Using a novel electrochemical phase-field model, we question the common belief that Li<sub><i>X</i></sub>FePO<sub>4</sub> nanoparticles always separate into Li-rich and Li-poor phases during battery discharge. For small currents, spinodal decomposition or nucleation leads to moving phase boundaries. Above a critical current density (in the Tafel regime), the spinodal disappears, and particles fill homogeneously, which may explain the superior rate capability and long cycle life of nano-LiFePO<sub>4</sub> cathodes
Compact solid discharge products enable energy storage devices with high gravimetric and volumetric ...
To understand how a phase transformation pathway affects the electrochemical properties of LiFePO4 n...
Chemical energy storage in Li-ion batteries is a key technology for the future renewable society. Th...
Using a novel electrochemical phase-field model, we question the common belief that Li<sub><i>X</i><...
ithium iron phosphate (LiFePO4) has emergedasan importanthigh-rate cath-ode material for rechargeabl...
Lithium iron phosphate (LiFePO4) is the prototypical two-phase battery material whose complex patter...
DoctorOlivine-type bulk LiFePO4 has been recognized as one of the most promising cathode materials f...
A theoretical investigation of the effects of elastic coherency strain on the thermodynamics, kineti...
Phase transitions in Li-ion electrode materials during (dis)charge are decisive for battery performa...
Theoretical predictions from first principles and recent advances in in situ electrochemical charact...
Many battery electrodes contain ensembles of nanoparticles that phase-separate on (de)intercalation....
In nanoparticulate phase-separating electrodes, phase separation inside the particles can be hindere...
Lithium iron phosphate (LiFePO4) is one of the cheapest and safest materials used as the positive el...
LiFePO<sub>4</sub> is a well-known electrode material that is capable of high-rate charging and disc...
We construct a two-scale mathematical model for modern, high-rate LiFePO4cathodes. We attempt to val...
Compact solid discharge products enable energy storage devices with high gravimetric and volumetric ...
To understand how a phase transformation pathway affects the electrochemical properties of LiFePO4 n...
Chemical energy storage in Li-ion batteries is a key technology for the future renewable society. Th...
Using a novel electrochemical phase-field model, we question the common belief that Li<sub><i>X</i><...
ithium iron phosphate (LiFePO4) has emergedasan importanthigh-rate cath-ode material for rechargeabl...
Lithium iron phosphate (LiFePO4) is the prototypical two-phase battery material whose complex patter...
DoctorOlivine-type bulk LiFePO4 has been recognized as one of the most promising cathode materials f...
A theoretical investigation of the effects of elastic coherency strain on the thermodynamics, kineti...
Phase transitions in Li-ion electrode materials during (dis)charge are decisive for battery performa...
Theoretical predictions from first principles and recent advances in in situ electrochemical charact...
Many battery electrodes contain ensembles of nanoparticles that phase-separate on (de)intercalation....
In nanoparticulate phase-separating electrodes, phase separation inside the particles can be hindere...
Lithium iron phosphate (LiFePO4) is one of the cheapest and safest materials used as the positive el...
LiFePO<sub>4</sub> is a well-known electrode material that is capable of high-rate charging and disc...
We construct a two-scale mathematical model for modern, high-rate LiFePO4cathodes. We attempt to val...
Compact solid discharge products enable energy storage devices with high gravimetric and volumetric ...
To understand how a phase transformation pathway affects the electrochemical properties of LiFePO4 n...
Chemical energy storage in Li-ion batteries is a key technology for the future renewable society. Th...