Thermal use of shallow groundwater

Thermal Use of Shallow Groundwater

Volumn , Issue , 2013, Pages 1-267

  Stauffer, Fritz ^d   Bayer, Peter ^a   Blum, Philipp ^b   Molina Giraldo, Nelson ^c   Kinzelbach, Wolfgang ^a  

^a ETH ZURICH   (Switzerland)

^b KARLSRUHE INSTITUTE OF TECHNOLOGY   (Germany)

^c Matrix Solutions Inc   (Canada)

^d ETH Zurich ^*

Author keywords

[No Author keywords available]

Indexed keywords

ENERGY UTILIZATION; GROUNDWATER; HEAT STORAGE; HEAT TRANSFER; HYDROGEOLOGY; MATLAB;

ANALYTICAL AND NUMERICAL SOLUTIONS; GROUNDWATER SYSTEM; GROUNDWATER TEMPERATURES; HEAT TRANSPORT EQUATION; HEAT TRANSPORT MODEL; INDUSTRY PROFESSIONALS; LONG-TERM POTENTIAL; SHALLOW GROUNDWATER;

GROUNDWATER RESOURCES;

EID: 85014925033     PISSN: None     EISSN: None     Source Type: Book    
DOI: 10.1201/b16239     Document Type: Book

References (475)

