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Study of damage and fracture toughness due to influence of creep and fatigue of commercially pure copper by monotonic and cyclic indentation
Published in
2013
Volume: 44
   
Issue: 1
Pages: 224 - 234
Abstract
Fracture toughness is the ability of a component containing a flow to resist fracture. In the current study, the Ball indentation (BI) test technique, which is well acknowledged as an alternative approach to evaluate mechanical properties of materials due to its semi-nondestructive, fast, and high accurate qualities is used to estimate damage and the fracture toughness for copper samples subjected to varying levels of creep and fatigue. The indentation fracture toughness shows the degradation of Cu samples when they are subjected to different creep conditions. Axial fatigue cycling increases the strength at the mid-gauge section compared to other regions of the samples due to initial strain hardening. The advancement of indentation depth with indentation fatigue cycles experiences transient stage, i.e., jump in indentation depth has been observed, which may be an indication of failure and followed by a steady state with almost constant depth propagation with indentation cycles. © 2012 The Minerals, Metals & Materials Society and ASM International.
About the journal
JournalMetallurgical and Materials Transactions A: Physical Metallurgy and Materials Science
ISSN10735623
Open AccessNo
Concepts (18)
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    Alternative approach
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    AXIAL FATIGUE
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    BALL INDENTATION TESTS
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    CREEP AND FATIGUE
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    CREEP CONDITIONS
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    CYCLIC INDENTATION
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    FATIGUE CYCLES
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    INDENTATION DEPTH
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    INDENTATION FRACTURE TOUGHNESS
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    MECHANICAL PROPERTIES OF MATERIALS
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    PURE COPPER
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    Steady state
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    TRANSIENT STAGE
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    Copper
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    Creep
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    Mechanical properties
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    Strain hardening
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    Fatigue damage