Determination the Natural Radiation Activity in Female Human Urine Samples in Kirkuk City by Using Two Technique Rad7 and CR-39 Detector

Authors

  • Ghayyib Ghayyib Department of Physics, College of Science, University of Kirkuk
  • Ahmed Abed Ibrahim Department of Physics, College of Science, University of Kirkuk

Keywords:

Radon gas, Rad7, CR-39, cancer, Alpha decay, urine

Abstract

Background: The basic components of the environment, such as air, water, and soil, typically contain radioactive materials in naturally occurring circulation. Typically, a variety of techniques are used to convey radioactive materials to people, animals, and plants. The residence time of radioactive elements in the environment and the transit of these elements to the human body are both affected by the carriers' various physical and chemical properties

Materials and methods: In this current work, radon concentration in cancer-sick urine samples in Kirkuk was measured using a Rad-7and CR-39. CR-39 detector 400 μm thick and   area (1 × 1) cm2 . Chemical editing of the alpha particle traces was captured using the CR-39 track detector. "Alpha rays" or "alpha radiation" coming from the radon listed in the models. This study was conducted on 60 urine samples from people of different ages (between 22 and 80 years old), all of whom had cancer problems.

Results: The result showed that the highest radon concentration using a detector Rad7 (3240Bq/m3) Average concentration (1492.07 Bq/m3) and radon concentration when using CR-39 detector (3066 Bq/m3), average radon concentration (1404.13 Bq/m3), concentration uranium (9.77ppm), radioactivity (0.093Bq) and highest annual impact dose (81.74mSv/y). In addition, the results showed that the concentration of radon gas. Concentration uranium was varied from person to another, depending on the allergy of that person to the radiation. Conclusion: There is evidence of health problems and evidence of the relationship between radiation and cancer. In general, the obtained results were above than of the normal levels.

References

Asker MM, Ali ES, Mohammed SA. Determination Radon Concentration (Radon Gas) in Urine of Patients with Cancer. NeuroQuantology. 2021 Apr 1;19(4):87-92.

Kareem DO, Ibrahim AA, Ibrahiem OS. Heavy metal and radon gas concentration levels in Khasa River in Kirkuk City (NE Iraq) and the associated health effects. Arabian Journal of Geosciences. 2020 Oct;13:1-1.

Hynes HB. Warren, CE 1971. Biology and water pollution control. WB Saunders Co., Philadelphia. xvi+ 434 p. $11.00.

Environmental DO. A Guide Risk Assessment and Risk Management for Environmental Protection 1995

Ayad . Mohamed AF. the biological effect of radiation in the human body. Journal of Atom and development. 1997.

Kadhim HW, Hady HN. Evaluation of Radon Concentrations in some Samples of Dwellings of Lung Cancer Patients and Healthy Using CR-39 in Iraq. Pakistan Journal of Medical & Health Sciences. 2023 Mar 18;17(01):780-.

Othman S, Salih N, Hussein Z. Determination of radon concentration level and its progenies in breast cancer using Cr-39 NTD. International Journal of Cancer Research & Therapy. 2022 Dec 14;7(4):216-26.

Guyton AC. Text book of medical physiology. China; 2006.

Nsiah-Akoto I, Fletcher JJ, Oppon OC, Andam AB. Indoor radon levels and the associated effective dose rate determination at Dome in the Greater Accra Region of Ghana. Research Journal of Environmental and Earth Sciences. 2011 Mar 5;3(2):124-30.

C Jewel, F Obaid, W Jewell, T L Fernando, G Kristina and J P Sari. Toxicological Profile for Phenol U.S Department of Health and Human Services Atlanta GA. Public Health Service Agency for Toxic Substances and Disease Registry. 2008.

Speelman WJ. Modelling and measurement of radon diffusion through soil application on mine tailings dams.

Owner’s Manual of .RAD7 Radon Detector. Durridge Company Inc. 2015.

Owner's Manual of .RADH2O Radon in Water Accessory. Durridge Company Inc. 2012.

Owner's Manual of RAD7 RADON DETECTOR. DURRIDGE COMPANY Instrument. 2015.

