quaternary history of the Ganga plain. Journal of Geological Society of India. 2004; 64(4):431-54.
[Google Scholar]
[60]http://cgwb.gov.in/AQM/Pilot/Patna%20District,%20Bihar-Final.pdf. Accessed 10 May 2021.
[61]Joshi H, Ghosh AK, Singhal DC, Kumar S. Arsenic contamination in parts of Yamuna sub-basin, West Bengal. Indian Journal of Environmental Health. 2003; 45(4):265-74.
[Google Scholar]
[62]Michael HA, Voss CI. Evaluation of the sustainability of deep groundwater as an arsenic-safe resource in the Bengal basin. Proceedings of the National Academy of Sciences. 2008; 105(25):8531-6.
[Crossref] [Google Scholar]
[63]Mukherjee A, Fryar AE. Deeper groundwater chemistry and geochemical modeling of the arsenic affected western Bengal basin, West Bengal, India. Applied Geochemistry. 2008; 23(4):863-94.
[Crossref] [Google Scholar]
[64]Saunders JA, Lee MK, Uddin A, Mohammad S, Wilkin RT, Fayek M, et al. Natural arsenic contamination of Holocene alluvial aquifers by linked tectonic, weathering, and microbial processes. Geochemistry, Geophysics, Geosystems. 2005; 6(4):1-7.
[Crossref] [Google Scholar]
[65]Mukherjee A, Verma S, Gupta S, Henke KR, Bhattacharya P. Influence of tectonics, sedimentation and aqueous flow cycles on the origin of global groundwater arsenic: paradigms from three continents. Journal of Hydrology. 2014; 518:284-99.
[Crossref] [Google Scholar]
[66]https://www.adb.org/sites/default/files/linked-documents/49107-006-sd-01.pdf. Accessed 10 May 2021.
[67]Ahmad A, Heijnen L, De WL, Battaglia-brunet F, Oorthuizen W, Pieterse B, et al. Mobility and redox transformation of arsenic during treatment of artificially recharged groundwater for drinking water production. Water Research. 2020; 178:1-13.
[Crossref] [Google Scholar]
[68]Ahmed MF. An overview of arsenic removal technologies in Bangladesh and India. In proceedings of BUET-UNU international workshop on technologies for arsenic removal from drinking water, Dhaka 2001(pp. 251-69).
[Google Scholar]
[69]Fakhreddine S, Prommer H, Gorelick SM, Dadakis J, Fendorf S. Controlling arsenic mobilization during managed aquifer recharge: the role of sediment heterogeneity. Environmental Science & Technology. 2020; 54(14):8728-38.
[Crossref] [Google Scholar]
[70]Newman CP, Gray T. Statistical and geochemical fingerprinting analysis of arsenic mobilization and natural background associated with artificial groundwater recharge. Environmental Earth Sciences. 2019; 78:1-6.
[Crossref] [Google Scholar]
[71]Bhattacharya P, Jacks G, Ahmed KM, Routh J, Khan AA. Arsenic in groundwater of the Bengal delta plain aquifers in Bangladesh. Bulletin of Environmental Contamination and Toxicology. 2002; 69:538-45.
[Crossref] [Google Scholar]
[72]Sarkar S, Greenleaf JE, Gupta A, Ghosh D, Blaney LM, Bandyopadhyay P et al. Evolution of community-based arsenic removal systems in remote villages in West Bengal, India: assessment of decade-long operation. Water Research. 2010; 44(19):5813-22.
[Crossref] [Google Scholar]
[73]https://niti.gov.in/planningcommission.gov.in/docs/aboutus/committee/wrkgrp11/tf11_arsenics.pdf. Accessed 10 May 2021.
[74]Watanabe C, Kawata A, Sudo N, Sekiyama M, Inaoka T, Bae M, et al. Water intake in an Asian population living in arsenic-contaminated area. Toxicology and Applied Pharmacology. 2004; 198(3):272-82.
[Crossref] [Google Scholar]
[75]Hossain MA, Rahman MM, Murrill M, Das B, Roy B, Dey S, Maity D, Chakraborti D. Water consumption patterns and factors contributing to water consumption in arsenic affected population of rural West Bengal, India. Science of the Total Environment. 2013; 463:1217-24.
[Crossref] [Google Scholar]
[76]Jain CK, Singh RD. Technological options for the removal of arsenic with special reference to South East Asia. Journal of Environmental Management. 2012; 107:1-18.
