Pompe di Calore Geotermiche: modelli per la risposta termica del ...

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Corso Geotermia e Pompe di Calore, Università di Genova, 2011 www.ditec. unige.it/corso_pdcgeo. Pompe di Calore Geotermiche: modelli per la risposta ...
Pompe di Calore Geotermiche: modelli per la risposta termica del terreno ed il dimensionamento dei campi geosonda Riferimenti Bibliografici [1] L.R. Ingersoll, O.J. Zobel and A.C. Ingersoll, Heat conduction with engineering, geological, and other applications. New York, McGraw-Hill, 1954. [2] D.P. Hart and R. Couvillion, Earth coupled heat transfer, Publication of the National Water Well Association, 1986. [3] H.S. Carslaw and J.C. Jaeger, Conduction of heat in solids. Oxford, U.K., Claremore Press, 1947. [4] J.D. Deerman and S.P. Kavanaugh, Simulation of vertical U-tube ground coupled heat pump systems using the cylindrical heat source solution. ASHRAE Transactions 97(1), 287-295, 1991. [5] S.P. Kavanaugh, K. Rafferty, Ground-Source Heat Pumps - Design of Geothermal System for Commercial and Institutional Buildings. ASHRAE, Atlanta, 1997. [6] ASHRAE handbook-HVAC Applications, Chapter 32, Geothermal Energy, 2003. [7] VDI 4640 guideline , Thermal Use of the Underground’, part 2, Ground Source Heat Pump Systems, 2001. [8] P. Eskilson, Thermal Analysis of Heat Extraction Boreholes. Ph.D. thesis, Lund University of Technology, Sweden, 1987. [9] C. Yavuzturk and J.D. Spitler, A short time step response factor model for vertical ground loop heat exchangers, ASHRAE Transactions 105(2), pp. 475-485, 1999. [10] M.A. Bernier, P. Pinel, R. Labib, R. Paillot, A Multiple Load Aggregation Algorithm for Annual Hourly Simulations of GCHP Systems. Int. J. Heating, Ventilating, Air-Conditioning and Refrigeration Research, 10, 471-488, 2004. [11] J. Claesson, P. Eskilson, Conductive heat extraction by a deep borehole, analytical studies, Tech, Re., Lund University, Sweden, 1987. [12] H. Zeng, N. Diao, Z. Fang, A finite line-source model for boreholes in geothermal heat exchangers, Heat Transfer Asian Reasearch 31(7), 558-567, 2002. [13] N. Diao, H. Zeng, Z. Fang, Improvement in modeling of heat transfer in vertical ground heat exchangers, HVAC&R Research 10(4) 459-470, 2004. [14] L. Lamarche, B. Beauchamp, A new contribution to the finite line-source model for geothermal boreholes, Energy and Buildings 39, 188-198, 2007 [15] O.Cauret, M.A Bernier, Experimental Validation of an Underground Compact Collector Model, Proc. 11th Int.Conf. Effstock Stockholm, 2009. [16] M.Fossa, O.Cauret, M.A. Bernier, Comparing the Thermal Performance of Ground Heat Exchangers of Various Lengths, Proc. 11th Int.Conf. Effstock Stockholm, 2009. [17] Paul, N. D., The Effect of Grout Thermal Conductivity on Vertical Geothermal Heat Exchanger Design and Performance. M.Sc. Thesis, South Dakota University, Vermillion, SD, USA, 1996. [18] Hellstrom, G., Ground Heat Storage; Thermal Analysis of Duct Storage Systems. Doctoral Thesis. Department of Mathematical Physics, University of Lund, Lund, Sweden, 310 pp., 1991. [19] Bennet, J., Claesson, J., Hellstrom, G., Multipole Method to Compute the Conductive Heat Transfer to and between Pipes in a Composite Cylinder. Notes on Heat Transfer 3-1987. Department of Building Physics, Lund Institute of Technology, Lund, Sweden, 1987. [20] Zeng, H., Diao, N., Fang, Z., Heat transfer analysis of boreholes in vertical ground heat exchangers. International Journal of Heat and Mass Transfer 46, 4467–4481, 2003. [21] Diao, N., Zeng, H., Fang, Z., Improvement in modeling of heat transfer in vertical ground heat exchangers. HVAC&R Research 10, 459–470, 2004. [22] Marcotte, D., Pasquier, P., On the estimation of thermal resistance in borehole thermal conductivity test. Renewable Energy 33, 2407–2415, 2008. [23] Choudary, A., An approach to determine the thermal conductivity and diffusivity of a rock in situ, PhD thesis, OSU, 1976. Corso Geotermia e Pompe di Calore, Università di Genova, 2011