1. Allen, A., Milenic, D., Sikora, P. (2003). Shallow gravel aquifers and the urban ‘heat island’ effect: A source of low enthalpy geothermal energy. Geothermics 32, 569-578.
2. AWEL (2010). Energienutzung aus Untergrund und Grundwasser (Use of energy from underground systems and groundwater). Amt für Abfall, Wasser, Energie, Luft, Canton of Zurich, Zurich, Switzerland.
3. Balke, J.-D. (1974). Der thermische Einfluss besiedelter Gebiete auf das Grundwasser, dargestellt am Beispiel der Stadt Köln. gwf Wasser/Abwasser 115(3), 117-124.
4. Balke, J.-D. (1977). Das Grundwasser als Energieträger. Brennst.-Wärme-Kraft 29(5), 191-194.
5. Banks, D. (2008). An Introduction to Thermogeology: Ground Source Heating and Cooling. Blackwell Publishing, Oxford, UK.
6. Bassetti, S., Rohner, E., Signorelli, S., Matthey, B. (2006). Dokumentation von Schadensfällen bei Erdwärmesonden. Schlussbericht, EnergieSchweiz.
7. Bauer, M., Eppinger, A., Franssen, W., Heinz, M., Keim, B., Mahler, D., Milkowski, N., Pasler, U., Rolland, K.M., Schölch-Ighodaro, R., Stein, U., Vöröshazi, M., Wingering, M. (2009). Leitfaden zur Nutzung von Erdwärme mit Grundwasserwärmepumpen. Umweltministerium Baden-Württemberg, Stuttgart, Germany, 34 pp.
8. Bayer, P., Saner, D., Bolay, S., Rybach, L., Blum, P. (2012). Greenhouse gas emission savings of ground source heat pump systems in Europe: A review. Renewable and Sustainable Energy Reviews 16(2), 1256-1267.
9. Blum, P., Campillo, G., Kölbel, T. (2011). Techno-economic and spatial analysis of vertical ground source heat pump systems in Germany. Energy 36, 3002-3011.
10. 2savings of ground source heat pump systems—A regional analysis. Renewable Energy 35, 122-127.
11. Brenn, J., Soltic, P., Bach, C. (2010). Comparison of natural gas driven heat pumps and electrically driven heat pumps with conventional systems for building heating purposes. Energy and Buildings 42, 904-908.
12. Brielmann, H., Griebler, C., Schmidt, S.I., Michel, R., Lueders, T. (2009). Effects of thermal energy discharge on shallow groundwater ecosystems. FEMS Microbiology Ecology 68(3), 273-286.
13. Butscher, C., Huggenberger, P., Auckenthaler, A., Bänninger, D. (2011). Risikoorientierte Bewilligung von Erdwärmesonden. Grundwasser 16(1), 13-24.
14. Changnon, S.A. (1999). A rare long record of deep soil temperatures defines temporal temperature changes and an urban heat island. Climate Change 42, 531-538.
15. de Paly, M., Hecht-Mendez, J., Beck, M., Blum, P., Zell, A., Bayer, P. (2012). Optimization of energy extraction for closed shallow geothermal systems using linear programming. Geothermics 43, 57-65.
16. Dinçer, I., Rosen, M.A. (2011). Thermal Energy Storage. Systems and Applications. Wiley, Chichester, UK.
17. EA (2008). Groundwater protection: Policy and practice (GP3). Part 4 Legislation and policies. Environmental Agency, UK, Edition 1.
18. EC (2009). Directive 2009/28/EC of the European Parliament and of the Council 23 April 2009 on the promotion of the use of energy from renewable sources and amending and subsequently repealing Directives 2001/77/EC and 2003/30/EC. European Community.
19. EGEC (2007). Geothermal heating and cooling action plan for Europe. K4RES-H brochure, European Geothermal Energy Council, www.erec.org.
20. Erol, S. (2011). Estimation of heat extraction rates of GSHP systems under different hydrogelogical conditions. MSc. thesis, University of Tübingen, Tübingen, Germany, 85 pp.
21. ETH Life (2012). Erdspeicher in Betriebgenommen (Ground Heat Storage Started Operation). Corporate Communications, ETH Zurich, Zurich, Switzerland.
22. Ferguson, G., Woodbury, A.D. (2004). Subsurface heat flow in an urban environment. Journal of Geophysical Research 109, B02402, doi:10.1029/2003JB002715.
23. Ferguson, G., Woodbury, A.D. (2007). Urban heat island in the subsurface. Geophysical Research Letters 34, L23713.
24. Florides, G., Kalogirou, S. (2007). Ground heat exchangers—A review of systems, models and applications. Renewable Energy 32, 2461-2478.
25. Fluker, B.J. (1958). Soil temperatures. Soil Science 86, 35-46.
26. FOE (2011). Schweizerische Statistik der erneuerbaren Energien. Ausgabe 2010 (Swiss statistic on renewable energy, 2010). Federal Office for Energy, Bern, Switzerland, Swiss Confederation, Bundesamt für Energie.
27. FOEN (2004). Wegleitung Grundwasserschutz (Guide for Groundwater Protection). Federal Office for the Environment, Bern, Switzerland, Swiss Confederation, Bundesamt für Umwelt.
28. FOEN (2009). Wärmenutzung aus Boden und Untergrund (Use of heat from soil and subsoil). Federal Office for the Environment, Bern, Switzerland, Swiss Confederation, Bundesamt für Umwelt.
29. Gallo, K., Hale, R., Tarpley, D., Yu, Y. (2011). Evaluation of the relationship between air and land surface temperature under clear-and cloudy-sky conditions. American Meteorological Society 50, 767-775.
30. Goldscheider, N., Bechtel, T.D. (2009). Editors’ message: The housing crisis from underground—Damage to a historic town by geothermal drillings through anhydrite, Staufen, Germany. Hydrogeology Journal 17, 491-493.
31. Gustafsson, A.M., Westerlund, L., Hellström, G. (2010). CFD-modelling of natural convection in a groundwater-filled borehole heat exchanger. Applied Thermal Engineering 30(6-7), 683-691.
32. Haehnlein, S., Bayer, P., Blum, P. (2010). International legal status of the use of shallow geothermal energy. Renewable and Sustainable Energy Reviews 14, 2611-2625.
33. Haehnlein, S., Blum, P., Bayer, P. (2011). Oberflächennahe Geothermie—Aktuelle rechtliche Situation in Deutschland. Grundwasser 16(2), 69-75.
34. Kollet, S.J., Cvijanovic, I., Schüttemeyer, D., Maxwell, R.M., Moene, A.F., Bayer P. (2009). The influence of rain sensible heat and subsurface energy transport on the energy balance at the land surface. Vadose Zone Journal 8(4), 846-857.
35. Landsberg, H. (1956). The Climate of Towns. University of Chicago Press, Chicago.
36. Lee, J.-Y. (2006). Characteristics of ground and groundwater temperatures in a metropolitan city, Korea: Considerations for geothermal heat pumps. Geosciences Journal 10(2), 165-175.
37. LGRB (2010). Geologische Untersuchungen von Baugrundhebungen im Bereich des Erdwärmesondenfeldes beim Rathaus in der historischen Altstadt von Staufen i. Br. Landesamt für Geologie, Rohstoffe und Bergbau Baden-Württemberg (LGRB), Az.: 94-4763//10-563, Freiburg i. Br., 304 pp.
38. LGRB (2012). Zweiter Sachstandsbericht zu den seit dem 01.03.2010 erfolgten Untersuchungen im Bereich des Erdwärmesondenfeldes beim Rathaus in der historischen Altstadt von Staufen i. Br. Landesamt für Geologie, Rohstoffe und Bergbau Baden-Württemberg (LGRB), Az.: 94-4763//12-2487, Freiburg i. Br., 110 pp.
39. LQS (2012). Leitlinien Qualitätssicherung Erdwärmesonden (LQS EWS). Ministerium für Umwelt, Klima und Energiewirtschaft (Environmental Ministery), State of Baden-Württemberg, Germany.
40. Lund, J., Sanner, B., Rybach, L., Curtis, R., Hellström, G. (2004). Geothermal (ground-source) heat pumps—A world overview. Geo-Heat Centre Quarterly Bulletin 25(3), 1-10.
41. Lund, J.W., Freeston, D.H., Boyd, T.L. (2011). Direct utilization of geothermal energy 2010 worldwide review. Geothermics 40, 159-180.
42. MCS (Microgeneration Certification Scheme) (2011). Microgeneration installation standard: MIS 3005. Issue 3.0. Department of Energy and Climate Change, London.
43. Menberg, K., Bayer, P., Zosseder, K., Rumohr, S., Blum, P. (2013). Subsurface urban heat islands in German cities. Science of the Total Environment 442, 123-133.
44. Miara, M., Günther, D., Kramer, T., Oltersdorf, T., Wapler, J. (2011). Heat pump efficiency. Analysis and evaluation of heat pump efficiency in real-life conditions. Report Fraunhofer Institute for Solar Energy Systems ISE, Freiburg, Germany.
45. Oke, T.R. (1973). City size and the urban heat island. Atmospheric Environment 7, 769-779.
46. ÖWAV (2009). Thermische Nutzung des Grundwassers und des Untergrunds—Heizen und Kühlen (Thermal use of groundwater and underground—Heating and cooling). ÖWAV-Regelblatt 207, Österreichischer Wasser-und Abfallwirtschaftsverband ÖWAV (Guideline 207 of the Austrian Water and Waste Management Association), Vienna, Austria.
47. Pollack, H.N., Hurter, S.J., Johnson, J.R. (1993). Heat flow from the earth’s interior: Analysis of the global data set. Reviews of Geophysics 31, 267-280.
48. Putnam, S.N., Chapman, D.S. (1996). A geothermal climate change observatory: First year results from Emigrant Pass in north-west Utah. Journal of Geophysical Research: Solid Earth 101(B10), 21877-21890. doi:10.1029/96JB01903.
49. Sass, I., Burbaum, U. (2010). Damage to the historic town of Staufen (Germany) caused by geothermal drillings through anhydrite-bearing formations. Acta Carsologica 39(2), 233-245.
50. SIA (1989). Wegleitung zur saisonalen Wärmespeicherung (Guidance for seasonal energy storage). Schweizer Ingenieur und Architektenverband (Swiss Society of Engineers and Architects). Technical documentation D 028.
51. SIA (1996). Grundlagen zur Nutzung der untiefen Erdwärme für Heizsystems (Basics for the use of shallow geothermal energy for space heating). Schweizer Ingenieur und Architektenverband (Swiss Society of Engineers and Architects). Technical documentation D 0136.
52. SIA (2003). Energie aus dem Untergrund (Energy form underground systems). Schweizer Ingenieur und Architektenverband (Swiss Society of Engineers and Architects). Technical documentation D 0179.
53. SIA (2005). Nutzung der Erdwärme mit Fundationspfählen und anderen erdberührten Betonbauteilen. Schweizer Ingenieur und Architektenverband (Swiss Society of Engineers and Architects). Technical documentation D 0190.
54. SIA (2010). Erdwärmesonden (Ground heat probes). Schweizer Ingenieur und Architektenverband (Swiss Society of Engineers and Architects). Swiss Standards 384/6.
55. Smerdon, J.E., Pollack, H.N., Cermak, V., Enz, J.W., Kresl, M., Safands, J., Wehmiller, J.F. (2006). Daily, seasonal, and annual relationships between air and subsurface temperatures. Journal of Geophysical Research 111, D07101, doi:10.1029/2004JD005578.
56. Stauffer, F. (2011). Protection of groundwater environments. In: A.N. Findikakis, K. Sato (Eds.), Groundwater Management Practices. IAHR Monograph, CRC Press, Boca Raton, FL, USA.
57. Taniguchi, M., Uemura, T., Jago-on, K. (2007). Combined effects of urbanization and global warming on subsurface temperature in four Asian cities. Vadose Zone Journal 6(3), 591-596.
58. Taylor, C.A., Stefan H.G. (2009). Shallow groundwater temperature response to climate change and urbanization. Journal of Hydrology 375, 601-612.
59. Turkoglu, N. (2010). Analysis of urban effects on soil temperature in Ankara. Environmental Monitoring and Assessment 16969(1-4), 439-450.
60. Urchueguía, J.F., Zacarés, M., Corberán, J.M., Martos, J., Witte, H. (2008). Comparison between the energy performance of a ground coupled water to water heat pump system and an air to water heat pump system for heating and cooling in typical conditions of the European Mediterranean coast. Energy Conversion and Management 49, 2917-2923.
61. USDA (1999). Soil taxonomy. A basic system of soil classification for making and interpreting soil surveys. United States Department of Agriculture, Natural Resources Conservation Service, Agriculture Handbook No. 436.
62. VBI (2008). VBI-Leitfaden Oberflächennahe Geothermie, Verband Beratender Ingenieure, p. 59.
63. VDI (2001a). Verein Deutscher Ingenieure, Blatt 2: Thermische Nutzung des Untergrundes—Erdgekoppelte Wärmepumpenanlagen [Part 2: Ground source heat pump systems], VDI-4640/2.
64. VDI (2001b). Verein Deutscher Ingenieure, Blatt 3: Thermische Nutzung des Untergrundes—Unterirdische Thermische Energiespeicher [Part 3: Utilization of the subsurface for thermal purposes—Underground thermal energy storage], VDI-4640/3.
65. VDI (2004). Verein Deutscher Ingenieure, Blatt 4: Thermische Nutzung des Untergrundes—Direkte Nutzung [Part 4: Thermal use of the underground—Direct uses], VDI-4640/4.
66. VDI (2010). Verein Deutscher Ingenieure, Blatt 1: Thermische Nutzung des Untergrundes—Grundlagen, Genehmigungen, Umweltaspekte [Part 1: Thermal use of the underground—fundamentals, approvals, environmental aspects], VDI-4640/1.
67. Williams, P.J., Smith, M.W. (1989). The Frozen Earth. Fundamentals of Geocryology. Cambridge University Press, Cambridge, UK.
