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A review of analogues of alkaline alteration with regard to long-term barrier performance

Published online by Cambridge University Press:  05 July 2018

D. Savage
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Abstract

Cement and concrete will be used as fracture grouts, shotcrete, tunnel and borehole seals, and as matrices for waste encapsulation inter alia in geological repositories for radioactive wastes. Alteration of the host rock and/or swelling clay in waste package buffers and tunnel backfills by hyperalkaline solutions from cement/concrete may be deleterious to system performance through changes in the physicochemical properties of these barrier materials.

Analogue systems (and timescales) relevant to the understanding of the alkaline disturbed zone include: industrial analogues, such as alkaline flooding of hydrocarbon reservoirs (up to 30 y), cement-aggregate reactions (up to 100 y) and the Tournemire tunnel (up to 125 y); and natural analogues, including the hyperalkaline springs at Maqarin, Jordan (more than 100,000 y), saline, alkaline lakes (more than 1,000,000 y) and certain fracture fillings in granites (more than 1,000,000 y).

These systems show that alkaline alteration can be observed for thousands of years over distance scales of hundreds of metres under extreme conditions of hydraulic gradients in fractured rocks (Maqarin), but may be limited to a few centimetres over tens to a hundred years in mudstone (Tournemire). Important reaction mechanisms for retardation of alkaline fluids include: fluid mixing (alkaline oil floods, Maqarin), ion exchange (alkaline oil floods, Tournemire) and kinetic mineral dissolution-precipitation reactions (all systems studied). Qualitative and quantitative kinetic data for mineral reactions are available from cement aggregate reactions and the Searles Lake analogue, respectively. Short-term alteration observed in cement-aggregates is characterized by calcium silicate hydrate (C-S-H) minerals and incipient zeolite formation, whereas evidence from the Tournemire tunnel shows the growth of K-feldspar after relatively short time intervals (tens to a hundred years). There is a tendency for alkaline alteration to result in porosity decreases, but locally, porosity may be enhanced (e.g. near-injection well interactions in alkaline oil floods, or at fracture margins at Maqarin, Jordan). Data from industrial and natural analogues may thus supply some key data for bridging time and space scales between laboratory and in situ experiments on one hand and the requirements for safety assessment on the other.

Keywords

analogue systemswaste encapsulationalkaline alterationbarrier performancehydraulic gradientsMaqarinJordanTournemireFrance
Type
Research Article
Information
Mineralogical Magazine , Volume 75 , Issue 4 , August 2011 , pp. 2401 - 2418
Copyright
Copyright © The Mineralogical Society of Great Britain and Ireland 2011

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References

Alexander, R. (1992) A natural analogue study of the Maqarin hyperalkaline groundwaters. I: Source term description and thermodynamic database testing. Nagra Technical Report NTB 91-10, Nagra, Wettingen, Switzerland.Google Scholar
Alexander, W.R. and Mazurek, M. (1995) The Maqarin natural analogue: possible implications for the performance of a cementitious repository at Wellenberg. Nagra Unpublished Internal Report, Nagra, Wettingen, Switzerland.Google Scholar
