Experimental data show that the conventional Hall-Petch relationship cannot be maintained in its original form for metals having submicrometer structures. We now propose a dislocation model which modifies the Hall-Patch relationship to provide a uniform description of the grain size strengthening of submicron-structured face-centered cubic (f.c.c.) metals and solid solution alloys
The classic data in the literature for the grain size dependence of the strength in many metals are ...
Nanocrystalline (NC) materials, defined structurally by having average grain sizes less than 100nm, ...
Owing to their very high strength, nanocrystalline metals have been extensively studied over the rec...
Experimental data show that the conventional Hall-Petch relationship cannot be maintained in its ori...
Grain-size strengthening of polycrystalline metals, the Hall-Petch effect, has been described for th...
It is well documented that the mechanical response of polycrystalline metals depends on the metal's ...
Grain size strengthening, referred to as the Hall-Petch effect, is a common strategy to improve the ...
<p>Refining a metal’s grain size can result in dramatic increases in strength, and the magnitude of ...
Understanding the influenceof interfaces like grain and interphaseboundaries on crystalline strength...
The development of high-strength metals has driven the endeavor of pushing the limit of grain size (...
It is widely known that grain boundary can play a big role in influencing crystal deformation (Hall-...
The grain-size dependence of the strength of polycrystalline metals has been described by the Hall-P...
The mechanical strengths of nano-scale individual crystal or nanopolycrystalline metals, and other d...
Polycrystalline materials with mean grain size smaller than 10nm will soften if its mean grain size ...
The evolution of the yield and flow stress in polycrystals with characteristic grain sizes ranging f...
The classic data in the literature for the grain size dependence of the strength in many metals are ...
Nanocrystalline (NC) materials, defined structurally by having average grain sizes less than 100nm, ...
Owing to their very high strength, nanocrystalline metals have been extensively studied over the rec...
Experimental data show that the conventional Hall-Petch relationship cannot be maintained in its ori...
Grain-size strengthening of polycrystalline metals, the Hall-Petch effect, has been described for th...
It is well documented that the mechanical response of polycrystalline metals depends on the metal's ...
Grain size strengthening, referred to as the Hall-Petch effect, is a common strategy to improve the ...
<p>Refining a metal’s grain size can result in dramatic increases in strength, and the magnitude of ...
Understanding the influenceof interfaces like grain and interphaseboundaries on crystalline strength...
The development of high-strength metals has driven the endeavor of pushing the limit of grain size (...
It is widely known that grain boundary can play a big role in influencing crystal deformation (Hall-...
The grain-size dependence of the strength of polycrystalline metals has been described by the Hall-P...
The mechanical strengths of nano-scale individual crystal or nanopolycrystalline metals, and other d...
Polycrystalline materials with mean grain size smaller than 10nm will soften if its mean grain size ...
The evolution of the yield and flow stress in polycrystals with characteristic grain sizes ranging f...
The classic data in the literature for the grain size dependence of the strength in many metals are ...
Nanocrystalline (NC) materials, defined structurally by having average grain sizes less than 100nm, ...
Owing to their very high strength, nanocrystalline metals have been extensively studied over the rec...