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contributor authorB. M. Liaw
contributor authorF. L. Jeang
contributor authorN. M. Hawkins
contributor authorA. S. Kobayashi
date accessioned2017-05-08T22:33:59Z
date available2017-05-08T22:33:59Z
date copyrightJuly 1990
date issued1990
identifier other%28asce%290733-9399%281990%29116%3A7%281560%29.pdf
identifier urihttp://yetl.yabesh.ir/yetl/handle/yetl/82742
description abstractA combined crack closure‐shear transfer model of the fracture‐process zone (FPZ) of concrete was developed through an interactive use of fracture‐test data and finite element analyses of crack‐line wedge‐loaded, double‐cantilever beam (CLWL‐DCB) specimens subjected to additional diagonal compression loading. The diagonal compression loading caused the crack to veer in the diagonal direction. The numerical simulation of those mixed‐mode‐fracture results showed that the load‐carrying capacity of the specimens was governed only by the crack‐closure stress on the FPZ, because the initial direction for the cracks coincided with the minimum principal stress direction and that direction remained essentially the same until the maximum wedge load was exceeded. The effect of shear‐transfer modeling was demonstrated by numerical simulation of published fracture‐test data for eccentrically loaded, four‐point‐bend specimens.
publisherAmerican Society of Civil Engineers
titleFracture‐Process Zone for Mixed‐Mode Loading of Concrete
typeJournal Paper
journal volume116
journal issue7
journal titleJournal of Engineering Mechanics
identifier doi10.1061/(ASCE)0733-9399(1990)116:7(1560)
treeJournal of Engineering Mechanics:;1990:;Volume ( 116 ):;issue: 007
contenttypeFulltext


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