68. Wu, J., Nofziger, D.L. (1999). Incorporating temperature effects on pesticide degradation into a management model. Journal of Environmental Quality 28, 92-100.
69. Zhu, K., Blum, P., Ferguson, G., Balke, K.-D., Bayer, P. (2010). Geothermal potential of urban heat islands. Environmental Research Letters 5, 044002, doi:10.1088/1748-9326/5/4/044002.
70. Allen, R.G., Pereira, L.S., Raes, D., Smith, M. (2006). Crop evapotranspiration. Guidelines for computing crop water requirements. FAO Irrigation and Drainage Paper No. 56.
71. Balland, V., Arp, P.A. (2005). Modeling soil thermal conductivities over a wide range of conditions. Journal of Environmental Engineering and Science 4, 549-558, doi:10.1139/S05-007.
72. Banks, D. (2008). An Introduction to Thermogeology: Ground Source Heating and Cooling. Blackwell Publishing, Oxford, UK.
73. Bauer, D., Heidemann, W., Müller-Steinhagen, H., Diersch, H.-J.G. (2011). Thermal resistance and capacity models for borehole heat exchangers. International Journal of Energy Research 35, 312-320.
74. Bayer, P., Huggenberger, P., Renard, P., Comunian, A. (2011). Three-dimensional high resolution fluvio-glacial aquifer analog, Part 1: Field study. Journal of Hydrology 405, 1-9.
75. Bear, J. (1972). Dynamics of Fluids in Porous Media. Elsevier, New York, USA.
76. Bear, J. (1979). Hydraulics of Groundwater. McGraw-Hill, New York, USA.
77. Bear, J., Cheng, A.H.-D. (2010). Modelling Groundwater Flow and Contaminant Transport. Springer, Dordrecht, the Netherlands.
78. BGR (2011). Bundesanstalt für Geowissenschaften und Rohstoffe. Accessed on July 20, 2011, at http://www.bgr.bund.de.
79. Brooks, R.H., Corey, A.T. (1966). Properties of porous media affecting fluid flow. Journal of the Irrigation and Drainage Division, Proceedings of the American Society of Civil Engineers ASCE 92(2), 61-88.
80. Campbell, G.S., Jungbauer, J.D., Bidlake, W.R., Hungerford, R.D. (1994). Predicting the effect of temperature on soil thermal conductivity. Soil Science 158(5), 307-313.
81. Carslaw, H.S., Jaeger, J.C. (1959). Conduction of Heat in Solids. Oxford University Press, Oxford, UK.
82. Chang, C.-M., Yeh, H.-D. (2012). Stochastic analysis of field-scale heat advection in heterogeneous aquifers. Hydrological Earth System Science HESS 16, 641-648.
83. Chen, S.X. (2008). Thermal conductivity of sands. International Journal of Heat and Mass Transfer 44, 1241-1246.
84. Claesson, J., Hellström, G. (2011). Multipole method to calculate borehole thermal resistance in a borehole heat exchanger. HVAC&R Research 17(6), 895-911.
85. Clauser, C. (Ed.) (2003). Numerical Simulation of Reactive Flow in Hot Aquifers—SHEMAT and Processing SHEMAT. Springer, Berlin.
86. Clauser, C. (2006). Geothermal energy. In: K. Heinloth (Ed.), Landolt-Börnstein—Numerical Data and Functional Relationships. Springer Verlag, Heidelberg-Berlin.
87. Clauser, C. (2011a). Thermal storage and transport properties of rocks, I: Heat capacity and latent heat. In: H.K. Gupta (Ed.), Encyclopedia of Solid Earth Geophysics. 2nd ed., Springer, Dordrecht, pp. 1423-1431.
88. Clauser, C. (2011b). Thermal storage and transport properties of rocks, II: Thermal conductivity and diffusivity. In: H.K. Gupta (Ed.), Encyclopedia of Solid Earth Geophysics. 2nd ed., Springer, Dordrecht, pp. 1431-1448.
89. Constantz, J. (2008). Heat as a tracer to determine streambed water exchanges. Water Resources Research 44, W00D10, doi:10.1029/2008WR006996.
90. CRC (2011). Handbook of Chemistry and Physics. W.M. Haynes (Ed.), CRC Press, Boca Raton, FL, USA.
91. Dagan, G. (1989). Flow and Transport in Porous Formations. Springer, Berlin.
92. de Marsily, G. (1986). Quantitavive Hydrogeology. Academic Press, Orlando, USA.
93. Dentz, M., Carrera, J. (2005). Effective solute transport in temporally fluctuating flow through heterogeneous porous media. Water Resources Research 41, W08414, doi:10.1029/2004WR003571.
94. de Vries, D.A. (1963). Thermal properties of soil. In: W.R. van Wijk (Ed.), Physics of Plant Environment. North-Holland, Amsterdam, pp. 210-235.
95. Diersch, H.-J.G., Bauer, D., Heidemann, W., Rühaak, W., Schätzl, P. (2011). Finite element modeling of borehole heat exchanger systems. Part 1. Fundamentals. Computer and Geosciences 37, 122-1137.
96. Domenico, P.A., Palciauskas, V.V. (1973). Theoretical analysis of forced convective heat transfer in regional groundwater flow. Geological Society of America Bulletin 84(12), 3803-3814.
97. Erol, S. (2011). Estimation of heat extraction rates of GSHP systems under different hydrogeological conditions. MSc. thesis, University of Tübingen, Tübingen, Germany, 85 pp.
98. Eskilson, P., Claesson, J. (1988). Simulation model for thermally interacting heat extraction boreholes. Numerical Heat Transfer 13(2), 149-165.
99. Farouki, O.T. (1981). The thermal properties of soils in cold regions. Cold Regions Science and Technology 5, 67-75.
100. Ferguson, G. (2007). Heterogeneity and thermal modeling of ground water. Ground Water 45(4), 458-490.
101. Ferguson, G., Beltrami, H., Woodbury, A. (2006). Perturbation of ground surface temperature reconstructions by groundwater flow? Geophysical Research Letters 33, L13708, doi:10.1029/2006GL026634.
102. Fujii, H., Itoi, R., Fujii, J., Uchida, Y. (2005). Optimizing the design of large-scale ground-coupled heat pump systems using groundwater and heat transport modeling. Geothermics 34(3), 347-364.
103. Geiger, S., Emmanuel, S. (2010). Non-Fourier thermal transport in fractured geological media. Water Resources Research 46, W07504, doi:10.1029/2009WR008671.
104. Gelhar, L.W. (1993). Stochastic Subsurface Hydrology. Englewood Cliffs, New Jersey, Prentice-Hall.
105. Gelhar, L.W., Welty, C., Rehfeldt, K.R. (1992). A critical review of data on field-scale dispersion in aquifer. Water Resources Research 28(7), 1955-1974.
106. Giakoumakis, S.G. (1994). A model for predicting coupled heat and mass transfers in unsaturated partially frozen soil. International Journal of Heat and Fluid Flow 15(2), 163-171.
107. Green, D.W., Perry, R.H., Babcock, R.E. (1964). Longitudinal dispersion of thermal energy through porous media with a flowing fluid. AIChE Journal 10(5), 645-651.
108. Gröber, H., Erk, S., Grigull, U. (1955). Grundgesetze der Wärmeübertragung. U. Grigull (rev. ed.), Springer, Berlin, Germany.
109. Grønvold, F., Stølen, S., Svendsen, S.R. (1989). Heat capacity of [alpha] quartz from 298.15 to 847.3 K, and of [beta] quartz from 847.3 to 1000 K-transition behaviour and revaluation of the thermodynamic. Thermochimica Acta 139, 225-243.
110. Hansson, K., Šimůnek, J., Mizoguchi, M., Lundin, L.C., van Genuchten, M.T. (2004). Water and heat transport in frozen soils: Numerical solutions and freeze-thaw applications. Vadose Zone Journal 3, 693-704.
111. Hellström, G. (1991). Ground heat storage. Thermal analyses of duct storage systems. PhD Thesis, Lund University, Lund, Sweden.
112. Hidalgo, J.J., Carrera, J., Dentz, M. (2009). Steady state heat transport in 3D heterogeneous porous media. Advances in Water Resources 32(8), 1206-1212.
113. Hopmans, J.W., Simunek, J., Bristow, K.L. (2002). Indirect estimation of soil thermal properties and water flux using heat pulse probe measurements: Geometry and dispersion effects. Water Resources Research 38(1) 1006, 7-1-7-14, doi: 10.1029/2000WR000071.
114. Hötzl, H., Makurat, A. (1981). Veränderungen der Grundwassertemperaturen unter dicht bebauten Flächen am Beispiel der Stadt Karlsruhe. Zeitschrift der deutschen geologischen Gesellschaft 132, 767-777.
115. Hsu, C.T., Cheng, P. (1990). Thermal dispersion in a porous medium. International Journal of Heat and Mass Transfer 33(8), 1587-1597.
116. Incropera, F.P., Dewitt, D.P., Bergman, T.L., Lavine, A.S. (2007). Introduction to Heat Transfer. 5th ed., J. Wiley & Sons, Hoboken, NJ, USA.
117. Johansen, O. (1975). Thermal conductivity of soils. PhD thesis Univ. of Trondheim (Translation US Army Cold Regions Research and Engineering Laboratory, Hanover, NH, USA, 1977).
118. Jun, L., Xu, Z., Jun, G., Jie, Y. (2009). Evaluation of heat exchange rate of GHE in geothermal heat pump systems. Renewable Energy 34, 2898-2904.
119. Jussel, P., Stauffer, F., Dracos, T. (1994). Transport modeling in heterogeneous aquifer: 1. Statistical description and numerical generation of gravel deposits. Water Resources Research 30(6), 1803-1817.
120. Kersten, M.S. (1949). Final report, laboratory research for the determination of the thermal properties of soils. Corps of Engineers, US Army, Univ. Minnesota Engineering Experiment Station, Bulletin No. 28.
121. Kinzelbach, W., Ackerer, P. (1986). Modélisation de la proagation d‘un contaminant dans un champ d’écoulement transitoire. Hydrogéolgie 2, 197-206.
122. Kollet, S.J., Cvijanovic, I., Schüttemeyer, D., Maxwell, R.M., Moene, A.F., Bayer P. (2009). The influence of rain sensible heat and subsurface energy transport on the energy balance at the land surface. Vadose Zone Journal 8(4), 846-857.
123. Kunii, D., Smith, J.M. (1960). Heat transfer characterristics of porous rocks. AIChE Journal 6(1), 71-78.
124. Lamarche, L., Kajl, S., Beauchamp, B. (2010). A review of methods to evaluate borehole thermal resistances in geothermal heat pump systems. Geothermics 39, 187-200.
125. Levec, J., Carbonell, R.G. (1985). Longitudinal and lateral thermal dispersion in packed beds. Part II. Comparison between theory and experiment. AIChE Journal 31(4), 591-602.
126. Lo Russo, S., Taddia, G. (2010). Advective heat transport in an unconfined aquifer induced by field injection of an open-loop groundwater heat pump. American Journal of Environmental Sciences 6(3), 253-259.
127. Lu, X. (2009). Experimental investigation of thermal dispersion in saturated soils with one-dimensional water flow. Soil Science Society of America Journal 73(6), 1912-1920.
128. Ma, R., Zheng, C. (2010). Effects of density and viscosity in modeling heat as a groundwater tracer. Ground Water 48(3), 380-389.
129. Marcotte, D., Pasquier, P. (2008). On the estimation of thermal resistance in borehole thermal conductivity tests. Renewable Energy 33, 2407-2415.
130. Markle, J.M., Schincarion, R.A., Sass, J.H., Molson, J.M. (2006). Characterizing the two-dimensional thermal conductivity distribution in a sand and gravel aquifer. Soil Science Society of America Journal 70, 1281-1294.
131. Menberg, K., Steger, H., Zorn, R., Reuß, M., Pröll, M., Bayer, P., Blum, P. (2013a). Bestimmung der Wärmeleitfähigkeit im Untergrund durch Labor-und Feldversuche und anhand theoretischer Modelle. Grundwasser 18(2), 103-116.
132. Menberg, K., Blum, P., Schaffitel, A., Bayer, P. (2013b). Long-term evolution of anthropogenic heat fluxes into asubsurface urban heat island. Environmental Science and Technology, in press.
133. Mercer, J.W., Faust, C.R., Miller, W.J., Pearson, F.J., Jr. (1982). Review of simulation techniques for aquifers thermal energy storage (ATES). In: V.T. Chow (Ed.), Advances in Hydroscience 13, 1-129. Academic Press, New York, USA.
134. Metzger, T., Didierjean, S., Maillet, D. (2004). Optimal experimental estimation of thermal dispersion coefficients in porous media. International Journal of Heat and Mass Transfer 47(14-16), 3341-3353.
135. Molina-Giraldo, N., Bayer, P., Blum, P. (2011). Evaluating the influence of thermal dispersion on temperature plumes from geothermal systems using analytical solutions. International Journal of Thermal Sciences 50, 1223-1231.
136. Molson, J.W., Frind, E., Palmer, C.D. (1992). Thermal energy storage in an unconfined aquifer: 2. Model development, validation, and application. Water Resources Research 28(10), 2857-2867.
137. Moyne, C., Didierjean, S., Amaral Souto, H.P., da Silveira, O.T. (2000). Thermal dispersion in porous media: One-equation model. International Journal of Heat and Mass Transfer 43(20), 3853-3867.
138. Neuman, S.P. (1990). Universal scaling of hydraulic conductivities and dispersivities in geologic media. Water Resources Research 26(8), 1749-1758.
139. Nield, D.A., Bejan, A. (2006). Convection in Porous Media. Springer, New York, USA.
140. Oostrom, M., Hayworth, J.S., Dane, J.H., Güven, O. (1992). Behavior of dense aqueous phase leachate plumes in homogeneous porous media. Water Resources Research 28(8), 2123-2134.
141. Parlange, M.B., Cahill, A.T., Nielsen, D.R., Hopmans, J.W., Wendroth, O. (1998). Review of heat and water movement in field soils. Soil and Till Research 47, 5-10.
