Uranium, Polonium-218, and Polonium-214 Concentrations in Serum Samples of Cancer Patients at Al-Najaf Governorate

Authors

  • Talib A. Abdulwahid Department of Physics, Faculty of Science, University of Kufa, Najaf, Iraq
  • Ali Abid Abojassim Department of Physics, Faculty of Science, University of Kufa, Najaf, Iraq
  • Abdulhussein A. Alkufi Education Directorate of Najaf, Ministry of Education, Al-Najaf, Iraq
  • Hussien Abid Ali Mraity Department of Physics, Faculty of Science, University of Kufa, Najaf, Iraq

DOI:

https://doi.org/10.53560/PPASA(61-4)682

Keywords:

Uranium, Polonium, Blood Serum Radioactivity, Cancer, Irradiation Container, NTDs, Kifri District, Iraq

Abstract

This research examines the concentrations of uranium (UC), polonium of POW (218Po and 214Po on the wall of the irradiation container), and polonium of POS (218Po and 214Po on the surface of the irradiation container) in serum samples of male and female cancer patients and health human in the Al-Najaf Governorate of Iraq. UC, 218Po, and 214Po were determined using a track detector technique with a CR-39 detector. The mean values of UC for male and female cancer patients were 0.110 ± 0.024 ppb and 0.099 ± 0.013 ppb, respectively. The POW's average values for male and female cancer patients were 3.885 ± 2.132 Bqm-3 and 2.958 ± 1.146 Bqm-3, respectively while the mean values of POS for male and female cancer patients were 0.702 ± 0.386 Bqm-3 and 0.535 ± 0.207 Bqm-3, respectively. The results show that the mean concentrations of UC, 218Po, and 214Po are significantly higher (p < 0.001) in male and female cancer patient groups compared with the healthy group. Also, the mean values of UC, 218Po, and 214Po concentrations do not correlate with variables for male and female patient groups. Therefore, the concentrations of UC, 218Po, and 214Po in cancer patients and healthy groups in the present study were not significant in terms of gender. According to the ICRP and WHO report, the concentrations of uranium and polonium in all samples of the current study were within the accepted limits (uranium = 0.810 ppb) and (polonium = 550 Bqm-3), So the serum samples of male and female cancer patients and healthy in the Al-Najaf Governorate of Iraq were not contaminated with uranium.

References

A.A. Alkufi, A.A. Abojassim, and M.H. Oleiwi. Use of air things radon detector in liquid samples (serum and urine). Applied Radiation and Isotopes 207: 111265 (2024).‏

N.F. Kadhim, Y.A. Kadhim, R.S. Ahmed, A.A. Ridha, and M.Y. Mostafa. The impact on alpha emission rates of varying distances between a CR-39 detector and alpha-emitting bone samples. Radiation Detection Technology and Methods 5: 618-626 (2021).

H.K. Obaed and M.S. Aswood. Estimated of U, Rn and Po concentrations in smokers blood samples collected from Babylon, Iraq. Materials Science and Engineering 928: 072043 (2020).

C.J. Olowookere, K. Aladeniyi, G.A. Abu, and J. Erimona. Evaluation of Cancer Risks Associated with Radon Concentration Measured in the Science Faculty Building Complex Basement of a Tertiary Institution in South West, Nigeria. Journal of Applied Sciences and Environmental Management 26: 837-843‏ (2022).

Z.Q. Rahman and A.A. Al-Hamzawi. In-vitro radiological and toxicological detection in urine samples of cancer patients in Al-Diwaniyah governorate, Iraq. International Journal of Radiation Research 20: 103-108‏ (2022).

M.S. Aswood, A.A. Abojassim, and M.S.A. Al Musawi. Natural radioactivity measurements of frozen red meat samples consumed in Iraq. Radiation Detection Technology and Methods 3: 57‏ (2019).

A.A. Al-Hamzawi, M.S. Jaafar, and N.F. Tawfiq. The measurements of uranium concentration in human blood in selected regions in Iraq Using CR-39 track detector. Advanced Materials Research 925: 679-683‏ (2014).

A.A. Alkufi, M.H. Oleiwi, A.A. Abojassim, N.U.G. Mohammed, A.S. Jassim, and M. Guida. Determination Uranium and its Isotopes in Biological Samples of Smokers. Baghdad Science Journal 21(12): 4105-4117 (2024).

A. Boryło. Determination of uranium isotopes in environmental samples. Journal of Radioanalytical and Nuclear Chemistry 295: 621-631(2013).

D. Banks, O. Røyset, T. Strand, and H. Skarphagen. Radioelement (U, Th, Rn) concentrations in Norwegian bedrock groundwaters. Environmental Geology 25: 165-180 ‏ (1995).

S. Othman, N. Salih, and Z. Hussein. Determination of radon concentration level and its progenies in breast cancer using CR-39 NTD. International Journal of Cancer Research & Therapy 7: 216-226 (2022).

A.A. Alkufi, M.H. Oleiwi, and A.A. Abojassim. Radon concentrations in the serum of blood and urine of smokers using RAD-7 detector. International Journal of Nuclear Energy Science and Technology 17: 18-27 (2024). ‏

‏R.W. Field. Radon: A leading environmental cause of lung cancer. American Family Physician 98: 280-282‏ (2018).

