Suitability of temperature, hydraulic heads, and acesulfame to quantify wastewater-related fluxes in the hyporheic and riparian zone

Water Resources Research

Volumn 49, Issue 1, 2013, Pages 426-440

  Engelhardt, Irina ^a,b   Prommer, Henning ^c,d,e   Moore, Catherine ^c   Schulz, Manoj ^f   Schüth, Christoph ^a   Ternes, Thomas A ^f  

^a DARMSTADT UNIVERSITY OF TECHNOLOGY   (Germany)

^b FORSCHUNGSZENTRUM JÜLICH   (Germany)

^c CSIRO   (Australia)

^d UNIVERSITY OF WESTERN AUSTRALIA   (Australia)

^e FLINDERS UNIVERSITY   (Australia)

^f FEDERAL INSTITUTE OF HYDROLOGY   (Germany)

Author keywords

[No Author keywords available]

Indexed keywords

ARTIFICIAL SWEETENERS; CHEMICAL BEHAVIOR; DIURNAL TEMPERATURES; FIELD EXPERIMENT; FLOW AND TRANSPORT; GROUNDWATER SYSTEM; MICROPOLLUTANTS; MODEL-BASED ANALYSIS;

GROUNDWATER; SEWAGE; STREAM FLOW; SUGAR SUBSTITUTES;

SURFACE WATERS;

BIODEGRADATION; CONCENTRATION (COMPOSITION); DIURNAL VARIATION; ENVIRONMENTAL FATE; EXPERIMENTAL STUDY; FLOW MODELING; GROUNDWATER-SURFACE WATER INTERACTION; HYDRAULIC HEAD; HYDROLOGICAL CYCLE; HYPORHEIC ZONE; INFILTRATION; INVERSE ANALYSIS; POLLUTANT TRANSPORT; RIPARIAN ZONE; TEMPERATURE PROFILE; TRACER; WASTEWATER;

GERMANY;

EID: 84876585594     PISSN: 00431397     EISSN: 19447973     Source Type: Journal    
DOI: 10.1029/2012WR012604     Document Type: Article

References (59)

