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Alexander M. Korsunsky

Researcher at University of Oxford

Publications -  509
Citations -  10943

Alexander M. Korsunsky is an academic researcher from University of Oxford. The author has contributed to research in topics: Residual stress & Eigenstrain. The author has an hindex of 43, co-authored 476 publications receiving 8888 citations. Previous affiliations of Alexander M. Korsunsky include University of New Mexico & University of Newcastle.

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On the Dependence of γ′ Precipitate Size in a Nickel-Based Superalloy on the Cooling Rate from Super-Solvus Temperature Heat Treatment

TL;DR: This study focuses on identifying a correlation between the mean secondary and tertiary γ′ size and the cooling rate from solution treatment temperature, and derives a derived model that captures the correlation correctly despite its simplicity, and is able to predict the mean primary and secondary precipitate size in a nickel superalloy, without complex modeling.
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The effect of surface damage and residual stresses on the fatigue life of nickel superalloys at high temperature

TL;DR: In this paper, the effect of surface damage in the fatigue life of nickel superalloys is evaluated using a finite element (FE) model, and the residual stress distribution obtained via the FE model was subsequently used in a fatigue short crack growth model for an estimation of the fatigue lifetime of dented specimens.
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Transverse fatigue behaviour and residual stress analyses of double sided FSW aluminium alloy joints

TL;DR: In this paper, the residual stress field and the underlying microstructural features arising in friction stir welding (FSW) butt joints and their effect on the fatigue performance of this type of weldments were evaluated by means of modern experimental techniques.
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High-tech composites to ancient metals

TL;DR: In this article, the authors review a wide range of recent experimental studies using the Engin-X materials engineering instrument at the ISIS neutron source and show how the technique provides the basis for developing improved insight into materials of great importance to applications and industry.
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High-energy transmission Laue micro-beam X-ray diffraction: a probe for intra-granular lattice orientation and elastic strain in thicker samples.

TL;DR: The development of high-energy transmission Laue (HETL) micro- beam X-ray diffraction is described, extending the micro-beam Laue technique to significantly higher photon energies (50-150 keV), which allows the probing of thicker sample sections, with the potential for grain-level characterization of real engineering components.