Radiological assessment of the ribble estuary—I. Distribution of radionuclides in surface sediments
References (28)
- et al.
Tracking particle-associated processes in nearshore environments by use of disequilibrium
Earth Planet. Sci. Letts
(1980) - et al.
Tidal variations in soluble and particulate phase radionuclide activities in the Esk Estuary, England and their distribution coefficients and particulate activity fractions
J. Environ. Radioactivity
(1985) - et al.
Neptunium in intertidal coastal and estuarine sediments in the Irish Sea
J. Environ. Radioactivity
(1991) - et al.
Plutonium in inter-tidal coastal and estuarine sediments in the northern Irish Sea
Estuarine, Coastal Shelf Sci.
(1985) - et al.
The decay of the 1.14 minute isomer of 234Pa (UX2)
Nucl. Phys.
(1963) - et al.
Cycling of fallout and natural radionuclides in Washington continental slope sediments
Geochim. Cosmochim. Acta
(1987) - et al.
Mixing and cycling of uranium, thorium and 210Pb in Puget Sound sediments
Geochim. Cosmochim. Acta
(1984) - et al.
Scavenging of 234Th in the eastern Irish Sea
J. Environ. Radioactivity
(1988) - et al.
An estimation of sedimentation-rates along the Ribble Estuary, Lancashire, UK, based on radiocesium profiles preserved in intertidal sediments
Environ. Int.
(1995) - et al.
Background radioactivity in environmental materials
J. Environ. Radioactivity
(1989)
Amazon and Mississippi River concentrations of uranium, thorium and radium isotopes
Earth Planet. Sci. Letts
Radiological assessment of the Ribble Estuary—III. Redistribution of radionuclides
J. Environ. Radioactivity
Radiological assessment of the Ribble Estuary—II. Beta- and gamma dose rates and doses to critical groups
J. Environ. Radioactivity
The geochemistry of artificial radioisotopes in the Irish Sea
Cited by (15)
Estimating sediment and caesium-137 fluxes in the Ribble Estuary through time-series airborne remote sensing
2011, Journal of Environmental RadioactivityCitation Excerpt :Knowledge of the potential quantity and fate of fine grained sediments within an estuarine environment is important in the understanding of the fate of sediment and particle reactive pollutants discharged into the marine environment (Rainey et al., 2003). Within the Ribble Estuary, much scientific attention has been given to the anthropogenic radionuclides discharged under license by Westinghouse Sellafield (MacKenzie et al., 1997; Brown et al., 1999; Tyler, 1999; Tyler et al., 2004) and Springfields Fuels Ltd (Assinder et al., 1997; Mudge et al., 1997a,b). Consequently, hydrodynamic models of the Ribble Estuary have been produced to replicate the fate and movement of the particulate-bound contaminants (Burton et al., 1995; Lyons, 1997; Gleizon, 1999; Gleizon et al., 2003).
An introduction to the application and future use of <sup>234</sup>Th in aquatic systems
2006, Marine ChemistryLong-term flux of Chernobyl-derived <sup>137</sup>Cs from soil to French rivers: A study on sediment and biological indicators
2003, Journal of Environmental RadioactivityRadiological assessment of the Ribble Estuary - II. Beta and gamma dose rates and doses to critical groups
1997, Journal of Environmental RadioactivityRadiological assessment of the Ribble Estuary - III. redistribution of radionuclides
1997, Journal of Environmental Radioactivity