Detail publikačního výsledku

Fatigue Properties of UFG Cu of Different Purity Processed by Different ECAP Routes

BUKSA, M.; KUNZ, L.; WANG, Q.

Originální název

Fatigue Properties of UFG Cu of Different Purity Processed by Different ECAP Routes

Anglický název

Fatigue Properties of UFG Cu of Different Purity Processed by Different ECAP Routes

Druh

Stať ve sborníku v databázi WoS či Scopus

Originální abstrakt

Fatigue behaviour of UFG Cu of high and low purity produced by means of ECAP and using different ECAP routes was studied. S/N curves and cyclic hardening/softening curves were experimentally determined. It has been found that both the purity and ECAP path influence the fatigue lifetime and cyclic plasticity in high cycle fatigue region. The mechanism of fatigue damage of UFG structure has been discussed.

Anglický abstrakt

Fatigue behaviour of UFG Cu of high and low purity produced by means of ECAP and using different ECAP routes was studied. S/N curves and cyclic hardening/softening curves were experimentally determined. It has been found that both the purity and ECAP path influence the fatigue lifetime and cyclic plasticity in high cycle fatigue region. The mechanism of fatigue damage of UFG structure has been discussed.

Klíčová slova

ECAP path, ECAP process, fatigue lifetime, UFG Cu, influence of details, purity

Klíčová slova v angličtině

ECAP path, ECAP process, fatigue lifetime, UFG Cu, influence of details, purity

Autoři

BUKSA, M.; KUNZ, L.; WANG, Q.

Vydáno

29.11.2007

Nakladatel

ÚFM AV ČR, v.v.i.

Místo

Brno

ISBN

978-80-254-0793-6

Kniha

Víceúrovňový design pokrokových materiálů

Strany od

97

Strany do

106

Strany počet

10

BibTex

@inproceedings{BUT28971,
  author="Michal {Buksa} and Ludvík {Kunz} and Qingjuan {Wang}",
  title="Fatigue Properties of UFG Cu of Different Purity Processed by Different ECAP Routes",
  booktitle="Víceúrovňový design pokrokových materiálů",
  year="2007",
  pages="97--106",
  publisher="ÚFM AV ČR, v.v.i.",
  address="Brno",
  isbn="978-80-254-0793-6"
}