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J.D. Embury

Researcher at McMaster University

Publications -  258
Citations -  11521

J.D. Embury is an academic researcher from McMaster University. The author has contributed to research in topics: Deformation (engineering) & Strain hardening exponent. The author has an hindex of 54, co-authored 258 publications receiving 10556 citations. Previous affiliations of J.D. Embury include University of Cambridge & University of Queensland.

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Softening Kinetics in the Subcritical Heat-Affected Zone of Dual-Phase Steel Welds

TL;DR: In this paper, the Avrami equation was used to compare the relative heat needed to soften a dual-phase (DP) steel with respect to its parent material, and it was found that the heat input required for HAZ softening decreased as the C content of the martensite within the DP structure increased.
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A study of the bauschinger effect in AlCu alloys

TL;DR: In this article, the Bauschinger effect has been used to study the strain hardening in a two phase alloy, and the back stress at small strains, including its temperature and orientation dependence, has been accounted for using the unrelaxed model proposed by Brown and Clarke.
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Microstructural evolution and strain hardening of Fe-24Mn and Fe-30Mn alloys during tensile deformation

TL;DR: In this paper, the microstructural evolution and work hardening of Fe30Mn and Fe-24Mn alloys during uniaxial tensile testing at 293 and 77 K were investigated.
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Deformation mechanism maps for polycrystalline metallic multiplayers

TL;DR: In this article, the authors present a simple analysis that allows us to obtain limiting values of microstructural scales at which different deformation mechanisms operate, in the form of two-dimensional maps of layer thickness and grain size ranges.
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Plastic flow in dispersion hardened materials

TL;DR: In this paper, a review of the role of elastic back stresses and their influence on the magnitude of the Bauschinger effect and on dimensional stability is given. And the relationship between basic concepts of dispersion hardening and the development of new processing methods capable of producing synthetic microstructures with specific properties is discussed.