Terrestrial heat flow evaluation from thermal response tests combined with temperature profiling

The terrestrial heat flux density, an essential information to evaluate the deep geothermal resource potential, is rarely defined over urban areas where energy needs are important. In an effort to fill this gap, the subsurface thermal conductivity estimated during two thermal response tests was coup...

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Fecha de publicación:: 2019

Institución:: Universidad de Medellín

Repositorio:: Repositorio UDEM

Idioma:: eng

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network_acronym_str	REPOUDEM2
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repository_id_str
dc.title.none.fl_str_mv	Terrestrial heat flow evaluation from thermal response tests combined with temperature profiling
title	Terrestrial heat flow evaluation from thermal response tests combined with temperature profiling
spellingShingle	Terrestrial heat flow evaluation from thermal response tests combined with temperature profiling Geothermal Heat flow Paleoclimate Temperature profile Thermal conductivity Thermal response test Geophysics Geothermal fields Glacial geology Heat exchangers Heat flux Heat transfer Numerical models Temperature control Testing Bottom boundary conditions Conductive heat transfer Geothermal Ground heat exchangers Numerical simulation approaches Paleoclimates Temperature profiles Thermal response test Thermal conductivity
title_short	Terrestrial heat flow evaluation from thermal response tests combined with temperature profiling
title_full	Terrestrial heat flow evaluation from thermal response tests combined with temperature profiling
title_fullStr	Terrestrial heat flow evaluation from thermal response tests combined with temperature profiling
title_full_unstemmed	Terrestrial heat flow evaluation from thermal response tests combined with temperature profiling
title_sort	Terrestrial heat flow evaluation from thermal response tests combined with temperature profiling
dc.subject.none.fl_str_mv	Geothermal Heat flow Paleoclimate Temperature profile Thermal conductivity Thermal response test Geophysics Geothermal fields Glacial geology Heat exchangers Heat flux Heat transfer Numerical models Temperature control Testing Bottom boundary conditions Conductive heat transfer Geothermal Ground heat exchangers Numerical simulation approaches Paleoclimates Temperature profiles Thermal response test Thermal conductivity
topic	Geothermal Heat flow Paleoclimate Temperature profile Thermal conductivity Thermal response test Geophysics Geothermal fields Glacial geology Heat exchangers Heat flux Heat transfer Numerical models Temperature control Testing Bottom boundary conditions Conductive heat transfer Geothermal Ground heat exchangers Numerical simulation approaches Paleoclimates Temperature profiles Thermal response test Thermal conductivity
description	The terrestrial heat flux density, an essential information to evaluate the deep geothermal resource potential, is rarely defined over urban areas where energy needs are important. In an effort to fill this gap, the subsurface thermal conductivity estimated during two thermal response tests was coupled with undisturbed temperature profile measurements conducted in the same boreholes to infer terrestrial heat flow near the surface. The undisturbed temperature profiles were reproduced with an inverse numerical model of conductive heat transfer, where the optimization of the model bottom boundary condition allows determining the near-surface heat flow. The inverse numerical simulation approach was previously validated by optimizing a steady-state and synthetic temperature profile calculated with Fourier's Law. Data from two thermal response tests in ground heat exchangers of one hundred meters depth were analyzed with inverse numerical simulations provided as examples for the town of Québec City, Canada, and Orléans, France. The temperature profiles measured at the sites and corrected according to the paleoclimate effects of the quaternary glaciations were reproduced with the model. The approach presented offers an alternative to assess heat flow in the preliminary exploration of deep geothermal resources of urban areas, where thermal response tests may be common while deep wells are sparsely distributed over the area to assess heat flow. © 2019 Elsevier Ltd
