<p>Refining a metal’s grain size can result in dramatic increases in strength, and the magnitude of this strengthening increment can be estimated using the Hall–Petch equation. Since the Hall–Petch equation was proposed, there have been many experimental studies supporting its applicability to pure metals, intermetallics and multi-phase alloys. In this article, we gather the grain-size strengthening data from the Hall–Petch studies on pure metals and use this aggregated data to calculate best estimates of these metals’ Hall–Petch parameters. We also use this aggregated data to re-evaluate the various models developed to physically support the Hall–Petch scaling.</p
The grain size, and therefore the grain boundary density, is known to play a major role in the flow ...
The mechanical strengths of nano-scale individual crystal or nanopolycrystalline metals, and other d...
The strength of polycrystalline metals increases with a decrease in grain size according to the Hall...
The classic data in the literature for the grain size dependence of the strength in many metals are ...
Grain-size strengthening of polycrystalline metals, the Hall-Petch effect, has been described for th...
19 pages, 5 Figures, 3 Tables19 pages, 5 Figures, 3 TablesThe Hall-Petch effect has been described f...
Hall–petch (HP) relation and the superposition of different strengthening mechanisms in different al...
The grain-size dependence of the strength of polycrystalline metals has been described by the Hall-P...
Experimental data show that the conventional Hall-Petch relationship cannot be maintained in its ori...
A model is presented for the strength of nanophase metals. The model assumes that polycrystalline me...
Taking the Hall–Petch relationship as a starting point, the factors contributing towards Mg alloy st...
Grain size strengthening, referred to as the Hall-Petch effect, is a common strategy to improve the ...
ABSTRACT: Numerous experimental evidences show that the grain size may significantly alter the yield...
To construct wide-range constitutive equations of solid substances suitable for calculations of dyna...
Very weak grain size dependence of yield strength is observed in a peak-aged Mg-10 wt pct Y alloy, i...
The grain size, and therefore the grain boundary density, is known to play a major role in the flow ...
The mechanical strengths of nano-scale individual crystal or nanopolycrystalline metals, and other d...
The strength of polycrystalline metals increases with a decrease in grain size according to the Hall...
The classic data in the literature for the grain size dependence of the strength in many metals are ...
Grain-size strengthening of polycrystalline metals, the Hall-Petch effect, has been described for th...
19 pages, 5 Figures, 3 Tables19 pages, 5 Figures, 3 TablesThe Hall-Petch effect has been described f...
Hall–petch (HP) relation and the superposition of different strengthening mechanisms in different al...
The grain-size dependence of the strength of polycrystalline metals has been described by the Hall-P...
Experimental data show that the conventional Hall-Petch relationship cannot be maintained in its ori...
A model is presented for the strength of nanophase metals. The model assumes that polycrystalline me...
Taking the Hall–Petch relationship as a starting point, the factors contributing towards Mg alloy st...
Grain size strengthening, referred to as the Hall-Petch effect, is a common strategy to improve the ...
ABSTRACT: Numerous experimental evidences show that the grain size may significantly alter the yield...
To construct wide-range constitutive equations of solid substances suitable for calculations of dyna...
Very weak grain size dependence of yield strength is observed in a peak-aged Mg-10 wt pct Y alloy, i...
The grain size, and therefore the grain boundary density, is known to play a major role in the flow ...
The mechanical strengths of nano-scale individual crystal or nanopolycrystalline metals, and other d...
The strength of polycrystalline metals increases with a decrease in grain size according to the Hall...