Cartwright BG, Shirk EK, Price PB. A nuclear-track-recording polymer of unique sensitivity and resolution. Nuclear Instruments and Methods. 1978 Jul 15;153(2-3):457-60.

Harvey JR, Tanner RJ, Alberts WG, Bartlett DT, Piesch EK, Schraube H. The contribution of Eurados and Cendos to track etch neutron dosimetry: the current status in Europe. Radiation protection dosimetry. 1998 Jun 1;77(4):267-304.

Al-Rubyie AQ. Radioactive detection on the blood samples of cancer patients diseases by using CR-39 detector and its effect on cytogenetic. Ms. c thesis), AL-Nahrain University. 2004.

SA D, Bull RK. Solid State Nuclear Track Detection.

Karim MS, Mohammed AH, Abbas AA. Measurement of uranium concentrations in human blood in some the regions of Baghdad Governorate. Ibn AL-Haitham Journal For Pure and Applied Science. 2017 May 22;23(2):25-32.

Aswood MS, Jaafar MS, Bauk S. Measuring radon concentration levels in fertilizers using CR-39 detector. advanced materials research. 2014 Jun 25;925:610-3.

Barillon R, Klein D, Chambaudet A, Devillard C. Comparison of effectiveness of three radon detectors (LR115, CR39 and silicon diode pin) placed in a cylindrical device-theory and experimental techniques. Nuclear Tracks and Radiation Measurements. 1993 Jan 1;22(1-4):281-2.

Fleischer RL, Mogro‐Campero A. Mapping of integrated radon emanation for detection of long‐distance migration of gases within the Earth: Techniques and principles. Journal of Geophysical Research: Solid Earth. 1978 Jul 10;83(B7):3539-49.

Saeed HS, Sabah YH .Determining the concentrations of radon uranium and other radioactive isotopes in different types of natural waters in Nineveh governorate: The Jordanian Journal of Physics. 2015 8(4). 227-244. (in Arabic)

Mowlavi AA, Fornasier MR, Binesh A, Denaro MD. Indoor radon measurement and effective dose assessment of 150 apartments in Mashhad, Iran. Environmental monitoring and assessment. 2012 Feb;184:1085-8.

Xiao-Jiao D, Zhi-Xin T, Xiao-Fei L, Yong-Sheng H, Shi-Lun G, Da-Wei Y, Xiu-Zhang T, Nai-Yan W. Calibration of solid state nuclear track detector CR39 with monoenergetic protons. Acta Physica Sinica. 2010 May 1;59(5):3147-53.

United Nations Scientific Committee on the Effects of Atomic Radiation, Annex B. Exposures from natural radiation sources. Cosmic rays. 2000;9(11).

Rahman SU, Malik F, Matiullah, Nasir T, Anwar J. Monitoring of indoor radon levels around an oil refinery using CR-39-based radon detectors. Indoor and built environment. 2012 Jun;21(3):452-7.

Muhammad R, Rahman SU, Said R, Shahzad MI, Navid A, Javid I, Basharat A, Tanveer A, Nadeem A. Assessment of indoor radon doses received by the students in the Azad Kashmir schools, Pakistan. Radiation Protection Dosimetry. 2010;142(2/4):339-46.

Sersawi M. Study of the chronic radiation exposure situation in Gaza. Unpublished Master's Thesis. The Islamic University of Gaza, Palestine. 2007.

ICRP (International Commission on Radiological Protection) .Protection against 222Rn at home and work Publication 65. Ann of ICRP. 1993: 23- 29.

Salameh H, Abu-Haija AW, Abdelsalam M. District, Jordan. Research Journal of Environmental Toxicology. 2011;5(1):71-5.

GLYCOL E, GLYCOL P. Division of Toxicology September 1997.

Downloads

Published

2024-01-01

How to Cite

Ghayyib, G., & Ibrahim, A. A. . . (2024). Determination the Natural Radiation Activity in Female Human Urine Samples in Kirkuk City by Using Two Technique Rad7 and CR-39 Detector. INTERNATIONAL JOURNAL OF MEDICAL SCIENCES, 7(1), 18–31. Retrieved from https://isnra.net/ojs/index.php/ijms/article/view/1079