142. Pedras, M.H.J., de Lemos, M.J.S. (2008). Thermal dispersion in porous media as a function of the solid-fluid conductivity ratio. International Journal of Heat and Mass Transfer 51(21-22), 5359-5367.
143. Press, F., Siever, R. (1998). Understanding Earth. 2nd ed., W.H. Freeman, New York.
144. Ramires, M.L.V., Nieto de Castro, C.A., Nagasaka, Y., Nagashima, A., Asseql, M.J., Wakeham, W.A. (1995). Standard reference data for the thermal conductivity of water. Journal of Physical and Chemical Reference Data 24(3), 1377-1381.
145. Rau, G., Andersen, M.S., Acworth, R.I. (2012). Experimental investigation of the thermal dispersivity term and its significance in the heat transport equation for flow in sediments. Water Resources Research 48, W03511, doi:10.1029/2011WR011038.
146. Reiter, M. (2001). Using precision temperature logs to estimate horizontal and vertical groundwater flow components. Water Resources Research 37(3), 663-674.
147. Sagia, Z., Stegou, A., Rakopoulos, C. (2012). Borehole resistance and heat conduction around vertical ground heat exchangers. The Open Chemical Engineering Journal 6, 32-40.
148. Sauty, J.P., Gringarten, A.C., Fabris, H., Thiery, D., Menjoz, A., Landel, P.A. (1982). Sensible energy storage in aquifers 2. Field experiments and comparison with theoretical results. Water Resources Research 18(2), 253-265.
149. Schaap, M.G., van Genuchten, M.T. (2006). A modified Mualem-van Genuchten formulation for improved description of the hydraulic conductivity near saturation. Vadose Zone Journal 5, 27-34.
150. Schulze-Makuch, D. (2005). Longitudinal dispersivity data and implications for scaling behaviour. Ground Water 43(3), 443-456.
151. Sharqawy, M.H., Morkheimer, E.M., Bader, H.M. (2009). Effective pipe-to-borehole thermal resistance for vertical ground heat exchangers. Geothermics 38, 271-277.
152. Shook, M. (2001). Predicting thermal breakthrough in heterogeneous media from tracer tests. Geothermics 30, 573-589.
153. Smith, L., Chapman, D.S. (1983). Thermal effects of groundwater flow. 1. Regional scale systems. Journal of Geophysical Research 88(B1), 593-608.
154. Sutton, M.G., Nutter, D.W., Couvillion, R.J. (2003). A ground resistance for vertical bore heat exchangers with groundwater flow. Journal of Energy Resources Technology ASME 125(3), 183-189.
155. Taniguchi, M., Shimada, J., Tanaka, T., Kayane, I., Sakura, Y., Shimano, Y., Dapaah-Siakwan, S., Kawashima, S. (1999). Disturbances of temperature-depth profiles due to surface climate change and subsurface water flow: 1. An effect of linear increase in surface temperature caused by global warming and urbanization in the Tokyo metropolitan area, Japan. Water Resources Research 35(5), 1507-1517.
156. Tarnawski, V.R., Wagner, B. (1993). Modeling the thermal conductivity of frozen soils. Cold Regions Science and Technology 22, 19-31.
157. Thomas, J., Jr., Frost, R.R., Harvey, R.D. (1973). Thermal conductivity of carbonate rocks. Engineering Geology 7(1), 3-12.
158. van Genuchten, R. (1980). A closed form equation for predicting the hydraulic conductivity of unsaturated soils. Soil Science Society of America Journal 44, 892-898.
159. Vandenbohede, A., Louwick, A., Lebbe, L. (2009). Conservative solute vs. heat transport in porous media during push-pull tests. Transport in Porous Media 76, 265-287.
160. VDI (2012). VDI-Richtlinie 4640: Thermische Nutzung des Untergrundes (Guideline for thermal use of the underground). Verein Deutscher Ingenieure, VDI-Gesellschaft Energietechnik, Germany.
161. Wagner, V., Blum, P., Kübert, M., Bayer, P. (2013). Analytical approach to groundwater-influenced thermal response tests of grouted borehole heat exchangers. Geothermics 46, 22-31.
162. Wang, H., Yang, B., Xie, J., Qi, C. (2012). Thermal performance of borehole heat exchangers in different aquifers: A case study from Shouguang. International Journal of Low Carbon Technologies, doi:10.1093/ijlct/cts043.
163. Waples, D.W., Waples, J.S. (2004a). A review and evaluation of specific heat capacities of rocks, minerals, and subsurface fluids. Part 1: Minerals and Nonporous rocks. Natural Resources Research 13(2), 97-122.
164. Waples, D.W., Waples, J.S. (2004b). A review and evaluation of specific heat capacities of rocks, minerals, and subsurface fluids. Part 2: Fluids and porous rocks. Natural Resources Research 13(2), 123-130.
165. Ward, J.D., Simmons, C.T., Dillon, P.J. (2007). A theoretical analysis of mixed convection in aquifer storage and recovery: How important are density effects? Journal of Hydrology 343, 169-186.
166. Webmineral. (2011). Webmineral: Basic information for minerals. Accessed on May, 15, 2011, at http://webmineral.com.
167. Whitaker, S. (1977). Simultaneous heat, mass and momentum transfer in porous media: A theory of drying. Advances in Heat Transfer 13, 119-203.
168. Williams, P.J., Smith, M.W. (1989). The Frozen Earth. Fundamentals of Geocryology. Cambridge University Press, Cambridge, UK.
169. Woodbury, A.D., Smith, L. (1985). On the thermal effects of three-dimensional groundwater flow. Journal of Geophysical Research 90(B1), 759-767.
170. Woodside, W., Messmer, J.H. (1961). Thermal conductivity of porous media. 1. Unconsolidated sands. Journal of Applied Physics 32(9), 1688-1698.
171. Woumeni, R.S., Vauclin, M. (2006). A field study of the coupled effects of aquifer stratification, fluid density, and groundwater fluctuations on dispersion assessments. Advances in Water Resources 29, 1037-1055.
172. Yang, W., Shi, M., Liu, G., Chen, Z. (2009). A two-region simulation model of vertical U-tube ground heat exchanger and its experimental verification. Applied Energy 86, 2005-2012.
173. Xu, M., Eckstein, Y. (1995). Use of weighted least-squares method in evaluating of the relationship between dispersivity and field scale. Ground Water 33(6), 905-908.
174. Zarrella, A., Scarpa, M., De Carli, M. (2011). Short time step analysis of vertical ground-coupled heat exchangers: The approach of CaRM. Renewable Energy 36, 2357-2367.
175. Zeng, H., Diao, N., Fang, Z. (2003). Heat transfer analysis of boreholes in vertical ground heat exchangers. International Journal of Heat and Mass Transfer 46, 4467-4481.
176. Zhu, K., Blum, P., Ferguson, G., Balke, K.-D., Bayer, P. (2010). Geothermal potential of urban heat islands. Environmental Research Letters 5, 044002, doi:10.1088/1748-9326/5/4/044002.
177. Abramowitz, M., Stegun, I.S. (1964). Handbook of Mathematical Functions. With Formulas, Graphs and Mathematical Tables. Dover Publ., (1980) Inc., New York, 1046p.
178. Avdonin, N.A. (1964). Some formulas for calculating the temperature field of a stratum subject to thermal injection. Izvestijavyssichucebnychzavedenij/Neft’ igaz 7(3), 37-41.
179. Baden-Württemberg (2009). Leitfaden zur Nutzung von Erdwärme mit Grundwasserwärmepumpen. Federal State of Baden-Württemberg, Germany.
180. Bandos, T.V., Montero, Á., Fernádez, E., Santander, J.L.G., Isodro, J.M., Pérez, J., de Códoba, P.J.F., Urchueguía, J.F. (2009). Finite line-source model for borehole heat exchangers: Effect of vertical temperature variations. Geothermics 38, 263-270.
181. Beck, M., Bayer, P., de Paly, M., Hecht-Mendez, J., Zell, A. (2013). Geometric arrangement and operation mode adjustment in low enthalpy geothermal fields for heating. Energy 49,434-443.
182. Bear, J. (1979). Hydraulics of Groundwater. McGraw-Hill, New York.
183. Bernier, M.A., Pinel, P., Labit, R., Paillot, R. (2004). A multiple load aggregation algorithm for annual hourly simulations of GCHP systems. HVAC&R Research 10, 471-487.
184. BLOCON (2008). Earth Energy Designer 3.0. BLOCON, Lund, Sweden. Current Version 3.16.
185. Bredehoeft, J.D., Papadopulos, I.S. (1965). Rates of vertical groundwater movement estimated from the earth’s thermal profile. Water Resources Research 1, 325-328.
186. Bundschuh, J. (1993). Modeling annual variations of spring and groundwater temperatures associated with shallow aquifer systems. Journal of Hydrology 142, 427-444.
187. Burger, A., Recordon, E., Bovet, D., Cotton, L., Saugy, B. (1984). Thermique des nappes souterraines. Presses Polytechniques Romandes, EPFL, Lausanne, Switzerland.
188. Carslaw, H.S., Jaeger, J.C. (1946). Conduction of Heat in Solids. 1st ed., Oxford University Press, Oxford, UK.
189. Carslaw, H.S., Jaeger, J.C. (1959). Conduction of Heat in Solids. 2nd ed., Oxford University Press, Oxford, UK.
190. Chaudhry, M.A., Zubair, S.M. (1994). Generalized incomplete gamma functions with applications. Journal of Computational and Applied Mathematics 55(1), 99-123.
191. Chen, C.-S., Reddell, D.L. (1983). Temperature distribution around a well during thermal injection and a graphical technique for evaluating aquifer thermal properties. Water Resources Research 19(2), 351-363.
192. Cui, P., Yang, H., Fang, Z. (2006). Heat transfer analysis of ground heat exchangers with inclined boreholes. Applied Thermal Engineering 26, 1169-1175.
193. DaCosta, J.A., Bennett, R.R. (1960). The pattern of flow in the vicinity of a recharging and discharging pair of wells in an aquifer having areal parallel flow. IAHS Publ. No. 52, pp. 524-536.
194. Diao, N., Li, Q., Fang, Z. (2004). Heat transfer in ground heat exchangers with groundwater advection. International Journal of Thermal Sciences 43(12), 1203-1211.
195. Domenico, P.A., Palciauskas, V.V. (1973). Theoretical analysis of forced convective heat transfer in regional ground-water flow. Geological Society of America Bulletin 84, 3803-3814.
196. Eskilson, P. (1987). Thermal analysis of heat extraction boreholes. Ph.D. Thesis Univ. of Lund, Lund, Sweden.
197. Eskilson, P., Claesson, J. (1988). Simulation model for thermally interacting heat extraction boreholes. Numerical Heat Transfer 13, 149-165.
198. Gelhar, L.W., Collins, M.A. (1971). General analysis of longitudinal dispersion in nonuniform flow. Water Resources Research 7(6), 1511-1521.
199. GLHEPRO (2007). GLHEPRO 4.0 for Windows User’s guide. School of Mechanical and Aerospace Engineering Oklahoma State University. Distributed by the International Ground Source Heat Pump Association.
200. Gringarten, A.C., Sauty, J.P. (1975). A theoretical study of heat extraction from aquifers with uniform regional flow. Journal of Geophysical Research 80(35), 4956-4962.
201. Gröber, H., Erk, S., Grigull, U. (1955). Grundgesetze der Wärmeübertragung. U. Grigull (rev. ed.), Springer, Berlin, Germany.
202. Guimerà, J., Ortuño, F., Ruiz, E., Pérez-Paricio, A. (2007). Influence of ground-source heat pumps on groundwater. Conference Proceedings, European Geothermal Congress, Unterhaching, Germany, 30 May-1 June 2007.
203. Güven, O., Melville, J.G., Molz, F.J. (1983). An analysis of the effect of surface heat exchange on the thermal behavior of an idealized aquifer thermal energy storage system. Water Resources Research 19(3), 860-864.
204. Häfner, F., Sames, D., Voigt, H.D. (1992). Wärme-und Stofftransport. Springer Verlag, Berlin.
205. Ham, P.A.S., Schotting, R.J., Prommer, H., Davis, G.B. (2004). Effects of hydrodynamic dispersion on plume lengths for instantaneous bimolecular reactions. Advances in Water Resources, 27(8), 803-813.
206. Hecht-Méndez, J., de Paly, M., Beck, M., and Bayer, P. (2013). Optimization of energy extraction for vertical closed-loop geothermal systems considering groundwater flow. Energy Conversion and Management, 66, 1-10.
207. Hellström, G. (1991). Ground heat storage. Thermal analyses of duct storage systems. PhD Thesis, Lund University, Lund, Sweden.
208. Huber, A. (2008). Software Manual Program EWS Version 4.0 Calculation of Borehole Heat Exchangers. Huber Energietechnik AG, Zurich, Switzerland.
209. Incropera, F.P., Dewitt, D.P., Bergman, T.L., Lavine, A.S. (2007). Introduction to Heat Transfer. 5th ed., J. Wiley & Sons, Hoboken, N.J., USA.
210. Ingerle, K. (1988). Beitrag zur Berechnung der Abkühlung des Grundwasserkörpers durch Wärmepumpen. Österreichische Wasserwirtschaft 40, 11(12).
211. Ingersoll, L.R., Zobel, O.J., Ingersoll, A.C. (1948). Heat Conduction; with Engineering, Geological and Other Applications. 1st ed., McGraw-Hill, New York, 278p.
212. Ingersoll, L.R., Zobel, O.J., Ingersoll, A.C. (1954). Heat Conduction; with Engineering, Geological and Other Applications. Rev. and ext. ed., McGraw-Hill, New York, 325p.
