Dnieper State Academy of Construction and Architecture,
Chernyshevsky St.,24a, Dnepropetrovsk, Ukraine, 49600
e-mail: vuluanov@mail.ru
ORCID ID: 0000-0002-9028-3408

[1] Sedin V.L., Uluanov V., Bicus K.M. Shkala otsenki aktivnosti tektonicheskix razlomov zemnoj kory po intensivnosti radonovydeleniya iz nedr na ploshhadkah stroyashhihsya i dejstvuyushhih AES [Scale assessment of active tectonic faults of the crust
on the Intensity of radon exhalation from the depths
to the construction site and the existing energy facilities]. Georisk, 2015, №4, рр. 48–52. (in Russian)

[2] Rudakov V.P. K voprosu o prirode ehmanacionnykh (radonovykh) predvestnikov zemletrjasenijj [The nature of emanation (radon) earthquake precursors]. Geochemistry, 2003, №2, pp. 222–224. (in Russian)

[3] Gorbushina L.V., Ryaboshtan Y.S. Ehmanacionnyjj metod indikacii geodinamicheskikh processov pri inzhenerno-geologicheskikh izyskanijakh [Emanation method indication of geodynamic processes in geotechnical investigations]. Soviet Geology, 1975, №4, pp. 106–112. (in Russian)

[4] Dalatkazin Timur Sh., Konovalova Yulia P., Ruchkin Vladimir I. Monitoring polja radonovykh ehmanacijj v zone tekhnogennogo vozdejjstvija [Monitoring radon emanations field in the zone of technogenous impact]. Subsoil use problems, 2016, №4, pp. 97-103. (in Russian)

[5] Elokhin A.P. Netradicionnye metody radiacionnogo kontrolja radioaktivnogo zagrjaznenija okruzhajushhejj sredy [Unconventional methods for radiation monitoring of radioactive contamination of environment]. Nuclear measurement and information technology, 2013, №1(45), pp. 62–95. (in Russian)

[6] Metodicheskie ukazanija po vedeniju gidrogeodeformacionnogo monitoringa dlja celejj sejjsmoprognoza (R-STEPS) [Methodical instructions for conducting hydro-deformation monitoring for seismic forecasting purposes (R-STEPS)]. Ed. by G.S. Vartanyan. M. Pub. ZAO Geoinformmark, 2000, р. 77. (in Russian)

[7] Ocenka sejjsmicheskojj opasnosti uchastkov razmeshhenija jaderno- i radiacionno opasnykh objektov na osnovanii geodinamicheskikh dannykh [Estimation of seismic hazard of sites of location of nuclear and radiation hazardous objects on the basis of geodynamic data. RB-019-01]. M., 2001. (in Russian)

[8] CTO 95 102-2013. Vedenie ob"ektovogo monitoringa sostojanija nedr na predprijatijakh goskorporacii «ROSATOM» [STO 95 102-2013. Conducting object monitoring of the state of the subsoil at the enterprises of the state corporation ROSATOM]. M. Pub. SRO NP SOYUZATOMGEO, 2013. (in Russian)

[9] STO 95 103–2013 Rukovodstvo po metodike kompleksnogo inzhenerno-sejjsmometricheskogo i sejjsmologicheskogo monitoringa sostojanija konstrukcijj zdanijj i sooruzhenijj, vkljuchaja ploshhadki ikh razmeshhenija [STO 95 103-2013. Guidance on the method of complex engineering seismic and seismological monitoring of the state of structures of buildings and structures, including the sites of their deployment]. M. Pub. SRO NP SOYUZATOMGEO, 2013. (in Russian)

[10] MR 2.6.1.27-2003. Zona nabljudenija radiacionnogo ob"ekta. Organizacija i provedenie radiacionnogo kontrolja okruzhajushhejj sredy [MR 2.6.1.27-2003. Observation zone of the radiation object. Organization and conduct of radiation monitoring of the environment]. (in Russian)

[11] RD 52.18.595-96. Federal'nyjj perechen' metodik vypolnenija izmerenijj, dopushhennykh k primeneniju pri vypolnenii rabot v oblasti monitoringa zagrjaznenija okruzhajushhejj prirodnojj sredy [Tekst]. Metodika kontrolja soderzhanija tritija v prirodnykh voda MVI 01—6/96 [RD 52.18.595-96. The federal list of measurement techniques approved for use in the field of monitoring of environmental pollution. Methods for controlling the content of tritium in natural water MVI 01-6/96]. M., 1998. (in Russian)

[12] Rekomendacii po pribornomu obespecheniju dozimetricheskogo i radiometricheskogo kontrolja v sootvetstvii s NRB-99 i OSPORB-99 [Recommendations on the instrumentation of dosimetric and radiometric control in accordance with NRB-99 and OSPORB-99]. M., 2003. (in Russian)

[13] Karimi H., Moore F. The source and heating mechanism for the Ahram, Mirahmad and Garu thermal springs, Zagros Mountains, Iran. Geothermics 37(2008), рp. 84–100. (in English)

