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Requirements for Test Series for Relative Humidity Measurements to Calibrate Drying Time Simulation Model

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Sekki P, Marttila P & Merikallio T: “A new tool for the drying time and the moisture risk estimation in concrete floors.” Proceedings, 12th Nordic Symposium on Building Physics, Tallinn, Estonia, September 2020, E3S Web of Conferences, Vol. 172, 04011, 5 pp. Search in Google Scholar

Bažant Z P & Najjar L J: “Nonlinear water diffusion in nonsaturated concrete” Matériaux et Construction, Vol. 5, 1972, pp. 3-20. Search in Google Scholar

fib (Fédération Internationale du Béton): “fib Bulletin No. 65: Model Code for Concrete Structures 2010 - Final draft, Volume 1”. Lausanne, Switzerland, 2012, 350 pp. Search in Google Scholar

Kim J-K & Lee C-S: “Moisture diffusion of concrete considering self-desiccation at early ages”. Cement and Concrete Research, 29, 1999, pp. 1921-1927. Search in Google Scholar

Rahimi-Aghdam S, Masoero E, Rasoolinejad M & Bažant Z P: Century-long expansion of hydrating cement counteracting concrete shrinkage due to humidity drop from selfdesiccation or external drying, Materials and Structures, Vol. 52 (11), 2019. Search in Google Scholar

Rahimi-Aghdam S, Rasoolinejad M, ja Bažant Z P: “Moisture diffusion in unsaturated selfdesiccating concrete.” Journal of Engineering Mechanics (American Society of Civil Engineers) 145 (5), 2019. doi:10.1061/(ASCE)EM.1943-7889.0001591. Search in Google Scholar

Jiang Z, Sun Z & Wang P: “Internal relative humidity distribution in high-performance cement paste due to moisture diffusion and self-desiccation.” Cement and Concrete Research, Vol. 36, 2006, pp. 320-325. Search in Google Scholar

Laurens S, Balayssac J-P & Arliguie G: “Influence of concrete relative humidity on the amplitude of Ground-Penetrating radar (GPR) signal.” Materials and Structures, Vol. 35, 2002, pp. 198-202. Search in Google Scholar

Arfvidsson J, Hedenblad J, & Nilsson L-O: “Software TorkaS3, an estimation tool when choosing economic concrete quality from a drying point of view”. (“Datorprogrammet TorkaS 3, som prognosverktyg vid val av ekonomisk betongkvalitet från uttorkningssynpunkt). https://www.fuktcentrum.lth.se/fileadmin/fuktcentrum/PDFfiler/Datorprogrammet_TorkaS_3_slutversion_rev__1.pdf (in Swedish) Search in Google Scholar

Arfvidsson J & Claesson J: “Isothermal moisture flow in building materials: modelling, measurements and calculations based on Kirchhoff’s potential”. Building and Environment Vol. 35, 2000, pp. 519-536. Search in Google Scholar

Hedenblad G: “Moisture permeability of mature concrete and cement paste.” MRS Proceedings, TVMB 1014, Vol. 370, 1994, pp. 443-448. Search in Google Scholar

Norling Mjörnell K: “Moisture Conditions in High Performance Concrete - mathematical modelling and measurements”. PhD Thesis, Chalmers University of Technology, Department of Building Materials, Göteborg, Sweden, 1997. Search in Google Scholar

Arfvidsson J & Hedenblad G: “A New Model to Calculate the Drying of Concrete.” Proceedings, 10th Conference of the International-Building-Performance-Simulation-Association, Beijing, China, September 2007, pp. 1792-1798. Search in Google Scholar

Johansson N: “Drying of concrete, Effect of cement type, concrete quality and outer moisture conditions”, Report (licentiate thesis), TVBM-3124. Lund University, Lund, Sweden, 2005, 164 pp. (in Swedish) Search in Google Scholar

Building Information Foundation RTS: RT103333, “Guidelines for measuring relative humidity in concrete”. (“RT103333, Betonin suhteellisen kosteuden mittaus”). Helsinki, Finland, 2021, 25 pp. (in Finnish) Search in Google Scholar

SFS, Finnish Standard Association. “SFS-EN 17668:2022. Adhesives for floor coverings - Preparation of adhesive application - Test methods for the determination of corresponding humidity of mineral substrates “. Helsinki, Finland, 2022, 15 pp. Search in Google Scholar