[Crossref] [Google Scholar]
[77]Etmannski TR, Darton RC. A methodology for the sustainability assessment of arsenic mitigation technology for drinking water. Science of the Total Environment. 2014; 488:505-11.
[Crossref] [Google Scholar]
[78]https://law.resource.org/pub/in/bis/S06/is.10500.2012.pdf. Accessed 10 May 2021.
[79]Jones SA, Joy N. The inequity of the revised arsenic rule for very small community drinking water systems. Environmental Science & Policy. 2006; 9(6):555-62.
[Crossref] [Google Scholar]
[80]http://water.epa.gov/drink/info/arsenic/upload/2005_11_10_arsenic_treatments_and_costs.pdf. Accessed 10 May 2021.
[81]Garelick H, Dybowska A, Valsami-jones E, Priest N. Remediation technologies for arsenic contaminated drinking waters (9 pp). Journal of Soils and Sediments. 2005; 5:182-90.
[Crossref] [Google Scholar]
[82]Mondal P, Majumder CB, Mohanty B. Laboratory based approaches for arsenic remediation from contaminated water: recent developments. Journal of Hazardous Materials. 2006; 137(1):464-79.
[Crossref] [Google Scholar]
[83]Giles DE, Mohapatra M, Issa TB, Anand S, Singh P. Iron and aluminium based adsorption strategies for removing arsenic from water. Journal of Environmental Management. 2011; 92(12):3011-22.
[Crossref] [Google Scholar]
[84]http://archive.unu.edu/env/Arsenic/Han.pdf. Accessed 10 May 2021.
[85]Shafiquzzaman M, Azam MS, Nakajima J, Bari QH. Arsenic leaching characteristics of the sludges from iron based removal process. Desalination. 2010; 261(1-2):41-5.
[Crossref] [Google Scholar]
[86]Bhusan D, S. Treatability study of disposal of arsenic sludge produced from an arsenic removal plant. Unpublished ME (PH) Dissertation, Department of Sanitary Engineering, All India Institute of Hygiene & Public Health (AIIH & PH), Kolkata, West Bengal, India. 2006.
[87]Dong H, Guan X, Lo IM. Fate of As (V)-treated nano zero-valent iron: determination of arsenic desorption potential under varying environmental conditions by phosphate extraction. Water Research. 2012; 46(13):4071-80.
[Crossref] [Google Scholar]
[88]Di Natale F, Erto A, Lancia A. Desorption of arsenic from exhaust activated carbons used for water purification. Journal of Hazardous Materials. 2013; 260:451-8.
[Crossref] [Google Scholar]
[89]Sanchez F, Garrabrants AC, Vandecasteele C, Moszkowicz P, Kosson DS. Environmental assessment of waste matrices contaminated with arsenic. Journal of Hazardous Materials. 2003; 96(2-3):229-57.
[Crossref] [Google Scholar]
[90]Kumar PR, Chaudhari S, Khilar KC, Mahajan SP. Removal of arsenic from water by electrocoagulation. Chemosphere. 2004; 55(9):1245-52.
[Crossref] [Google Scholar]
[91]Lakshmipathiraj P, Prabhakar S, Raju GB. Studies on the electrochemical decontamination of wastewater containing arsenic. Separation and Purification Technology. 2010; 73(2):114-21.
[Crossref] [Google Scholar]
[92]García-lara AM, Montero-ocampo C. Improvement of arsenic electro-removal from underground water by lowering the interference of other ions. Water, Air, and Soil Pollution. 2010.
[Crossref] [Google Scholar]
[93]Amrose SE, Bandaru SR, Delaire C, Van GCM, Dutta A, Debsarkar A, et al. Electro-chemical arsenic remediation: field trials in West Bengal. Science of the Total Environment. 2014; 488:539-46.
[Crossref] [Google Scholar]
[94]Pantuzzo FL, Ciminelli VS. Arsenic association and stability in long-term disposed arsenic residues. Water Research. 2010; 44(19):5631-40.
[Crossref] [Google Scholar]
[95]http://www.epa.gov/solidwaste/hazard/testmethods/sw846/pdfs/9096.pdf. Accessed 10 May 2021.
[96]http://www.waterboards.ca.gov/rwqcb5/plans_policies/guidance/dlm.pdf. Accessed 10 May 2021.
[97]https://infostore.saiglobal.com/en-au/standards/as-4439-3-2019-121781_saig_as_as_2773575/. Accessed 10 May 2021.
[98]https://cfpub.epa.gov/si/si_public_record_report.cfm?Lab=NRMRL&dirEntryId=63239. Accessed 10 May 2021.