Baker, A.J., Bateman, K., Hyslop, E.K., Ilett, D.J., Linklater, CM., Milodowski, A.E., Noy, D.J., Rochelle, C.A. and Tweed, CJ. (2002) Research on the alkaline disturbed zone resulting from cement-water-rock reactions around a cementitious repository in a silicate-rich host rock. Nirex Report N/054, UK Nirex Ltd., Harwell, UK.Google Scholar
Bath, A.H., McCartney, R.A., Richards, H.G., Metcalfe, R. and Crawford, M.B. (1996) Groundwater chemistry in the Sellafield area: a preliminary interpretation. Quarterly Journal of Engineering Geology and Hydrogeology, 29, S39-S57.CrossRefGoogle Scholar
Batic, O., Maiza, P. and Sota, J. (1994) Alkali silica reaction in basaltic rocks NBRI method. Cement and Concrete Research, 24, 1317–1326.CrossRefGoogle Scholar
Bauer, A. and Berger, G. (1998) Kaolinite and smectite dissolution rate in high molar KOH solutions at 35° and 80°C. Applied Geochemistry, 13, 905–916.CrossRefGoogle Scholar
Berube, M.-A. and Fournier, B. (1986) Les produits de la reaction alcalis-silice dans le beton: etude de cas de la region de Quebec. The Canadian Mineralogist, 24, 271–288.Google Scholar
Berube, M.-A., Duchesne, J., Dorion, J.F. andRivest, M. (2002) Laboratory assessment of alkali contribution by aggregates to concrete and application to concrete structures affected by alkali—silica reactivity. Cement and Concrete Research, 32, 1215—1227. CrossRefGoogle Scholar
Bethke, CM. (2008) Geochemical and Biogeochemical Reaction Modeling. Cambridge University Press, Cambridge, UK.Google Scholar
Blackwell, B.Q. and Pettifer, K (1992) Alkali-reactivity of greywacké aggregates in Maentwrog Dam (North Wales). Magazine of Concrete Research, 44, 255–264.CrossRefGoogle Scholar
Bradbury, M.H. and Baeyens, B. (2003) Porewater chemistry in compacted re-saturated MX-80 bento-nite. Journal of Contaminant Hydrology, 61, 329–338.CrossRefGoogle Scholar
Brouxel, M. (1993) The alkali-aggregate reaction rim: Na2O, SiO2, K2O and CaO chemical distribution. Cement and Concrete Research, 23, 309—320.CrossRefGoogle Scholar
Bryant, S.L., Schechter, R.S. and Lake, L.W. (1986) Interactions of precipitation/dissolution waves and ion exchange in flow through porous media. American Institute of Chemical Engineering Journal, 32, 751–764.CrossRefGoogle Scholar
Bunge, A.L. and Radke, C.J. (1982) Migration of alkaline pulses in reservoir sands. Society of Petroleum Engineers Journal, December 1982, 998-1012.CrossRefGoogle Scholar
Bunge, A.L. and Radke, C.J. (1983) Divalent ion exchange with alkali. Society of Petroleum Engineers Journal, August 1983, 657—668.CrossRefGoogle Scholar
Bunge, A.L. and Radke, C.J. (1985) The origin of reversible hydroxide uptake on reservoir rock. Society of Petroleum Engineers Journal, October 1985, 711-718.CrossRefGoogle Scholar
Cama, J., Ganor, J., Ayora, C. and Lasaga, A.C. (2000) Smectite dissolution kinetics at 80°C and pH 8.8. Geochimica et Cosmochimica Acta, 64, 2701—2716.CrossRefGoogle Scholar
Chermak, J.A. (1992) Low temperature experimental investigation of the effect of high pH NaOH solutions on the Opalinus Shale, Switzerland. Clays . and Clay Minerals, 40, 650–658.CrossRefGoogle Scholar
Chermak, J.A. (1993) Low temperature experimental investigation of the effect of high pH KOH solutions on the Opalinus Shale, Switzerland. Clays and Clay Minerals, 41, 365–372.CrossRefGoogle Scholar
Cole, W.F. and Lancucki, CJ. (1983) Products formed in an aged concrete the occurrence of okenite. Cement and Concrete Research, 13, 611—618.CrossRefGoogle Scholar
Cole, W. F., Lancucki, C J. and Sandy, MJ. (1981) Products formed in an aged concrete. Cement and . Concrete Research, 11, 443—454.Google Scholar