Nordtest: “Nordtest method. Concrete, hardened. Self desiccation (NT BUILD 490)”. Espoo, Finland, 1999, 4 pp. Search in Google Scholar

Fagerlund G & Hedenblad G: “Calculation of the moisture-time fields in concrete”. Report, TVBM 3052, Division of Building Materials, Lund University, 1993, 72 pp. Search in Google Scholar

Zhang Z, Thiery M, & Baroghel-Bouny V: “Numerical modelling of moisture transfers with hysteresis within cementitious materials: Verification and investigation of the effects of repeated wetting–drying boundary conditions.” Cement and Concrete Research, Vol. 68, 2015. pp. 10-23. Search in Google Scholar

Mainguy M, Coussy O ja Baroghel-Bouny V: “Role of Air Pressure in Drying of Weakly Permeable Materials.” Journal of Engineering Mechanics 127 (6), 2001, pp. 582-592. Search in Google Scholar

Villmann B, Slowik V, Wittmann F H, Vontobel P & Hovind J: “Time-dependent moisture distribution in drying cement mortars – results of neutron radiography and inverse analysis of drying tests.” Restoration of Buildings and Monuments, Vol. 20, 2014, pp. 49-62. Search in Google Scholar

Hernandez-Bautista, E, Bentz D P, Sandoval-Torres S & de J. Cano-Barrita P F: “Numerical simulation of heat and mass transport during hydration of Portland cement mortar in semi-adiabatic and steam curing conditions.” Cement and Concrete Composites, Vol. 69, 2016, pp. 38-48. Search in Google Scholar

Sekki P & Karvinen T: “Numerical simulation and measurements of drying of Finnish concrete grades.” Proceedings, 11th Nordic Symposium on Building Physics. Trondheim, Norway, June 2017, Energy Procedia Vol 132, pp. 729-734. Search in Google Scholar

Di Luzio G & Cusatis G: “Hygro-thermo-chemical modeling of high performance concrete. I: Theory.” Cement and Concrete Composites, Vol. 31 (5), 2009, pp. 301-308. Search in Google Scholar

Sekki P, Karvinen T & Vinha J: “Moisture behavior of external insulated precast concrete wall panels”. Journal of Building Physics, Vol. 44, 2021, pp. 409-434. doi:10.1177/1744259120925850. Search in Google Scholar

Colinart T, Glouannec P, Bendouma M & Chauvelon P: “Temperature dependence of sorption isotherm of hygroscopic building materials. Part 2: Influence on hygrothermal behavior of hemp concrete.” Energy and Buildings, Vol. 152, 2017, pp. 42-51. Search in Google Scholar

Sekki P, Huttunen P, Karvinen T & Vinha J: “Temperature dependence of drying of the concrete and method estimating the effect of temperature on relative humidity in concrete pore”. Submitted: Journal of Advanced Concrete Technology, Special Issue onTemperature-time effects on properties of cementitious materials”, 2023. Search in Google Scholar

American Society for Testing and Materials (ASTM): “WK84393, C856/C856M-20 Standard Practice for Petrographic Examination of Hardened Concrete”. West Conshohocken, PA, United States, 2020, 15 pp. Search in Google Scholar

Nordtest: “Nordtest method. Concrete, hardened. Air void structure and air content (NT BUILD 381)”. Espoo, Finland, 1991, 5 pp. Search in Google Scholar

Nilsson L-O & Bengström K: “The tin can method for determining moisture transport properties of concrete”. Proceedings, 12th Nordic Symposium on Building Physics. Tallinn, Estonia, September 2020, E3S Web of Conferences, Vol. 172, 14005, 7 pp. Search in Google Scholar

Sekki P, Laine K, Niemi S & Komulainen J: “Study of moisture risk assessment and material emissions of plastic carpets on concrete floor.” Proceedings, Indoor Air, Kuopio, 2022, 8 pp. Search in Google Scholar

Fredin H & Skoog H: “Moisture measurements in concrete, Temperature effects and corrections on relative humidity measurements”. Report, TVBM-5057, Lund University, Sweden, 2005, 59 pp. (in Swedish) Search in Google Scholar

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2545-2819
Langue:
Anglais
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Sujets de la revue:
Materials Sciences, Materials Processing