[99]Hooper K, Iskander M, Sivia G, Hussein F, Hsu J, DeGuzman M, et al. Toxicity characteristic leaching procedure fails to extract oxoanion-forming elements that are extracted by municipal solid waste leachates. Environmental Science & Technology. 1998; 32(23):3825-30.
[Crossref] [Google Scholar]
[100]Ghosh A, Mukiibi M, Ela W. TCLP underestimates leaching of arsenic from solid residuals under landfill conditions. Environmental Science & Technology. 2004; 38(17):4677-82.
[Crossref] [Google Scholar]
[101]Stuckman MY, Lenhart JJ, Walker HW. Abiotic properties of landfill leachate controlling arsenic release from drinking water adsorbents. Water Research. 2011; 45(16):4782-92.
[Crossref] [Google Scholar]
[102]Parsons CT, Couture RM, Omoregie EO, Bardelli F, Greneche JM, Roman-ross G, et al. The impact of oscillating redox conditions: arsenic immobilisation in contaminated calcareous floodplain soils. Environmental Pollution. 2013; 178:254-63.
[Crossref] [Google Scholar]
[103]Sullivan C, Tyrer M, Cheeseman CR, Graham NJ. Disposal of water treatment wastes containing arsenic—a review. Science of the Total Environment. 2010; 408(8):1770-8.
[Crossref] [Google Scholar]
[104]http://www.epa.gov/osw/hazard/testmethods/sw846/pdfs/1311.pdf. Accessed 10 May 2021.
[105]http://www.epa.gov/solidwaste/hazard/testmethods/sw846/pdfs/chap7.pdf. Accessed 10 May 2021.
[106]https://www.cpcb.nic.in/GeneralStandards.pdf. Accessed 10 May 2021.
[107]http://cgwb.gov.in/documents/Bhujal_News_24_2.pdf. Accessed 10 May 2021.
[108]Han FX, Kingery WL, Selim HM, Gerard PD, Cox MS, Oldham JL. Arsenic solubility and distribution in poultry waste and long-term amended soil. Science of the Total Environment. 2004; 320(1):51-61.
[Crossref] [Google Scholar]
[109]Rahman MA, Jalil MA, Ali MA. Transformation of arsenic in the presence of cow dung and arsenic sludge disposal and management strategy in Bangladesh. Journal of Hydrology. 2014; 518:486-92.
[Crossref] [Google Scholar]
[110]Zhao R, Novak JT, Goldsmith CD. Treatment of organic matter and methylated arsenic in landfill biogas condensate. Waste Management. 2013; 33(5):1207-14.
[Crossref] [Google Scholar]
[111]Akinde SB, Obire O. Aerobic heterotrophic bacteria and petroleum-utilizing bacteria from cow dung and poultry manure. World Journal of Microbiology and Biotechnology. 2008; 24(9):1999-2002.
[Crossref] [Google Scholar]
[112]Mestrot A, Xie WY, Xue X, Zhu YG. Arsenic volatilization in model anaerobic biogas digesters. Applied Geochemistry. 2013; 33:294-7.
[Crossref] [Google Scholar]
[113]Pal A, Nayak B, Das B, Hossain MA, Ahamed S, Chakraborti D. Additional danger of arsenic exposure through inhalation from burning of cow dung cakes laced with arsenic as a fuel in arsenic affected villages in Ganga–Meghna–Brahmaputra plain. Journal of Environmental Monitoring. 2007; 9(10):1067-70.
[Google Scholar]
[114]Ali MA, Badruzzaman AB, Jalil MA, Ahmed MF, Kamruzzaman M, Rahman MA, et al. Fate of arsenic in wastes generated from arsenic removal units. In proceedings of BUET-UNU symposium on fate of arsenic in the environment, Dhaka 2003 (pp. 147-59).
[Google Scholar]
[115]Leist M, Casey RJ, Caridi D. The management of arsenic wastes: problems and prospects. Journal of Hazardous Materials. 2000; 76(1):125-38.
[Crossref] [Google Scholar]
[116]Mohan D, Pittman Jr CU. Arsenic removal from water/wastewater using adsorbents—a critical review. Journal of Hazardous Materials. 2007; 142(1-2):1-53.
[Crossref] [Google Scholar]
[117]Delemos JL, Bostick BC, Renshaw CE, StÜrup S, Feng X. Landfill-stimulated iron reduction and arsenic release at the Coakley Superfund Site (NH). Environmental Science & Technology. 2006; 40(1):67-73.
