Academic interests
- New binders from renewable sources, waste valorisation, Life Cycle Assessment
- Smart and more sustainable materials for energy efficient buildings: phase change materials, aerogels
- Innovative use of the materials in buildings based on circular economy and digital technologies (BIM, digital twins, artificial intelligence) to achieve the transition to a sustainable and high energy performance buildings at affordable optimal cost
- Interest in interdisciplinary research
Courses taught
Background
Dr. Susana Garcia received her PhD in Materials and Nanotechnology from University of Málaga (Spain). She continued at Østfold University College as associate professor and coordinator of the Master in Green Energy Technology at the Engineering Department.
Positions held
- Program coordinator for Master in Green Energy Technology
- Head of Concrete Laboratory at Engineering department
External pages
Susana G. Sanfélix | LinkedIn
Susana G. Sanfélix (researchgate.net)
Susana G. Sanfélix - Google Scholar (beds.ac.uk)
Peer Reviewer
Advances in Cement Research
Materials and Structures
Construction and Building Materials
Partners
María de los Ángeles Gómez - University of Malaga (uma.es)
Ramón Francisco Pamies Porras | Universidad Politécnica de Cartagena (upct.es)
Publications
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Gomado, Foster Dodzi; Khalifeh, Mahmoud; Saasen, Arild; G. Sanfèlix, Susana ; Kjøniksen, Anna-Lena & Aasen, Jan Aage
(2023).
Effect of Calcium Expansive Additives on the Performance of Granite-Based Geopolymers for Zonal Isolation in Oil and Gas Wells.
SPE Journal.
ISSN 1086-055X.
28(6),
p. 2790–2801.
doi:
10.2118/217431-PA.
Full text in Research Archive
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Cuesta, Ana; Zea-Garcia, Jesus D; Londono-Zuluaga, Diana; G. De la Torre, Angeles; Santacruz, Isabel & Vallcorba, Oriol
[Show all 9 contributors for this article]
(2018).
Multiscale understanding of
tricalcium silicate hydration
reactions.
Scientific Reports.
ISSN 2045-2322.
8(1).
doi:
10.1038/s41598-018-26943-y.
Show summary
Tricalcium silicate, the main constituent of Portland cement, hydrates to produce crystalline calcium
hydroxide and calcium-silicate-hydrates (C-S-H) nanocrystalline gel. This hydration reaction is poorly
understood at the nanoscale. The understanding of atomic arrangement in nanocrystalline phases is
intrinsically complicated and this challenge is exacerbated by the presence of additional crystalline
phase(s). Here, we use calorimetry and synchrotron X-ray powder diffraction to quantitatively follow
tricalcium silicate hydration process: i) its dissolution, ii) portlandite crystallization and iii) C-S-H
gel precipitation. Chiefly, synchrotron pair distribution function (PDF) allows to identify a defective
clinotobermorite, Ca11Si9O28(OH)2
.8.5H2O, as the nanocrystalline component of C-S-H. Furthermore,
PDF analysis also indicates that C-S-H gel contains monolayer calcium hydroxide which is stretched
as recently predicted by first principles calculations. These outcomes, plus additional laboratory
characterization, yielded a multiscale picture for C-S-H nanocomposite gel which explains the observed
densities and Ca/Si atomic ratios at the nano- and meso- scales.
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Cuesta, Ana; Santacruz, Isabel; Sanfèlix, Susana Garcia; Fauth, François; G. Aranda, Miguel Angel & G. De la Torre, Angeles
(2015).
Hydration of C4AF in the presence of other phases: A synchrotron X-ray powder diffraction study.
Construction and Building Materials.
ISSN 0950-0618.
101,
p. 818–827.
doi:
10.1016/j.conbuildmat.2015.10.114.
Show summary
Hydration behaviour of C4AF in selected experimental conditions has been determined. C4AF has been hydrated in the absence and presence of gypsum, two polymorphs of ye'elimite and different water/solid ratios. C4AF in the presence of water hydrates to form mainly a hydrogarnet-type phase. The crystal structure of C3A0.845F0.155H6 is reported from the Rietveld analysis of its synchrotron X-ray powder diffraction pattern. The hydration of C4AF in the presence of gypsum gives AFt. However, the mixture tetracalcium aluminoferrite/gypsum/ye'elimite gives both AFt and AFm phases. C4AF hydrated with ye'elimite in the absence of gypsum gives only AFm. Ye'elimite has inhibited tetracalcium aluminoferrite hydration.