Cooke, C.E., Williams, R.E. and Kolodzie, P.A. (1974) Oil recovery by akaline waterflooding. Journal of Petroleum Technology, December 1974, 1365-1374.CrossRefGoogle Scholar
Coudrain-Ribstein, A., Gouze, P. and de Marsily, G. (1998) Temperature-carbon dioxide partial pressure trends in confined aquifers. Chemical Geology, 145, 73–89.CrossRefGoogle Scholar
De Windt, L., Pellegrini, D. and van der Lee, J. (2004) Coupled modeling of cement/claystone interactions and radionuclide migration. Journal of Contaminant . Hydrology, 68, 165–182.Google Scholar
De Windt, L., Marsal, F., Tinseau, E. and Pellegrini, D. (2008) Reactive transport modeling of geochemical interactions at a concrete/argillite interface, Tournemire site (France). Physics and Chemistry of the Earth, 33, S295-S305.CrossRefGoogle Scholar
Deng, M., Han, S.F., Lu, Y.N., Lan, X.H., Hu, Y.L., Tang, M.S. (1993) Deterioration of concrete structures due to alkali-dolomite reaction in China. Cement and Concrete Research, 23, 1040–1046.CrossRefGoogle Scholar
deZabala, E.F., Vislocky, J.M., Rubin, E. and Radke, C.J. (1982) A chemical theory for linear alkaline flooding. Society of Petroleum Engineers Journal, April 1982, 199-211.CrossRefGoogle Scholar
Falls, A.H., Thigpen, D.R., Nelson, R.C., Ciaston, J.W., Lawson, J.B., Good, P.A., Ueber, R.C., Shahin, G.T. (1994) Field test of cosurfactant-enhanced alkaline flooding. SPE Reservoir Engineering, August 1994, 217-223.CrossRefGoogle Scholar
Fernandes, I. (2009) Composition of alkali—silica reaction products at different locations within concrete structures. Materials Characterization, 60, products in a 50-year-old concrete. Materials Characterization, 53, 295—306.Google Scholar
Fernandez, R., Rodriguez, M., Vigil de la Villa, R. and Cuevas, J. (2010) Geochemical constraints on the stability of zeolites and C-S-H in the high pH reaction of bentonite. Geochimica et Cosmochimica Ada, 74, 890–906.CrossRefGoogle Scholar
French, W.J (1980) Reactions between aggregates and cement paste — an interpretation of the pessimum. Quarterly Journal of Engineering Geology, 13, 231–247.CrossRefGoogle Scholar
Fritz, B., Clement, A., Amal, Y. andNoguera, C. (2009) Simulation of the nucleation and growth of simple clay minerals in weathering processes: the NANOKTN code. Geochimica et Cosmochimica Ada, 73, 1340–1358.CrossRefGoogle Scholar
Gaucher, E. and Blanc, P. (2006) Cement/clay interactions — a review: experiments, natural analogues, and modeling. Waste Management, 26, 776–788.CrossRefGoogle ScholarPubMed
Gillot, J.E. (1995) Review of expansive alkali-aggregate reactions in concrete. Journal of Materials in Civil Engineering, November 1995, 278—282.CrossRefGoogle Scholar
Goguel, R. (1995) Alkali release by volcanic aggregates in concrete. Cement and Concrete Research, 25, 841–852.CrossRefGoogle Scholar
Grattan-Bellew, P.E. (1995) Laboratory evaluation of alkali-silica reaction in concrete from Saunders Generating Station. American Chemical Industry Materials Journal, 92, 126–134.Google Scholar
Gribi, P., Johnson, L.H., Suter, D., Smith, P.A., Pastina, B. and Snellman, M. (2008) Safety assessment for a KBS-3H spent nuclear fuel repository at Olkiluoto: Process report. SKB Report R-08-36, Swedish Nuclear Fuel and Waste Management Company, Stockholm, Sweden.Google Scholar
Haworth, A., Sharland, S.M., Tasker, P.W. and Tweed, CJ. (1988) Evolution of the groundwater chemistry around a nuclear waste repository. Scientific Basis for Nuclear Waste Management, XI, 425—434.Google Scholar