A.A. Alkufi, A.A. Abojassim, and M.H. Oleiwi. Radon Concentration in Biological Samples of Smokers and Non-smokers Using Lexan Detector. Atom Indonesia 50: 127-134. (2024).

J. Gaskin, D. Coyle, J. Whyte, and D. Krewksi. Global estimate of lung cancer mortality attributable to residential radon. Environmental Health Perspectives 126(5): 057009 (2018).

N.F. Salih, Z.M. Jafri, and M.S. Aswood. Measurement of radon concentration in blood and urine samples collected from female cancer patients using RAD7. Journal of Radiation Research and Applied Sciences 9: 332-336 (2016).

A.A. Alkufi, M.H. Oleiwi, and A.A. Abojassim. Heavy Metals in Blood Serum of Smokers and Non-smoking Controls. Current Analytical Chemistry 20: 175-182 (2024). ‏

F.A. Taher and A.A. Abojassim. Uranium concentrations and its isotopes in baby food of Iraq. Radiochimica Acta 112: 391-399 (2024).

S. Othman, N. Salih, and Z. Hussein. Investigation of radon concentration level and its progeny in different kinds of cancer by using CR-39 NTD. Radiation Effects and Defects in Solids 178: 456-484 (2023).

A.A. Alkufi, M.H. Oleiwi, and A.A. Abojassim. Thoron Concentrations in Blood Serum, Urine, Hair, and Nails of Smokers and Non-smokers. Library Progress International 44: 706-716 (2024).

S. M. Qaddoori and S.S. Shafik. CR-39 As A Tool for Uranium Concentration Calculation in Bio Assay Sample: Bladder Cancer as Case Study. Research Journal of Pharmaceutical Biological and Chemical Sciences 9: 228-239 (2018). ‏

‏A.A. Abojassim, T.A. Abdulwahid, R.H. Hashim, A.S. Abdulshaheed, and H.H. Rajab. 222Rn, 218Po, and 214Po concentrations in blood samples of cancer patients at Najaf and Kufa cities of Al-Najaf Governorate. AIP Conference Proceedings 2386‏: 080025 (2022).

‏A.A. Alkufi, A.A. Abojassim, and M.H. Oleiwi. Concentrations of radon and other alpha emitters in biological samples of smokers and non-smokers. Journal of Radioanalytical and Nuclear Chemistry 333: 3857–3865 (2024).

A.P. Pereyra, H.M.E. Lopez, F.D. Palacios, B.L. Sajo, and P. Valdivia. Semi-empirical approach for calibration of CR-39 detectors in diffusion chambers for radon measurements. In: Proccedings of the ISSSD. September 24th to 28th, 2016. Tuxtla Gutierrez, Chiapas, Mexico pp. 228-253 ‏ (2016).

L.S. Keith, O.M. Faroon, and B.A. Fowler. Uranium (Chapter 45). In: Handbook on the Toxicology of Metals. G.F. Nordberg, B.A. Fowler, M. Nordberg, and L.T. Friberg (Eds.) Elsevier pp. 882-900 (2015).

J. Valentin. Basic anatomical and physiological data for use in radiological protection: reference values: ICRP Publication 89. Annals of the ICRP 32: 1-277 (2002). ‏

Z. Abdelkafi and M.S. Aswood. Quantitative of uranium levels in blood samples of cancer patients collected from different regions in Iraq. Radiation Physics and Chemistry 223: 111975 (2024). ‏

World Health Organization. WHO vaccine-preventable diseases: monitoring system, global summary (2009).

https://iris.who.int/bitstream/handle/10665/70149/WHO_IVB_2009_eng.pdf

A. Hassan, A.A.H. Mohsen, H. Zahed, and A.A. Abojassim. Determination of alpha particles levels in blood samples of cancer patients at Karbala Governorate, Iraq. Iranian Journal of Medical Physics 16: 41-47 (2019).

T.F. Naji and S.O. Hassoon. Measuring of Radon Gas Concentrations in serum samples of Lung cancer patients in Babylon governorate, Iraq. Journal of Physics: Conference Series 1999: 012054 (2021).

T.A. Abdulwahid, I.K. Alsabari, A.A. Abojassim, H.A.A. Mraity, and A.B. Hassan. Assessment of concentrations of alpha emitters in cancer patients blood samples. Sylwan 164: 154-164 (2020). ‏

T.I. Todorov, H. Xu, J.W. Ejnik, F.G. Mullick, K. Squibb, M.A. McDiarmid, and J.A. Centeno. Depleted uranium analysis in blood by inductively coupled plasma mass spectrometry. Journal of Analytical Atomic Spectrometry 24: 189-193 (2009).

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Published

2024-12-28

How to Cite

Talib A. Abdulwahid, Ali Abid Abojassim, Abdulhussein A. Alkufi, & Hussien Abid Ali Mraity. (2024). Uranium, Polonium-218, and Polonium-214 Concentrations in Serum Samples of Cancer Patients at Al-Najaf Governorate. Proceedings of the Pakistan Academy of Sciences: A. Physical and Computational Sciences, 61(4), 339–347. https://doi.org/10.53560/PPASA(61-4)682

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Research Articles

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