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Funded Projects › FP7

CODICE · COmputationally Driven design of Innovative CEment-based materials

FP7Status: CLOSED1 September 200831 August 2011EU funding €2,700,000

Albeit the C-S-H gel constitutes the main ingredient of cementitious skeletons and their life-service depends crucially on it, the possibility of tuning the intrinsic nature and properties of the C-S-H gel has been simply out of reach. Fortunately this long-standing impossibility can be currently overcome by the complementary action of new experimental capacities and stronger simulations schemes which explicitly pay attention to the nanoscale. Recent nanoindentation experiments have revealed that the C-S-H gel can present itself either in a low stiffness and low density variety (called LD C-S-H gel) or in a variety with a high stiffness and high density (called HD C-S-H gel). This dissimilar bearing capacity is indeed much more pronounced in their resistance to osteoporosis-like degradation processes (aging!). The question that arises is straightforward: Could the formation of the stronger and more durable HD C-S-H varieties be promoted against the LD- ones? CODICE aims to answer to this question by means of on-top-of-the-art simulations. In fact CODICE project aims to develop a serial parameter-passing multi-scale modelling scheme to predict the structural evolution and the mechanical performance of non-degraded and degraded cementitious matrices as a function of macroscopical processing variables to guide the design of cementitious materials in which the HD-C-S-H forms are promoted against the LD- C-S-H ones. Improvements of the mechanical properties about the 50 % and 600 % are envisaged for non-degraded and degraded cementitious scaffolds respectively, when compared to conventional designs. Thus, CODICE largely impacts on the competitiveness of the Construction sector, since the simulations 1) will offer an unbeatable and cheap solution to the cement sector to assess and improve the efficiency of cheaper cement formulations and 2) will computationally drive the design of cementitious materials with drastically lower maintenance costs.

Consortium · 8 organisations

coordinator

FUNDACION TECNALIA RESEARCH & INNOVATION

ES · €722,556

participant

UNIVERSITY OF THE WEST OF SCOTLAND

UK · €317,347

participant

AGENCIA ESTATAL CONSEJO SUPERIOR DE INVESTIGACIONES CIENTIFICAS

ES · €328,731

participant

RHEINISCHE FRIEDRICH-WILHELMS-UNIVERSITAT BONN

DE · €499,698

participant

BASF SE

DE · €77,622

participant

C.T.G. SPA

IT · €76,440

participant

TECHNISCHE UNIVERSITEIT DELFT

NL · €614,310

participant

MORTEROS Y REVOCOS BIKAIN SA

ES · €63,296

View the official record on CORDIS →

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Source: CORDIS, Publications Office of the European Union. Global Research Partnerships surfaces open EU research data to help you find collaborators; we are not affiliated with the European Union.