Hay, R.L. (1964) Phillipsite of saline lakes and soils. American Mineralogist, 49, 1366—1387.Google Scholar
Hay, R.L. (1977) Geologic occurrence of zeolites. Pp. 135—143 in: Natural Zeolites: Occurrence, Properties, Use (Sand, L.B. and Mumpton, F.A., editors). Pergamon Press, New York, 576 pp.Google Scholar
Hay, R.L. (1986) Geologic occurrence of zeolites and some associated minerals. Pure and Applied Chemistry, 58, 1339–1342.CrossRefGoogle Scholar
Hay, R.L. and Guldman, S.G. (1987) Diagenetic alteration of silicic ash in Searles Lake, California. Clays and Clay Minerals, 35, 449–457.CrossRefGoogle Scholar
Hay, R.L. and Moiola, RJ. (1963) Authigenic silicate minerals in Searles Lake, California. Sedimentology, 2, 312–332.CrossRefGoogle Scholar
Hay, R.L., Guldman, S.G., Matthews, J.C., Lander, R.H. Duffin, M.E., Kyser, T.K. (1991) Clay mineral diagenesis in core KM-3 of Searles Lake, California. Clays and Clay Minerals, 39, 84–96.CrossRefGoogle Scholar
Hoch, A.R., Linklater, C.M., Noy, D.J. and Rodwell, W.R. (2004) Modelling the interaction of hyperalka-line fluids with simplified rock mineral assemblages. Applied Geochemistry, 19, 1431–1451.CrossRefGoogle Scholar
Hünger, K.-J., Wollgam, H. and Frey, R. (1994) Composition and structure of an iron/lime alkali layer silicate formed during greywacké destruction. Neues Jahrbuch für Mineralogie Monatsheft, 12, 540–556.Google Scholar
Jennings, H.Y., Johnson, C.E.J. and McAuliffe, C.D. (1974) A caustic waterflooding process for heavy oils. Journal of Petroleum Technology, December 1974, 1344-1352.CrossRefGoogle Scholar
Knapp, R.B. (1989) Spatial and temporal scales of local equilibrium in dynamic fluid-rock systems. Geochimica et Cosmochimica Acta, 53, 1955—1964.CrossRefGoogle Scholar
Kosakowski, G., Blum, P., Kulik, D.A., Pfmgsten, W., Shao, H. and Singh, A. (2009) Evolution of a generic clay/cement interface: first reactive transport calculations utilizing a Gibbs energy minimization based approach for geochemical calculations. Journal of Environmental Science for Sustainable Society, 3, 41–49.CrossRefGoogle Scholar
Krumrine, P.H., Mayer, E.H. and Brock, G.F. (1985) Scale formation during alkaline flooding. Journal of Petroleum Technology, August 1985, 1466-1474.CrossRefGoogle Scholar
Lasaga, A.C. (1984) Chemical kinetics of water-rock interactions. Journal of Geophysical Research, 89, 4009–4025.CrossRefGoogle Scholar
Lasaga, A. C. (1998) Kinetic Theory in the Earth Sciences. Princeton University Press, Princeton, New Jersey, USA, 728 pp.Google Scholar
Lichtner, P.C. and Eikenberg, J. (1994) Propagation of a hyperalkaline plume in the geological barrier surrounding a radioactive waste repository. Nagra Technical Report 93-16, Nagra, Wettingen, Switzerland.Google Scholar
Linklater, CM. (1998) A natural analogue study of cement-buffered hyperalkaline groundwaters and their interaction with a repository host rock: Phase II. Nirex Science Report S/98/003, UK Nirex Ltd., Harwell, UK.Google Scholar
Maher, K, Steefel, C.I., White, A.F. and Stonestrom, D.A. (2009) The role of reaction affinity and secondary minerals in regulating chemical weath-ering rates at the Santa Cruz Soil Chronosequence, California. Geochimica et Cosmochimica Acta, 73, 2804–2831.CrossRefGoogle Scholar
Marfil, S.A. and Maiza, P.J. (2001) Deteriorated pavements due to the alkali—silica reaction A petrographic study of three cases in Argentina. Cement and Concrete Research, 31, 1017—1021.CrossRefGoogle Scholar