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[24] Mogensen, P., Fluid to Duct Wall Heat Transfer in Duct System Heat Storages, Proc. Int Conf Subs Heat Storage, 652-657, 1983. [25] Claesson, J. and Eskilson, P., Conductive Heat Extraction to a deep Borehole, Thermal Analysis and Dimensioning Rules, Energy 13/6, 509-527, 1988. [26] Eklöf, C. and Gehlin, S, TED - a mobile equipment for thermal response test. MSc-thesis 1996:198E, LuTH, 62 p., 1996 [27] Gehlin, S. and Nordell, B., Thermal Response Test – a Mobile Equipment for Determining Thermal Resistance of Borehole, Proc. Megastock ’97, 103-108, 1997. [28] Austin, W., Development of an in-situ system for measuring ground thermal properties, MSc-thesis, OSU, 164 p., 1998. [29]Van Gelder, G., Witte, H.J.L., Kalma, S., Snijders, A. And Wennekes, R.G.A, In-situ-Messung der thermischen Eigenschaften des Untergrunds durch Wärmeentzug, Proc. OPET-Seminar Erdgekoppelte Wärmepumpen,. 56-58, 1999. [30] Skouby, A., Thermal Conductivity Testing, The Source 11-12/98, 1998. [31] Spitler, J.D., Rees, S. and Yavuzturk, C.: More Comments on In-situ Borehole Thermal Conductivity Testing. The Source 3-4/99, 1999. [32] Hellström, G., Thermal response test of a heat store in clay at Linköping, Sweden. Proc. Megastock ’97, 115-120, 1997. [33] Spitler, J.D., Yavuzturk, C. and Jain, N., Refinement and Validation of In-situ Parameter Estimation Models. short report, OSU, 1999. [34] Spitler, J.D., Yavuzturk, C. and Rees, S.J., In Situ Measurement of Ground Thermal Properties, Proc. Terrastock 2000, 165-170, 2000. [35] Chiasson, A., S.J. Rees, and J.D. Spitler, A preliminary assessment of the effects of ground-water flow on closed-loop ground-source heat pump systems. ASHRAE Transactions 106(1):380–393, 2000. [36] Witte, H.J.L., Geothermal response test with heat extraction and heat injection: Examples of application in research and design of geothermal heat exchangers, Workshop Lausanne, October, 2001. [37] Gehlin, S. and G. Hellström, Influence on thermal response test by groundwater flow in vertical fractures in hard rock. Renewable Energy 28:2221–2238, 2003. [38] Spitler J., Cullin J., Bernier M., Kummert M., Cui P., Liu X., Lee E., Fisher D. 2009. Preliminary intermodel comparison of ground heat exchanger simulation models. Proc. 11th Int. Conf. Effstock 2009, Stockholm, Sweden, June 14-17. M.Fossa, the Temperature Penalty Approach to the Design of Borehole Heat Exchangers for Heat Pump Applications, Energy and Buildings, vol. 43; p. 1473-1479, 2011. M.Fossa, D. Dalla Pietà, Numerical Evaluation of Bhe Thermal Resistance for Ground Coupled Heat Pump Applications, Alternative Sources/Sinks for Heat Pump and Air-Conditioning Conference, Padova, 5-7 Aprile 2011. M.Fossa, F.Minchio, Comparison of Borehole Heat Exchangers Response Based On Different Hourly Load Models, Alternative Sources/Sinks for Heat Pump and Air-Conditioning Conference, Padova, 5-7 Aprile 2011 M.Fossa, A Fast Method for Evaluating the Performance of Complex Arrangements of Borehole Heat Exchangers , Ashrae Hvac & Res. J. vol. 17:6, p. 948-958, 2011 S.Lazzari, A.Priarone, M.Fossa, Territorial mapping for the exploitation of low-enthalpy geothermal resources, UIT Conference 2011, p.485-490. E. Zanchini, S. Lazzari, A. Priarone, Effects of flow direction and thermal short-circuiting on the performance of small coaxial ground heat exchangers, Renewable Energy, vo. 35, pp. 1255-1265, 2010 D.Dalla Pietà, Modelli dinamici per il dimensionamento degli scambiatori interrati verticali per applicazioni geotermiche a pompa di calore, Tesi di Dottorato, Università di Genova, 2011

Corso Geotermia e Pompe di Calore, Università di Genova, 2011

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