Materials Map

Discover the materials research landscape. Find experts, partners, networks.

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The Materials Map is an open tool for improving networking and interdisciplinary exchange within materials research. It enables cross-database search for cooperation and network partners and discovering of the research landscape.

The dashboard provides detailed information about the selected scientist, e.g. publications. The dashboard can be filtered and shows the relationship to co-authors in different diagrams. In addition, a link is provided to find contact information.

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Materials Map under construction

The Materials Map is still under development. In its current state, it is only based on one single data source and, thus, incomplete and contains duplicates. We are working on incorporating new open data sources like ORCID to improve the quality and the timeliness of our data. We will update Materials Map as soon as possible and kindly ask for your patience.

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University of Portsmouth

in Cooperation with on an Cooperation-Score of 37%

Topics

Publications (19/19 displayed)

  • 2024Life cycle assessment of steel fibre-reinforced concrete beams3citations
  • 2019Behaviour of hybrid steel fibre reinforced self compacting concrete using innovative hooked-end steel fibres under tensile stress39citations
  • 2017Effects of steel fibre-aggregate interaction on mechanical behaviour of steel fibre reinforced concrete14citations
  • 2016Investigating geometrical size effect on the flexural strength of the ultra high performance fibre reinforced concrete using the cohesive crack model21citations
  • 2016Distribution and orientation of steel fibres in steel fibre reinforced concretecitations
  • 2016Factors influencing the compressive strength of fly ash based geopolymers237citations
  • 2014Modelling behaviour of ultra high performance fibre reinforced concrete9citations
  • 2014Numerical simulation of ultra high performance fibre reinforced concrete panels subjected to blast loading137citations
  • 2013Maturity testing of lightweight self-compacting and vibrated concretes38citations
  • 2011Study of fibre orientation and distribution in UHPFRC by electrical resistivity and mechanical testscitations
  • 2010Assessment of fibre orientation in ultra high performance fibre reinforced concrete and its effect on flexural strength268citations
  • 2008The effect of temperature on the rate of strength development of slag cementcitations
  • 2007Fast-track construction with slag cement concrete: adiabatic strength development and strength predictioncitations
  • 2007UHPFRC - Optimisation of mix proportionscitations
  • 2006Strength development of mortars containing ground granulated blast-furnace slag: effect of curing temperature and determination of apparent activation energies268citations
  • 2003Extent of immiscibility in the ettringite-thaumasite system29citations
  • 2002Study of thaumasite and ettringite phases formed in sulfate/blast furnace slag slurries using XRD full pattern fitting20citations
  • 2001An XRPD profile fitting investigation of the solid solution between ettringite, Ca6Al2(SO4)3(OH)12.26H2O, and carbonate ettringite, Ca6Al2(CO3)3(OH)12.26H2O30citations
  • 2000Solid solutions between ettringite, Ca6Al2(SO4)3(OH)12.26H2O, and thaumasite, Ca3SiSO4CO3(OH)6.12H2O66citations

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Nanos, Nikos
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Ige, Olubisi
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Chiverton, John
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Williams, John
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Chen, Jiye
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Boyle, Alan P.
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Hadjierakleous, Anastasis
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Vinai, Raffaele
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Fox, Dominic St-John
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Schleyer, Graham
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Mao, Lei
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Kwasny, Jacek
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Basheer, Muhammed
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Turuallo, Gideon
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Owens, Kieran
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Lataste, J. F.
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Soutsos, M. N.
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Parry, A.
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Millard, S. G.
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Parry, T.
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Bungey, J. H.
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Bungey, John
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Millard, Steve G.
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Millard, Stephen G.
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Le, Thanh T.
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Soutsos, Marios N.
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Macphee, D. E.
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Crammond, N. J.
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Adam, C. D.
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Co-Authors (by relevance)

  • Asare, Gideon Osei
  • Awinda, Kenneth
  • Martinson, Brett
  • Okeh, Clifford A. O.
  • Nanos, Nikos
  • Begg, David
  • Ige, Olubisi
  • Chiverton, John
  • Williams, John
  • Chen, Jiye
  • Boyle, Alan P.
  • Soutsos, Marios
  • Hadjierakleous, Anastasis
  • Vinai, Raffaele
  • Fox, Dominic St-John
  • Schleyer, Graham
  • Wight, Gavin
  • Mao, Lei
  • Kwasny, Jacek
  • Basheer, Muhammed
  • Turuallo, Gideon
  • Owens, Kieran
  • Lataste, J. F.
  • Soutsos, M. N.
  • Parry, A.
  • Millard, S. G.
  • Parry, T.
  • Bungey, J. H.
  • Bungey, John
  • Millard, Steve G.
  • Millard, Stephen G.
  • Le, Thanh T.
  • Soutsos, Marios N.
  • Macphee, D. E.
  • Crammond, N. J.
  • Adam, C. D.
  • Jackson, A. R. W.
  • Halliwell, M. A.
OrganizationsLocationPeople

document

The effect of temperature on the rate of strength development of slag cement

  • Millard, S. G.
  • Bungey, J. H.
  • Soutsos, M. N.
  • Barnett, Stephanie Jayne
Abstract

<p>Synopsis: The early age strength development of concretes containing slag cement (ggbs) at levels of up to 70% of the total binder have been investigated to give guidance for their use in fast track construction. 28-day target mean strength for all concrete specimens was 70 MPa (10,150 psi). Although supplementary cementitious materials such as slag cement (ggbs) are economical, their use has not gained popularity in fast track construction because of their slower strength development at early ages and at standard cube curing temperatures. There are however indications that supplementary cementitious materials are heavily penalised by the standard cube curing regimes. Measurements of temperature rise under adiabatic conditions have shown that high levels of cement replacement by ggbs, e.g. 70% are required to obtain a significant reduction in the peak temperature rise. Even though the temperature rise using slag cement is lower than from using portland cement, it is still sufficient to provide the activation energy needed for a significant reaction acceleration. Maturity measurements are needed to take advantage of the enhanced in-situ early age strength development of ggbs concrete. The contractor should confirm that the actual compressive strength of the concrete in the structure at the time of formwork removal exceeds the required strength. Maturity functions like the one proposed by Freiesleben Hansen and Pedersen (FHP), which is based on the Arrhenius equation, have been examined for their applicability to ggbs concrete. Activation energies, required as input for the FHP equation, have been determined according to ASTM C1074-98.</p>

Topics
  • impedance spectroscopy
  • strength
  • cement
  • activation
  • curing