Marty, N.C.M., Tournassat, C., Burnol, A., Giffaut, E. and Gaucher, E.C. (2009) Influence of reaction kinetics and mesh refinement on the numerical modelling of concrete/clay interactions. Journal of Hydrology, 364, 58–72.CrossRefGoogle Scholar
McKinley, I.G., Bath, A., Berner, U., Cave, M.R. and Neal, C. (1988) Results of the Oman analogue study. Radiochimica Acta, 44/45, 311—316.CrossRefGoogle Scholar
McKinley, I.G., Alexander, W.R., Arcilla, C.A., Kawamura, H. and Takahashi, Y. (2008) IPHAP: a new natural analogue of bentonite alteration by cement leachates. International Symposium on Radiation Safety Management, Daejeon, Korea, pp. 492-498.Google Scholar
Metcalfe, R. and Walker, C. (2004) Proceedings of the International Workshop on Bentonite-Cement Interaction in Repository Environments. Posiva Working Report 2004-25, Posiva Oy, Olkiluoto, Finland.Google Scholar
Michau, N. (2005) ECOCLAY11: Effects of Cement on Clay Barrier Performance. Andra Report C.RP.ASCM.04.0009, Andra, Paris, France.Google Scholar
Miller, W., Alexander, R., Chapman, N., McKinley, I. and Smellie, J. (2000) Geological Disposal of Radioactive Wastes and Natural Analogues. Lessons from Nature and Archaeology. Waste Management Series, Volume 2. Pergamon, Amsterdam, 316 pp.Google Scholar
Milodowski, A.E., Constantinou, C.A., Alexander, W.R., Rigas, M., Tweed, C.J., Sellin, P., Korkeakoski, P., Kemp, S.J. and Rushton, J.C. (2009) Reaction of bentonite in low alkali cement leachates: Preliminary results from the Cyprus Natural Analogue Project (CNAP). 12th International Conference on Environmental Remediation and Radioactive Waste Management (ICEM 2009), Liverpool, UK.Google Scholar
Montori, J., Saaltink, M.W. and Soler, J.M. (2008) Reactive transport modeling of the effect of hyperalkaline solutions along a fracture at the ONKALO site. Posiva Working Report 2008-14, Posiva Oy, Olkiluoto, Finland.Google Scholar
Novosad, Z. and Novosad, J. (1984) Determination of alkalinity losses resulting from hydrogen ion exchange in alkaline flooding. Society of Petroleum Engineers Journal, February 1984, 49—52.CrossRefGoogle Scholar
Oda, C., Honda, A. and Savage, D. (2004) An analysis of cement-bentonite interaction and evolution of pore water chemistry. Pp. A3-74—A3-79 in: Proceedings of the International Workshop on Bentonite-Cement Interaction in the Repository Environment (R. Metcalfe and C. Walker, editors). Nuclear Waste Management Organisation of Japan, Tokyo.Google Scholar
Okoye, C.U., Onuba, N.L., Ghalambor, A. and Hayatdavoudi, A. (1991) Formation damage in heavy-oil formation during steamflooding. Society of Petroleum Engineers Journal, SPE 22980, 309-322.CrossRefGoogle Scholar
Peterson, K., Gress, D., van Dam, T. and Sutter, L. (2006) Crystallized alkali-silica gel in concrete from the late 1890s. Cement and Concrete Research, 36, 1523–1532.CrossRefGoogle Scholar
Ponce, J.M. and Batic, O.R. (2006) Different manifestations of the alkali-silica reaction in concrete according to the reaction kinetics of the reactive aggregate. Cement and Concrete Research, 36, 1148–1156.CrossRefGoogle Scholar
Poole, A.B. and Sotiropoulos, P. (1980) Reactions between dolomitic aggregate and alkali pore fluids in concrete. Quarterly Journal of Engineering Geology London, 13, 281–287.CrossRefGoogle Scholar
Sandstrom, B., Tullborg, E.-L., Larson, S.A. and Page, L. (2009) Brittle tectonothermal evolution in the Forsmark area, central Fennoscandian Shield, recorded by paragenesis, orientation, and 40Ar/39Ar geochronology of fracture minerals. Tectonophysics, 478, 158–174.CrossRefGoogle Scholar