[Crossref] [Google Scholar]
[118]Ford RG, Acree SD, Lien BK, Scheckel KG, Luxton TP, Ross RR, Williams AG, Clark P. Delineating landfill leachate discharge to an arsenic contaminated waterway. Chemosphere. 2011; 85(9):1525-37.
[Crossref] [Google Scholar]
[119]Roy J. Economic benefits of arsenic removal from ground water—a case study from West Bengal, India. Science of the Total Environment. 2008; 397(1-3):1-12.
[Crossref] [Google Scholar]
[120]Hossain MA, Sengupta MK, Ahamed S, Rahman MM, Mondal D, Lodh D, et al. Ineffectiveness and poor reliability of arsenic removal plants in West Bengal, India. Environmental Science & Technology. 2005; 39(11):4300-6.
[Crossref] [Google Scholar]
[121]Sarkar S, Blaney LM, Gupta A, Ghosh D, SenGupta AK. Use of ArsenXnp, a hybrid anion exchanger, for arsenic removal in remote villages in the Indian subcontinent. Reactive and Functional Polymers. 2007; 67(12):1599-611.
[Crossref] [Google Scholar]
[122]Sarkar S, Blaney LM, Gupta A, Ghosh D, Sengupta AK. Arsenic removal from groundwater and its safe containment in a rural environment: validation of a sustainable approach. Environmental Science & Technology. 2008; 42(12):4268-73.
[Crossref] [Google Scholar]
[123]Abrajevitch A, Van DVR, Rea DK. Variations in relative abundances of goethite and hematite in Bengal fan sediments: climatic vs. diagenetic signals. Marine Geology. 2009; 267(3-4):191-206.
[Crossref] [Google Scholar]
[124]Gupta VK, Saini VK, Jain N. Adsorption of As (III) from aqueous solutions by iron oxide-coated sand. Journal of Colloid and Interface Science. 2005; 288(1):55-60.
[Crossref] [Google Scholar]
[125]Baig SA, Sheng T, Hu Y, Lv X, Xu X. Adsorptive removal of arsenic in saturated sand filter containing amended adsorbents. Ecological Engineering. 2013; 60:345-53.
[Crossref] [Google Scholar]
[126]Ghosh D, Sarkar S, Sengupta AK, Gupta A. Investigation on the long-term storage and fate of arsenic obtained as a treatment residual: a case study. Journal of Hazardous Materials. 2014; 271:302-10.
[Crossref] [Google Scholar]
[127]Rahman IM, Begum ZA, Sawai H, Maki T, Hasegawa H. Decontamination of spent iron-oxide coated sand from filters used in arsenic removal. Chemosphere. 2013; 92(2):196-200.
[Crossref] [Google Scholar]
[128]Chen AS, Sorg TJ, Wang L. Regeneration of iron-based adsorptive media used for removing arsenic from groundwater. Water Research. 2015; 77:85-97.
[Crossref] [Google Scholar]
[129]Diamadopoulos E, Ioannidis S, Sakellaropoulos GP. As (V) removal from aqueous solutions by fly ash. Water Research. 1993; 27(12):1773-7.
[Crossref] [Google Scholar]
[130]Li Y, Zhang FS, Xiu FR. Arsenic (V) removal from aqueous system using adsorbent developed from a high iron-containing fly ash. Science of the Total Environment. 2009; 407(21):5780-6.
[Crossref] [Google Scholar]
[131]Kashiwakura S, Ohno H, Matsubae-yokoyama K, Kumagai Y, Kubo H, Nagasaka T. Removal of arsenic in coal fly ash by acid washing process using dilute H2SO4 solvent. Journal of Hazardous Materials. 2010; 181(1-3):419-25.
[Crossref] [Google Scholar]
[132]Sushil S, Batra VS. Analysis of fly ash heavy metal content and disposal in three thermal power plants in India. Fuel. 2006; 85(17-18):2676-9.
[Crossref] [Google Scholar]
[133]Pandey VC, Singh JS, Singh RP, Singh N, Yunus M. Arsenic hazards in coal fly ash and its fate in Indian scenario. Resources, Conservation and Recycling. 2011; 55(9-10):819-35.
[Crossref] [Google Scholar]
[134]Leist M, Casey RJ, Caridi D. The fixation and leaching of cement stabilized arsenic. Waste Management. 2003; 23(4):353-9.
