Measuring radon in soil gas and groundwaters: a review
Date Issued
August 2007
Issue/vol(year)
4/50 (2007)
Language
English
Abstract
Instruments for the measurements of radon and its decay products in earthquake research are based mostly on
the detection of alpha particles. The devices and methods used depend on whether the techniques measure radon
or radon decay products, and the duration of the measurements, of which there are three types: i) grab or instantaneous,
ii) integrating and iii) continuous. Other criteria used in the design of these instruments are field measurements
applicability, portability, convenience and reliability. With the recent increased demand for radon and
radon decay products measurements, instruments development has focused on the design of appropriate devices
for short-term measurements, as well as on more complex and sophisticated instruments for long-term measurements
used in radon research for geophysical, geochemical and hydrological studies.
the detection of alpha particles. The devices and methods used depend on whether the techniques measure radon
or radon decay products, and the duration of the measurements, of which there are three types: i) grab or instantaneous,
ii) integrating and iii) continuous. Other criteria used in the design of these instruments are field measurements
applicability, portability, convenience and reliability. With the recent increased demand for radon and
radon decay products measurements, instruments development has focused on the design of appropriate devices
for short-term measurements, as well as on more complex and sophisticated instruments for long-term measurements
used in radon research for geophysical, geochemical and hydrological studies.
References
ABBAD, S., M.C. ROBE, M. BERNAT and V. LABED (1995):
Influence of meteorological and geological parameter
variables on the concentration of radon in soil gases:
Application to seismic forecasting in the Provence-
Alpes-Côte d’Azur Region, Environ. Geochem. Health,
16S, 35-48.
ALTER, H.W. and R.E. FLEISCHER (1981): An overview of
instrumentantion for measuring environmental radon
and radon progeny, IEEE Trans. Nuclear Sci., 37, 892-
901.
KOTRAPPA, P., T. BRUBAKER, J.C. DEMPSEY and L.R. STIEFF
(1992): Electret ion chamber system for measurement
of environmental radon and environmental gamma radiation,
Radiat. Prot. Dosim., 45, 107-110.
PANE, M.B., J.L. SEIDEL, M. MONNIN and J.P. MORIN
(1995): Radon as a tracer of fluid motion in fractured
aquifers, Environ. Chem. Health, 16S, 325-334.
PAPASTEFANOU, C., M. MANOLOPOULOU, S. STOULOS, A.
IOANNIDOU and E. GERASOPOULOS (2001): Radon measurements
along active faults in the Langadas Basin,
Northern Greece, Nat. Hazards Earth Syst. Sci., 1, 159-
164.
PINAULT, J.-L. and J.-C. BAUBRON (1996): Signal processing
of soil gas radon, atmospheric pressure, moisture and
soil temperature data: a new approach for radon concentration
modelling, J. Geophys. Res., 101 (B2), 3157-
3171.
STREIL, T., G. JUST, G. HOLFELD, V. OESER and K. SCHOENEFELD
(1997a): SARAD RM 2000 Tn: a new microsystem
based monitoring system for the measurement of
radon and thoron in soil gas and water, in Proceedings
of the 3rd International Conference on Rare Gas Geochemistry,
10-14 December 1995, Amritsar (India),
357-363.
STREIL, T., J. HEINECKE, U. KOCH, V. OESER and J. WIEGAND
(1997b): EPOS 1-A multiparameter measuring system
for earthquake prediction research, in IVth International
Conference on Rare Gas Geochemistry, 8-10 October
1997, Rome (Italy).
TRIQUE, M., P. RICHON, F. PERRIER, J.P. AVOUAC and J.C.
SABROUX (1991): Radon emanation and electric potential
variations associated with transient deformation
near reservoir lakes, Nature, 399, 137-141.
WAKITA, H., Y. NAKAMURA and Y. SANO (1998): Short-term
and intermediate-term geochemical precursonrs, Pure
Appl. Geophys., 126, 267-278.
Influence of meteorological and geological parameter
variables on the concentration of radon in soil gases:
Application to seismic forecasting in the Provence-
Alpes-Côte d’Azur Region, Environ. Geochem. Health,
16S, 35-48.
ALTER, H.W. and R.E. FLEISCHER (1981): An overview of
instrumentantion for measuring environmental radon
and radon progeny, IEEE Trans. Nuclear Sci., 37, 892-
901.
KOTRAPPA, P., T. BRUBAKER, J.C. DEMPSEY and L.R. STIEFF
(1992): Electret ion chamber system for measurement
of environmental radon and environmental gamma radiation,
Radiat. Prot. Dosim., 45, 107-110.
PANE, M.B., J.L. SEIDEL, M. MONNIN and J.P. MORIN
(1995): Radon as a tracer of fluid motion in fractured
aquifers, Environ. Chem. Health, 16S, 325-334.
PAPASTEFANOU, C., M. MANOLOPOULOU, S. STOULOS, A.
IOANNIDOU and E. GERASOPOULOS (2001): Radon measurements
along active faults in the Langadas Basin,
Northern Greece, Nat. Hazards Earth Syst. Sci., 1, 159-
164.
PINAULT, J.-L. and J.-C. BAUBRON (1996): Signal processing
of soil gas radon, atmospheric pressure, moisture and
soil temperature data: a new approach for radon concentration
modelling, J. Geophys. Res., 101 (B2), 3157-
3171.
STREIL, T., G. JUST, G. HOLFELD, V. OESER and K. SCHOENEFELD
(1997a): SARAD RM 2000 Tn: a new microsystem
based monitoring system for the measurement of
radon and thoron in soil gas and water, in Proceedings
of the 3rd International Conference on Rare Gas Geochemistry,
10-14 December 1995, Amritsar (India),
357-363.
STREIL, T., J. HEINECKE, U. KOCH, V. OESER and J. WIEGAND
(1997b): EPOS 1-A multiparameter measuring system
for earthquake prediction research, in IVth International
Conference on Rare Gas Geochemistry, 8-10 October
1997, Rome (Italy).
TRIQUE, M., P. RICHON, F. PERRIER, J.P. AVOUAC and J.C.
SABROUX (1991): Radon emanation and electric potential
variations associated with transient deformation
near reservoir lakes, Nature, 399, 137-141.
WAKITA, H., Y. NAKAMURA and Y. SANO (1998): Short-term
and intermediate-term geochemical precursonrs, Pure
Appl. Geophys., 126, 267-278.
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