Tin (Sn) is a potential anode material for highenergy density Li-ion batteries because of its high capacity, safety, abundance and low cost. However, Sn suffers from large volume change during cycling, leading to fast degradation of the electrode. For the first time, the microstructural evolution of micrometer-sized single Sn particle was monitored by focused-ion beam (FIB) polishing and scanning electron microscopy (SEM) imaging during electrochemical cycling by in situ FIB-SEM. Our results show the formation and evolution of cracks during lithiation, evolution of porous structure during delithiation and volume expansion/contraction during cycling. The electrochemical performance and the microstructural evolution of the Sn microparticle du...
Understanding and improving the behavior of interfaces is essential to the development of safer and ...
International audienceIn situ and ex situ scanning electron microscopy of nano Si and SiO anode part...
A focused ion beam (FIB) system is used to fabricate a micron-sized all-solid-state fluoride ion cel...
Tin (Sn) is a potential anode material for highenergy density Li-ion batteries because of its high c...
The morphological evolution of tin particles with different sizes during the first lithiation and de...
The lithiation and delithiation mechanisms of multiple Sn particles in a customized flat radiography...
The intermediate Li Sn alloy phases during de lithiation are identified, and their dynamic phase tra...
Sn-based Li storage materials are considered as prom-ising high-capacity anodes for lithium ion batt...
Fundamental understanding of phenomena that occur at the electrode/electrolyte interface during char...
Tin (Sn) nanoparticle electrodes have been prepared and battery cycling performance has been investi...
The degradation mechanism of an Sn4P3 electrode as Na-ion battery anode was investigated by using a ...
Direct observation of the nanostructural evolution of electrode materials is critical to understandi...
Excellent reversibility is crucial for the storage capacity and the cycle life of anode materials in...
High capacity lithium ion (Li+) host materials, such as silicon (Si) and tin (Sn), serve as potentia...
Probing electrodes at a nanometer scale is challenging but desirable to reveal the structural evolut...
Understanding and improving the behavior of interfaces is essential to the development of safer and ...
International audienceIn situ and ex situ scanning electron microscopy of nano Si and SiO anode part...
A focused ion beam (FIB) system is used to fabricate a micron-sized all-solid-state fluoride ion cel...
Tin (Sn) is a potential anode material for highenergy density Li-ion batteries because of its high c...
The morphological evolution of tin particles with different sizes during the first lithiation and de...
The lithiation and delithiation mechanisms of multiple Sn particles in a customized flat radiography...
The intermediate Li Sn alloy phases during de lithiation are identified, and their dynamic phase tra...
Sn-based Li storage materials are considered as prom-ising high-capacity anodes for lithium ion batt...
Fundamental understanding of phenomena that occur at the electrode/electrolyte interface during char...
Tin (Sn) nanoparticle electrodes have been prepared and battery cycling performance has been investi...
The degradation mechanism of an Sn4P3 electrode as Na-ion battery anode was investigated by using a ...
Direct observation of the nanostructural evolution of electrode materials is critical to understandi...
Excellent reversibility is crucial for the storage capacity and the cycle life of anode materials in...
High capacity lithium ion (Li+) host materials, such as silicon (Si) and tin (Sn), serve as potentia...
Probing electrodes at a nanometer scale is challenging but desirable to reveal the structural evolut...
Understanding and improving the behavior of interfaces is essential to the development of safer and ...
International audienceIn situ and ex situ scanning electron microscopy of nano Si and SiO anode part...
A focused ion beam (FIB) system is used to fabricate a micron-sized all-solid-state fluoride ion cel...