213. Keim, B., Lang, U. (2008). Thermische Nutzung von Grundwasser durch Wärmepumpen. Umweltministerium Baden-Württemberg, State of Baden-Württemberg, Stuttgart, Germany.
214. Kobus, H., Mehlhorn, H. (1980). Beeinflussung von Grundwassertemperaturen durch Wärmepumpen. gwf Wasser Abwasser 121(6), 261-268.
215. Lamarche, L., Beauchamp, B. (2007). A new contribution to the finite line-source model for geothermal boreholes. Energy and Buildings 39(2), 188-198.
216. Lauwerier, H.A. (1955). The transport of heat in an oil layer caused by the injection of hot fluid. Applied Scientific Research, Section A, 5 (2-3) 145-150.
217. Lippmann, M.J., Tsang, C.F. (1980). Ground-water use for cooling: Associated aquifer temperature changes. Ground Water 18(5), 452-458.
218. Lu, N., Ge, S. (1996). Effect of horizontal heat and fluid flow on the vertical temperature distribution in a semiconfining layer. Water Resources Research 32(5), 1449-1453.
219. Malofeev, G.E. (1960). Calculation of the temperature distribution in a formation when pumping hot fluid into a well. Neft’I Gaz 3(7), 59-64.
220. Man, Y., Yang, H., Diao, N., Liu, J., Fang, Z. (2010). A new model and analytical solutions for borehole and pile ground heat exchangers. International Journal of Heat and Mass Transfer 53(13-14), 2593-2601.
221. Marcotte, D., Pasquier, P., Sheriff, F., Bernier, M. (2010). The importance of axial effects for borehole design of geothermal heat-pump systems. Renewable Energy 35(4), 763-770.
222. Mehlhorn, H., Spitz, K.-H., Kobus, H. (1981). Kurzschlussströmung zwischen Schluck-und Entnahmebrunnen-Kritischer Abstand und Rückströmrate. Wasser und Boden 33(4) 170-174.
223. Mercer, J.W., Faust, C.R., Miller, W.J., Pearson Jr., F.J. (1982). Review of simulation techniques for aquifers thermal energy storage (ATES). In VenTe Chow (Editor), Advances in Hydroscience, 13, 1-129. Academic Press, New York, USA.
224. Metzger, T., Didierjean, S., Maillet, D. (2004). Optimal experimental estimation of thermal dispersion coefficients in porous media. International Journal of Heat and Mass Transfer 47(14-16), 3341-2253.
225. Michopoulos, A., Kyriakis, N. (2009). Predicting the fluid temperature at the exit of the vertical ground heat exchangers. Applied Energy 86, 2065-2070.
226. Mikhailov, M.D., Özisik, M.N. (1984). Unified Analysis and Solutions of Heat and Mass Diffusion. J. Wiley & Sons, New York, USA.
227. Molina-Giraldo, N., Bayer, P., Blum, P. (2011a). Evaluating the influence of thermal dispersion on temperature plumes from geothermal systems using analytical solutions. International Journal of Thermal Sciences 50(7), 1223-1231.
228. Molina-Giraldo, N., Zhu, K., Blum, P., Bayer, P., Fang, Z. (2011b). A moving finite line source model to simulate borehole heat exchangers with groundwater advection. International Journal of Thermal Sciences 50(12), 2506-2513.
229. Nagano, K., Katsura, T., Takeda, S. (2006). Development of a design and performance prediction tool for ground source heat pump system. Applied Thermal Engineering 26, 1578-1592.
230. ÖWAV (2009). Thermische Nutzung des Grundwassers und des Untergrunds—Heizen und Kühlen (Thermal use of groundwater and underground—Heating and cooling). ÖWAV-Regelblatt 207, Österreichischer Wasser-und Abfallwirtschaftsverbands ÖWAV (Guideline 207 of the Austrian Water and Waste Management Association), Vienna, Austria.
231. Philippe, M., Bernier, M., Marchio, D. (2009). Validity ranges of three analytical solutions to heat transfer in the vicinity of single boreholes. Geothermics 38(4), 407-413.
232. Rauch, W. (1992). Ausbreitung von Temperaturanomalien im Grundwasser. Veröffentlichung Univ. Innsbruck No. 188.
233. Signorelli, S., Bassetti, S., Pahud, D., Kohl, T. (2007). Numerical evaluation of thermal response tests. Geothermics 36(2), 141-166.
234. Spillette, A.G. (1965). Heat transfer during hot injection into an oil reservoir. Journal of Canadian Petroleum Technology 4(4), 213-218.
235. Sutton, M.G., Nutter, D.W., Couvillion, R.J. (2003). A ground resistance for vertical bore heat exchangers with groundwater flow. Journal of Energy Resources Technology ASME 125(3), 183-189.
236. Tóth, J. (1963). A theoretical analysis of groundwater flow in small drainage basins. Journal Geophysical Research 68(16) 4795-4812.
237. Trüeb, E. (1976). Die Bedeutung des Grundwassers für die Versorgung der Schweiz. DVGW-Schriftenreihe Wasser 10.
238. Uffink, G.J.M. (1983). Dampening fluctuations in groundwater temperature by heat exchange between the aquifer and the adjacent layers. Journal of Hydrology 60, 311-328.
239. Voigt, H.D., Haefner, F. (1987). Heat transfer in aquifers with finite caprock thickness during a thermal injection process. Water Resources Research 23(12), 2286-2292.
240. Woods, K., Ortega, A. (2011). The thermal response of an infinite line of open-loop wells for ground coupled heat pump systems. International Journal of Heat and Mass Transfer 54, 5574-5587.
241. Yang, S.Y., Yeh, H.D. (2008). An analytical solution for modeling thermal energy transfer in a confined aquifer system. Hydrogeology Journal 16, 1507-1515.
242. Zeng, H.Y., Diao, N.R., Fang, Z.H. (2002). A finite line-source model for boreholes in geothermal heat exchangers. Heat Transfer Asian Research 31(7), 558-567.
243. Zubair, S., Chaudhry, M. (1996). Temperature solutions due to time-dependent moving-line heat sources. Heat Mass Transfer 32(3), 185-189.
244. Ackerer, P., Younès, A., Mancip, M. (2004). A new coupling algorithm for density driven flow in porous media. Geophysical Research Letters 31, L12506, doi:10.1029/2004GL019496.
245. Al-Khoury, R. (2012). Computational Modeling of Shallow Geothermal Systems. CRC-Press/Baalkema, Taylor and Francis Group, Boca Raton, USA.
246. Al-Khoury, R., Bonnier, P.G., Brinkgreve, R.B.J. (2005). Efficient finite element formulation for geothermal heating systems. Part I: Steady-state. International Journal for Numerical Methods in Engineering 63, 988-1013.
247. Al-Khoury, R., Bonnier, P.G. (2006). Efficient finite element formulation for geothermal heating systems. Part II: Transient. International Journal for Numerical Methods in Engineering 67, 725-745.
248. Al-Khoury, R., Köbel, T., Schramedei, R. (2010). Efficient numerical modeling of heat exchangers. Computers and Geosciences 36, 1301-1315.
249. Anderson, M.P. (2005). Heat as a groundwater tracer. Ground Water 43(6), 951-968.
250. Bächler, D. (2003). Coupled thermal-hydraulic-chemical modeling at the Soultz-sous-Forêts HDR Reservoir (France). Ph.D. diss., Swiss Federal Institute of Technology, Zurich.
251. Bauer, D., Heidemann, W., Müller-Steinhagen, H., Diersch, H.-J.G. (2011). Thermal resistance and capacity models for borehole heat exchangers. International Journal of Energy Research 35, 312-320.
252. Bethke, C., Lee, M.-K., Park, J. (2007). Basin Modeling with Basin2, Release 5.0.1. Hydrogeology Program, University of Illinois, Urbana Champaign, Illinois.
253. Birkholzer, J.T., Zhang, Y.W. (2000). Modeling the thermal-hydrologic processes in a large-scale underground heater test in partially saturated fractured tuff. Water Resources Research 36(6), 1431-1447.
254. Bravo, H.R., Feng, J., Hunt, R.J. (2002). Using groundwater temperature data to constrain parameter estimation in a groundwater flow model of a wetland system. Water Resources Research 38(8), 28-1-28-14, doi:10.1029/2000WR000172.
255. Brehm, D. (1989). Development, Validation and Application of a 3-Dimensional, Coupled Flow and Transport Finite Differences Model. Giessener Geologische Schriften, Giessen, Lenz Verlag.
256. Brookfield, A.E., Sudicky, E.A., Parks, Y.-J., Conant, B. (2009). Thermal transport modelling in a fully integrated surface/subsurface framework. Hydrological Process 23(15), 2150-2164.
257. Brunner, P., Simmons, C.T. (2012). HydroGeoSphere: A fully integrated, physically based hydrological model. Ground Water 50(2), 170-176.
258. Chevalier, S., Banton, O. (1999). Modelling of heat transfer with the random walk method. Part 1. Application to thermal energy storage in porous aquifers. Journal of Hydrology 222, 129-139.
259. Chiang, W.-X., Kinzelbach, W. (2005). 2D Groundwater Modeling with PMWIN: A Simulation System for Modeling Flow and Transport Processes. Springer, Berlin, 2005.
260. Chiasson, A.D., Rees, S.J., Spitler, J.D. (2000). A preliminary assessment of the effects of groundwater flow on closed-loop ground source heat pump systems. ASHRAE Transactions 106(1), 380-393.
261. Clauser, C. (Ed.) (2003). Numerical Simulation of Reactive Flow in Hot Aquifers—SHEMAT and Processing SHEMAT. Springer, Berlin.
262. Constantz, J. (1998). Interaction between stream temperature, streamflow, and groundwater exchanges in alpine streams. Water Resources Research 34(7), 1609-1616.
263. Delta-h (2012). SPRING 4 Online Manual. Delta-h, Witten, Germany.
264. Deng, Z., Rees, S.J., Spitler, J.D. (2005). A model for annual simulation of standing column well ground heat exchangers. HVAC&R Research 11, 637-656.
265. DHI-WASY (2010). FEFLOW 6. User Manual. DHI-WASY GmbH, Berlin, Germany.
266. Diersch, H.-J.G. (1996). Interactive, graphics-based finite-element simulation system FEFLOW for modeling groundwater flow, contaminant mass and heat transport processes. User’s Manual Version 4.5, April 1996, WASY Institute for Water Resources Planning and Systems Research Ltd, Berlin. DHI-WASY GmbH, DHI-WASY GmbH, Berlin, Germany.
267. Diersch, H.-J., Kolditz, O. (1998). Coupled groundwater flow and transport: 2. Thermohaline and 3D convection systems. Advances in Water Resources 21, 401-425.
268. Diersch, H.-J.G., Bauer, D., Heidemann, W., Rühaak, W., Schätzl, P. (2011a). Finite element modeling of borehole heat exchanger systems. Part I Fundamentals. Computers and Geosciences 37, 1122-1135.
269. Diersch, H.-J.G., Bauer, D., Heidemann, W., Rühaak, W., Schätzl, P. (2011b). Finite element modeling of borehole heat exchanger systems. Part II. Numerical simulations. Computers and Geosciences 37, 1136-1147.
270. Doughty, C., Hellström, G., Tsang, C.F., Claesson, J. (1982). A dimensionless parameter approach to the thermal behaviour of an aquifer thermal energy storage system. Water Resources Research 18(3), 571-587.
271. Dwyer, T.E., Eckstein, Y. (1987). Finite-element simulation of low-temperature, heat-pump-coupled, aquifer thermal energy storage. Journal of Hydrology 95, 19-38.
272. Engeler, I., Hendricks Franssen, H.J., Müller, R., Stauffer, F. (2011). The importance of coupled modelling of variably saturated groundwater flow-heat transport for assessing river-aquifer interactions. Journal of Hydrology 397, 295-305.
273. Fan, R., Jiang, J., Yao, Y., Shiming, D., Ma, Z. (2007). A study of the performance of a geothermal heat exchanger under coupled heat conduction and groundwater advection. Energy 32, 2199-2209.
274. Ferguson, G. (2007). Heterogeneity and thermal modeling in ground water. Ground Water 45(4), 485-490.
275. Frind, E.O., Germain, D. (1986). Simulation of contaminant plumes with large dispersive contrast: Evaluation of alternating direction Galerkin models. Water Resources Research 22(13), 1857-1873.
276. Fujimitsu, Y., Fukuoka, K., Ehara, S., Takeshita, H., Abe, F. (2010). Evaluation of subsurface thermal environment change caused by a ground-coupled heat pump system. Current Applied Physics 11 (1) Supplement S113-S116.
277. Gao, Q., Zhou, X.-Z., Jiang, J., Chen, X.-L., Yan, Y.-Y. (2013). Numerical simulation of the thermal interaction between pumping and injecting well groups. Applied Thermal Engineering 51, 10-19.
278. Glück, B. (2011). Simulationsmodell Erdwärmesonden zur wärmetechnischen Beurteilung von Wärmequellen, Wärmesenken und Wärme/Kältespeichern (in German) (Simulation model for BHE for the assessment of heat sources and sinks and heat storage). www.berndglueck.de.
279. Graf, T., Therrien, R. (2007). Coupled thermohaline groundwater flow and single-species reactive solute transport in fractured porous media. Advances in Water Resources 30, 742-771.
280. Hecht-Méndez, J., Molina-Giraldo, N., Blum, P., Bayer, P. (2010). Evaluating MT3DMS for heat transport simulation of closed geothermal systems. Ground Water 48(5), 741-756.
281. Herbert, A.W., Jackson, C.P., Lever, D.A. (1988). Coupled groundwater flow and solute transport with fluid density strongly dependent upon concentration. Water Resources Research 24(10), 1781-1795.
