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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Csetényi, L. J.

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University of Dundee

in Cooperation with on an Cooperation-Score of 37%

Topics

Publications (24/24 displayed)

  • 2024Mechanical processing of wet stored fly ash for use as a cement component in concretecitations
  • 2024Assessing setting times of cementitious materials using semi‑adiabatic calorimetrycitations
  • 2023Portlandcementek Kötési Idejének Meghatározása Féladiabatikus Kalorimetriás Módszerrelcitations
  • 2023Fungal biorecovery of cerium as oxalate and carbonate biominerals9citations
  • 2022Impact of fly ash production and sourcing changes on chemical and physical aspects of concrete durability16citations
  • 2022Fungal colonization and biomineralization for bioprotection of concrete22citations
  • 2022Influence of wet storage on fly ash reactivity and processing for use in concrete3citations
  • 2022Fungal-induced CaCO3 and SrCO3 precipitation38citations
  • 2021Potential of Weathered Blast Furnace Slag for use as an Addition in Concrete3citations
  • 2020Oil-based mud waste reclamation and utilisation in low-density polyethylene composites5citations
  • 2019Direct and indirect bioleaching of cobalt from low grade laterite and pyritic ores by Aspergillus niger25citations
  • 2019Amino acid secretion influences the size and composition of copper carbonate nanoparticles synthesized by ureolytic fungi49citations
  • 2017Evaluation of Fly Ash Reactivity Potential Using a Lime Consumption Test10citations
  • 2016Abrasion resistance of sustainable green concrete containing waste tire rubber particles113citations
  • 2016Performance Characteristics of Waste Glass Powder Substituting Portland Cement in Mortar Mixtures5citations
  • 2015Influence of Portland cement characteristics on air-entrainment in fly ash concrete6citations
  • 2015Sustainable use of marble slurry in concrete217citations
  • 2015Durability studies on concrete containing wollastonite68citations
  • 2013Mechanical and durability studies on concrete containing wollastonite-fly ash combination77citations
  • 2013Evaluating Test Methods for Rapidly Assessing Fly Ash Reactivity for Use in Concretecitations
  • 2010Mechanisms of sulfate heave prevention in lime stabilized clays through pozzolanic additions2citations
  • 2003Alkali activation of PFAcitations
  • 2002Effect of potassium on setting times of borate admixed cement pastescitations
  • 2001Phase equilibrium study in the CaO-K2O-B2O3-H2O system at 25°C21citations

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Hope, Thomas A.
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Mccarthy, Michael John
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Baranyi, Attila
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Kopecskó, Katalin
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Kang, Xia
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Gadd, Geoffrey Michael
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Yakub, Hamza I.
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Dyer, Thomas Daniel
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Zhao, Jiayue
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Jones, Prof M. R.
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Hope, Thomas
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Siddique, Shohel
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Matthews, Kerr
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Yates, Kyari
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Njuguna, James
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Ferrier, John
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Yang, Yuyi
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Liu, Feixue
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Strompinis, Nikolaos
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Yakub, Hamza
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Kumar, Sanjeev
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Thomas, Blessen Skariah
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Joseph, Miquel
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Gupta, Ramesh Chandra
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Mehra, Priyansha
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Kara, P.
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Borosnyói, A.
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Islam, G. M. Sadiqul
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Rana, Aditya
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Kalla, Pawan
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Chad, Yog Bahadur
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Misra, Anurag
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Arora, Amarnath
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Gahlot, Vimal
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Sachdeva, Anisha
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Dhir, R. K.
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Csetenyi, E.
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Apagyi, Z.
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Apagyi, Zsolt
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Co-Authors (by relevance)

  • Hope, Thomas A.
  • Mccarthy, Michael John
  • Baranyi, Attila
  • Kopecskó, Katalin
  • Kang, Xia
  • Gadd, Geoffrey Michael
  • Yakub, Hamza I.
  • Dyer, Thomas Daniel
  • Zhao, Jiayue
  • Jones, Prof M. R.
  • Hope, Thomas
  • Siddique, Shohel
  • Matthews, Kerr
  • Yates, Kyari
  • Njuguna, James
  • Ferrier, John
  • Yang, Yuyi
  • Liu, Feixue
  • Strompinis, Nikolaos
  • Yakub, Hamza
  • Kumar, Sanjeev
  • Thomas, Blessen Skariah
  • Joseph, Miquel
  • Gupta, Ramesh Chandra
  • Mehra, Priyansha
  • Kara, P.
  • Borosnyói, A.
  • Islam, G. M. Sadiqul
  • Rana, Aditya
  • Kalla, Pawan
  • Chad, Yog Bahadur
  • Misra, Anurag
  • Arora, Amarnath
  • Gahlot, Vimal
  • Sachdeva, Anisha
  • Dhir, R. K.
  • Csetenyi, E.
  • Apagyi, Z.
  • Apagyi, Zsolt
OrganizationsLocationPeople

article

Influence of wet storage on fly ash reactivity and processing for use in concrete

  • Hope, Thomas
  • Mccarthy, Michael John
  • Csetényi, L. J.
Abstract

<p>Wet stored fly ash is increasingly being considered as a cement component in concrete. However, the effect of these conditions on the material's reactivity is uncertain. The research described here investigated this property for wet laboratory-stored (10% moisture) and site stockpile fly ashes, using lime consumption (BS EN 196-5, Frattini) and activity index (BS EN 450-1) tests. Progressive reactivity losses occurred with laboratory storage up to 730 days. This was influenced by dry fly ash fineness and holding period, suggesting that the formation of agglomerates/products (assessed by scanning electron microscopy) affects lime's access to particle surfaces, with similar type behaviour for stockpile materials. Compressive (cube) strength reductions were also found between dry and wet stored fly ash concretes. Stockpile fly ash reactivity following laboratory- (drying/ball milling) and pilot-scale (flash drying/de-agglomerating, air classifying, micronising and carbon removal) processing was then investigated. Exposure of reactive material using these methods appears to be important, with greater improvements generally noted as the fly ash particle size is reduced and at later test ages. To meet activity index requirements, fly ash sub-10 μm contents, with the Portland cement used, needed to exceed about 30%, irrespective of the storage conditions/processing used. Minor benefits to concrete strength were obtained with increasing sub-10 μm contents, particularly beyond 28 days.</p>

Topics
  • impedance spectroscopy
  • surface
  • Carbon
  • scanning electron microscopy
  • milling
  • strength
  • cement
  • ball milling
  • ball milling
  • drying
  • lime