FraMCoS 4

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FraMCoS-4 Photos

Photographic documentation from FraMCoS-4, Cachan-Paris, France. Pairs – Cachan, Seine Cruise, May 28 – June 1, 2001 FraMcoS –4 Before Banquet at Les Vaux de Cernay, May 31,

FraMCoS-4 Conference Program

Scientific and social program for FraMCoS-4, Cachan-Paris, France. 13.00-14.00 Registration Amphi Marie Curie (the room in front of the Amphitheatre) 14.00-14.30 Opening Ceremony Amphi Marie Curie 14.30-15.05 Keynote D chairman: J. Mazars Computational fracture analysis on concrete gravity dams toward engineering evaluation of seismic safety, H. Horii, S-C Chen Amphi Marie Curie 15.05-15.35 Break Hall

Localizationconceptsappliedtotheanalysisofreinforcedconcretedeepbeams

A bending test program on the series of RC deep beams with the effective depth, d, of 200, 400 and 600 mm has been performed. The transverse reinforcement ratio was va~ied from 0.0, 0.4 to 0.8 percent. The distribution of the local strains inside specimens, both of concrete and remforcement, has been measured. The test

Fractureanalysisofquadruplefasteningswithbondedanchors

In order to investigate the failure mechanism and the failure load of quadruple fastenings with bonded anchors a series of numerical investigation was carried out. The studied specimens were bonded an- chors in a concrete block and subjected to tensile loading. In the calculations the microplane model with re- laxed kinematic constraint was used to

Splitting-crackpropagationinpull-outtests

Although several experimental results on bond strength are available and splitting represents an important aspect of bond, only few studies have dealt with splitting-crack development. Splitting is a 3D phe- nomenon but only splitting-crack opening on concrete surface can easily be measured. Accordingly, Finite Element analysis could help understanding splitting-crack development and bond behavior. However,

Fatigue analysisoffiberreinforcedconcreteoverlaid/underlaidbeams

Fatigue life of concrete beams that are overlaid or underlaid with FRC is analyzed with a frac- ture mechanics based model. The problems analyzed are the cases for concrete beams overlaid or underlaid with hooked-end steel fiber reinforced concrete. For both of overlaid and underlaid beams, three cases of beam heights, three values of fiber

Fractureof fiberreinforcedconcreteslabsongrade

Nonlinear fracture mechanics has been used for simulating the load-carrying behavior of steel fiber reinforced concrete floors on elastic bedding. In a numerical parametric study, influences of the fiber content, the slab thickness and the soil stiffness on the structural response of the slab under both service and ultimate conditions were studied. The material properties

Three-dimensionalmodelingofanchoringsystemsinconcrete

Numerical simulation is a valuable tool for getting inside information on the mechanism occurring in fasten- ing technology. The additional knowledge and understanding of the anchoring behavior, like e.g. the load transfer and the damaging state in the base material, is the basis for innovative product development. Reliable simulation results require a sophisticated material modeling,

CracksinreinforcedFRCbeamssubjecttobendingandaxialload

The development of bending cracks in fibre reinforced concrete (FRC) beams with main rein- forcement bars is modelled applying the fictitious crack model. A beam subject to bending moment and nor- mal force is modelled. Closed form solutions are given for the bending moment and crack opening, spacing and length; all functions of the cross-sectional

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