Calculation of natural radiation transfer factors in some agricultural crops in Al-Hussainiya- Karbala -Iraq

Authors

  • Heiyam Najy Hady, Zainab Shakir Baqer University of Kufa, Education College for girls, physics department

Abstract

To study the radiation transfer factor TFs of agricultural crops in the Al-Hussainiya area - Karbala, Iraq. an amount of 30 sample has been collected from different locations (randomly distribution ) of the Al-Hussainiya area, including (15plant samples and 15 soil samples) for three samples of agricultural crops (Eggplant, Okra, Common pea). The natural radioactivity of the (_^238)U, (_^232)Th and (_^40)K isotopes were measured by a gamma-ray spectroscopy with scintillation detector NaI (TI) 〖(3〗^''×3^'') from ORTEC with an efficiency of (4.6) at energy (662 keV) and energy resolution (7.9)%. The specific activity of (_^238)U, (_^232)Th and(_^40)K, have been measured, in which radiation Transfer Factor TF of (_^238)U, (_^232)Th and(_^40)K, The radium equivalent Ra_eq, gamma radiation reprehensive level index I_γ, external hazard index H_ex and internal hazard index H_in all have been measured. It was found that the highest rate of the(_^238)U specific activity was in the Okra plant sample, where it reached 17.896±2.020 Bq.kg^(-1), and the sample of the soil was 24.520±1.563 Bq.kg^(-1). The specific activity of (_^232)Th in the common pea plant sample was 10.959 ± 1.519 Bq.kg^(-1) while the soil sample was 12.86±0.944 Bq.kg^(-1). The specific activity of (_^40)K in the eggplant plant sample reached to 274.583 ±7.583 Bq.kg^(-1) and in soil sample was 324.40±15.811 Bq.kg^(-1). Radiation Transfer Factor TF of (_^238)U was the highest rate in the eggplant samples, in which it reached 0.885, (_^232)Th TF was the highest in the common pea samples, which reached 0.847, and (_^40)K TF was the highest rate in the eggplant samples where it was 0.855.The radium equivalent Ra_eq, where the highest rate for the plant in the common pea samples it was 48.856 Bq.kg^(-1). The gamma radiation reprehensive level index I_γ was the highest rate for the plant in the common pea samples; it was 0.369 Bq.kg^(-1). The external hazard index H_ex was the highest rate for the plant in the common pea sample 0.131 Bq.kg^(-1) while for the Internal hazard index H_in the highest rate was in the okra plant sample where it was 0.180 Bq.kg^(-1). The obtained results for the selected samples were within the acceptable worldwide limit. The radiation transfer factor TFs for the three types of plants was almost the same

References

Ramiza M Hussain M Nasim A 2010 Pak. J. Agri. Sci., 47153-156

Ali H Laith A Abbas M 2016 Journal of Radiation Research and Applied Sciences 9 337 -344

Desideri D Meli M Roselli C J. Environ. Radioact 101 751- 756

Ibrahim E Doaa H Eman M 2016 Journal of Radiation Research and Applied Sciences 9303 -309

Radioactivity in Food and the Environment 2011 Environment agency food standards agency northern Ireland environment agency Scottish environment protection agency

Isikaye M Oludare M and Oderinde M 2013 Springer plus 21-11

Cytogenetic Dosimetery 2011 Applications in preparedness for and response to radiation emergencies International Atomic Energy Agency IAEA, Vienna

Sources and Effects of Ionizing Radiation 2000 UNSCEAR, New York

Sources and Effects of Ionizing Radiation 2008 UNSCEAR, United Nations Scientific Committee on the Effects of Atomic Radiation, New York

Okeyode I and Oluseye A 2010 Journal of Physics International, 11-8

Heiyam N Ali A and Zahrah B 2016 J. Bioen. Food Sci., 3 113-122

Kiadtisak S Endu P and Kamonkhuan P 2018 Journal of Environmental Radioactivity, 5 184- 185

[13] Handbook of parameter values for the prediction of radionuclide transfer in temperate

environments 1994 IAEA Vienna

[14] Ocheje J and Tyovenda A 2020 Nigeria, Journal of Applied Physics,12 7-12

[15] Fredrick O and Okhuomaruyi D 2021 Journal of Environmental Radioactivity, 233 106606

Kakhaber K Archil M and Platon I 2019 Heliyon 5 01377

Beretka J and Mathew P 1985 Journal of Health Physics, 4 87-95

Otwoma D Patel J Bartold S Mustapha A 2013 Radiat. Prot. Dosim 155 497–504

Edyta L Przemyslaw W Pawel J Michal G 2017 Journal of Environmental Radioactivity, 178- 179 193-202

Mirjana B and Scepan S 2009 Journal of the Serbian Chemical Society,74 461-470

Papadopoulos A Christofides G Koroneos A Papadopoulou L Papastefanou C and Stoulos S 2013 Journal of Environmental Radioactivity 12 227-238

Asgharizadeh F Abbasi A Hochaghani O Gooya E 2012 Radiat. Prot. Dosim 149 321–326

Al-Saleh F and Berzan Al 2007 Journal of Nuclear and Radiation Physics, 2 25-36

Jose A Jorge J Cleomacio M Sueldo V and Romilton D 2005 Journal of Brazilian archives of biology and technology 48 221-228

Hamid B Chowdhry I. and Islam M 2002 Journal of Radiation Protection Dosimetry 98 227- 230.

Zeljka Z Marko S Dinko B Ivana S Milan M, Aleksandra P and Branko P 2021 Soil & Tillage Research 212105030.

Heiyam N and Zahrah M 2019 International Journal of Academic Multidisciplinary Research (IJAMR), 3 55-61.

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Published

2023-01-31

How to Cite

Heiyam Najy Hady, Zainab Shakir Baqer. (2023). Calculation of natural radiation transfer factors in some agricultural crops in Al-Hussainiya- Karbala -Iraq. International Journal of Scientific Trends, 2(1), 23–33. Retrieved from https://scientifictrends.org/index.php/ijst/article/view/42

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