The origins of high hardening and low ductility in magnesium
By Zhaoxuan Wu, W. A. Curtin. Nature, 2015
643 citations recorded by the source corpus.
Subfields: Biomaterials, Materials Chemistry, Mechanical Engineering
View Paper: https://www.semanticscholar.org/paper/88f7fd179f5b57ef157af67de6edbbb913e37cf5
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In Biomaterials
- Zhuoran Zeng
- J. Nie
- C. Barrett
- A. Imandoust
- Haitham El Kadiri
- Chris Davies
- N. Stanford
- Joseph D. Robson
In Materials Chemistry
In Mechanical Engineering
- Zhuoran Zeng
- J. Nie
- Joseph D. Robson
- Chris Davies
- C. Barrett
- T. Al-Samman
- M. Pérez‐Prado
- Haitham El Kadiri
Citations in the corpus
- Comprehensive first-principles study of stable stacking faults in hcp metals (2017, background): “The 〈c〉 dislocations can glide-dissociate onto the Prism I and II planes or climb-dissociate onto the Basal plane with a Basal extrinsic SF [5, 47].”
- Magnesium extrusion alloys: a review of developments and prospects (2019, background): “basal texture, pure Mg extrusions, which are intrinsically brittle at room temperature [170], can be tensile tested to more than 100% in elongation [171], and”
- Ab initio modeling of dislocation core properties in metals and semiconductors (2017, background): “Atomistic simulations relying on empirical potentials point to the existence of other possible core structures for the 〈cþa〉 dislocations, for instance locking configurations of the edge dislocation, corresponding either to a non-conservative dissociation in relation with the basal I1 stacking fault”
- A review on the effect of rare-earth elements on texture evolution during processing of magnesium alloys (2016, background): “Secondorder pyramidal slip also exhibits a great level of hardening, and hence, further restricts its occurrence at high temperatures [66].”
- Precipitation strengthening and reversed yield stress asymmetry in Mg alloys containing rare-earth elements: a quantitative study (2017, background): “) recently shown that the key <cþa> dislocations, which are metastable, could undergo a transition into various lower-energy, but immobile products lying on the basal planes, which as such serve as strong obstacles to the motion of all other dislocations [62].”