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Álvarez-Pinazo, Gema; Cuesta, Ana; García-Maté, Marta; Santacruz, Isabel; R.Losilla, Enrique & Garcia Sanfèlix, Susana
[Show all 9 contributors for this article]
(2014).
In-situ early-age hydration study of sulfobelite cements by synchrotron powder diffraction.
Cement and Concrete Research.
ISSN 0008-8846.
56,
p. 12–19.
doi:
10.1016/j.cemconres.2013.10.009.
Show summary
Eco-friendly belite calcium sulfoaluminate (BCSA) cement hydration behavior is not yet well understood. Here,
we report an in-situ synchrotron X-ray powder diffraction study for the first hours of hydration of BCSA cements.
Rietveld quantitative phase analysis has been used to establish the degree of reaction (α). The hydration of a
mixture of ye'elimite and gypsum revealed that ettringite formation (α ~70% at 50 h) is limited by ye'elimite
dissolution. Two laboratory-prepared BCSA cements were also studied: non-active-BCSA and active-BCSA cements,
with β- and α′H-belite as main phases, respectively. Ye'elimite, in the non-active-BCSA system, dissolves
at higher pace (α ~25% at 1 h) than in the active-BCSA one (α ~10% at 1 h),with differences in the crystallization
of ettringite (α ~30% and α ~5%, respectively). This behavior has strongly affected subsequent belite and ferrite reactivities, yielding stratlingite and other layered phases in non-active-BCSA. The dissolution and crystallization processes are reported and discussed in detail.
View all works in Cristin
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Kjøniksen, Anna-Lena; Calejo, Maria Teresa Rebelo; Cao, Vinh Duy; Pilehvar, Shima; G. Sanfèlix, Susana & Szczotok-Piechaczek, Anna Maria
(2019).
Advanced Materials - From drug delivery by energy technology to 3D-printing concrete on the Moon.
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Kjøniksen, Anna-Lena; Calejo, Maria Teresa Rebelo; G. Sanfèlix, Susana ; Pilehvar, Shima; Szczotok-Piechaczek, Anna Maria & Cao, Vinh Duy
(2019).
Advanced Materials - From drug delivery by energy technology to 3D-printing concrete on the Moon.
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Santacruz, Isabel; Romero-Espinosa, A.; G. Sanfèlix, Susana ; Cuesta, A; De la Torre, Ángeles G. & Kjøniksen, Anna-Lena
[Show all 7 contributors for this article]
(2018).
Processing and characterisation of calcium sulphoaluminate ecocements containing Microencapsulated Phase Change Materials.
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G. Sanfèlix, Susana
(2018).
Low CO2 binders with Micro-Encapsulated Phase Change Materials
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G. Sanfèlix, Susana
(2017).
Micro-encapsulated phase change materials in concrete, results summary.
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G. Sanfèlix, Susana
(2017).
How to become a scientist and not die in the process?
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G. Sanfèlix, Susana ; Santacruz, Isabel; Szczotok-Piechaczek, Anna Maria; Ordonez, Luis M.; G. De la Torre, Angeles & Kjøniksen, Anna-Lena
(2017).
Rheological performance of cement composites with Microencapsulated Phase Change Materials
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G. Sanfèlix, Susana ; De la Torre, Ángeles G. & Kjøniksen, Anna-Lena
(2016).
Low CO2 binders with Micro-Encapsulated Phase Change Materials.
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G. Sanfèlix, Susana ; Ordóñez-Belloch, Luis Miguel; López-Tendero, Maria José & López-Buendia, Angel
(2014).
Improvement of Cement Production Sustainability using Nano Raw Materials.
International Analytical Review Alitinform.
ISSN 1998-1295.
34(2).
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G. Sanfèlix, Susana ; Ordóñez-Belloch, Luis Miguel; López-Tendero, Maria José & López-Buendia, Angel
(2011).
Improvement of Cement Production Sustainability Using Nano Raw Materials.
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Vila-Gómez, Jaume; Lloris-Cormano, Jose Manuel; López-Tendero, Maria José; Calero-Rodríguez, Pilar; Sanjuán-García, Stephanie & G. Sanfèlix, Susana
[Show all 9 contributors for this article]
(2011).
Photocatalytic activity of TiO2 in different types of cements and mortars.
View all works in Cristin
Published July 25, 2022 12:37 PM
- Last modified May 23, 2023 10:47 AM