1. Anderson, M. P. (2005), Heat as a groundwater tracer, Ground Water, 43(6), 951-968.
2. Angermann, L., J. Lewandowski, J. H. Fleckenstein, and G. Nutzmann (2012), A 3D analysis algorithm to improve interpretation of heat pulse sensor results for the determination of small-scale flow directions and velocities in the hyporheic zone, J. Hydrol., 475, 1-11.
3. Anibas, C, J. H. Fleckenstein, N. Volze, K. Buis, R. Verhoeven, P. Meire, and O. Batelaan (2009), Transient or steady-state? Using vertical temperature profiles to quantify groundwater-surface water exchange, Hydrol. Process., 23(15), 2165-2177.
4. Appelo, C. A. J., and D. Postma (2005), Geochemistry, Groundwater and Pollution, A. A. Balkema, Leiden, Netherlands.
5. Berthold, G., and M. Hergesell (2005), Flachendifferenzierte Untersuchungen zu möglichen Auswirkungen einer Klimaanderung auf die Grundwasser-neubildung in Hessen. INKLIM 2012-Integriertes Klimaschutzprogramm, Abschlussbericht Hessisches Landesamt fur Umwelt und Geologie, Wiesbaden.
6. Beyer, W. (1964), Zur Bestimmung der Wasserdurchlassigkeit von Kiesen und Sanden aus der Kornverteilung, Wasserwirt. Wassertech., 14, 165-169, Berlin-Ost.
7. Brookfield, A. E., E. A. Sudicky, Y.-J. Park, and B. Conant Jr. (2009), Thermal transport modelling in a fully integrated surface/subsurface framework, Hydrol. Process., 23, 2150-2164.
8. Buerge, I. J., H. R. Buser, M. Kahle, M. D. Muller, and T. Poiger (2009), Ubiquitous occurrence of the artificial sweetener acesulfame in the aquatic environment: An ideal chemical marker of domestic wastewater in groundwater, Environ. Sci. Technol., 43(12), 4381-4385.
9. Christensen, J. H., et al. (Eds.) (2007), Climate Change 2007: The Physical Science Basis. Contribution of Working Group I to the Fourth Assessment Report of the Intergovernmental Panel on Climate Change, Cambridge Univ. Press, Cambridge, U. K.
10. Conant, B. (2004), Delineating and quantifying ground water discharge zones using streambed temperatures, Ground Water, 42(2), 243-257.
11. Daughton, C. G., and T. A. Ternes (1999), Pharmaceuticals and personal care products in the environment: Agents of subtle change, Environ. Health Perspect., 107(6), 907-938. (Pubitemid 30068192)
12. Dausman, A. M., J. Doherty, C. D. Langevin, and M. C. Sukop (2010), Quantifying data worth toward reducing predictive uncertainty, Ground Water, 48(5), 729-740.
13. de Marsily, G. (1986), Quantitative Hydrogeology, Academic, San Diego, Calif.
14. Doherty, J. (2010), PEST-Model-Independent Parameter Estimation. User's Manual, 5th ed., Watermark Numer. Comput, Brisbane, Australia.
15. Domenico, P. A., and F. W. Schwartz (1990), Physical and Chemical Hydrogeology, Wiley, New York.
16. Engelhardt, I., M. Piepenbrink, N. Trauth, S. Stadler, C. Kludt, M. Schulz, C. Schuth, and T. Ternes (2011), Comparison of tracer methods to quantify hydrodynamic exchange within the hyporheic zone, J. Hydrol., 400, 255-266.
17. Goode, D. J. (1996), Direct simulation of groundwater age, Water Resour. Res., 32(2), 289-296. (Pubitemid 26309857)
18. Gregory, S. V., F. J. Swanson, W. A. Mc Kee, and K. W. Cummins (1991), An ecosystem perspective of riparian zones. Bioscience, 41, 540-551.
19. Harbaugh, A. W. (2005), MODFLOW-2005, the U.S. Geological Survey modular ground-water model-The Ground-Water Flow Process, U.S. Geol. Surv. Tech. Methods 6-A16. USGS Reports, Reston, Va., U.S.A.
20. Heberer, T., (1995), Identification and Quantification of Pesticide Residues and Environmental Contaminants in Ground and Surface Water Applying Capillary Gas Chromatography-Mass Spectrometry (in German), Wissenschaft & Technik, Berlin.
21. Heberer, T., (2002), Tracking pharmaceutical residues from municipal sewage to drinking water, J. Hydrol., 266, 175-189.
22. Hecht-Mendez, J., N. Molina-Giraldo, P. Blum, and P. Bayer (2010), Evaluating MT3DMS for heat transport simulation of closed geothermal systems, Ground Water, 48(5), 741-756.
23. Hill, M. C, (1992), A computer program (MODFLOWP) for estimating parameters of a transient, three-dimensional groundwater flow model using nonlinear regression, U.S. Geol. Surv. Open File Rep. 91-484.
24. Hill, M. C, and C. R. Tiedeman (2007), Effective Groundwater Model Calibration, With Analysis of Sensitivities, Predictions, and Uncertainty, Wiley & Sons, Inc., Hoboken, N. J.
25. Hill, M. C, R. L. Cooley, and D. W. Pollock (1998), A controlled experiment in ground water flow model calibration, Ground Water, 36(3), 520-535. (Pubitemid 28222946)
26. Hopmans, J. W., J. Simunek, and K. L. Bristow (2002), Indirect estimation of soil thermal properties and water flux using heat pulse probe measurements: Geometry and dispersion effects, Water Resour. Res., 38(1), 7-1-7-13.
27. Johansen, O. (1975), Thermal conductivity of soils, Ph.D. dissertation, Norw. Univ. of Sci. Technol., Trondheim (CRREL draft transl. 637, 1977).
28. Keery, J., A. Binley, N. Crook, and J. W. N. Smith (2007), Temporal and spatial variability of groundwater-surface water fluxes: Development and application of an analytical method using temperature time series, J. Hydrol., 336(1-2), 1-16. (Pubitemid 46367017)
29. Kummerer, K., and E. Helmers (2000), Hospital effluents as a source of gadolinium in the aquatic environment, Environ. Sci. Technol, 34, 573-577. (Pubitemid 30106229)
30. Kunnemeyer, J., L. Terborg, B. Meermann, C. Brauckmann, I. Möller, and A. Scheffer (2009), Speciation analysis of gadolinium chelates in hospital effluents and wastewater treatment plant sewage by a novel HILIC/ICP-MS method, Environ. Sci. Technol., 43, 2884-2890.
