inverted optical microscope zeiss axiovert 100 (Carl Zeiss)
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inverted optical microscope zeiss axiovert 100
Inverted Optical Microscope Zeiss Axiovert 100, supplied by Carl Zeiss, used in various techniques. Bioz Stars score: 90/100, based on 1 PubMed citations. ZERO BIAS - scores, article reviews, protocol conditions and more
https://www.bioz.com/product/optical+microscope+zeiss+axiovert+100+a/100+axiovert+microscope+%C3%97/pm39999487-80-22-24
Average 90 stars, based on 1 article reviews
Inverted Optical Microscope Zeiss Axiovert 100, supplied by Carl Zeiss, used in various techniques. Bioz Stars score: 90/100, based on 1 PubMed citations. ZERO BIAS - scores, article reviews, protocol conditions and more
https://www.bioz.com/product/optical+microscope+zeiss+axiovert+100+a/100+axiovert+microscope+%C3%97/pm39999487-80-22-24
Average 90 stars, based on 1 article reviews
inverted optical microscope zeiss axiovert 100 - by Bioz Stars,
2026-10
90/100 stars
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Microscopy:Article Title: Enhanced strength-ductility synergy in pure Cu through the design of alternating coarse-grained and nanostructured layers Article Snippet: Heterogeneous micro/nano laminated structure (HM/NLS) design has emerged as a promising strategy for circumventing the strength-ductility trade-offs in nanostructured metals.. However, most of reported HM/NLSed metals are mainly prepared from two dissimilar metals, which make it challenging to fully understand the deformation mechanisms of HM/NLS due to the complicated coupling of microstructural and compositional difference between component layers.. Here, a series of HM/NLSs, consisting of alternating coarse-grained (CGed) and nanostructured (NSed) layers with varied thickness ratio (RCGed/NSed) of CGed layers to NSed layers, have been designed and introduced into pure Cu, which aim to exclude the influence of compositional difference between component layers and investigate the effect of microstructural difference on the deformational behavior of HM/NLSed metals independently. Software:Article Title: Enhanced strength-ductility synergy in pure Cu through the design of alternating coarse-grained and nanostructured layers Article Snippet: Heterogeneous micro/nano laminated structure (HM/NLS) design has emerged as a promising strategy for circumventing the strength-ductility trade-offs in nanostructured metals.. However, most of reported HM/NLSed metals are mainly prepared from two dissimilar metals, which make it challenging to fully understand the deformation mechanisms of HM/NLS due to the complicated coupling of microstructural and compositional difference between component layers.. Here, a series of HM/NLSs, consisting of alternating coarse-grained (CGed) and nanostructured (NSed) layers with varied thickness ratio (RCGed/NSed) of CGed layers to NSed layers, have been designed and introduced into pure Cu, which aim to exclude the influence of compositional difference between component layers and investigate the effect of microstructural difference on the deformational behavior of HM/NLSed metals independently. Transmission Assay:Article Title: Enhanced strength-ductility synergy in pure Cu through the design of alternating coarse-grained and nanostructured layers Article Snippet: Heterogeneous micro/nano laminated structure (HM/NLS) design has emerged as a promising strategy for circumventing the strength-ductility trade-offs in nanostructured metals.. However, most of reported HM/NLSed metals are mainly prepared from two dissimilar metals, which make it challenging to fully understand the deformation mechanisms of HM/NLS due to the complicated coupling of microstructural and compositional difference between component layers.. Here, a series of HM/NLSs, consisting of alternating coarse-grained (CGed) and nanostructured (NSed) layers with varied thickness ratio (RCGed/NSed) of CGed layers to NSed layers, have been designed and introduced into pure Cu, which aim to exclude the influence of compositional difference between component layers and investigate the effect of microstructural difference on the deformational behavior of HM/NLSed metals independently. Electron Microscopy:Article Title: Enhanced strength-ductility synergy in pure Cu through the design of alternating coarse-grained and nanostructured layers Article Snippet: Heterogeneous micro/nano laminated structure (HM/NLS) design has emerged as a promising strategy for circumventing the strength-ductility trade-offs in nanostructured metals.. However, most of reported HM/NLSed metals are mainly prepared from two dissimilar metals, which make it challenging to fully understand the deformation mechanisms of HM/NLS due to the complicated coupling of microstructural and compositional difference between component layers.. Here, a series of HM/NLSs, consisting of alternating coarse-grained (CGed) and nanostructured (NSed) layers with varied thickness ratio (RCGed/NSed) of CGed layers to NSed layers, have been designed and introduced into pure Cu, which aim to exclude the influence of compositional difference between component layers and investigate the effect of microstructural difference on the deformational behavior of HM/NLSed metals independently. Transmission Electron Microscopy:Article Title: Enhanced strength-ductility synergy in pure Cu through the design of alternating coarse-grained and nanostructured layers Article Snippet: Heterogeneous micro/nano laminated structure (HM/NLS) design has emerged as a promising strategy for circumventing the strength-ductility trade-offs in nanostructured metals.. However, most of reported HM/NLSed metals are mainly prepared from two dissimilar metals, which make it challenging to fully understand the deformation mechanisms of HM/NLS due to the complicated coupling of microstructural and compositional difference between component layers.. Here, a series of HM/NLSs, consisting of alternating coarse-grained (CGed) and nanostructured (NSed) layers with varied thickness ratio (RCGed/NSed) of CGed layers to NSed layers, have been designed and introduced into pure Cu, which aim to exclude the influence of compositional difference between component layers and investigate the effect of microstructural difference on the deformational behavior of HM/NLSed metals independently. |