[Crossref] [Google Scholar]
[135]Kundu S, Kavalakatt SS, Pal A, Ghosh SK, Mandal M, Pal T. Removal of arsenic using hardened paste of Portland cement: batch adsorption and column study. Water Research. 2004; 38(17):3780-90.
[Crossref] [Google Scholar]
[136]Paria S, Yuet PK. Solidification–stabilization of organic and inorganic contaminants using portland cement: a literature review. Environmental Reviews. 2006; 14(4):217-55.
[Crossref] [Google Scholar]
[137]Banerjee G, Chakraborty R. Management of arsenic-laden water plant sludge by stabilization. Clean Technologies and Environmental Policy. 2005; 7:270-8.
[Crossref] [Google Scholar]
[138]Radovanović DĐ, Kamberović ŽJ, Korać MS, Rogan JR. Solidified structure and leaching properties of metallurgical wastewater treatment sludge after solidification/stabilization process. Journal of Environmental Science and Health, Part A. 2016; 51(1):34-43.
[Crossref]
[139]Roy A, Van GCM, Mookherjee I, Debsarkar A, Dutta A. Concrete stabilization of arsenic-bearing iron sludge generated from an electrochemical arsenic remediation plant. Journal of Environmental Management. 2019; 233:141-50.
[Crossref] [Google Scholar]
[140]Garrabrants AC, Sanchez F, Kosson DS. Changes in constituent equilibrium leaching and pore water characteristics of a Portland cement mortar as a result of carbonation. Waste Management. 2004; 24(1):19-36.
[Crossref] [Google Scholar]
[141]Singh TS, Pant KK. Solidification/stabilization of arsenic containing solid wastes using portland cement, fly ash and polymeric materials. Journal of Hazardous Materials. 2006; 131(1-3):29-36.
[Crossref] [Google Scholar]
[142]Kundu S, Gupta AK. Immobilization and leaching characteristics of arsenic from cement and/or lime solidified/stabilized spent adsorbent containing arsenic. Journal of Hazardous Materials. 2008; 153(1-2):434-43.
[Crossref] [Google Scholar]
[143]Xu H, Min X, Wang Y, Ke Y, Yao L, Liu D et al. Stabilization of arsenic sulfide sludge by hydrothermal treatment. Hydrometallurgy. 2020.
[Crossref] [Google Scholar]
[144]Dzombak DA, Morel FM. Surface complexation modeling: hydrous ferric oxide. John Wiley & Sons; 1990.
[Google Scholar]
[145]Rathore VK, Mondal P. Stabilization of arsenic and fluoride bearing spent adsorbent in clay bricks: Preparation, characterization and leaching studies. Journal of Environmental Management. 2017; 200:160-9.
[Crossref] [Google Scholar]
[146]Rouf MA. Effects of using arsenic-iron sludge in brick making.2003.
[Google Scholar]
[147]Mahzuz HM, Alam R, Alam MN, Basak R, Islam MS. Use of arsenic contaminated sludge in making ornamental bricks. International Journal of Environmental Science and Technology. 2009; 6(22):291-8.
[Google Scholar]
[148]Hassan KM, Fukushi K, Turikuzzaman K, Moniruzzaman SM. Effects of using arsenic–iron sludge wastes in brick making. Waste Management. 2014; 34(6):1072-8.
[Crossref] [Google Scholar]
[149]Schacht C. Refractories handbook. CRC Press; 2004.
[Google Scholar]
[150]Sadik C, El Amrani IE, Albizane A. Recent advances in silica-alumina refractory: a review. Journal of Asian Ceramic Societies. 2014; 2(2):83-96.
[Crossref] [Google Scholar]
[151]Bacevic J. Unthinking knowledge production: from post-COVID to post-carbon futures. Globalizations. 2020:1-3.
[Crossref] [Google Scholar]
[152]Koley S. Challenges in sustainable development of smart cities in India. Sustainability: The Journal of Record. 2020; 13(4):155-60.
[Crossref] [Google Scholar]
[153]Mofijur M, Fattah IR, Alam MA, Islam AS, Ong HC, Rahman SA, et al. Impact of COVID-19 on the social, economic, environmental and energy domains: lessons learnt from a global pandemic. Sustainable Production and Consumption. 2020; 26: 343-59.
[Crossref] [Google Scholar]
[154]Koley S. Briefing: grim future of work and labour after the 2020 pandemic, with reference to India. In Proceedings of the Institution of Civil Engineers-Engineering Sustainability 2021; 174(2):55-7. Thomas Telford Ltd.
[Crossref] [Google Scholar]