Nanowires of Sn\u2013Co alloys were grown inside the channels of anodic alumina membrane by potentiostatic deposition. The scanning electron microscope images showed the formation of cylindrical nanowires whose height was increasing with deposition time. The X-ray patterns did not show significant diffraction peaks, suggesting the formation of amorphous phases. The higher content of Co in the nanowires, in comparison to the initial composition of the electrolytic bath, was attributed to a higher rate of Co electrodeposition. These nanowires seem to possess specific features suitable for innovative application in the field of Li-ion batteries due to their dimensional stability and high specific surface
A polycarbonate membrane filter with numerous cylindrical nanopores was used as a template for growi...
High-density and uniform-sized Co1-xSnx alloy nanowires have been prepared electrochemically in anod...
The template method was used for preparing Zn Co O nanowires with x ranging from 0.01 to 0.05. Thus,...
Nanowires of Sn–Co alloys were grown inside the channels of anodic alumina membrane by potentiostati...
A fabrication process of amorphous nanowires of Sn–Co alloys, based on electrodeposition into anodi...
The demand of improvement in lithium-ion battery technology in terms of specific capacity and safety...
Sn and its nanostructures are one of the promising candidates to replace graphite in the anode of Li...
Amorphous SnCo alloy nanowires (NWs) grown inside the channels of polycarbonate membranes by potenti...
The preparation of Sn2Co3 nanowire arrays (NWs) electrogrown inside the channels of polycarbonate m...
Electrodeposition of Sn from supercritical difluoromethane has been performed into anodic alumina te...
The present paper focuses on a nanostructured SnCo alloy electrochemically prepared by template meth...
Antimony nanowires with diameters ranging from 35 nm to 320 nm were successfully prepared by simple,...
In this study, Sn nanowires were produced electrochemically in anodic aluminum oxide membranes. Duri...
referred to as nanowires, have attracted considerable attention due to their unique mechanical, chem...
Electrodeposition of Sn from supercritical difluoromethane has been performed into anodic alumina te...
A polycarbonate membrane filter with numerous cylindrical nanopores was used as a template for growi...
High-density and uniform-sized Co1-xSnx alloy nanowires have been prepared electrochemically in anod...
The template method was used for preparing Zn Co O nanowires with x ranging from 0.01 to 0.05. Thus,...
Nanowires of Sn–Co alloys were grown inside the channels of anodic alumina membrane by potentiostati...
A fabrication process of amorphous nanowires of Sn–Co alloys, based on electrodeposition into anodi...
The demand of improvement in lithium-ion battery technology in terms of specific capacity and safety...
Sn and its nanostructures are one of the promising candidates to replace graphite in the anode of Li...
Amorphous SnCo alloy nanowires (NWs) grown inside the channels of polycarbonate membranes by potenti...
The preparation of Sn2Co3 nanowire arrays (NWs) electrogrown inside the channels of polycarbonate m...
Electrodeposition of Sn from supercritical difluoromethane has been performed into anodic alumina te...
The present paper focuses on a nanostructured SnCo alloy electrochemically prepared by template meth...
Antimony nanowires with diameters ranging from 35 nm to 320 nm were successfully prepared by simple,...
In this study, Sn nanowires were produced electrochemically in anodic aluminum oxide membranes. Duri...
referred to as nanowires, have attracted considerable attention due to their unique mechanical, chem...
Electrodeposition of Sn from supercritical difluoromethane has been performed into anodic alumina te...
A polycarbonate membrane filter with numerous cylindrical nanopores was used as a template for growi...
High-density and uniform-sized Co1-xSnx alloy nanowires have been prepared electrochemically in anod...
The template method was used for preparing Zn Co O nanowires with x ranging from 0.01 to 0.05. Thus,...