Quantifying groundwater discharge to Cockburn River, southeastern Australia, using dissolved gas tracers 222Rn and SF6

Water Resources Research

Volumn 42, Issue 10, 2006, Pages

  Cook, P G ^a   Lamontagne, S ^a   Berhane, D ^b   Clark, J F ^c  

^a CSIRO   (Australia)

^b NSW Department of Natural Resources   (Australia)

^c UNIVERSITY OF CALIFORNIA   (United States)

Author keywords

[No Author keywords available]

Indexed keywords

COMPUTER SIMULATION; DISCHARGE (FLUID MECHANICS); FLOW MEASUREMENT; GROUNDWATER; HYDRAULIC MODELS; RIVERS;

GROUNDWATER DISCHARGE; GROUNDWATER INFLOW; HYPORHEIC ZONE;

GROUNDWATER FLOW;

COMPUTER SIMULATION; DISCHARGE (FLUID MECHANICS); FLOW MEASUREMENT; GROUNDWATER; GROUNDWATER FLOW; HYDRAULIC MODELS; RIVERS;

DISCHARGE; DISSOLVED GAS; ESTIMATION METHOD; FLOW MODELING; GROUNDWATER-SURFACE WATER INTERACTION; HYPORHEIC ZONE; RADON ISOTOPE; SULFUR COMPOUND; TRACER;

AUSTRALASIA; AUSTRALIA; COCKBURN RIVER; NEW SOUTH WALES;

EID: 33845268277     PISSN: 00431397     EISSN: None     Source Type: Journal    
DOI: 10.1029/2006WR004921     Document Type: Article

References (26)

1. Bencala, K. E., and R. A. Walters (1983), Simulation of solute transport in a mountain pool-and-riffle stream: A transient storage model, Water Resour. Res., 19(3), 718-724.
2. Boulton, A. J. (1993), Stream ecology and surface - Hyporheic hydrologic exchange: Implications, techniques and limitations, Aust. J. Mar. Freshwater Res., 44, 553-564.
3. Choi, J., J. W. Harvey, and M. H. Conklin (2000), Characterizing multiple timescales of stream and storage zone interaction that affect solute fate and transport in streams, Water Resour. Res., 36(6), 1511-1518.
4. Clark, J. F., R. Wanninkhof, P. Schlosser, and H. J. Simpson (1994), Gas exchange rates in the tidal Hudson River using a dual tracer technique, Tellus, Ser. B, 46, 274-285.
5. Clark, J. F., G. B. Hudson, M. L. Davisson, G. Woodside, and R. Herndon (2004), Geochemical imaging of flow near an artificial recharge facility, Orange County, CA, Ground Water, 42, 167-174.
6. Cook, P. G., A. J. Love, and J. C. Dighton (1999), Inferring ground water flow in fractured rock from dissolved radon, Ground Water, 37, 606-610.
7. Cook, P. G., G. Favreau, J. C. Dighton, and S. Tickell (2003), Determining natural groundwater influx to a tropical river using radon, chlorofluorocarbons and ionic environmental tracers, J. Hydrol., 277, 74-88.
8. Corbett, D. R., W. C. Burnett, P. H. Cable, and S. B. Clark (1998), A multiple approach to the determination of radon fluxes from sediments, J. Radioanal. Nucl. Chem., 236(1-2), 247-252.
9. 222Rn to examine groundwater/surface discharge interaction in the Rio Grande De Manati, Puerto Rico, J. Hydrol., 115, 319-341.
10. Genereux, D. P., and H. F. Hemond (1992), Determination of gas exchange rate constants for a small stream on Walker Branch Watershed, Tennessee, Water Resour. Res., 29(9), 2365-2374.
11. Genereux, D. P., H. F. Hemond, and P. J. Mulholland (1993), Use of radon-222 and calcium as tracers in three-end-member mixing model for streamflow generation on the west fork of Walker Branch Watershed, J. Hydrol., 142, 167-211.
12. 222Rn distribution and transport across the sediment-water interface in the Hudson River estuary, J. Geophys. Res., 82, 3913-3920.
13. Harvey, J. W., and B. J. Wagner (2000), Quantifying hydrologic interactions between streams and their subsurface hyporheic zones, in Streams and Ground Waters, edited by J. B. Jones and P. J. Mulholland, pp. 3-44, Elsevier, New York.
14. Herczeg, A. L., J. C. Dighton, M. L. Easterbrook, and E. Salomons (1994), Radon-222 and Ra-226 measurements in Australian groundwaters using liquid scintillation counting, in Proceeding of Workshop on Radon and Radon Progeny Measurements in Environmental Samples, edited by R. A. Akber and F. Harris, pp. 53-57, Off. of the Supervis. Sci., Canberra.
15. 226Ra to trace groundwater discharge into the Chesapeake Bay, Mar. Chem., 65, 127-134.
16. Lee, R. W., and E. F. Hollyday (1993), Use of radon measurements in Carters Creek, Maury County, Tennessee, to determine location and magnitude of ground-water seepage, in Field Studies of Radon in Rocks, Soils, and Water, edited by L. C. S. Gundersen and R. B. Wanty, pp. 237-242, C. K. Smoley, Boca Raton, Fla.
17. 6: Trends, sources, and prospects, Environ. Sci. Technol., 32, 3077-3086.
18. Martens, C. S., G. W. Kipphut, and J. V. Klump (1980), Sediment-water chemical exchange in the coastal zone traced by in situ radon-222 flux measurements, Science, 208, 285-288.
19. Morrice, J. A., H. M. Valett, C. N. Dahm, and M. E. Campana (1997), Alluvial characteristics, groundwater-surface water exchange and hydrological retention in headwater streams, Hydrol. Processes, 11, 253-267.
20. Mutz, M., and A. Rohde (2003), Processes of surface-subsurface water exchange in a low energy sand-bed stream, Int. Rev. Hydrobiol., 88(3-4), 290-303.
21. Raymond, P. A., and J. J. Cole (2001), Gas exchange in rivers and estuaries: Choosing a gas transfer velocity, Estuaries, 24, 312-317.
22. Sanford, W. E., R. G. Shropshire, and D. K. Solomon (1996), Dissolved gas tracers in groundwater: Simplified injection, sampling, and analysis, Water Resour. Res., 32(6), 1635-1642.
23. Savant, S. A., D. D. Reible, and L. J. Thibodeaux (1987), Convective transport within stable river sediments, Water Resour. Res., 23(9), 1763-1768.
24. Thibodeaux, L. J., and J. D. Boyle (1987), Bedform-generated convective transport in bottom sediment, Nature, 325, 341-343.
25. Wanninkhof, R., P. J. Mulholland, and J. W. Elwood (1990), Gas exchange rates for a first-order stream determined with deliberate and natural tracers, Water Resour. Res., 26(7), 1621-1630.
26. Wörman, A., A. I. Packman, H. Johansson, and K. Jonsson (2002), Effect of flow-induced exchange in hyporheic zones on longitudinal transport of solutes in streams and rivers, Water Resour. Res., 38(1), 1001, doi:10.1029/2001WR000769.