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    Macrocrack-Microcrack Interaction in Piezoelectric Materials, Part II: Numerical Results and Discussions

    Source: Journal of Applied Mechanics:;1999:;volume( 066 ):;issue: 002::page 522
    Author:
    Y.-H. Chen
    ,
    J.-J. Han
    DOI: 10.1115/1.2791078
    Publisher: The American Society of Mechanical Engineers (ASME)
    Abstract: Numerical results are shown in figures and tables. The major features for the traditional stress intensity factors and the electric displacement intensity factor against the microcrack location angle and the distance of the microcrack center from the macrocrack tip are discussed. It is shown that, unlike single-crack problems, the mechanical loading and the electric loading are coupled together since the microcrack not only releases the near-tip stresses, but also disturbs the near-tip electric field. Furthermore, the influence of the electric loading on the mechanical strain energy release rate (MSERR) at the macrocrack tip is discussed in detail. It is found that the variable nature of the MSERR against the normalized electric loading is monotonic and proportional wherever the parallel microcrack is located near the macrocrack tip. However, the slope of the MSERR’s curve considering microcracking diverges far from those without considering microcracking. This finding reveals that, besides the two sources of microcrack shielding discussed by Hutchinson (1987) for brittle solids, the disturbance of the near-tip electric field due to microcracking really provides another source of shielding for piezoelectric solids.
    keyword(s): Piezoelectric materials , Microcracks , Electric fields , Solids , Stress , Fracture (Materials) , Displacement AND Brittleness ,
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      Macrocrack-Microcrack Interaction in Piezoelectric Materials, Part II: Numerical Results and Discussions

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    http://yetl.yabesh.ir/yetl1/handle/yetl/121699
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    contributor authorY.-H. Chen
    contributor authorJ.-J. Han
    date accessioned2017-05-08T23:58:53Z
    date available2017-05-08T23:58:53Z
    date copyrightJune, 1999
    date issued1999
    identifier issn0021-8936
    identifier otherJAMCAV-26470#522_1.pdf
    identifier urihttp://yetl.yabesh.ir/yetl/handle/yetl/121699
    description abstractNumerical results are shown in figures and tables. The major features for the traditional stress intensity factors and the electric displacement intensity factor against the microcrack location angle and the distance of the microcrack center from the macrocrack tip are discussed. It is shown that, unlike single-crack problems, the mechanical loading and the electric loading are coupled together since the microcrack not only releases the near-tip stresses, but also disturbs the near-tip electric field. Furthermore, the influence of the electric loading on the mechanical strain energy release rate (MSERR) at the macrocrack tip is discussed in detail. It is found that the variable nature of the MSERR against the normalized electric loading is monotonic and proportional wherever the parallel microcrack is located near the macrocrack tip. However, the slope of the MSERR’s curve considering microcracking diverges far from those without considering microcracking. This finding reveals that, besides the two sources of microcrack shielding discussed by Hutchinson (1987) for brittle solids, the disturbance of the near-tip electric field due to microcracking really provides another source of shielding for piezoelectric solids.
    publisherThe American Society of Mechanical Engineers (ASME)
    titleMacrocrack-Microcrack Interaction in Piezoelectric Materials, Part II: Numerical Results and Discussions
    typeJournal Paper
    journal volume66
    journal issue2
    journal titleJournal of Applied Mechanics
    identifier doi10.1115/1.2791078
    journal fristpage522
    journal lastpage527
    identifier eissn1528-9036
    keywordsPiezoelectric materials
    keywordsMicrocracks
    keywordsElectric fields
    keywordsSolids
    keywordsStress
    keywordsFracture (Materials)
    keywordsDisplacement AND Brittleness
    treeJournal of Applied Mechanics:;1999:;volume( 066 ):;issue: 002
    contenttypeFulltext
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