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典型文献
Dependence of Microstructure Evolution and Mechanical Properties on Loading Direction for AZ31 Magnesium Alloy Sheet with Non-basal Texture During In-Plane Uniaxial Tension
文献摘要:
In-plane uniaxial tension of AZ31 magnesium alloy sheet with non-basal texture has been conducted in order to demonstrate the effects of loading direction on the microstructure evolution and mechanical properties at ambient temperature.Loading axes are chosen to be along five directions distributed between rolling direction (RD) and transverse direction (TD),allowing various activities in involved slip and twinning modes to take place.As for twinning modes,electron backscattered diffrac-tion observations confirm that the contribution of{ 10(1)1 } compression twinning is minimal to the plastic deformation of all deformed samples.By comparison,{ 10(1)2} extension twinning (ET) not only serves as an important carrier on sustaining and accommodating plastic strain but also contributes to the emergence of TD-component texture with the progression of plastic strain.In terms of slip modes,analysis on Schmid factor demonstrates that the increasing tilted angle between load-ing direction and RD of sheet is unfavorable to the activation of basal slip,whereas it contributes to the activation of prismatic slip.These observations consequently explain the increasing tendency of 0.2% proof yield stress.Moreover,the activations of basal slip and { 1012} ET collectively contribute to the concentration of two tilted basal poles toward normal direction.With increasing angle between loading direction and RD,the activations of basal slip and { 1012} ET are gradually weakened.This leads to a weakening tendency about concentration of two tilted basal poles,a generally increas-ing tendency about Lankford value (r-value) and a generally decreasing tendency about strain-hardening exponent (n-value).
文献关键词:
作者姓名:
Li Hu;Mingao Li;Qiang Chen;Tao Zhou;Laixin Shi;Mingbo Yang
作者机构:
College of Material Science and Engineering,Chongqing University of Technology,Chongqing 400054,China;Southwest Technology and Engineering Research Institute,Chongqing 400039,China
引用格式:
[1]Li Hu;Mingao Li;Qiang Chen;Tao Zhou;Laixin Shi;Mingbo Yang-.Dependence of Microstructure Evolution and Mechanical Properties on Loading Direction for AZ31 Magnesium Alloy Sheet with Non-basal Texture During In-Plane Uniaxial Tension)[J].金属学报(英文版),2022(02):223-234
A类:
Lankford
B类:
Dependence,Microstructure,Evolution,Mechanical,Properties,Loading,Direction,AZ31,Magnesium,Alloy,Sheet,Non,basal,Texture,During,In,Plane,Uniaxial,Tension,plane,uniaxial,magnesium,alloy,sheet,texture,has,been,conducted,order,effects,loading,microstructure,evolution,mechanical,properties,ambient,temperature,axes,are,chosen,along,five,directions,distributed,between,rolling,RD,transverse,TD,allowing,various,activities,involved,slip,twinning,modes,take,place,electron,backscattered,diffrac,observations,confirm,that,contribution,compression,minimal,plastic,deformation,deformed,samples,By,comparison,extension,ET,not,only,serves,important,carrier,sustaining,accommodating,strain,also,contributes,emergence,component,progression,terms,analysis,Schmid,demonstrates,increasing,tilted,angle,unfavorable,whereas,prismatic,These,consequently,explain,tendency,proof,yield,stress,Moreover,activations,collectively,concentration,two,poles,toward,normal,With,gradually,weakened,This,leads,weakening,about,generally,value,decreasing,hardening,exponent
AB值:
0.551942
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