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Original Articles

Vacancy loops and stacking-fault tetrahedra in copper

II. Growth, shrinkage, interactions with point defects and thermal stability

, , , &
Pages 2285-2311 | Received 11 Dec 1997, Accepted 09 Nov 1998, Published online: 01 Apr 2008

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Read on this site (4)

Wenpeng Zhu & Wei Yang. (2011) Molecular dynamics study of configuration and stability of vacancy clusters in fcc Ag. Philosophical Magazine 91:29, pages 3793-3809.
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R. Schäublin , Z. Yao, N. Baluc & M. Victoria. (2005) Irradiation-induced stacking fault tetrahedra in fcc metals. Philosophical Magazine 85:4-7, pages 769-777.
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D. J. Bacon & Yu. N. Osetsky. (2002) Modelling atomic scale radiation damage processes and effects in metals. International Materials Reviews 47:5, pages 233-241.
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Yu.N. Osetsky, A. Serra, M. Victoria, S.I. Golubov & V. Priego. (1999) Vacancy loops and stacking-fault tetrahedra in copper. Philosophical Magazine A 79:9, pages 2259-2283.
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Articles from other publishers (22)

Cuncai Fan, Zhongxia Shang, Meimei Li, Haiyan Wang, Anter El-Azab & Xinghang Zhang. (2022) The influence of helium and heavy ion irradiations on radiation responses of single crystal Cu with nanovoids: An in situ TEM study. Acta Materialia 240, pages 118293.
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Donghua Xu, Zhengming Wang, Tzu-Yi Chang, Jaskaran S Saini, Wei-Ying Chen, Meimei Li & Yuanyuan Zhu. (2022) Direct transformation of equilateral hexagonal Frank vacancy loops to stacking fault tetrahedra under thermal fluctuation. Journal of Physics: Condensed Matter 34:38, pages 385702.
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Steven J. Zinkle. 2020. Comprehensive Nuclear Materials. Comprehensive Nuclear Materials 91 129 .
Debasis Poddar, Arnab Chakraborty & Ravi Kumar B.. (2019) Annealing twin evolution in the grain-growth stagnant austenitic stainless steel microstructure. Materials Characterization 155, pages 109791.
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Debasis Poddar, Chiradeep Ghosh, Basudev Bhattacharya & Vivek Kumar Singh. (2019) Development of high ductile ultra high strength structural steel through stabilization of retained austenite and stacking fault. Materials Science and Engineering: A 762, pages 138079.
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C. Fan, A.R.G. Sreekar, Z. Shang, Jin Li, M. Li, H. Wang, A. El-Azab & X. Zhang. (2019) Radiation induced nanovoid shrinkage in Cu at room temperature: An in situ study. Scripta Materialia 166, pages 112-116.
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Bennett C. Larson. (2019) Historical Perspective on Diffraction Line-Profile Analyses for Crystals Containing Defect Clusters. Crystals 9:5, pages 257.
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FengChao Wu, YinBo Zhu, Qiang Wu, XinZhu Li, Pei Wang & HengAn Wu. (2017) Helium bubbles aggravated defects production in self-irradiated copper. Journal of Nuclear Materials 496, pages 265-273.
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FengChao Wu, Pei Wang, XiaoYi Liu & HengAn Wu. (2017) Radiation damage in gallium-stabilized δ-plutonium with helium bubbles. Journal of Nuclear Materials 484, pages 7-15.
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GARY S. WASGary S. Was. 2017. Fundamentals of Radiation Materials Science. Fundamentals of Radiation Materials Science 301 378 .
Dilpuneet S. Aidhy, Chenyang Lu, Ke Jin, Hongbin Bei, Yanwen Zhang, Lumin Wang & William J. Weber. (2016) Formation and growth of stacking fault tetrahedra in Ni via vacancy aggregation mechanism. Scripta Materialia 114, pages 137-141.
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A.P. Druzhkov, V.L. Arbuzov & D.A. Perminov. (2012) The effect of neutron irradiation dose on vacancy defect accumulation and annealing in pure nickel. Journal of Nuclear Materials 421:1-3, pages 58-63.
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S.J. Zinkle. 2012. Comprehensive Nuclear Materials. Comprehensive Nuclear Materials 65 98 .
C. S. Becquart & C. Domain. (2010) Modeling Microstructure and Irradiation Effects. Metallurgical and Materials Transactions A 42:4, pages 852-870.
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D.J. Bacon, Y.N. Osetsky & D. Rodney. 2009. 1 90 .
S. Van Petegem, J. Kuriplach, P. M. Derlet & H. Van Swygenhoven. (2007) Positron lifetime calculations for stacking fault tetrahedra in copper. physica status solidi c 4:10, pages 3514-3517.
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. 2007. Fundamentals of Radiation Materials Science. Fundamentals of Radiation Materials Science 267 342 .
C Pokor, Y Brechet, P Dubuisson, J.-P Massoud & A Barbu. (2004) Irradiation damage in 304 and 316 stainless steels: experimental investigation and modeling. Part I: Evolution of the microstructure. Journal of Nuclear Materials 326:1, pages 19-29.
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D.J Bacon, Yu.N Osetsky, R Stoller & R.E Voskoboinikov. (2003) MD description of damage production in displacement cascades in copper and α-iron. Journal of Nuclear Materials 323:2-3, pages 152-162.
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S.J. Zinkle, N. Hashimoto, Y. Matsukawa, R.E. Stoller & Yu.N. Osetsky. (2011) Microstructures Of Irradiated And Mechanically Deformed Metals And Alloys: Fundamental Aspects. MRS Proceedings 792.
Crossref
L.Z. Sun, N.M. Ghoniem & Z.Q. Wang. (2001) Analytical and numerical determination of the elastic interaction energy between glissile dislocations and stacking fault tetrahedra in FCC metals. Materials Science and Engineering: A 309-310, pages 178-183.
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Y Shimomura & I Mukouda. (2000) Development of vacancy clusters in neutron-irradiated copper at high temperature. Journal of Nuclear Materials 283-287, pages 249-254.
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