282. Hidalgo, J.J., Carrera, J., Dentz, M. (2009). Steady state heat transport in 3D heterogeneous porous media. Advances in Water Resources 32(8), 1206-1212.
283. Holzbecher, E., Kohfahl, C. (2008). Geothermics Modelling using COMSOL Multiphysics. Seminar manual. Berlin.
284. Hsieh, P.A., Wingle, W., Healy, R.W. (2000). VS2DI-A graphical software package for simulating fluid flow and solute or energy transport in variably saturated porous media. USGS Water Resources Investigations Report 9, 9-4130. USGS, Denver, Colorado.
285. Jalaluddin Miyara, A. (2012). Thermal performance investigation of several types of vertical ground heat exchangers with different operation mode. Applied Thermal Engineering 33-34, p. 167-174. doi: 10.1016/j.applthermaleng.2011.09.030.
286. Kangas, M.T. (1996). Modeling of transport processes in porous media for energy applications. Ph.D. thesis, Helsinki University of Technology, Helsinki, Finland.
287. Kim, J., Lee, Y., Yoon, W.S., Yeon, Y.S., Koo, M.-H., Keehm, Y. (2010). Numerical modeling of aquifer thermal energy storage systems. Energy 35, 4955-4965.
288. Kinzelbach, W. (1987). Numerische Methoden zur Modellierung des Transports von Schadstoffen im Grundwasser. Schriftenreihe GWF Wasser-Abwasser. Vol. 21, Oldenburg Verlag, Munich, Germany.
289. Kinzelbach, W., Uffink, G. (1991). The random walk method and extensions in groundwater modelling. In: Transport Processes in Porous Media, J. Bear and M.Y. Corapcioglu (eds.), Kluwer Academic Publishers, Dordrecht, The Netherlands, pp. 761-787.
290. Kipp, K.L. (1997). Guide to the revised heat and solute transport simulator: HST3D—Version 2. Water-Resources Investigations Report 97-4157, USGS, Denver, Colorado.
291. Kipp, K.L., Jr., Hsieh, P.A., Charlton, S.R. (2008). Guide to the revised ground-water flow and heat transport simulator: HYDROTHERM—Version 3: U.S. Geological Survey Techniques and Methods 6-A25, 160 p.
292. Kohl, T., Hopkirk, R.J. (1995). FRACTure—A simulation code for forced fluid flow and transport in fractured rock. Geothermics 24(3), 333-343.
293. Laloui, L., Nuth, M., Vulliet, L. (2006). Experimental and numerical investigations of the behavior of a heat exchanger pile. International Journal for Numerical and Analytical Method in Geomechanics 30, 763-781.
294. Langevin, C.D., Thorne, D.T., Jr., Dausman, A.M., Sukop, M.C. Guo, W. (2008). SEAWAT Version 4: A Computer program for simulation of multi-species solute and heat transport. U.S. Geological Survey Techniques and Methods. Book 6, Chap. A22. USGS, Reston, Virginia.
295. Lazzari, S., Priarone, A., Zanchini, E. (2010). Long-term performance of BHE (borehole heat exchanger) with negligible groundwater flow. Energy 35, 4966-4974.
296. Lee, C.K., Lam, H.N. (2008). Computer simulation of borehole ground heat exchangers for geothermal heat pump systems. Renewable Energy 33, 1286-1296.
297. Leismann, H.M., Frind, E.O. (1989). A symmetric-matrix time integration scheme for the efficient solution of advection-dispersion problems. Water Resources Research 25(6), 1133-1139.
298. Lichtner, P.C., Kelkar, S., Robinson, B. (2002). New form of dispersion tensor for axisymmetric porous media with implementation in particle tracking. Water Resources Research 38(8), 1146, doi:10.1029/2000WR000100.
299. Lippmann, M.J., Tsang, C.F., Witherspoon, P.A. (1977). Analysis of the response of geothermal reservoirs under injection and production procedures. SPE Paper No. 6537.
300. Liu, H.H., Dane, J.H. (1996). An interpolation-corrected modified method of characteristics to solve advection-dispersion equations. Advances in Water Resources 19(6), 359-368.
301. Maréchal, J.C., Perrochet, P., Tacher, L. (1999). Longterm simulations of thermal and hydraulic characteristics in a mountain massif: The Mont Blanc case study, French and Italian Alps. Hydrogeology Journal 7(4), 341-354.
302. Mercer, J.W., Faust, C.R., Miller, W.J., Pearson, F.J., Jr. (1982). Review of simulation techniques for aquifers thermal energy storage (ATES). Advances in Hydroscience 13, 1-129. Academic Press, New York.
303. Mercer, J.W., Pinder, G.F., Donaldson, I.G. (1975). A Galerkin finite element analysis of the hydrothermal system at Wairakei, New Zealand. Journal of Geophysical Research 80(17), 2608-2621.
304. Merheb, F. (1984). Modèle de gestion des echanges hydrothermiques dans les nappes souterraines: Application à la région de Strasbourg. PhD Thesis Université Lous Pasteur de Strasbourg, Institut de Mécanique des Fluides.
305. Molson, J.W., Frind, E.O. (2012). HEATFLOW-SMOKER, Density-dependent flow and advective-dispersive transport of thermal energy, mass or residence time in three-dimensional porous or fractured porous media. User guide. Version 5.0, University of Laval and University of Waterloo, Canada.
306. Molson, J.W., Frind, E.O., Palmer, C.D. (1992). Thermal energy storage in an unconfined aquifer 2. Model development, validation, and application. Water Resources Research 28(19), 2857-2867.
307. Nam, Y., Ooka, R., Whang, S. (2008). Development of a numerical model to predict heat exchange rates for a ground-source heat pump system. Energy and Buildings 40, 2133-2140.
308. Painter, S., Seth, M.S. (2003). MULTIFLO User’s Manual; MULTIFLO Version 2.0. Southwest Research Institute, San Antonio, Texas.
309. Pannike, S., Kölling, M., Panteleit, P., Reichling, J., Scheps, V., Schulz, H.D. (2006). Auswirkung hydrogeologischer Kenngrössen auf die Kältefahnen von Erdwärmesondenanlagen in Lockersedimenten. Grundwasser 11(1), 6-18.
310. Park, H., Lee, S.-R., Yoon, S., Choi, J.-C. (2013). Evaluation of thermal response and performance of PHC energy pile: Field experiments and numerical simulations. Applied Energy 103, 12-24.
311. Park, H., Lee, S.-R., Yoon, S., Shin, H., Lee, D.-S. (2012). Case study of heat transfer behavior of helical ground heat exchanger. Energy and Buildings 53, 137-144.
312. Parlange, M.B., Cahill, A.T., Nielsen, D.R., Hopmans, J.W., Wendroth, O. (1998). Review of heat and water movement in field soils. Soil & Tillage Research 47, 5-10.
313. Philip, J.R., de Vries, D.A. (1957). Moisture movement in porous materials under temperature gradients. Transactions American Geophysical Union 38, 222-232.
314. Pollock, D.W. (1988). Semianalytical computation of path lines of finite difference models. Ground Water 26(6), 743-750.
315. Prickett, T.A., Naymik, T.G., Lonnquist, C.G. (1981). A “random walk” transport model for selected groundwater quality evaluations. Illinois State Water Survey Bulletin 65.
316. Pruess, K., Oldenburg, C., Moridis, G. (2012). TOUGH2 User’s Guide, Version 2.1. Report LBNL-43134 (revised), Lawrence Berkeley National Laboratory, Berkeley, California.
317. Radcliffe, D., Simůnek, J. (2010). Soil Physics with HYDRUS. Modeling and Applications. CRC Press, Boca Raton, Florida.
318. Raymond, J., Therrien, R., Gosselin, L., Lefebvre, R. (2011). Numerical analysis of thermal response tests with a groundwater flow and heat transfer model. Renewable Energy 36, 315-324.
319. Ronan, A.D., Prudic, D.E., Thodal, C.E., Constantz, J. (1998). Field study and simulation of diurnal temperature effects on infiltration and variably saturated flow beneath an ephemeral stream. Water Resources Research 34(9), 2137-2153.
320. Rühaak, W., Rath, V., Wolf, A., Clauser, C. (2008). 3D finite volume groundwater and heat transport modeling with non-orthogonal grids, using a coordinate transformation method. Advances in Water Resources 31(3), 513-524.
321. Russell, T.F., Heberton, C.I., Konikow, L.F., Hornberger, G.Z. (2003). A finite-volume ELLAM for three-dimensional solute-transport modelling. Ground Water 41(2), 258-272.
322. Sauty, J.P., Gringarten, A.C., Menjoz, A., Landel, P.A. (1982). Sensible energy storage in aquifers. 1. Theoretical study. Water Resources Research 18(2), 245-252.
323. Schmidt, T., Hellström, G. (2005). Ground source cooling—Working paper on usable tools and methods. EU Commission SAVE Programme and Nordic Energy Research.
324. Seo, H.S., Šimůnek, J., Poeter, E.P. (2007). Documentation of the HYDRUS package for MODFLOW-2000, the U.S. Geological Survey modular ground-water model, GWMI 2007-01. Int. Ground Water Modeling Ctr., Colorado School of Mines, Golden.
325. Sidiropoulos, E., Tzimopoulos, C. (1983). Sensitivity analysis of a coupled heat and mass transfer model in unsaturated porous media. Journal of Hydrology 64, 281-298.
326. Signorelli, S., Bassetti, S., Pahud, D., Kohl, T. (2007). Numerical evaluation of thermal response tests. Geothermics 36, 141-166.
327. Sophocleous, M. (1979). Analysis of water and heat flow in unsaturated-saturated porous media. Water Resources Research 15(5), 1195-1206.
328. Sun, Z.F., Carrington, C.G. (1995). A new numerical scheme for convective dominated heat transfer in a porous medium with strong temperature gradients. Transport in Porous Media 21, 101-122.
329. Tsang, C.F., Buschek, T., Doughty, C. (1981). Aquifer thermal energy storage: A numerical simulation of Auburn University field experiments. Water Resources Research 17(3), 647-658.
330. USGS (2012). 3D Finite-difference groundwater flow model MODFLOW. United States Geological Service, http://water.usgs.gov/software/lists/groundwater.
331. Vandenbohede, A., Lebbe, L. (2011). Heat transport in a coastal groundwater flow system near De Panne, Belgium. Hydrogeology Journal 19, 1225-1238.
332. Voss, C., Provost, A.M. (2010). SUTRA, A model for saturated-unsaturated, variable-density ground-water flow with solute or energy transport. Version 2.2, Water Resources Investigations Report 02-4231, USGS Reston, Virginia, USA.
333. Werner, D., Kley, W. (1977). Problems of heat storage in aquifers. Journal of Hydrology 34, 35-43.
334. Wiberg, N.-E. (1983). Heat storage in aquifers analyzed by the finite element method. Ground Water 21(2), 178-187.
335. Woods, K., Ortega, A. (2011). The thermal response of an infinite line of open-loop wells for ground coupled heat pump systems. International Journal of Heat and Mass Transfer 54, 5574-5587.
336. Wu, Y.S., Ahlers, C.F., Fraser, P., Simmons, A., Pruess, K. (1996). Software qualification of selected TOUGH2 modules. Rep. LBNL-39490, Lawrence Berkeley National Laboratory Berkeley, California.
337. Xue, Y., Xie, C., Li, Q. (1990). Aquifer thermal energy storage: A numerical simulation of filed experiments in China. Water Resources Research 26(10), 2365-2375.
338. Yeh, G.-T., Luxmoore, R.J. (1983). Modeling moisture and thermal transport in unsaturated porous media. Journal of Hydrology 64, 299-309.
339. Zheng, C. (1990). MT3D, A modular three-dimensional transport model for simulation of advection, dispersion, and chemical reactions of contaminants in groundwater systems. Report to the Kerr Environmental Research Laboratory, US Environmental Protection Agency, Ada, Oklahoma.
340. Zheng, C., Wang, P.P. (1999). MT3DMS: A modular three dimensional multi-species transport model for simulation of advection, dispersion and chemical reactions of contaminants in groundwater systems; Documentation and user’s guide. U.S. Army Engineer Research and Development Center Contract Report SERDP-99-1, Vicksburg, Mississippi.
341. Axelsson, G. (2010). Sustainable geothermal utilization—Case histories; definitions, research issues and modelling. Geothermics 39, 283-291.
342. Axelsson, G., Gudmundsson, A., Steingrimsson, B., Palmason, G., Armansson, H., Tulinius, H., Flovenz, O., Björnsson, S., Stefansson, V. (2001). Sustainable production of geothermal energy: Suggested definition. IGA-News, Quarterly 43, 1-2.
343. Banks, D. (2008). An Introduction to Thermogeology: Ground Source Heating and Cooling. Blackwell Publishing, Oxford, UK.
344. Beck, M., Bayer, P., de Paly, M., Hecht-Méndez, J., Zell, A. (2013). Geometric arrangement and operation mode adjustment in low-enthalpy geothermal borehole fields for heating. Energy 49, 434-443.
345. Bonte, M., Stuyfzand, P.J., Huismann, A., Van Beelen, P. (2011). Underground thermal energy storage: Environmental risks and policy developments in the Netherlands and European Union. Ecology and Society 16(1), 22.
346. Brielmann, H., Griebler, C., Schmidt, S.I., Michel, R., Lueders, T. (2009). Effects of thermal energy discharge on shallow groundwater ecosystems. FEMS Microbiology Ecology 68, 273-286.
