Arsenic Cleanup Goals in Soil-Water-Rice-Human Continuum: Interplay of Amendments

Calcium silicate (CaSiO 3 ) can affect the bioavailability of arsenic (As) in the soil water-rice system, but it is not clear how its interaction with farmyard manure (FYM) and vermicompost (VC) affects As build up in the soil and in turn uptake by rice and human exposure. The mechanistic pathways f...

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Veröffentlicht in:Journal of soil science and plant nutrition 2023-09, Vol.23 (3), p.4267-4278
Hauptverfasser: Khanam, Rubina, Hazra, Gora Chand, Kulsum, Pedda Ghouse Peera Sheikh, Chatterjee, Nitin, Thingujam, Umalaxmi, Shukla, Arvind Kumar
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container_end_page 4278
container_issue 3
container_start_page 4267
container_title Journal of soil science and plant nutrition
container_volume 23
creator Khanam, Rubina
Hazra, Gora Chand
Kulsum, Pedda Ghouse Peera Sheikh
Chatterjee, Nitin
Thingujam, Umalaxmi
Shukla, Arvind Kumar
description Calcium silicate (CaSiO 3 ) can affect the bioavailability of arsenic (As) in the soil water-rice system, but it is not clear how its interaction with farmyard manure (FYM) and vermicompost (VC) affects As build up in the soil and in turn uptake by rice and human exposure. The mechanistic pathways for mitigating As toxicity in rice and its risk to human health were assessed using a contaminated paddy-rice system with seven amendment regimes involving CaSiO 3 , FYM, and VC. The bioavailable and total As build-up of 1243 and 2550 g ha −1 respectively from control plots, while the amended plots had 672.8 and 502 g ha −1 reduction on average. The transfer of As from soil to grain was lesser in treated (4.3%) compared to control (6.5%). In treated plots, grain nutrient quality, such as Zn and Fe concentration, improved by 4.1–28.4% and 10.2–30.2%, respectively. The average incremental lifetime cancer risk of As associated with ingestion of such rice is 2.4 and 1.5 times lower on combined (0.47× 10 −3 –0.54× 10 −3 ) and individual (0.74× 10 −3 –0.86× 10 −3 ) application of amendments over control (1.13 × 10 −3 ). To achieve the desired hazard quotient of < 1, the cleanup goals for total As in root, shoot, grain, and polished and cooked rice are 11.72, 3.99, 1.03, 0.28, 0.25, and 0.075 (mg kg −1 ), respectively. CaSiO 3 with and without organic can reduce As concentration in the root, shoot, grain, polished rice, and cooked rice below the cleanup goals.
doi_str_mv 10.1007/s42729-023-01346-9
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The mechanistic pathways for mitigating As toxicity in rice and its risk to human health were assessed using a contaminated paddy-rice system with seven amendment regimes involving CaSiO 3 , FYM, and VC. The bioavailable and total As build-up of 1243 and 2550 g ha −1 respectively from control plots, while the amended plots had 672.8 and 502 g ha −1 reduction on average. The transfer of As from soil to grain was lesser in treated (4.3%) compared to control (6.5%). In treated plots, grain nutrient quality, such as Zn and Fe concentration, improved by 4.1–28.4% and 10.2–30.2%, respectively. The average incremental lifetime cancer risk of As associated with ingestion of such rice is 2.4 and 1.5 times lower on combined (0.47× 10 −3 –0.54× 10 −3 ) and individual (0.74× 10 −3 –0.86× 10 −3 ) application of amendments over control (1.13 × 10 −3 ). 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The mechanistic pathways for mitigating As toxicity in rice and its risk to human health were assessed using a contaminated paddy-rice system with seven amendment regimes involving CaSiO 3 , FYM, and VC. The bioavailable and total As build-up of 1243 and 2550 g ha −1 respectively from control plots, while the amended plots had 672.8 and 502 g ha −1 reduction on average. The transfer of As from soil to grain was lesser in treated (4.3%) compared to control (6.5%). In treated plots, grain nutrient quality, such as Zn and Fe concentration, improved by 4.1–28.4% and 10.2–30.2%, respectively. The average incremental lifetime cancer risk of As associated with ingestion of such rice is 2.4 and 1.5 times lower on combined (0.47× 10 −3 –0.54× 10 −3 ) and individual (0.74× 10 −3 –0.86× 10 −3 ) application of amendments over control (1.13 × 10 −3 ). 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To achieve the desired hazard quotient of &lt; 1, the cleanup goals for total As in root, shoot, grain, and polished and cooked rice are 11.72, 3.99, 1.03, 0.28, 0.25, and 0.075 (mg kg −1 ), respectively. CaSiO 3 with and without organic can reduce As concentration in the root, shoot, grain, polished rice, and cooked rice below the cleanup goals.</abstract><cop>Cham</cop><pub>Springer International Publishing</pub><doi>10.1007/s42729-023-01346-9</doi><tpages>12</tpages></addata></record>
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subjects Agriculture
Animal manures
Arsenic
Bioaccumulation
Bioavailability
Biomedical and Life Sciences
Calcium silicates
Carcinogens
Composting
Cultivars
Ecology
Environment
Groundwater
Health risks
Hydroxyapatite
Ingestion
Irrigation
Life Sciences
Moisture content
Nutrient concentrations
Original Paper
Plant Sciences
Rice
Rice fields
Sodium
Soil contamination
Soil Science & Conservation
Soil water
Toxicity
Vermicomposting
Worms
title Arsenic Cleanup Goals in Soil-Water-Rice-Human Continuum: Interplay of Amendments
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