publishDate	2019
dc.date.accessioned.none.fl_str_mv	2020-04-29T14:53:42Z
dc.date.available.none.fl_str_mv	2020-04-29T14:53:42Z
dc.date.none.fl_str_mv	2019
dc.type.eng.fl_str_mv	Article
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dc.type.driver.none.fl_str_mv	info:eu-repo/semantics/article
dc.identifier.issn.none.fl_str_mv	14747065
dc.identifier.uri.none.fl_str_mv	http://hdl.handle.net/11407/5699
dc.identifier.doi.none.fl_str_mv	10.1016/j.pce.2019.07.002
identifier_str_mv	14747065 10.1016/j.pce.2019.07.002
url	http://hdl.handle.net/11407/5699
dc.language.iso.none.fl_str_mv	eng
language	eng
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dc.relation.references.none.fl_str_mv	Allis, R.G., The effect of Pleistocene climatic variations on the geothermal regime in Ontario: a reassessment (1978) Can. J. Earth Sci., 16 (7), p. 1517 Aziz, A.K., Monk, P., Continuous finite elements in space and time for the heat equation (1989) Math. Comput., 52 (186), pp. 255-274 Bédard, K., Comeau, F.A., Raymond, J., Gloaguen, E., Comeau, G., Millet, E., Foy, S., Cartographie de la conductivité thermique des Basses-Terres du Saint-Laurent. Rapport de recherche (R1789) (2018), INRS, Centre Eau Terre Environnement Québec Bédard, K., Comeau, F.A., Raymond, J., Malo, M., Nasr, M., Geothermal characterization of the St. Lawrence Lowlands sedimentary basin, Québec, Canada (2017) Nat. Resour. Res., , 10.1007/s11053-017-9363-2 Bédard, K., Raymond, J., Malo, M., Konstantinovskaya, E., Minea, V., St. Lawrence Lowlands bottom-hole temperature: various correction methods (2014) GRC Trans., 38, pp. 351-355 Bédard, K., Comeau, F.A., Malo, M., Capacité effective de stockage géologique du CO2 dans le bassin des Basses-Terres du Saint-Laurent (No. INRSCO2 2012 V3.1) (2012), Institut national de la recherche scientifique - Centre Eau Terre Environnement Québec, Canada Beck, A.E., Climatically perturbed temperature gradients and their effect on regional and continental heat-flow means (1977) Tectonophysics, 41 (1), pp. 17-39 Bodri, L., Cermak, V., CHAPTER 2 - climate change and subsurface temperature (2007) Borehole Climatology, pp. 37-173. , Elsevier Oxford COMSOL, A.B., COMSOL Multiphysics Reference Manual. Stockholm (2016) COMSOL, A.B., Optimization Module User's Guide, Version 4.4. Stockholm (2013) Conn, A.R., Scheinberg, K., Vicente, L.N., (2009) Introduction to Derivative-free Optimization, 8. , Siam Philadelfia Dabral, V., Kapoor, S., Dhawan, S., Numerical simulation of one dimensional heat equation: B-spline finite element method (2011) Indian J. Comput. Sci. Eng. (IJCSE), 2, pp. 222-235 Davies, J.H., Global map of solid Earth surface heat flow (2013) Geochem. Geophys. Geosyst., 14 (10), pp. 4608-4622 Fou, T.-K.J., Thermal Conductivity and Heat Flow at St. Jerôme, Quebec (1969), (M.Sc. Thesis) McGill University Montreal, Canada Golovanova, I.V., Sal'manova, R.Y., Tagirova, C.D., Method for deep temperature estimation with regard to the paleoclimate influence on heat flow (2014) Russ. Geol. Geophys., 55 (9), pp. 1130-1137 Hartmann, A., Rath, V., Uncertainties and shortcomings of ground surface temperature histories derived from inversion of temperature logs (2005) J. Geophys. Eng., 2 (4), p. 299 Jessop, A.M., (1990) Chapter 3 - Analysis and Correction of Heat Flow on Land. Thermal Geophysics, 17, pp. 57-85. , Elsevier Amsterdam