Fe–Au core–shell nanoparticles displaying an original polyhedral morphology have been successfully synthesized through a physical route. Analyses using transmission electron microscopy show that the Au shell forms truncated pyramids epitaxially grown on the (100) facets of the iron cubic core. The evolution of the elastic energy and strain field in the nanoparticles as a function of their geometry and composition is calculated using the finite-element method. The stability of the remarkable centered core–shell morphology experimentally observed is attributed to the weak elastic energy resulting from the low misfit at the Fe/Au (100) interface compared to the surface energy contribution
cited By 5International audienceThe structural, magnetic, and thermodynamic properties of the Au(001...
Nanoprecipitates play a significant role in the strength, ductility, and damage tolerance of metalli...
Lattice mismatch in a bimetallic core–shell nanoparticle will cause strain in the epitaxial shell la...
cited By 20International audienceFe-Au core-shell nanoparticles displaying an original polyhedral mo...
International audienceThe equilibrium shape of nanoparticles is investigated to elucidate the variou...
International audienceWhile combining two metals in the same nanoparticle can lead to remarkable nov...
International audienceFe-Au core-shell nanoparticles embedded in an amorphous alumina matrix are syn...
International audienceCore-shell Fe@Au crystalline NPs, particularly suitable for biomedical applica...
This work deals with the strain at the core-shell interface of Fe nanoparticles. Series of Fe nanopa...
Core–shell nanoparticles made from iron embedded in gold have a strong potential interest in nanomed...
International audienceCore–shell nanoparticles made from iron embedded in gold have a strong potenti...
Core–shell nanoparticles find applications in catalysts, sensors, and theranostics. The full interna...
Pure metal iron nanoparticles are unstable in the air. By a coating iron on nanoparticle surface wit...
Advanced quantitative TEM/EDXS methods were used to characterize different ultrastructures of magnet...
We report the chemical synthesis of Fe-core/Au-shell nanoparticles (Fe/Au) by a reverse micelle meth...
cited By 5International audienceThe structural, magnetic, and thermodynamic properties of the Au(001...
Nanoprecipitates play a significant role in the strength, ductility, and damage tolerance of metalli...
Lattice mismatch in a bimetallic core–shell nanoparticle will cause strain in the epitaxial shell la...
cited By 20International audienceFe-Au core-shell nanoparticles displaying an original polyhedral mo...
International audienceThe equilibrium shape of nanoparticles is investigated to elucidate the variou...
International audienceWhile combining two metals in the same nanoparticle can lead to remarkable nov...
International audienceFe-Au core-shell nanoparticles embedded in an amorphous alumina matrix are syn...
International audienceCore-shell Fe@Au crystalline NPs, particularly suitable for biomedical applica...
This work deals with the strain at the core-shell interface of Fe nanoparticles. Series of Fe nanopa...
Core–shell nanoparticles made from iron embedded in gold have a strong potential interest in nanomed...
International audienceCore–shell nanoparticles made from iron embedded in gold have a strong potenti...
Core–shell nanoparticles find applications in catalysts, sensors, and theranostics. The full interna...
Pure metal iron nanoparticles are unstable in the air. By a coating iron on nanoparticle surface wit...
Advanced quantitative TEM/EDXS methods were used to characterize different ultrastructures of magnet...
We report the chemical synthesis of Fe-core/Au-shell nanoparticles (Fe/Au) by a reverse micelle meth...
cited By 5International audienceThe structural, magnetic, and thermodynamic properties of the Au(001...
Nanoprecipitates play a significant role in the strength, ductility, and damage tolerance of metalli...
Lattice mismatch in a bimetallic core–shell nanoparticle will cause strain in the epitaxial shell la...