31. Langevin, C. D., A. M. Dausman, and M. C. Sukop (2009), Solute and heat transport model of the Henry and Hilleke laboratory experiment, Ground Water, 48(5), 757-770.
32. Levenspiel, O., (2002), The Chemical Reactor Omnibook, Oreg. State Univ. Book Stores, Corvallis, Oreg.
33. Lewandowski, J., A. Putschew, D. Schwesig, C. Neumann, and M. Radke, M. (2011), Fate of organic micropollutants in the hyporheic zone of a eutrophic lowland stream: Results of a preliminary field study, Sci Total Environ., 409, 1824-1835.
34. Lu, S., T. Ren, Y. Gong, and R. Horton (2007), An improved model for predicting soil thermal conductivity from water content at room temperature, Soil Sci. Soc. Am. J., 71(1), 8-14. (Pubitemid 46203477)
35. Ma, R., and C. Zheng (2010), Effects of density and viscosity in modeling heat as a groundwater tracer, Ground Water, 48(3), 380-389.
36. Ma, R., C. Zheng, J. M. Zachara, and M. Tonkin (2012), Utility of bromide and heat tracers for aquifer characterization affected by highly transient flow conditions, Water Resour. Res., 48, W08523, doi:10.1029/2011WR011281.
37. Martinez-Santos, M., E. Ruiz-Romera, M. Martinez-Lopez, and I. Anti-guedad (2012), Influence of upwelling on the shallow water chemistry in a small wetland riparian zone, Appl. Geochem., 24(4), 854-865.
38. Moore, C, and D. Doherty (2005), Role of the calibration process in reducing model predictive error, Water Resour. Res., 41(5), W05020, doi: 10.1029/2004WR003501. (Pubitemid 40856470)
39. Neal, C, R. J. Williams, M. J. Bowes, M. C. Harrass, M. Neal, and P. Rowland (2010), Decreasing boron concentrations in UK rivers: Insights into reductions in detergent formulations since the 1990s and within-catchment storage issues, Sci. Total Environ., 408, 1374-1385.
40. Puckett, L. J., and W. B. Hughes (2005), Transport and fate of nitrate and pesticides: Hydrogeology and riparian zone processes, J. Environ. Qual., 34, 2278-2292. (Pubitemid 41688776)
41. Reddersen, K., T. Heberer, and U. Dunnbier (2002), Identification and significance of phenazone drugs and their metabolites in ground and drinking water, Chemosphere, 49, 539-544.
42. Scheurer, M., H.-J. Brauch, and F. T. Lange (2009), Analysis and occurrence of seven artificial sweeteners in German waste water and in soil aquifer treatment (SAT), Anal. Bioanal. Chem., 394(6), 1585-1594.
43. Schmidt, C, M. Bayer-Raich, and M. Schirmer (2006), Characterization of spatial heterogeneity of groundwater-stream water interactions using multiple depth streambed temperature measurements at the reach scale, Hydrol. Earth Syst. Sci, 10, 849-859.
44. Shook, G. M. (2001), Predicting thermal breakthrough in heterogeneous media from tracer tests, Geothermics, 30(6), 573-589. (Pubitemid 33098853)
45. Stonedahl, S. H., J. W. Harvey, A. Wörman, M. Salehin, and A. I. Packman (2010), A multiscale model for integrating hyporheic exchange from ripples to meanders, Water Resour. Res., 46, W12539, doi: 10.1029/2009WR008865.
46. Stonestrom, D. A., and J. Constantz (2003), Heat as a tool for studying the movement of groundwater near streams, U.S. Geol. Surv. Circ. 1260, Reston, Va.
47. Tangiguchi, M. (1994), Estimated recharge rates from groundwater temperatures in the Nara basin, Japan, Appl. Hydrogeol., 4, 7-13.
48. Ternes, T. A. (1998), Occurrence of drugs in German sewage treatment plants and rivers, Water Res., 32, 3245-3260. (Pubitemid 28473035)
49. Therrien, R., R. G. McLaren, E. A. Sudicky, and S. M. Panday (2010), HydroGeoSphere. A Three-dimensional Numerical Model Describing Fully-Integrated Subsurface and Surface Flow and Solute Transport, Groundwater Simul. Group, Univ. of Waterloo, Waterloo, Ont.
50. Thorne, D., C. D. Langevin, and M. C. Sukop (2006), Addition of simultaneous heat and solute transport and variable fluid viscosity to SEAWAT, Comput. Geosci., 32, 1758-1768. (Pubitemid 44283627)
51. Triska, F. J., V. C. Kennedy, R. J. Avanzino, G. W. Zellweger, and K. E. Bencala (1989), Retention and transport of nutrients in a third-order stream in northwestern California: Hyporheic processes, Ecology, 70(6), 1893-1905. (Pubitemid 20403034)
52. Vandenbohede, A., A. Louwyck, and L. Lebbe (2009), Conservative solute versus heat transport in porous media during push-pull tests, Transp. Porous Med., 76, 265-287.
53. Varni, M., and J. Carrera (1998), Simulation of groundwater age distributions, Water Resour. Res., 34(12), 3271-3281. (Pubitemid 29032946)
54. Verplanck, P. L., H. E. Taylor, K. D. Nordstrom, and L. Barber (2005), Aqueous stability of gadolinium in surface waters receiving sewage treatment plant effluent, Boulder Creek, Colorado, Environ. Sci. Tech-nol., 39, 6923-6929. (Pubitemid 41339050)
55. Ward, D. S., M. Reeves, and L. E. Duda (1984), Verification and field comparison of the Sandia Waste-Isolation Flow and Transport (SWIFT) model, NUREG/CR-3316, SAND83-1154, Sandia Natl. Lab., Albuquerque, N. M.
56. Winter, T. C., J. W. Harvey, O. L. Franke, and W. M. Alley (1998), Groundwater and surface water. A single resource, U.S. Geol. Surv. Circ. 1139, Denver, Colo.
57. Wolf, L., C. Zwiener, and M. Zemann (2012), Tracking artificial sweeteners and pharmaceuticals introduced into urban groundwater by leaking sewer networks, Sci. Total Environ., 430, 8-19.
58. Zheng, C. (2010), MT3DMS v5.3. Supplemental User's Guide, Tech. Rep., Army Eng. Res. Dev. Cent., Vicksburg, Miss.
59. Zheng, C., and P. P. Wang (1999), MT3DMS: A modular three-dimensional multispecies model for simulation of advection, dispersion and chemical reactions of contaminants in groundwater systems-Documentation and user's guide, Contract Rep. SERDP-99-1, U.S. Army Eng. Res. Dev. Cent., Vicksburg, Miss.