Majorowicz, J.A., Minea, V., Geothermal energy potential in the St-Lawrence river area, Québec (2012) Geothermics, 43, pp. 25-36 Majorowicz, J., Wybraniec, S., New terrestrial heat flow map of Europe after regional paleoclimatic correction application (2011) Int. J. Earth Sci., 100 (4), pp. 881-887 Majorowicz, J., afanda, J., Heat flow variation with depth in Poland: evidence from equilibrium temperature logs in 2.9-km-deep well Torun-1 (2008) Int. J. Earth Sci., 97 (2), pp. 307-315 Mareschal, J.C., Jaupart, C., Variations of surface heat flow and lithospheric thermal structure beneath the North American craton (2004) Earth Planet. Sci. Lett., 223 (1), pp. 65-77 Mareschal, J.C., Jaupart, C., Gariépy, C., Cheng, L.Z., Guillou-Frottier, L., Bienfait, G., Lapointe, R., Heat flow and deep thermal structure near the southeastern edge of the Canadian Shield (2000) Can. J. Earth Sci., 37 (2-3), pp. 399-414 Ouzzane, M., Eslami-Nejad, P., Badache, M., Aidoun, Z., New correlations for the prediction of the undisturbed ground temperature (2015) Geothermics, 53, pp. 379-384 Raymond, J., Lamarche, L., Malo, M., Extending thermal response test assessments with inverse numerical modeling of temperature profiles measured in ground heat exchangers (2016) Renew. Energy, 99, pp. 614-621 Raymond, J., Lamarche, L., Development and numerical validation of a novel thermal response test with a low power source (2014) Geothermics, 51, pp. 434-444 Sanner, B., Hellström, G., Spitler, J., Gehlin, S., More than 15 Years of Mobile Thermal Response Test A Summary of Experiences and Prospects (2013), European Geothermal Congress Pisa Sass, J.H., Beardsmore, G., Heat Flow Measurements, Continental. Encyclopedia of Solid Earth Geophysics (2011), pp. 569-573. , Springer Dordrecht Données thermiques (flux de chaleur et température) (2007), http://sigminesfrance.brgm.fr/geophy_flux.asp, Bureau de recherches géologiques et minières Orléans Saull, V.A., Clark, T.H., Doig, R.P., Butler, R.B., Terrestrial heat flow in the St. Lawrence Lowland of Québec (1962) Can. Min. Metall. Bull., 65, pp. 63-66 Velez-Marquez, M.I., Raymond, J., Blessent, D., Philippe, M., Simon, N., Bour, O., Lamarche, L., Distributed thermal response tests using a heating cable and fiber optic temperature sensing (2018) Energies, 11 (11), p. 3059 Westaway, R., Younger, P.L., Accounting for paleoclimate and topography: a rigorous approach to correction of the British geothermal dataset (2013) Geothermics, 48, pp. 31-51
dc.rights.coar.fl_str_mv	http://purl.org/coar/access_right/c_16ec
rights_invalid_str_mv	http://purl.org/coar/access_right/c_16ec
dc.publisher.none.fl_str_mv	Elsevier Ltd
dc.publisher.program.none.fl_str_mv	Ingeniería Ambiental;Ingeniería en Energía
dc.publisher.faculty.none.fl_str_mv	Facultad de Ingenierías
publisher.none.fl_str_mv	Elsevier Ltd
dc.source.none.fl_str_mv	Physics and Chemistry of the Earth
institution	Universidad de Medellín
repository.name.fl_str_mv	Repositorio Institucional Universidad de Medellin
repository.mail.fl_str_mv	repositorio@udem.edu.co
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spelling	20192020-04-29T14:53:42Z2020-04-29T14:53:42Z14747065http://hdl.handle.net/11407/569910.1016/j.pce.2019.07.002The terrestrial heat flux density, an essential information to evaluate the deep geothermal resource potential, is rarely defined over urban areas where energy needs are important. In an effort to fill this gap, the subsurface thermal conductivity estimated during two thermal response tests was coupled with undisturbed temperature profile measurements conducted in the same boreholes to infer terrestrial heat flow near the surface. The undisturbed temperature profiles were reproduced with an inverse numerical model of conductive heat transfer, where the optimization of the model bottom boundary condition allows determining the near-surface heat