[14] Mirhosseini S.M., Moattar F., Negarestani A., Karbasi A.R. Environmental Hydrochemistry and Seasonal Variations in Radon Concentration in Geno Hot Spring, North of Hormozgan, Iran. Environmental Biology: Jan. 2014, Vol. 8, Issue 1, p. 56. (in English)

[15] Javad Nouraliee, Soheil Porkhial, Amir Tamjidi. Study on Dālaki Geothermal Resource in Bushehr Province, in the North of Persian Gulf. World Geothermal Congress. Melbourne, Australia, 19–25 April 2015. (in English)

[16] Zakirov T.Z. Osobennosti raspredelenija koncentracii radona v podzemnykh vodakh nekotorykh sejjsmoaktivnykh zon Uzbekistana (v svjazi s poiskami predvestnikov zemletrjasenijj) [Features of distribution of radon concentration in groundwater of some seismically active zones of Uzbekistan (in connection with searches of precursors of earthquakes)]. Tashkent, 1984, p. 18. (in Russian)

[17] Makhsudov A.U. Monitoring sejjsmicheskikh predvestnikov dlja prognoza zemletrjasenijj [Monitoring of seismic harbingers for the forecast of earthquakes]. Vychislitelnye nanotekhnologii [Jour. Comp. nanotechnol], 2016, Issue 1, pp. 52–61. (in Russian)
[18] Seminsky K.Zh., Seminsky А.К. Radon v podzemnykh vodakh Pribajjkal'ja i Zabajjkal'ja: prostranstvenno-vremennye variacii [Radon in groundwaters in the Baikal region and Transbaikalia: variations in space and time]. Geodynamics & Tectonophysics, 2016, Vol. 7, №3, рр. 477–493. (in Russian)

[19] Afonin A.A., Kuzmin Y.D., Voropaev V.F., Maksimov A.A., Kotlyarov A.A. Izmerenie radona na gidrotermal'nojj sisteme [The measuring of radon by hydrothermal systems].
Kompleksnye sejjsmologicheskie i geofizicheskie issledovanija Kamchatki [Compilation "Complex seismological and geophysical research of Kamchatka"]. Petropavlovsk-Kamchatsky, 2004, pр. 171–177. (in Russian)

[20] Ishankuliev J., Saryeva G.Ch., Azimov K.P., Azimova N.K. Dinamika urovnja podzemnykh vod, koncentracii podpochvennogo radona i molekuljarnogo vodoroda v prikaspijjskom sejjsmoaktivnom regione [Dynamics of groundwater level, concentration of subsoil radon and molecular hydrogen in the Caspian seismically active region]. Sb. dokl. mezhd. konf. «Aktual'nye problemy sovremennojj sejjsmologii», posvjashhennojj 50-letiju Instituta sejjsmologii im. G.A.Mavljanova AN Resp. Uzbekistan 12–14 oktjabrja 2016 g. [Collection of Reports the International Conference "Actual Problems in Modern Seismology" devoted to the 50th anniversary of G.A. Mavlyanov Institute of Seismology of Academy of Sciences of Republic Uzbekistan 12-14 oct. 2016]. Tashkent, 2016, pp. 234–241. (in Russian)

[21] Ulyanov V.Yu. Organizacija i metodika provedenija monitoringa radona na ploshhadkakh AEhS v asejjsmichnykh regionakh [Organization and methodology of radon monitoring at NPP sites with aseismic regions]. Problemy nedropol'zovanija [Problems of subsoil use], 2015, №1, рр. 103–107. (in Russian)

[22] Negarestani Ali, Hashemi Seyed Mehdi, Naseri Farzin, Namvaran Mojtaba, Musavi Nasab Seyed Mohammad, Montazeri Habiballan. Preliminary Investidation of the variation of radon concentration in the Jowshan hot spring in the SE of Iran as a precursor for the M 4.9 Shahdad and M 4.3 Sirch earthquakes om May, 2009. Iranian Journal of Geophysics, 2012, Volume 6, pp. 30–39. (in English)

[23] Мontazeri H., Abbasnejad A., Negarestani A. Continuous radon monitoring in the Jowshan hot spring as an earthquake precursor, SE Iran. Geochemical Journal, Vol. 45, 2011, pp. 463–472. (in English)

[24] Negarestani A., Namvaran M., Shahpasandzadeh M., Fatemi S.J., Alavi S.A., Hashemi S.M., Mokhtari M. Design and investigation of a continuous radon monitoring network for earthquake precursory process in Great Tehran. Journal of Radioanalytical and Nuclear Chemistry, May 2014, Vol. 300, Issue 2, pp. 757–767. (in English)

[25] IAEA-TECDOC-1092/R. Rukovodstvo po monitoringu pri jadernykh i radiacionnykh avarijakh [IAEA-TECDOC-1092/R. Guidelines for monitoring nuclear and radiation accidents]. Vienna: MAGATE [IAEA], 2002, р. 322. (in Russian)