Operando high-resolution light microscopy with extended depth of field is used to observe large regions of an electrode during electrodeposition of lithium. The analysis of the morphology of the evolving deposit reveals that besides electrochemistry, mechanics and crystalline defects play a major role in the growth mechanism. Based on the findings, a growth mechanism is proposed that involves the diffusion of lithium atoms from the lithium surface into grain boundaries and the insertion into crystalline defects in the metal. Crystalline defects are a result of plastic deformation and hence mechanical stimulation augments the insertion of lithium
Next-generation high-energy batteries will require a rechargeable lithium metal anode, but lithium d...
The next generation of rechargeable batteries must have significantly improved gravimetric and volum...
Metallic lithium (Li) is a promising anode candidate for high-energy-density rechargeable batteries ...
Operando high-resolution light microscopy with extended depth of field is used to observe large regi...
Operando high-resolution light microscopy with extended depth of field is used to observe large regi...
Mechanical constraints have been widely used experimentally to prevent the growth of dendrites withi...
Development of high energy density solid-state batteries with Li metal anodes has been limited by un...
Lithium rechargeable cells with lithium metal anodes are widely considered to have the highest energ...
Lithium (Li) metal has garnered significant attention as the preferred anode for high-energy lithium...
The growth of electrodeposited lithium microstructures on metallic lithium electrodes has prevented ...
We report experiments and molecular dynamics calculations on the kinetics of electrodeposited lithiu...
Due to a rapidly growing use of portable electronics in daily life, there has been increasing deman...
Rechargeable metallic lithium batteries are the ultimate solution to electrochemical storage due to ...
Enabling ultra-high energy density rechargeable Li batteries would have widespread impact on society...
Solid electrolytes potentially enable rechargeable batteries with lithium metal anodes possessing hi...
Next-generation high-energy batteries will require a rechargeable lithium metal anode, but lithium d...
The next generation of rechargeable batteries must have significantly improved gravimetric and volum...
Metallic lithium (Li) is a promising anode candidate for high-energy-density rechargeable batteries ...
Operando high-resolution light microscopy with extended depth of field is used to observe large regi...
Operando high-resolution light microscopy with extended depth of field is used to observe large regi...
Mechanical constraints have been widely used experimentally to prevent the growth of dendrites withi...
Development of high energy density solid-state batteries with Li metal anodes has been limited by un...
Lithium rechargeable cells with lithium metal anodes are widely considered to have the highest energ...
Lithium (Li) metal has garnered significant attention as the preferred anode for high-energy lithium...
The growth of electrodeposited lithium microstructures on metallic lithium electrodes has prevented ...
We report experiments and molecular dynamics calculations on the kinetics of electrodeposited lithiu...
Due to a rapidly growing use of portable electronics in daily life, there has been increasing deman...
Rechargeable metallic lithium batteries are the ultimate solution to electrochemical storage due to ...
Enabling ultra-high energy density rechargeable Li batteries would have widespread impact on society...
Solid electrolytes potentially enable rechargeable batteries with lithium metal anodes possessing hi...
Next-generation high-energy batteries will require a rechargeable lithium metal anode, but lithium d...
The next generation of rechargeable batteries must have significantly improved gravimetric and volum...
Metallic lithium (Li) is a promising anode candidate for high-energy-density rechargeable batteries ...