flow. The inverse numerical simulation approach was previously validated by optimizing a steady-state and synthetic temperature profile calculated with Fourier's Law. Data from two thermal response tests in ground heat exchangers of one hundred meters depth were analyzed with inverse numerical simulations provided as examples for the town of Québec City, Canada, and Orléans, France. The temperature profiles measured at the sites and corrected according to the paleoclimate effects of the quaternary glaciations were reproduced with the model. The approach presented offers an alternative to assess heat flow in the preliminary exploration of deep geothermal resources of urban areas, where thermal response tests may be common while deep wells are sparsely distributed over the area to assess heat flow. © 2019 Elsevier LtdengElsevier LtdIngeniería Ambiental;Ingeniería en EnergíaFacultad de Ingenieríashttps://www.scopus.com/inward/record.uri?eid=2-s2.0-85069710860&doi=10.1016%2fj.pce.2019.07.002&partnerID=40&md5=e61d9d1ef6a2a5719bda18b99cf1b182Allis, R.G., The effect of Pleistocene climatic variations on the geothermal regime in Ontario: a reassessment (1978) Can. J. Earth Sci., 16 (7), p. 1517Aziz, A.K., Monk, P., Continuous finite elements in space and time for the heat equation (1989) Math. Comput., 52 (186), pp. 255-274Bédard, K., Comeau, F.A., Raymond, J., Gloaguen, E., Comeau, G., Millet, E., Foy, S., Cartographie de la conductivité thermique des Basses-Terres du Saint-Laurent. Rapport de recherche (R1789) (2018), INRS, Centre Eau Terre Environnement QuébecBédard, K., Comeau, F.A., Raymond, J., Malo, M., Nasr, M., Geothermal characterization of the St. Lawrence Lowlands sedimentary basin, Québec, Canada (2017) Nat. Resour. Res., , 10.1007/s11053-017-9363-2Bédard, K., Raymond, J., Malo, M., Konstantinovskaya, E., Minea, V., St. Lawrence Lowlands bottom-hole temperature: various correction methods (2014) GRC Trans., 38, pp. 351-355Bédard, K., Comeau, F.A., Malo, M., Capacité effective de stockage géologique du CO2 dans le bassin des Basses-Terres du Saint-Laurent (No. INRSCO2 2012 V3.1) (2012), Institut national de la recherche scientifique - Centre Eau Terre Environnement Québec, CanadaBeck, A.E., Climatically perturbed temperature gradients and their effect on regional and continental heat-flow means (1977) Tectonophysics, 41 (1), pp. 17-39Bodri, L., Cermak, V., CHAPTER 2 - climate change and subsurface temperature (2007) Borehole Climatology, pp. 37-173. , Elsevier OxfordCOMSOL, A.B., COMSOL Multiphysics Reference Manual. Stockholm (2016)COMSOL, A.B., Optimization Module User's Guide, Version 4.4. Stockholm (2013)Conn, A.R., Scheinberg, K., Vicente, L.N., (2009) Introduction to Derivative-free Optimization, 8. , Siam PhiladelfiaDabral, V., Kapoor, S., Dhawan, S., Numerical simulation of one dimensional heat equation: B-spline finite element method (2011) Indian J. Comput. Sci. Eng. (IJCSE), 2, pp. 222-235Davies, J.H., Global map of solid Earth surface heat flow (2013) Geochem. Geophys. Geosyst., 14 (10), pp. 4608-4622Fou, T.-K.J., Thermal Conductivity and Heat Flow at St. Jerôme, Quebec (1969), (M.Sc. Thesis) McGill University Montreal, CanadaGolovanova, I.V., Sal'manova, R.Y., Tagirova, C.D., Method for deep temperature estimation with regard to the paleoclimate influence on heat flow (2014) Russ. Geol. Geophys., 55 (9), pp. 1130-1137Hartmann, A., Rath, V., Uncertainties and shortcomings of ground surface temperature histories derived from inversion of temperature logs (2005) J. Geophys. Eng., 2 (4), p. 299Jessop, A.M., (1990) Chapter 3 - Analysis and Correction of Heat Flow on Land. Thermal Geophysics, 17, pp. 57-85. , Elsevier AmsterdamMajorowicz, J.A., Minea, V., Geothermal energy potential in the St-Lawrence river area, Québec (2012) Geothermics, 43, pp. 25-36Majorowicz, J., Wybraniec, S., New terrestrial heat