347. Brielmann, H., Lueders, T., Schreglmann, K., Ferraro, F., Avramov, M., Hammerl, V., Blum, P., Bayer, P., Griebler, C. (2011). Oberflächennahe Geothermie und ihre potenziellen Auswirkungen auf Grundwasserökosysteme. Grundwasser 16, 77-91.
348. Eugster, W.J. (2001). Langzeitverhalten der EWS-Anlage in Elgg (ZH)—Spotmessung im Herbst 2001. Swiss Federal Office of Energy, Bern, Switzerland, 14 pp.
349. Ferguson, G. (2009). Unfinished business in geothermal energy. Ground Water 47(2), 167.
350. Ferguson, G., Woodbury, A.D. (2006). Observed thermal pollution and post-development simulations of low-temperature geothermal systems in Winnipeg, Canada. Hydrogeology Journal 14, 1206-1215.
351. Hähnlein, S., Bayer, P., Blum, P. (2010a). International legal status of the use of shallow geothermal energy. Renewable and Sustainable Energy Reviews 14, 2611-2625.
352. Hähnlein, S., Bayer, P., Ferguson, G., Blum, P. (2013). Sustainability and policy for the thermal use of shallow geothermal energy. Energy Policy, 59, 914-925.
353. Hähnlein, S., Molina-Giraldo, N., Blum, P., Bayer, P., Grathwohl, P. (2010b). Ausbreitung von Kältefahnen im Grundwasser bei Erdwärmesonden. Grundwasser 15, 123-133.
354. Hecht-Méndez, J., de Paly, M., Beck, M., Bayer, P. (2013). Optimization of energy extraction for vertical closed-loop geothermal systems considering groundwater flow. Energy Conversion and Management 66, 1-10.
355. Klotzbücher, T., Kappler, A., Straub, K.L., Haderlein, S.B. (2007). Biodegradability and groundwater pollutant potential of organic anti-freeze liquids used in borehole heat exchangers. Geothermics 36, 348-361.
356. Mégel, T., Rybach, L. (2000). Production capacity and sustainability of geothermal doublets. Proceedings World Geothermal Congress 2000, International Geothermal Association, Beppu-Morioka, Japan, pp. 849-854.
357. Rybach, L. (2003). Geothermal energy: Sustainability and the environment. Geothermics 32, 463-470.
358. Rybach, L., Eugster, W.J. (2002). Sustainability aspects of geothermal heat pumps. Proceedings 27th Workshop on Geothermal Reservoir Engineering, Stanford University, Stanford, California, pp. 50-64.
359. Rybach, L., Eugster, W.J. (2010). Sustainability aspects of geothermal heat pump operation, with experience from Switzerland. Geothermics 39, 365-369.
360. Rybach, L., Mongillo, M. (2006). Geothermal sustainability—A review with identified research needs. Geothermal Resources Council (GRC) Transactions 30, 1083-1090.
361. Saner, D., Juraske, R., Kübert, M., Blum, P., Hellweg, S., Bayer, P. (2010). Is it only CO2 that matters? A life cycle perspective on shallow geothermal systems. Renewable and Sustainable Energy Reviews 14, 1798-1813.
362. Tester, J.W., Anderson, B.J., Batchelor, A.S., Blackwell, D.D., DiPippo, R., Drake, E.M., Garnish, J., Livesay, B., Moore, M.C., Nichols, K., Petty, S., Toksöz, M.N., Veatch, R.W. (2006). The Future of Geothermal Energy—Impact of Enhanced Geothermal Systems (EGS) on the United States in the 21st Century. Massachusetts Institute of Technology and US Department of Energy, Cambridge, MA, USA, 332 pp.
363. Al-Khoury, R., Bonnier, P., Brinkgreve, R. (2005). Efficient finite element formulation for geothermal heating systems. Part I: Steady state. International Journal of Numerical Methods in Engineering 63(7), 988-1013.
364. Anderson, M.P. (2005). Heat as a groundwater tracer. Ground Water 43(6), 951-968.
365. Andrews, C.B., Anderson, M.P. (1979). Thermal alteration of groundwater caused by seepage from a cooling lake. Water Resources Research 15(3), 595-602.
366. Austin, A.W. (1998). Development of an in situ system for measuring ground thermal properties. Master-Thesis, Oklahoma State University, Stillwater, Oklahoma.
367. Austin, A.W., Yavuzturk, C., Spitler, J. (2000). Toward optimum sizing of heat exchangers for ground-source heat pump systems-development of an in-situ system and analysis procedure for measuring ground thermal. ASHRAE Transactions 106(1), 831-842.
368. Banks, D. (2008). An Introduction to Thermogeology: Ground Source Heating and Cooling. Blackwell Publishing, Oxford, UK.
369. Bardenhagen, I., Brenner, K., Oberle, A. (2010). Der Einfluss von fließendem Grundwasser auf Thermal-Response-Tests. bbr-Fachmagazin für Brunnen und Leitungsbau 61, Sonderheft Geothermie, 34-41.
370. Beier, R.A., Smith, M.D. (2003). Minimum duration of in-situ tests on vertical boreholes. ASHRAE Transactions 109(3), 475-486.
371. Blum, P., Campillo, G., Kölbel, T. (2011). Techno-economic and spatial analysis of vertical ground source heat pump systems in Germany. Energy 36, 3002-3011.
372. Bohling, G.C., Butler, J.J. (2010). Inherent limitations of hydraulic tomography. Ground Water 48, 809-824.
373. Brauchler, R., Liedl, R., Dietrich, P. (2003). A travel time based hydraulic tomographical approach. Water Resources Research 39(12), 1370, doi:10.1029/2003WR002262.
374. Butler, J.J., Jr. (2005). Hydrogeological methods for estimation of hydraulic conductivity. In: Y. Rubin, S. Hubbard (Eds.), Hydrogeophysics. Springer, the Netherlands, pp. 23-58.
375. Carslaw, H.S., Jaeger, J.C. (1959). Conduction of Heat in Solids. 2nd ed., Oxford University Press, Oxford, UK.
376. Choudhary, A. (1976). An approach to determine the thermal conductivity and diffusivity of a rock in situ. Ph.D. Thesis, Oklahoma State University.
377. Diersch, H.-J.G., Bauer, D., Heidemann, W., Rühaak, W., Schätzl, P. (2011a). Finite element modeling of borehole heat exchanger systems. Part 1. Fundamentals. Computers and Geosciences 37, 1122-1135.
378. Diersch, H.-J.G., Bauer, D., Heidemann, W., Rühaak, W., Schätzl, P. (2011b). Finite element modeling of borehole heat exchanger systems. Part 2. Numerical simulations. Computers and Geosciences 37(8), 1136-1147.
379. Eklöf, C., Gehlin, S. (1996). TED-a mobile equipment for thermal response test. Diploma Thesis, Luleå Tekniska Universitetet, Sweden.
380. Eskilson, P. (1986). Superposition Borehole Model, Manual for Computer Code. Department of Mathematical Physics, University of Lund, Lund, Sweden.
381. Fetter, C.W. (2001). Applied Hydrogeology. Prentice Hall, New Jersey, 598 pp.
382. Fujii, H., Okubo, H., Nishi, K., Itoi, R., Ohyama, K., Shibata, K. (2009). An improved thermal response test for U-tube ground heat exchanger based on optical fiber thermometers. Geothermics 38(4), 399-406.
383. Gehlin, S. (1998). Thermal response test—In situ measurements of thermal properties in hard rock. Licentiate Thesis, Department of Environmental Engineering, Lulea University of Technology, Sweden.
384. Gehlin, S. (2002). Thermal response test method development and evaluation. Ph.D. thesis, Department of Environmental Engineering, Lulea University of Technology, Lulea.
385. Gehlin, S., Hellström, G. (2003). Influence on thermal response test by groundwater flow in vertical fractures in hard rock. Renewable Energy 28, 2221-2238.
386. Gelhar, L.W., Welty, C., Rehfeldt, K.R. (1992). A critical review of data on field-scale dispersion in aquifers. Water Resources Research 28(7), 1955-1974.
387. Heidinger, P., Dornstädter, J., Fabricius, A., Welter, M., Wahl, G., Zurek, K. (2004). EGRT—Enhanced Geothermal Response Test. 8. Geothermische Fachtagung, Landau in der Pfalz, 10-12, November 2004, pp. 319-325.
388. Illman, W.A., Zhu, J., Craig, A.J., Yin, D. (2010). Comparison of aquifer characterization approaches through steady state groundwater model validation: A controlled laboratory sandbox study. Water Resources Research 46, W04502, doi:10.1029/2009WR007745.
389. Keys, W.S., Brown, R.F. (1978). The use of temperature logs to trace the movement of injected water. Ground Water 16(1), 32-48.
390. Kohl, T., Brenni, R., Eugster, W.J. (2002). System performance of a deep borehole heat exchanger. Geothermics 31, 687-708.
391. Kruseman, G.P., de Ridder, N.A. (1990). Analysis and Evaluation of Pumping Test Data. International Institute for Land Reclamation and Improvement, Wageningen, the Netherlands. ISBN 90-70754-20-7.
392. Leaf, A.T., Hart, D.J., Bahr, J.M. (2012). Active thermal tracer tests for improved hydrostratigraphic characterization. Ground Water 50(5), 726-735.
393. Lessoff, S.C., Schneidewind, U., Leven, C., Blum, P., Dietrich, P., Dagan, G. (2010). Spatial characterization of the hydraulic conductivity using direct-push injection logging. Water Resources Research 46, W12502.
394. Loague, K., Green, R.E. (1991). Statistical and graphical methods for evaluating solute transport models: Overview and application. Journal of Contaminant Hydrology 7(1-2), 51-73.
395. Ma, R., Zheng, C. (2010). Effects of density and viscosity in modeling heat as a groundwater tracer. Ground Water 48(3), 380-389.
396. Ma, R., Zheng, C., Zachara, J.M., Tonkin, M. (2012). Utility of bromide and heat tracers for aquifer characterization affected by highly transient flow conditions. Water Resources Research 48(8), 1-18.
397. Macfarlane, A., Förster, A., Merriam, D., Schrötter, J., Healey, J. (2002). Monitoring artificially stimulated fluid movement in the Cretaceous Dakota aquifer, western Kansas. Hydrogeology Journal 10(6), 662-673.
398. Menberg, K., Steger, H., Zorn, R., Reuss, M., Proell, M., Bayer, P., Blum, P. (2013). Bestimmung der Wärmeleitfähigkeit im Untergrund durch Labor-und Feldversuche und anhand theoretischer Modelle. Grundwasser, 18, 103-116.
399. Molina-Giraldo, N., Bayer, P., Blum, P. (2011). Evaluating the influence of mechanical thermal dispersion on temperature plumes from geothermal systems using analytical solutions. International Journal of Thermal Sciences 50, 1223-1231.
400. Molson, J.W., Frind, E.O., Palmer, C.D. (1992). Thermal energy storage in an unconfined aquifer: 2. Model development, validation, and application. Water Resources Research 28(10), 2857-2867.
401. Molz, F.J., Morin, R.H., Hess, A.E., Melville, J.G., Guven, O. (1989). The impeller meter for measuring aquifer permeability variations: Evaluation and comparison with other tests. Water Resources Research 25(7), 1677-1683.
402. Molz, F.J., Warman, J.C., Jones, T.E. (1978). Aquifer storage of heated water: Part I—A field experiment. Ground Water 16, 234-241.
403. Morgensen, P. (1983). Fluid to duct wall heat transfer in duct system heat storage. Proceedings of the International Conference on Surface Heat Storage in Theory and Practice, Stockholm, Sweden, pp. 652-657.
404. Palmer, C.D., Blowes, D.W., Frind, E.O., Molson, J.W. (1992). Thermal energy storage in an unconfined aquifer: 1. Field Injection Experiment. Water Resources Research 28(10), 2845-2856.
405. Poppei, J., Schwarz, R., Mattsson, N., Laloui, L., Wagner, R., Rohner, E. (2006). Innovative improvements of thermal response tests. Tech. Rep., Swiss Federal Office of Energy.
406. Raymond, J., Lamarche, L. (2013). Simulation of thermal response tests in a layered subsurface. Applied Energy 109, 293-301.
407. Raymond, J., Robert, G., Therrien, R., Gosselin, L. (2010). A novel thermal response test using heating cables. Proceedings of the World Geothermal Congress, Bali, Indonesia, pp. 1-8.
408. Raymond, J., Therrien, R., Gosselin, L., Lefebvre, R. (2011a). A review of thermal response test analysis using pumping test concepts. Ground Water 49(6), 932-945.
409. Raymond, J., Therrien, R., Gosselin, L., Lefebvre, R. (2011b). Numerical analysis of thermal response tests with a groundwater flow and heat transfer model. Renewable Energy 36(1), 315-324.
410. Roth, P., Georgiev, A., Busso, A., Barraza, E. (2004). First in situ determination of ground and borehole thermal properties in Latin America. Renewable Energy 29(12), 1947-1963.
411. Saar, M.O. (2011). Review: Geothermal heat as a tracer of large-scale groundwater flow and as a means to determine permeability fields. Hydrogeology Journal 19(1), 31-52.
412. Sanner, B., Hellström, G., Spitler, J., Gehlin, S. (2005). Thermal response test—Current status and world wide application. World Geothermal Congress, Antalya, Turkey, pp. 1436-1445.
413. Sanner, B., Reuss, M., Mands, E. (2000). Thermal response test—Experience in Germany. Proceedings of the 8th International Conference on Thermal Energy Storage, Terrastock 2000, Stuttgart, Germany, pp. 177-182.
414. Sauty, J.P., Gringarten, A.C., Fabris, H., Thiery, D., Menjoz, A., Landel, P.A. (1982b). Sensible energy storage in aquifers—2. Field experiments and comparison with theoretical results. Water Resources Research 18(2), 253-265.
