Literature DB >> 18602205

Impact of sedimentary arsenic through irrigated groundwater on soil, plant, crops and human continuum from Bengal delta: special reference to raw and cooked rice.

Tarit Roychowdhury1.   

Abstract

Existence of arsenic-rich (exceeds 2,000 mg/kg) iron pyrite in Bengal delta sediments is responsible for arsenic release in aquifer. Ingestion of contaminated drinking water is not the only elevated source of arsenic to the diet. Irrigation of agricultural fields with arsenic-contaminated groundwater has led to arsenic build-up in soil, with subsequent elevation of arsenic in crops grown on these soils. About 50.7 and 11.2 kg of arsenic are withdrawn per year from 23 and 18 shallow tubewells, used for agricultural irrigation in the studied two districts Murshidabad and Nadia, respectively and deposited on lands throughout the year. Considerable higher amounts of arsenic are accumulated in paddy plants. Mean arsenic concentration in food categories is 107 microg/kg. Arsenic concentrations are high in cooked food and skin of the vegetables. Arsenic concentration in cooked rice increases with water arsenic concentration. About 70.2% of arsenic is recovered by using the analytical speciation extraction method. Inorganic arsenic and DMA contribute 89.5% and 10.5% of the total content of arsenic in food, respectively. About 0.081% and 1.57% of arsenic are accumulated in rice grain from arsenic-deposited lands and contaminated soils. The daily dietary intake of inorganic arsenic (mug/kg body wt./day) by an adult from rice grain itself (2.32) is higher than the WHO recommended PTDI value of inorganic arsenic (2.1) and inorganic arsenic contributes 96.8% of the total dietary intakes of arsenic. Population exposed to arsenic toxicity has been identified.

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Year:  2008        PMID: 18602205     DOI: 10.1016/j.fct.2008.05.019

Source DB:  PubMed          Journal:  Food Chem Toxicol        ISSN: 0278-6915            Impact factor:   6.023


  6 in total

1.  Comparison of drinking water, raw rice and cooking of rice as arsenic exposure routes in three contrasting areas of West Bengal, India.

Authors:  Debapriya Mondal; Mayukh Banerjee; Manjari Kundu; Nilanjana Banerjee; Udayan Bhattacharya; Ashok K Giri; Bhaswati Ganguli; Sugata Sen Roy; David A Polya
Journal:  Environ Geochem Health       Date:  2010-05-27       Impact factor: 4.609

2.  Arsenic contamination in Kolkata metropolitan city: perspective of transportation of agricultural products from arsenic-endemic areas.

Authors:  Anirban Biswas; Shresthashree Swain; Nilanjana Roy Chowdhury; Madhurima Joardar; Antara Das; Meenakshi Mukherjee; Tarit Roychowdhury
Journal:  Environ Sci Pollut Res Int       Date:  2019-06-08       Impact factor: 4.223

3.  Assessment of arsenic content in soil, rice grains and groundwater and associated health risks in human population from Ropar wetland, India, and its vicinity.

Authors:  Sakshi Sharma; Inderpreet Kaur; Avinash Kaur Nagpal
Journal:  Environ Sci Pollut Res Int       Date:  2017-06-16       Impact factor: 4.223

Review 4.  South Asian Health: Inflammation, Infection, Exposure, and the Human Microbiome.

Authors:  Jennifer Leng; Ponni Peruluswami; Sehrish Bari; Sunanda Gaur; Farshid Radparvar; Faruque Parvez; Yu Chen; Cristina Flores; Francesca Gany
Journal:  J Immigr Minor Health       Date:  2019-08

5.  Impact of Water Regimes and Amendments on Inorganic Arsenic Exposure to Rice.

Authors:  Supriya Majumder; Pabitra Kumar Biswas; Pabitra Banik
Journal:  Int J Environ Res Public Health       Date:  2021-04-27       Impact factor: 3.390

Review 6.  Processing conditions, rice properties, health and environment.

Authors:  Poritosh Roy; Takahiro Orikasa; Hiroshi Okadome; Nobutaka Nakamura; Takeo Shiina
Journal:  Int J Environ Res Public Health       Date:  2011-06-03       Impact factor: 3.390

  6 in total

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