Abstract
Geochemical heterogeneities may cause spatial variations in virus inactivation rates resulting from interactions with minerals leading to differences in natural disinfection capacity within an aquifer. Column studies investigating the interaction of the bacteriophage H40/1 with natural sands sampled from the Kappelen test site (Kappelen), Bern, Switzerland indicated that inactivation rates are higher for adsorbed bacteriophages than for those suspended in groundwater. Moreover, breakthrough curves obtained from field-based tracer tests at Kappelen indicated that the adsorbed H40/1 is inactivated in-situ at comparable rates. Statistical analyses of mineralogical data failed to demonstrate significant spatial variations in aquifer composition either across the site or with depth. In contrast hydrochemical analyses of groundwater samples collected at Kappelen demonstrated that iron-reducing groundwater occurs below aerobic waters. Tracer breakthrough curves indicate that H40/1 survival is not affected by variable redox conditions. Investigation results suggest that spatial geochemical variability does not significantly affect H40/1s inactivation rate at Kappelen.
Similar content being viewed by others
References
Ackerman HW, DuBow MS (1987) Virus of procaryotes, vol II. CRC Press, Boca Raton, Florida, 242 pp
Adatte T, Stinnesbeck W, Keller G (1996) Lithostratigraphic and mineralogic correlations of near K-T boundary clastic sediments in northeastern Mexico: implications for origin and nature of deposition. Geological Society of America, Special Paper 307, pp 211–226
Bales RC, Hinkle SR, Kroeger TW, Stocking K, Gerba CP (1991) Bacteriophage adsorbtion during transport through porous media: chemical preturbations and reversibility. Environ Sci Technol 25:2088–2095
Bales RC, Shimin L, Yeh J, Lenczewski M, Gerba CP (1997) Bacteriophage and microsphere transport in saturated porous media: forced gradient experiment at Borden, Ontario. Water Resour Res 33(4):639–648
Blanc R, Nasser A (1996) Effect of effluent quality and temperature on the persistence of viruses in soil. Water Sci Technol 33:237–242
Craun GF (1986) Statistics of waterborne disease outbreaks (1920–1980). In: Craun GF (ed) Water diseases in the United States. CRC Press, Boca Raton, 73 pp
Diomande AK (2000) A hydrogeological investigation of the Kappelen Aquifer in the Bernese Zeeland. Contributions from electrical tomography and the use of artificial tracers. MSc Thesis, Hydrogeology Center, University of Neuchatel, Switzerland (In French)
Disnar JR, Guillet B, Keravis D, Massif R, Di-Giovanni C (2003) Soil organic matter (SOM) characterization by Rock-eval pyrolysis: scope and limitations. Org Geochem 34 (in press)
Gerba CP (1984) Microbial pollutants: their survival and transport pattern to groundwater. In: Gerba CP and Bitton G (eds) Groundwater pollution microbiology. Wiley, New York
Gerba CP, Goyal SM, Cech I, Bogdan I (1981) Quantitative assessment of the adsorptive behaviour of viruses to soils. Environ Sci Technol 15:940–944
Grant SB, List EJ, Linsttom ME (1993) Kinetic analysis of virus adsorption and inactivation in batch experiments. Water Resour Res 29:2067–2085
Harvey RW and Garabedian S (1991) Use of colloid filtration theory in modeling movement of bacteria through a contaminated sandy aquifer. Environ Sci Technol 25(1):178–185
Harvey RW (1997) Microorganisms as tracers in groundwater injection and recovery experiments: a review. FEMS Microbiol Rev 20:461–472
Huggenberger P, Aiger T (1999) Introduction to the special issue on aquifer sedimentology: problems, perspectives and modern approaches. Sediment Geol 129:179–186
Hurst CJ, Gerba CP, Cech I (1980) Effects of environmental variables and soils characteristics on virus survival in soil. Appl Environ Microb 40:1067–1079
Kass W (1997) Tracing technique in geohydrology. Balkema, Rotterdam, 581 pp
Kennedy K (2001) Bacteriophage response characterisation in highly permeable porous media aquifers (Switzerland). PhD Thesis, University of Neuchatel, Switzerland
Kennedy K, Muller I, Schnegg P, Rossi P, Koezel R (2001) Characterisation of the Kappelen groundwater research site (BE), Switzerland, and preliminary bacteriophage and solute tracer component responses. Beitraege Zur Hydrogeologie 52(special issue for 8th international symposium on water tracing):158–180
Kleineidam S, Ruegner H, Grathwohl P (1999) Influence of petrographic composition/organic matter distribution of fluvial aquifer sediments on the sorption of hydrophobic contaminants. Sediment Geol 129:311–325