Sato, T., Kuroda, M., Yokoyama, S., Tsutsui, M., Fukushi, K., Tanaka, T. and Nakayama, S. (2004) Dissolution mechanism and kinetics of smectite under alkaline conditions. Pp. A3-38—A3-41 in: Proceedings of the International Workshop on Bentonite-Cement Interaction in the Repository Environment (Metcalfe, R. and Walker, C., editors). Nuclear Waste Management Organisation of Japan, Tokyo.Google Scholar
Savage, D. (1997) Review of the potential effects of alkaline plume migration from a cementitious repository for radioactive waste. Research & Development Technical Report P60, UK Environment Agency, Bristol, UK.Google Scholar
Savage, D. (1998) Zeolite occurrence, stability and behaviour. Pp. 281—316 in: Maqarin Natural Analogue Study: Phase HI (Smellie, J., editor). SKB Technical Report TR-98-04, Swedish Nuclear Fuel and Waste Management Company, Stockholm.Google Scholar
Savage, D. and Benbow, S. (2007) LowpH cements. SKI Report 2007:32, Swedish Nuclear Power Inspectorate, Stockholm.Google Scholar
Savage, D., Cave, M.R., Milodowski, A.E. and George, I. (1987) Hydrothermal alteration of granite by meteoric fluid: an example from the Carnmenellis Granite, United Kingdom. Contributions to Mineralogy and Petrology, 96, 391—405.CrossRefGoogle Scholar
Savage, D., Bateman, K., Hill, P., Hughes, C, Milodowski, A., Pearce, J., Rae, E. and Rochelle, C. (1992) Rate and mechanism of the reaction of silicates with cement pore fluids. Applied Clay Science, 7, 33–45.CrossRefGoogle Scholar
Savage, D., Walker, C., Arthur, R.C., Rochelle, C.A., Oda, C. and Takase, H. (2007) Alteration of bentonite by hyperalkaline fluids: a review of the role of secondary minerals. Physics and Chemistry of the Earth, 32, 287–297.CrossRefGoogle Scholar
Savage, D., Benbow, S., Watson, C., Takase, H., Ono, K., Oda, C. and Honda, K. (2010) Natural systems evidence for the alteration of clay under alkaline conditions: an example from Searles Lake, California. Applied Clay Science, 47, 72–81.CrossRefGoogle Scholar
Schott, J., Brantley, S.L., Crerar, D.A., Guy, C., Borcsik, M. and Willaime, C. (1989) Dissolution kinetics of strained calcite. Geochimica et Cosmochimica Ada, 53, 373–382.CrossRefGoogle Scholar
Shayan, A. (1988) Alkali aggregate reaction in a 60-year-old dam in Australia. The International Journal of Cement Composites and Lightweight Concrete, 10, 259–266.CrossRefGoogle Scholar
SKB (2006) Long-term safety for KBS-3 repositories at Forsmark and Laxemar — a first evaluation. Main report of the SR-Can project. SKB Technical Report TR-06-09, Swedish Nuclear Fuel and Waste Management Company, Stockholm.Google Scholar
Smellie, J. (1998) Maqarin natural analogue study: Phase III. SKB Technical Report TR-98-04, Swedish Nuclear Fuel and Waste Management Company, Stockholm.Google Scholar
Smellie, J.A.T., Alexander, W.R., Degnan, P., Griffault, L., Mader, U. and Trotignon, L. (2001) The role of the Jordan natural analogue studies in the performance assessment of cementitious repositories for radioactive wastes. Pp. 1391—1393 in: Water-Rock Interaction X (R., Cidu, editor). A.A. Balkema Publishers, Leiden, The Netherlands.Google Scholar
Smith, P.A., Neall, F., Snellman, M., Pastina, B., Nordman, H., Johnson, L.H. and Hjerpe, T. (2008) Safety assessment for a KBS-3H spent nuclear fuel repository at Olkiluoto: Summary report. SKB Report R-08-39, Swedish Nuclear Fuel and Waste Management Company, Stockhom.Google Scholar
Soler, J.M., Paris, B., Pfmgsten, W. and Mader, U. (2004) Flow and reactive transport modeling in the framework of GTS-HPF. Pp. 983–987, in: Water-Rock Interaction XI (Wanty, R.B. and Seal, R.R., editors). A.A. Balkema Publishers, Leiden, The Netherlands.Google Scholar