415. Sauty, J.P., Gringarten, A.C., Menjoz, A., Landel, P.A. (1982a). Sensible energy storage in aquifers—1. Theoretical study. Water Resources Research 18(2), 245-252.
416. Schwartz, F.W., Zhang, H. (2003). Fundamentals of Ground Water. 583 pages, John Wiley & Sons, New York, USA.
417. Shonder, J.A., Beck, J.V. (1999). Determining effective soil formation properties from field data using a parameter estimation technique. ASHRAE Transactions 105, 458-466.
418. Shook, G.M. (2001). Predicting thermal breakthrough in heterogeneous media from tracer tests. Geothermics 30(6), 573-589.
419. Signorelli, S., Bassetti, S., Pahud, D., Kohl, T. (2007). Numerical evaluation of thermal response tests. Geothermics 36, 141-166.
420. Smith, L., Chapman, D.S. (1983). On the thermal effects of groundwater flow—1. Regional scale systems. Journal of Geophysical Research 88(B1), 593-608.
421. Smith, M., Perry, R. (1999). In situ testing and thermal conductivity testing. Proceedings of the 1999 GeoExchange Technical Conference and Expo, Oklahoma State University, Stillwater, Oklahoma.
422. Su, G.W., Jasperse, J., Seymour, D., Constantz, J. (2004). Estimation of hydraulic conductivity in an alluvial system using temperatures. Ground Water 42, 890-901.
423. Vandenbohede, A., Louwyck, A., Lebbe, L. (2008a). Identification and reliability of microbial aerobic respiration and denitrification kinetics using a single-well push-pull field test. Journal of Contaminant Hydrology 95(1-2), 42-56.
424. Vandenbohede, A., Louwyck, A., Lebbe, L. (2009). Conservative solute versus heat transport in porous media during push-pull tests. Transport Porous Media 76(2), 265-287.
425. Vandenbohede, A., Van Houtte, E., Lebbe, L. (2008b). Study of the feasibility of an aquifer storage and recovery system in a deep aquifer in Belgium. Hydrological Sciences Journal 53(4), 844-856.
426. Wagner, V. (2010). Analysis of thermal response tests using advanced analytical and high resolution numerical simulations, Diploma thesis, University of Tübingen, Tübingen, Germany, 88 pp.
427. Wagner, R., Clauser, C. (2005). Evaluating thermal response tests using parameter estimation for thermal conductivity and thermal capacity. Journal of Geophysics and Engineering 2(4), 349-356.
428. Wagner, R., Rohner, E. (2008). Improvements of thermal response tests for geothermal heat pumps. IEA Heat Pump Conference, Zürich, Switzerland.
429. Wagner, V., Bayer, P., Kübert, M., Blum, P. (2012). Numerical sensitivity study of thermal response tests. Renewable Energy 41, 245-253.
430. Wagner, V., Blum, P., Kübert, M., Bayer, P. (2013). Analytical approach for groundwater-influenced thermal response tests of grouted borehole heat exchangers. Geothermics 46, 22-31.
431. Wagner, V., Li, T., Bayer, P., Leven, C., Dietrich, P., Blum, P. (2014). Thermal tracer testing in a heterogeneous sedimentary aquifer: Field experiment and numerical simulation. Hydrogeology Journal. (accepted)
432. Witte, H.J.L. (2001). Geothermal response test with heat extraction and heat injection: Examples of application in research and design of geothermal ground heat exchangers. European Workshop on Geothermal Response Tests, Lausanne, Switzerland.
433. Witte, H.J.L. (2013). Error analysis of thermal response tests, Applied Energy 109, 302-311.
434. Witte, H.J.L., van Gelder, G.J. (2006). Geothermal response tests using controlled multipower level heating and cooling pulses (MPL-HCP): quantifying ground water effects on heat transport around a borehole heat exchanger. Proceedings of the Tenth International Conference on Thermal Energy Storage, New Jersey, USA.
435. Witte, H.J.L., van Gelder, G.J., Spitler, J.D. (2002). In-situ measurement of ground thermal conductivity: The Dutch Perspective. ASHRAE Transactions Research 108(1), 263-273.
436. Wu, X., Pope, G.A., Shook, G.M., Srinivasan, S. (2008). Prediction of enthalpy production from fractured geothermal reservoirs using partitioning tracers. International Journal of Heat and Mass Transfer 51(5-6), 1453-1466.
437. Xue, Y., Xie, C., Li, Q. (1990). Aquifer thermal energy storage: A numerical simulation of field experiments in China. Water Resources Research 26(10), 2365-2375.
438. Yavuzturk, C., Spitler, J.D. (1999). Short time step response factor model for vertical ground loop heat exchangers. Paper presented at ASHRAE Transactions 105(2), 475-485.
439. AWEL (2005). Massnahmenplan Wasser im Einzugsgebiet Limmat und Reppisch (Planned Measures for the Catchment of Rivers Limmat and Reppisch). Amt für Abfall, Wasser, Energie, Luft, Kanton Zürich, Zurich, Switzerland.
440. Birkholzer, J.T., Tsang, Y.W. (2000). Modeling the thermal-hydrologic processes in a large-scale underground heater test in partially saturated fractured tuff. Water Resources Research 36(6), 1431-1447.
441. Bisch, G., Klaas, N., Braun, J. (2012). geomatrix.bw: Teil 3: Validierung von Erdwärmesondensimulationen zum Kühlen und Heizen im Nah-und Fernfeld mit Hilfe geothermischer Testfelder. Report ZO4E28002, Stuttgart.
442. Blau, R.V., Werner, A., Würsten, M., Kobus, H., Söll, T., Zobrist, J., Hufschmied, P. (1991). Natürlicher und künstlicher Wärmeeintrag: Auswirkungen auf den Grundwasserhaushalt (Natural and Experimental Temperature Effects: Consequences on Ground Water Resources). Gas, Wasser, Abwasser (GWA), Schweizerischer Verein des Gas-und Wasserfaches, Zürich, Switzerland, Vol. 71, pp. 173-230, ISSN 0036-8008.
443. Cathomen, N. (2002). Wärmetransport im Grundwasser, Auswirkungen von Wärmepumpen auf die Grundwassertemperatur am Beispiel der Gemeinde Altach im Vorarlberger Rheintal. Diploma thesis, ETH Zurich, Institute of Hydromechanics and Water Resources Management, Zurich, Switzerland.
444. Cathomen, N., Stauffer, F., Kinzelbach, W., Osterkorn, F. (2002). Thermische Grundwassernutzung. Auswirkung von Wärmepumpenanlagen auf die Grundwassertemperatur. GWA 82(12), 901-906.
445. Chiang, W.-X., Kinzelbach, W. (2001). 2D Groundwater Modeling with PMWIN: A Simulation system for Modeling Flow and Transport Processes. Springer, Berlin.
446. Eugster, W.J. (2001). Langzeitverhalten der EWS-Anlage in Elgg (ZH)—Spotmessung im Herbst 2001. Swiss Federal Office of Energy, Bern, Switzerland, 14 pp.
447. Hähnlein, S., Bayer, P., Ferguson, G., Blum, P. (2013). Sustainability and policy for the thermal use of shallow geothermal energy. Energy Policy 59, 914-925.
448. Jäckli. (2010). Wohnsidlung Hardau II, Bullingerstrasse, Grundwasser-Wärmenutzung, Numerische Modellierung von bestehenden und künftigen Nutzungen im Stadtgebiet Zürich (Numerical Modeling of Existing and Future Thermal Use in the City Area of Zurich). Dr. Heinrich Jäckli AG, Zürich, Switzerland; Stadt Zürich, Immobilien-Bewirtschaftung, Zürich, Switzerland (unpublished).
449. Kempf, T., Freimoser, M., Haldimann, P., Longo, V., Müller, E., Schindler, C., Styger, G., Wyssling, L. (1986). Die Grundwasservorkommen im Kanton Zürich. Beiträge zur Geologie der Schweiz, Geotechnische Serie. Issued by: Schweiz. Geotechnische Kommission and Direktion der öffentlichen Bauten des Kantons Zürich.
450. Kobus, H., Söll, T. (1992). Modellierung des regionalen Wärmetransports: Fallbeispiele Kaltwassereinleitung Aefligen und Emmeinfiltration Kirchberg (Modelling of regional heat transport: Case studies coldwater discharge Aefligen and Emme infiltration Kirchberg). In: H. Kobus (Ed.), Schadstoffe im Grundwasser, Band 1: Wärme-und Schadstofftransport im Grundwasser. Deutsche Forschungsgemeinschaft DFG, VDH Verlagsgesellschaft mbH, Weinheim, Germany, pp. 341-375.
451. Kupfersberger, H. (2009). Heat transfer modeling of the Leinitzer Feld aquifer (Austria). Environmental Earth Science 59, 561-571.
452. Lo Russo, S., Civita, M.V. (2009). Open-loop heat pumps development for large buildings: A case study. Geothermics 38, 335-345.
453. Markle, J.M., Schincarion, R.A., Sass, J.H., Molson, J.M. (2006). Characterizing the two-dimensional thermal conductivity distribution in a sand and gravel aquifer. Soil Science Society of America Journal 70, 1281-1294.
454. Menberg, K., Bayer, P., Zosseder, K., Rumohr, S., Blum, P. (2013). Subsurface urban heat islands in German cities. Science of the Total Environment 442, 123-133.
455. Molson, J.W., Frind, E.O., Palmer, C.D. (1992). Thermal energy storage in an unconfined aquifer. 2. Model development, validation, and application. Water Resources Research 28(19), 2857-2867.
456. Molz, F.J., Parr, A.D., Andersen, P.F. (1981). Thermal energy storage in a confined aquifer. Water Resources Research 17(3), 641-645.
457. Molz, F.J., Warman, J.C., Jones, T.E. (1978). Aquifer storage of heated water: Part I—A field experiment. Ground Water 16(4), 234-241.
458. Müller, E., Ott, D. (2005). Thermische Nutzung des Grundwasserleiters Limmattal, Teilgebiet Hardhof-Schlieren (Thermal useofthe Limmat Valleyaquifer: Area Hardhof-Dietikon). Report Master project, ETH Zurich, Institute of Environmental Engineering, Zurich, Switzerland.
459. Nam, Y., Ooka, R. (2010). Numerical simulation of ground heat and water transfer for groundwater heat pump system based on real-scale experiment. Energy and Buildings 42(1), 69-75. http://journals.ohiolink.edu/ejc/article.cgi?issn=03787788&issue=v42i0001&article=69_nsoghapsbore.
460. ÖWAV (2009). Thermische Nutzung des Grundwassers und des Untergrunds—Heizen und Kühlen (Thermal use of groundwater and underground—Heating and cooling). ÖWAV-Regelblatt 207, Österreichischer Wasser-und Abfallwirtschaftsverbands ÖWAV (Guideline 207 of the Austrian Water and Waste Management Association), Vienna, Austria.
461. Palmer, C.D., Blowes, D.W., Frind, E.O., Molson, J.W. (1992). Thermal energy storage in an unconfined aquifer. Water Resources Research 28, 2845-2856.
462. Papadopulos, S.S., Larson, S.P. (1978). Aquifer storage of heated water: Part II—Numerical simulation of field results. Ground Water 16(4), 242-248.
463. Parr, A.D., Molz, F.J., Melville, J.G. (1983). Field determination of aquifer thermal energy parameters. Ground Water 21(1), 22-35.
464. Rybach, L., Eugster, W.J. (2010). Sustainability aspects of geothermal heat pump operation, with experience from Switzerland. Geothermics 39, 365-369.
465. Sass, J.H., Lachenbruch, A.H., Munroe, R.J. (1971). Thermal conductivity of rocks from measurements on fragments and its application to heat-flow determinations. Journal of Geophysical Research 76, 3391-3401.
466. Sauty, J.P., Gringarten, A.C., Fabris, H., Thiery, D., Menjoz, A., Landel, P.A. (1982b). Sensible energy storage in aquifers. 2. Field experiments and comparison with theoretical results. Water Resources Research 18(2), 253-265.
467. Sauty, J.P., Gringarten, A.C., Menjoz, A., Landel, P.A. (1982a). Sensible energy storage in aquifers. 1. Theoretical study. Water Resources Research 18(2), 245-252.
468. Söll, T. (1985). Vertikal-ebene Modellierung einer Kaltwassereinleitung in das Grundwasser. Wasserwirtschaft 75(9), 384-392, Springer, Berlin, SSN: 0043-0978.
469. Tsang, C.F., Buscheck, T., Doughty, C. (1981). Aquifer thermal energy storage: A numerical simulation of Auburn University field experiments. Water Resources Research 17(3), 647-658.
470. USGS (2012). 3D Finite-difference groundwater flow model MODFLOW. United States Geological Service, http://water.usgs.gov/software/lists/groundwater.
471. Vandenbohede, A., Hermans, T., Nguyen, F., Lebbe, L. (2011). Shallow heat injection and storage experiment: Heat transport simulation and sensitivity analysis. Journal of Hydrology 409, 262-272.
472. Wagner, V., Blum, P. (2012). geomatrix.bw: Teil 2: Prozessmodellierung und Chancenanalyse oberflächennaher Erdwärme in Baden-Württemberg. Report ZO4E28004, Karlsruhe.
473. Weinszieher, R. (1984). Hydrogeologische und quartärgeologische Untersuchungen im Raum Bad Waldsee-Wolfegg-Bad Wurzach (Lkr. Ravensburg, Oberschwaben). Albert-Ludwigs-Universität, Freiburg.
474. Xue, Y., Xie, C., Li, Q. (1990). Aquifer thermal energy storage: A numerical simulation of field experiments in China. Water Resources Research 26(10), 2365-2375.
475. Zheng, C., Wang, P.P. (1999). MT3DMS: A modular three-dimensional multi-species transport model for simulation of advection, dispersion and chemical reactions of contaminants in groundwater systems; Documentation and user’s guide. U.S. Army Engineer Research and Development Center Contract Report SERDP-99-1, Vicksburg, Mississippi.