Soil and building material as main sources of indoor radon in Baita-Stei radon prone area (Romania)

被引:80
|
作者
Cosma, Constantin [1 ]
Cucos-Dinu, Alexandra [1 ]
Papp, Botond [1 ]
Begy, Robert [1 ]
Sainz, Carlos [1 ,2 ]
机构
[1] Univ Babes Bolyai, Fac Environm Sci & Engn, RO-400294 Cluj Napoca, Romania
[2] Univ Cantabria, Fac Med, Dept Med Phys, ES-39011 Santander, Spain
关键词
Indoor radon; Soil radon; Soil permeability; Radon potential; Radon prone area; Radon risk; RISK-ASSESSMENT; EMANATION; DWELLINGS; URANIUM; TRANSYLVANIA; COEFFICIENT;
D O I
10.1016/j.jenvrad.2012.09.006
中图分类号
X [环境科学、安全科学];
学科分类号
08 ; 0830 ;
摘要
Radon contributes to over than 50% of the natural radiation dose received by people. In radon risk areas this contribution can be as high as 90-95%, leading to an exposure to natural radiation 5-10 times higher than normal. This work presents results from radon measurements (indoor, soil and exhalation from building materials) in Baita-Stei, a former uranium exploitation area in NW Romania. In this region, indoor radon concentrations found were as high as 5000 Bq m(-3) and soil radon levels ranged from 20 to 500 kBq m(-3). An important contribution from building materials to indoor radon was also observed. Our results indicate two independent sources of indoor radon in the surveyed houses of this region. One source is coming from the soil and regular building materials, and the second source being uranium waste and local radium reached material used in building construction. The soil as source of indoor radon shows high radon potential in 80% of the investigated area. Some local building materials reveal high radon exhalation rate (up to 80 mBq kg(-1) h(-1) from a sandy-gravel material, ten times higher than normal material). These measurements were used for the radon risk classification of this area by combining the radon potential of the soil with the additional component from building materials. Our results indicate that Baita-Stei area can be categorized as a radon prone area. Crown Copyright (C) 2012 Published by Elsevier Ltd. All rights reserved.
引用
收藏
页码:174 / 179
页数:6
相关论文
共 31 条
  • [21] Quantifying indoor radon levels and determinants in schools: A case study in the radon-prone area Galicia-Norte de Portugal Euroregion
    Branco, Pedro T. B. S.
    Martin-Gisbert, Lucia
    Sa, Juliana P.
    Ruano-Ravina, Alberto
    Barros-Dios, Juan
    Varela-Lema, Leonor
    Sousa, Sofia I. V.
    SCIENCE OF THE TOTAL ENVIRONMENT, 2023, 882
  • [22] Radon Risk Assessment and Correlation Study of Indoor Radon, Radium-226, and Radon in Soil at the Cobalt-Nickel Bearing Area of Lomie, Eastern Cameroon
    Souffit, Gondji Dieu
    Valdes, Monempimb Jacob
    Modibo, Oumar Bobbo
    Flore, Tchuente Siaka Yvette
    Felix, Beyala Ateba Jean
    Saidou
    Tokonami, Shinji
    WATER AIR AND SOIL POLLUTION, 2022, 233 (06):
  • [23] Characterization of radon levels in soil and groundwater in the North Maladeta Fault area (Central Pyrenees) and their effects on indoor radon concentration in a thermal spa
    Moreno, V.
    Bach, J.
    Zarroca, M.
    Font, Ll.
    Roque, C.
    Linares, R.
    JOURNAL OF ENVIRONMENTAL RADIOACTIVITY, 2018, 189 : 1 - 13
  • [24] Using a scale model room to assess the contribution of building material of volcanic origin to indoor radon
    Lucchetti, Carlo
    Castelluccio, Mauro
    Altamore, Matteo
    Briganti, Alessandra
    Galli, Gianfranco
    Soligo, Michele
    Tuccimei, Paola
    Voltaggio, Mario
    NUKLEONIKA, 2020, 65 (02) : 71 - 76
  • [25] Indoor Radon Monitoring in Building Types of a Periurban Area in Cape Coast Metropolis, Southern Ghana
    Hood, Christiana Odumah
    Miyittah, Michael K.
    Odame-Ankrah, Charles A.
    Abaidoo, Keren
    Tulasi, Delali
    Ampontuah, Ruth Serwaah
    Adotey, Dennis Kpakpo
    Opoku-Ntim, Irene
    INDOOR AIR, 2024, 2024
  • [26] Influences of meteorological parameters on indoor radon concentrations (222Rn) excluding the effects of forced ventilation and radon exhalation from soil and building materials
    Schubert, Michael
    Musolff, Andreas
    Weiss, Holger
    JOURNAL OF ENVIRONMENTAL RADIOACTIVITY, 2018, 192 : 81 - 85
  • [27] A model to predict radon exhalation from walls to indoor air based on the exhalation from building material samples
    Sahoo, B. K.
    Sapra, B. K.
    Gaware, J. J.
    Kanse, S. D.
    Mayya, Y. S.
    SCIENCE OF THE TOTAL ENVIRONMENT, 2011, 409 (13) : 2635 - 2641
  • [28] Study of correlation between radon (222Rn) gas in soil and indoor radon with dose assessment in the bauxite bearing area of Fongo-Tongo, Western Cameroon
    Djeufack, Leonard Boris
    Kendjou, Laurelle Tsafack
    Bineng, Guillaume Samuel
    Modibo, Oumar Bobbo
    Abba, Hamadou Yerima
    Saidou
    Zhukovsky, Mikhail
    INTERNATIONAL JOURNAL OF ENVIRONMENTAL ANALYTICAL CHEMISTRY, 2024, 104 (18) : 6805 - 6825
  • [30] BASEMENT STRUCTURE AND BARRIERS BETWEEN THE FLOORS AS MAIN BUILDING CHARACTERISTICS AFFECTING THE INDOOR RADON LEVEL OF DWELLINGS IN THE SWISS ALPINE AREAS
    CRAMERI, R
    FURRER, D
    BURKART, W
    ENVIRONMENT INTERNATIONAL, 1991, 17 (04) : 337 - 341