Soler, J.M., Pfmgsten, W., Paris, B., Mader, U.K., Frieg, B., Neall, F., Kallvenius, G., Yui, M., Yoshida, Y., Shi, P., Rochelle, C.A. and Noy, D.J. (2006) Grimsel Test Site — Investigation Phase V, HPF-Experiment: Modelling Report, June 2006. Nagra Technical Report NTB 05-01, Nagra, Wettingen, Switzerland.Google Scholar
Somerton, W.H. and Radke, C.J. (1983) Role of clays in the enhanced recovery of petroleum from some California sands. Journal of Petroleum Technology Society of Petroleum Engineers AIME, March 1983, 643-654.CrossRefGoogle Scholar
Steefel, C.I. and Lichtner, P.C. (1998) Multicomponent reactive transport in discrete fractures II. Infiltration of hyperalkaline groundwater at Maqarin, Jordan, a natural analogue site. Journal of Hydrology, 209, 200–224.CrossRefGoogle Scholar
Steefel, C.I. and van Cappellen, P. (1990) A new kinetic approach to modeling water-rock interaction: the role of nucleation, precursors, and Ostwald ripening. Geochimica et Cosmochimica Ada, 54, 2657—2677.CrossRefGoogle Scholar
Surdam, R.C. and Sheppard, R.A. (1977) Zeolites in saline, alkaline-lake deposits. Pp. 145—174 in: Natural Zeolites, Occurrence, Properties, Use (Sand, L.B. and Mumpton, F.A., editors). Pergamon Press, New York, 576 pp.Google Scholar
Taylor, M.W. and Surdam, R.C. (1981) Zeolite reactions in the tuffaceous sediments at Teels Marsh, Nevada. Clays and Clay Minerals, 29, 341–352.CrossRefGoogle Scholar
Tinseau, E., Barrier, D., Hassouta, L., Devol-Brown, I. and Stammose, D. (2006) Mineralogical characterization of the Tournemire argillite after in situ reaction with concretes. Waste Management, 26, 789–800.CrossRefGoogle Scholar
Tinseau, E., Barrier, D., Techer, I., Gaboreau, S. and Cabrera, J. (2008) 15 years in situ alkaline propagation in the Tournemire argillite. Second International Workshop on Mechanisms and Modelling of Waste/Cement Interactions, Le Croisic, France.Google Scholar
Vieillard, P., Ramirez, S., Bouchet, A., Cassagnabere, A., Meunier, A. and Jacquot, E. (2004) Alteration of the Callovo-Oxfordian clay from Meuse-Haute Marne Underground Laboratory (France) by alkaline solution: II. Modelling of mineral reactions. Applied Geochemistry, 19, 1699–1709.CrossRefGoogle Scholar
Wang, Y., Liu, J., Liu, B., Liu, Y., Wang, H. and Gang, C. (2004) Why does scale form in ASP flood? How to prevent from it? A case study of the technology and application of scaling mechanism and inhibition in ASP flood pilot area of N-1DX Block in Daqing. Society of Petroleum Engineers Journal, http://dx.doi.org/10.2118/87469-MS.CrossRefGoogle Scholar
Way, S.J. and Shayan, A. (1993) Synthesis and characterisation of crystalline analogues of alkali-aggregate reaction products. Cement and Concrete Research, 23, 471–479.CrossRefGoogle Scholar
White, A.F. and Brantley, S.L. (editors) (1995) Chemical Weathering Rates of Silicate Minerals. Reviews in Mineralogy, 31. Mineralogical Society of America, Washington D.C., 583 pp.CrossRefGoogle Scholar
White, A.F. and Brantley, S.L. (2003) The effect of time on the weathering of silicate minerals: why do weathering rates differ in the laboratory and field. Chemical Geology, 202, 479–506.CrossRefGoogle Scholar
Yang, X., Liao, G., Han, P. and Yang, Z. (2003) An extended field test study on alkaline-surfactant-polymer flooding in Beiyiduanxi of Daqing Oilfield. Society of Petroleum Engineers Journal, http://dx.doi.org/10.2118/80532-MS.CrossRefGoogle Scholar