Loveland JP, Ryan JN, Amy GL, Harevy RW (1996) The reversibility of virus attachment to mineral surfaces. Colloids Surface A 107:205–221
Lukasic J, Cheng YF, Lu FH, Tamplin M, Farrah SR (1999) Removal of microorganisms from water by columns containing sand coated with ferric and aluminium hydroxides. Water Res 33(3):769–777
Macler B (1996) Developing the groundwater disinfection rule. J Am Water Works Ass 88:47–55
Macler B, Merkle JC (2000) Current knowledge on groundwater microbial pathogens and their control. Hydrogeol J 8:29–40
Noseda N (1999) Analytical modeling of uranine tracing tests in the unconfined aquifer at the CHYN experimental test site at Kappelen, (BE): an evaluation of sedimentological heterogeneity using multidirectional geophysical methods. MSc Thesis, University of Neuchatel, Switzerland (In French)
Oyono E (1996) Geophysical and hydraulic study of the hydrogeology of the Kappelen experimental site, (Bern, Switzerland). MSc Thesis, University of Neuchatel, Switzerland (In French)
Pedley S, Howard G (1997) The public health implications of microbiological contamination of groundwater. Q J Eng Geol Hydroge 30(2):179–188
Penrod SL, Olsen TM, Grant SB (1996) Deposition kinetics of two viruses in packed beds of quartz granular media. Langmuir 12:5576–5587
Ross S, Olivier JP (1964) On physical adsorption. Wiley, New York
Rossi P (1994) Advances in biological tracer techniques for hydrology and hydrogeology using bacteriophages. PhD Thesis, University of Neuchatel, Switzerland http://www.unine.ch/biblio/bc/theses_pdf/these_RossiP.pdf
Rossi P, Kass W (1997) Phages. In: Kass W (ed) Tracing technique in geohydrology. Balkema, Rotterdam, pp 244–271
Ryan JN, Elimelech M, Ard R, Harvey RW, Johnson PR (1999) Bacteriophage PRD1 and silica colloid transport and recovery in an iron oxide coated sand aquifer. Environ Sci Technol 33:63–73
Ryan JN, Harvey RW, Metge D, Elimelech M, Navigato T, Pieper AP (2002) Field and laboratory investigations of inactivation of viruses (PRD1 and MS2) attached to iron oxide-coated quartz sand. Environ Sci Technol 36:2403–2413
Schijven JF, Hoogenboezem W, Hassanizadeh S (1999) Modeling removal of bacteriophages MS-2 and PRD-1 by dune recharge at Castricum, Netherlands. Water Resour Res 35(4):1101–1111
Schijven JF, Hassanizadel SM (2000) Removal of viruses by soil passage: overview of modeling, processes and parameters. Crit Rev Env Sci Tech 30(1):49–127
Schijven JF, Hassanizadeh S, Dowd SE, Pillai SD (2000) Modeling virus adsorption in batch and column experiments. Quant Microb 2:5–20
Schnegg P, Bossy F (2001) Sonde for downhole measurement of water turbidity and dye tracer concentration. In: Seiler KP, Wohnlich S (eds) New approaches characterizing groundwater flow, vol 2. Swets and Zeitlinger Lisse, Munich, pp 795–799
Sobsey MD, Dean CH, Knuckles ME, Wagner RA (1980) Interactions and survival of enteric viruses in soil materials. Appl Environ Microb 40(1):92–101
Sobsey MD, Shields PA, Hauchman FH, Hazard RL, Caton L (1986) Survival and transport of hepatitis A virus in soils, groundwater and wastewater. Water Sci Technol 18:97–106
Stumm W, Morgan JJ (1996) Aquatic chemistry. Wiley, New York, 1022 pp
Tucker ME (1981) Sedimentary petrology: an introduction. Blackwell, Oxford, pp 252
United States Environmental Protection Agency (1992) The proposed groundwater disinfection rule. Federal Registrar 52. 33960, available notice
Wersin P, Abrecht J, Hoehner P (2002) Large-scale redox plume in glaciofluvial deposits due to sugar-factory wastes and wastewater at Aarberg, Switzerland. Hydrogeol J 9:282–296
Westwood JCN, Satter SA (1976) The minimal infective dose. In: Berg, Bodily Lenete Melnick and Metcalf (eds) Viruses in water. American Public Health Association, Washington, DC, pp 61–69
Yamagishi H, Ozeki H (1972) Comparative study of thermal inactivation of phages phi80 and lambda. Virology 48:316–322
Yates MV, Yates SR, Wagner J, Gerba CP (1987). Modeling virus survival and transport in the subsurface. J Contam Hydrol 1:329–345
Acknowledgements
This research was funded by the Swiss National Science Foundation (Grant Number: FN-20–061370.00). The Swiss Geological Survey and the Swiss Federal Office for Environment, Forestry and Land management provided additional financial assistance.
Author information
Authors and Affiliations
Corresponding author
Rights and permissions
About this article
Cite this article
Flynn, R., Hunkeler, D., Guerin, C. et al. Geochemical influences on H40/1 bacteriophage inactivation in glaciofluvial sands. Env Geol 45, 504–517 (2004). https://doi.org/10.1007/s00254-003-0905-z
Published:
Issue Date:
DOI: https://doi.org/10.1007/s00254-003-0905-z