Co-evolution of vacancies and solute clusters during artificial ageing of Al-Mg-Si alloys
暂无分享,去创建一个
[1] B. Gault,et al. Metrology of small particles and solute clusters by atom probe tomography , 2019, Acta Materialia.
[2] P. Korzhavyi,et al. Effective cluster interactions and pre–precipitate morphology in binary Al-based alloys , 2019, Acta Materialia.
[3] J. Banhart,et al. Effect of pre-ageing on natural secondary ageing and paint bake hardening in Al–Mg–Si alloys , 2019, Materialia.
[4] R. Würschum,et al. High-precision isothermal dilatometry as tool for quantitative analysis of precipitation kinetics: case study of dilute Al alloy , 2018, Journal of Materials Science.
[5] J. Banhart,et al. Reversion of natural ageing in Al-Mg-Si alloys , 2018, Acta Materialia.
[6] R. Würschum,et al. Quantitative volumetric identification of precipitates in dilute alloys using high-precision isothermal dilatometry , 2018, Philosophical Magazine Letters.
[7] K. Matsuda,et al. Atomic Structures of Precipitates in Al–Mg–Si Alloys with Small Additions of Other Elements , 2018 .
[8] G. Klinser,et al. Precipitation processes in Al–Mg–Si extending down to initial clustering revealed by the complementary techniques of positron lifetime spectroscopy and dilatometry , 2018, Journal of Materials Science.
[9] G. Klinser,et al. Diffusion-reaction model for positron trapping and annihilation at spherical extended defects and in precipitate-matrix composites , 2018, Physical Review B.
[10] Ryo Kobayashi,et al. Neural network potential for Al-Mg-Si alloys , 2017 .
[11] Z. Chen,et al. Low-alloy-correlated reversal of the precipitation sequence in Al-Mg-Si alloys , 2017 .
[12] J. Banhart,et al. Effect of Cu and Ge on solute clustering in Al–Mg–Si alloys , 2016 .
[13] W. Curtin,et al. Microalloying for the controllable delay of precipitate formation in metal alloys , 2016 .
[14] J. Banhart,et al. Early stages of solute clustering in an Al-Mg-Si alloy , 2015 .
[15] B. Klobes,et al. Early stage ageing effects and shallow positron traps in Al–Mg–Si alloys , 2015 .
[16] Meng Liu. Clustering kinetics in Al-Mg-Si alloys investigated by positron annihilation techniques , 2014 .
[17] N. Provatas,et al. Atomic-scale pathway of early-stage precipitation in Al–Mg–Si alloys , 2014, 1407.6412.
[18] P. Uggowitzer,et al. Diffusion on demand to control precipitation aging: application to Al-Mg-Si alloys. , 2014, Physical review letters.
[19] E. Kozeschnik,et al. The Life-Time of Structural Vacancies in the Presence of Solute Trapping , 2014 .
[20] Matthew D. H. Lay,et al. Vacancy Behavior and Solute Cluster Growth During Natural Aging of an Al-Mg-Si Alloy , 2012, Metallurgical and Materials Transactions A.
[21] J. Banhart,et al. The kinetics of clustering in Al–Mg–Si alloys studied by Monte Carlo simulation , 2012 .
[22] E. Kozeschnik,et al. Precipitation in Al-Alloy 6016 – The Role of Excess Vacancies , 2012 .
[23] P. Uggowitzer,et al. Mechanisms controlling the artificial aging of Al-Mg-Si Alloys , 2011 .
[24] E. Kozeschnik,et al. Modeling of excess vacancy annihilation at different types of sinks , 2011 .
[25] J. Banhart,et al. Kinetics of natural aging in Al-Mg-Si alloys studied by positron annihilation lifetime spectroscopy , 2010, 1006.4778.
[26] S. Ringer,et al. Solute clustering in Al–Cu–Mg alloys during the early stages of elevated temperature ageing , 2010 .
[27] Matthew D. H. Lay,et al. Natural Aging in Al‐Mg‐Si Alloys – A Process of Unexpected Complexity , 2010 .
[28] H. Zurob,et al. A model for the growth of solute clusters based on vacancy trapping , 2009 .
[29] Xiaolan Wei,et al. High‐temperature thermal stability of molten salt materials , 2008 .
[30] C. Wolverton. Solute–vacancy binding in aluminum , 2007 .
[31] M. V. van Huis,et al. Atomic Pillar-Based Nanoprecipitates Strengthen AlMgSi Alloys , 2006, Science.
[32] J. Kuriplach,et al. Vacancy-solute complexes in aluminum , 2006 .
[33] E. Zschech,et al. Study of artificial aging in AlMgSi (6061) and AlMgSiCu (6013) alloys by Positron Annihilation , 2006 .
[34] I. Procházka,et al. The asset of ultra-fast digitizers for positron-lifetime spectroscopy , 2005 .
[35] B. Muddle,et al. Characterisation of Precipitation Hardening Response and As-Quenched Microstructures in Al-Mg(-Ag) Alloys , 2004 .
[36] A. Khellaf,et al. Quenching studies of lattice vacancies in high-purity aluminium , 2002 .
[37] H. W. Zandbergen,et al. Atomic model for GP-zones in a 6082 Al–Mg–Si system , 2001 .
[38] R. Krause-Rehberg,et al. Positron Annihilation in Semiconductors , 1999 .
[39] H. W. Zandbergen,et al. The crystal structure of the β′ phase in Al–Mg–Si alloys , 1998 .
[40] H. Schaefer,et al. Positron Lifetime Spectroscopy and Trapping at Vacancies in Aluminium , 1987 .
[41] R. Nieminen,et al. CORRIGENDUM: Defect spectroscopy with positrons: a general calculational method , 1983 .
[42] R. P. Gupta,et al. Positron lifetime in vacancy-impurity complexes , 1981 .
[43] B. McKee,et al. Some systematics of positron-vacancy interactions in metals , 1978 .
[44] H. Kimura,et al. Behavior of excess vacancies during the nucleation of precipitates in aluminum-silicon alloys , 1971 .
[45] F. Fickett. Aluminum—1. A review of resistive mechanisms in aluminum , 1971 .
[46] H. Kimura,et al. Excess Vacancies and the Nucleation of Precipitates in Aluminum-Silicon Alloys , 1970 .
[47] Y. Fukai. Electrical resistivity due to vacancies in aluminium , 1969 .
[48] H. Herman,et al. A model for the growth of Guinier-Preston zones-the vacancy pump , 1965 .
[49] K. H. Westmacott,et al. Dislocation loops in quenched aluminium , 1958 .