flow map of Europe after regional paleoclimatic correction application (2011) Int. J. Earth Sci., 100 (4), pp. 881-887Majorowicz, J., afanda, J., Heat flow variation with depth in Poland: evidence from equilibrium temperature logs in 2.9-km-deep well Torun-1 (2008) Int. J. Earth Sci., 97 (2), pp. 307-315Mareschal, J.C., Jaupart, C., Variations of surface heat flow and lithospheric thermal structure beneath the North American craton (2004) Earth Planet. Sci. Lett., 223 (1), pp. 65-77Mareschal, J.C., Jaupart, C., Gariépy, C., Cheng, L.Z., Guillou-Frottier, L., Bienfait, G., Lapointe, R., Heat flow and deep thermal structure near the southeastern edge of the Canadian Shield (2000) Can. J. Earth Sci., 37 (2-3), pp. 399-414Ouzzane, M., Eslami-Nejad, P., Badache, M., Aidoun, Z., New correlations for the prediction of the undisturbed ground temperature (2015) Geothermics, 53, pp. 379-384Raymond, J., Lamarche, L., Malo, M., Extending thermal response test assessments with inverse numerical modeling of temperature profiles measured in ground heat exchangers (2016) Renew. Energy, 99, pp. 614-621Raymond, J., Lamarche, L., Development and numerical validation of a novel thermal response test with a low power source (2014) Geothermics, 51, pp. 434-444Sanner, B., Hellström, G., Spitler, J., Gehlin, S., More than 15 Years of Mobile Thermal Response Test A Summary of Experiences and Prospects (2013), European Geothermal Congress PisaSass, J.H., Beardsmore, G., Heat Flow Measurements, Continental. Encyclopedia of Solid Earth Geophysics (2011), pp. 569-573. , Springer DordrechtDonnées thermiques (flux de chaleur et température) (2007), http://sigminesfrance.brgm.fr/geophy_flux.asp, Bureau de recherches géologiques et minières OrléansSaull, V.A., Clark, T.H., Doig, R.P., Butler, R.B., Terrestrial heat flow in the St. Lawrence Lowland of Québec (1962) Can. Min. Metall. Bull., 65, pp. 63-66Velez-Marquez, M.I., Raymond, J., Blessent, D., Philippe, M., Simon, N., Bour, O., Lamarche, L., Distributed thermal response tests using a heating cable and fiber optic temperature sensing (2018) Energies, 11 (11), p. 3059Westaway, R., Younger, P.L., Accounting for paleoclimate and topography: a rigorous approach to correction of the British geothermal dataset (2013) Geothermics, 48, pp. 31-51Physics and Chemistry of the EarthGeothermalHeat flowPaleoclimateTemperature profileThermal conductivityThermal response testGeophysicsGeothermal fieldsGlacial geologyHeat exchangersHeat fluxHeat transferNumerical modelsTemperature controlTestingBottom boundary conditionsConductive heat transferGeothermalGround heat exchangersNumerical simulation approachesPaleoclimatesTemperature profilesThermal response testThermal conductivityTerrestrial heat flow evaluation from thermal response tests combined with temperature profilingArticleinfo:eu-repo/semantics/articlehttp://purl.org/coar/version/c_970fb48d4fbd8a85http://purl.org/coar/resource_type/c_6501http://purl.org/coar/resource_type/c_2df8fbb1Vélez Márquez, M.I., Centre Eau Terre Environnement, Institut national de la recherche scientifique, 490 rue de la couronne, Québec, Qc, Canada; Raymond, J., Centre Eau Terre Environnement, Institut national de la recherche scientifique, 490 rue de la couronne, Québec, Qc, Canada; Blessent, D., Programa de Ingeniería Ambiental, Universidad de Medellín, Carrera 87 N° 30 65, Medellín, Colombia; Philippe, M., Georesources Division, BRGM, 3 avenue Claude Guillemin, BP 36009, Orléans Cedex 2, 45060, Francehttp://purl.org/coar/access_right/c_16ecVélez Márquez M.I.Raymond J.Blessent D.Philippe M.11407/5699oai:repository.udem.edu.co:11407/56992020-05-27 15:44:05.067Repositorio Institucional Universidad de Medellinrepositorio@udem.edu.co

Terrestrial heat flow evaluation from thermal response tests combined with temperature profiling

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