A new strategy for increasing the water efficiency of mortar composition to design cement-reduced 'redcarb' concrete

Publikation: Beitrag in Buch/Bericht/Sammelwerk/KonferenzbandAufsatz in KonferenzbandForschungPeer-Review

Autoren

  • C. Begemann
  • L. Lohaus
  • T. Gläser

Organisationseinheiten

Externe Organisationen

  • LPI Ingenieurgesellschaft mbH
Forschungs-netzwerk anzeigen

Details

OriginalspracheEnglisch
Titel des Sammelwerks4th International fib Congress 2014
UntertitelImproving Performance of Concrete Structures, FIB 2014 - Proceedings
Seiten313-315
Seitenumfang3
ISBN (elektronisch)9788173719196
PublikationsstatusVeröffentlicht - 2014
Veranstaltung4th International fib Congress, FIB 2014 - Powai, Mumbai, Indien
Dauer: 10 Feb. 201414 Feb. 2014

Publikationsreihe

Name4th International fib Congress 2014: Improving Performance of Concrete Structures, FIB 2014 - Proceedings

Abstract

The reduction of greenhouse gases in concrete construction will be a great challenge for the coming decades. A significant part of the CO2 footprint is caused by cement clinker production. Therefore, a powerful solution is to reduce the cement content in the concrete mixture by using supplementary cementitious materials (SMCs). The water demand also needs to be reduced with regard to the water to cement ratio and performance of concrete required. A new model concept shows the need for an excess of fine grains additional to the normally used optimisation of packing density to reduce the water content without any negative consequences for the concrete characteristics. A new strategy for increasing the water efficiency in the mortar design has been developed at the Institute for Building Materials at Leibniz University Hannover which helps to develop a new cement-reduced 'RedCarb' concrete.

ASJC Scopus Sachgebiete

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A new strategy for increasing the water efficiency of mortar composition to design cement-reduced 'redcarb' concrete. / Begemann, C.; Lohaus, L.; Gläser, T.
4th International fib Congress 2014: Improving Performance of Concrete Structures, FIB 2014 - Proceedings. 2014. S. 313-315 (4th International fib Congress 2014: Improving Performance of Concrete Structures, FIB 2014 - Proceedings).

Publikation: Beitrag in Buch/Bericht/Sammelwerk/KonferenzbandAufsatz in KonferenzbandForschungPeer-Review

Begemann, C, Lohaus, L & Gläser, T 2014, A new strategy for increasing the water efficiency of mortar composition to design cement-reduced 'redcarb' concrete. in 4th International fib Congress 2014: Improving Performance of Concrete Structures, FIB 2014 - Proceedings. 4th International fib Congress 2014: Improving Performance of Concrete Structures, FIB 2014 - Proceedings, S. 313-315, 4th International fib Congress, FIB 2014, Powai, Mumbai, Indien, 10 Feb. 2014.
Begemann, C., Lohaus, L., & Gläser, T. (2014). A new strategy for increasing the water efficiency of mortar composition to design cement-reduced 'redcarb' concrete. In 4th International fib Congress 2014: Improving Performance of Concrete Structures, FIB 2014 - Proceedings (S. 313-315). (4th International fib Congress 2014: Improving Performance of Concrete Structures, FIB 2014 - Proceedings).
Begemann C, Lohaus L, Gläser T. A new strategy for increasing the water efficiency of mortar composition to design cement-reduced 'redcarb' concrete. in 4th International fib Congress 2014: Improving Performance of Concrete Structures, FIB 2014 - Proceedings. 2014. S. 313-315. (4th International fib Congress 2014: Improving Performance of Concrete Structures, FIB 2014 - Proceedings).
Begemann, C. ; Lohaus, L. ; Gläser, T. / A new strategy for increasing the water efficiency of mortar composition to design cement-reduced 'redcarb' concrete. 4th International fib Congress 2014: Improving Performance of Concrete Structures, FIB 2014 - Proceedings. 2014. S. 313-315 (4th International fib Congress 2014: Improving Performance of Concrete Structures, FIB 2014 - Proceedings).
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abstract = "The reduction of greenhouse gases in concrete construction will be a great challenge for the coming decades. A significant part of the CO2 footprint is caused by cement clinker production. Therefore, a powerful solution is to reduce the cement content in the concrete mixture by using supplementary cementitious materials (SMCs). The water demand also needs to be reduced with regard to the water to cement ratio and performance of concrete required. A new model concept shows the need for an excess of fine grains additional to the normally used optimisation of packing density to reduce the water content without any negative consequences for the concrete characteristics. A new strategy for increasing the water efficiency in the mortar design has been developed at the Institute for Building Materials at Leibniz University Hannover which helps to develop a new cement-reduced 'RedCarb' concrete.",
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