Exposure to the Thyroid from Intake of Radioiodine Isotopes after the Chornobyl Accident. Report I: Revised Doses and Associated Uncertainties for the Ukrainian-American Cohort
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A. Kukush | M. Little | K. Mabuchi | M. Tronko | O. Ivanova | V. Shpak | V. Drozdovitch | T. Bogdanova | S. Masiuk | M. Chepurny | V. Buderatska | Z. Boiko | N. Zhadan | G. Zamotayeva | E. K. Cahoon
[1] M. Tronko,et al. Assessment of internal exposure to 131I and short-lived radioiodine isotopes and associated uncertainties in the Ukrainian cohort of persons exposed in utero. , 2022, Journal of Radiation Research.
[2] A. Kukush,et al. Thyroid doses in Ukraine due to 131I intake after the Chornobyl accident. Report II: dose estimates for the Ukrainian population , 2021, Radiation and Environmental Biophysics.
[3] A. Kukush,et al. Thyroid doses in Ukraine due to 131I intake after the Chornobyl accident. Report I: revision of direct thyroid measurements , 2021, Radiation and Environmental Biophysics.
[4] V. Drozdovitch,et al. Reliability of thyroid doses due to 131I intake exceeding 5 Gy in a cohort of Belarusian children exposed to Chernobyl fallout , 2021, Radiation and environmental biophysics.
[5] M. Moissonnier,et al. Uncertainties in Radiation Doses for a Case-control Study of Thyroid Cancer Among Persons Exposed in Childhood to 131I from Chernobyl Fallout. , 2020, Health physics.
[6] M. Little,et al. Thyroid neoplasia risk is increased nearly 30 years after the Chernobyl accident , 2017, International journal of cancer.
[7] R. Pfeiffer,et al. Factors associated with serum thyroglobulin in a Ukrainian cohort exposed to iodine‐131 from the accident at the Chernobyl Nuclear Plant , 2017, Environmental research.
[8] Alexander Kukush,et al. Radiation Risk Estimation: Based on Measurement Error Models , 2017 .
[9] R. Carroll,et al. Estimation of radiation risk in presence of classical additive and Berkson multiplicative errors in exposure doses. , 2016, Biostatistics.
[10] N. Potischman,et al. Reliability of Questionnaire Data in the Distant Past: Relevance for Radiation Exposure Assessment , 2016, Health physics.
[11] A. Bouville,et al. Thyroid Dose Estimates for a Cohort of Belarusian Children Exposed to 131I from the Chernobyl Accident: Assessment of Uncertainties , 2015, Radiation research.
[12] F. O. Hoffman,et al. Accounting for Shared and Unshared Dosimetric Uncertainties in the Dose Response for Ultrasound-Detected Thyroid Nodules after Exposure to Radioactive Fallout , 2015, Radiation research.
[13] O. Ivanova,et al. Thyroid Cancer Study among Ukrainian Children Exposed to Radiation after the Chornobyl Accident: Improved Estimates of the Thyroid Doses to the Cohort Members , 2014, Health physics.
[14] S. Vakulovsky,et al. Database of meteorological and radiation measurements made in Belarus during the first three months following the Chernobyl accident. , 2013, Journal of environmental radioactivity.
[15] M. Tronko,et al. Estimating Thyroid Masses for Children, Infants, and Fetuses in Ukraine Exposed to 131I From the Chernobyl Accident , 2013, Health physics.
[16] A. Mowlavi,et al. Thyroid volume’s influence on energy deposition from 131I calculated by Monte Carlo (MC) simulation , 2011, Radiology and oncology.
[17] Jay H. Lubin,et al. I-131 Dose Response for Incident Thyroid Cancers in Ukraine Related to the Chornobyl Accident , 2011, Environmental health perspectives.
[18] V. V. Markov,et al. A cohort study of thyroid cancer and other thyroid diseases after the chornobyl accident: thyroid cancer in Ukraine detected during first screening. , 2006, Journal of the National Cancer Institute.
[19] A. Bouville,et al. Questionnaire- and Measurement-Based Individual Thyroid Doses in Ukraine Resulting from the Chornobyl Nuclear Reactor Accident , 2006, Radiation research.
[20] N. Talerko. Mesoscale modelling of radioactive contamination formation in Ukraine caused by the Chernobyl accident. , 2005, Journal of environmental radioactivity.
[21] K. Kopecky,et al. ESTIMATION OF THYROID RADIATION DOSES FOR THE HANFORD THYROID DISEASE STUDY: RESULTS AND IMPLICATIONS FOR STATISTICAL POWER OF THE EPIDEMIOLOGICAL ANALYSES , 2004, Health physics.
[22] L. Anspaugh,et al. INDIVIDUAL THYROID DOSE ESTIMATION FOR A CASE-CONTROL STUDY OF CHERNOBYL-RELATED THYROID CANCER AMONG CHILDREN OF BELARUS—PART I: 131I, SHORT-LIVED RADIOIODINES (132I, 133I, 135I), AND SHORT-LIVED RADIOTELLURIUMS (131MTe AND 132Te) , 2004, Health physics.
[23] M. Balonov,et al. Contributions of short-lived radioiodines to thyroid doses received by evacuees from the Chernobyl area estimated using early in vivo activity measurements. , 2003, Radiation protection dosimetry.
[24] L. Anspaugh,et al. CHERNOBYL ACCIDENT: RETROSPECTIVE AND PROSPECTIVE ESTIMATES OF EXTERNAL DOSE OF THE POPULATION OF UKRAINE , 2002, Health physics.
[25] Icrp. Age-dependent doses to members of the public from intake of radionuclides: Part 4 Inhalation dose coefficients , 1995, Annals of the ICRP.
[26] F. O. Hoffman,et al. The Two-Dimensional Monte Carlo: A New Methodologic Paradigm for Dose Reconstruction for Epidemiological Studies , 2015, Radiation research.
[27] N A Beresford,et al. Review of Russian language studies on radionuclide behaviour in agricultural animals: part 2. Transfer to milk. , 2007, Journal of environmental radioactivity.
[28] Nikolai Talerko,et al. Reconstruction of (131)I radioactive contamination in Ukraine caused by the Chernobyl accident using atmospheric transport modelling. , 2005, Journal of environmental radioactivity.