Lithium ion battery electrodes have been exposed to 1064nm nanosecond pulsed laser irradiation with pulse energy in the range 8\u3bcJ - 1mJ and fluence in the range 3:2 -395J=cm2. Experiments have been executed at translational velocities of 100mm=s and 1m=s, allowing individual characterization of the graphite and lithium metal oxide coatings of the copper anode and aluminum cathode, respectively, as well as that of the complete multi-layer structures. A 3D optical profiler has been utilized to measure the incision depth of all samples and allow observation of the process quality. At high velocity, partial or complete removal of the upper coating layers was achieved with little or no impact on the underlying metallic layers. At low velocit...
AbstractLi-Ion batteries are crucial components in mobile devices that range from cellular phones to...
Surface functionalization as well as the microstructure modification of electrodes by laser material...
AbstractDue to the current limiting factor of the energy storage alternative electrical drive (e-dri...
Lithium ion battery electrodes have been exposed to 1064nm nanosecond pulsed laser irradiation with ...
Lithium ion battery electrodes have been exposed to 1064nm nanosecond pulsed laser irradiation with ...
Lithium iron phosphate battery electrodes are subject to continuous-wave and pulsed laser irradiatio...
Lithium iron phosphate battery electrodes are subject to continuous-wave and pulsed laser irradiatio...
Laser cutting of Li-ion battery electrodes represents an alternative to mechanical blanking that avo...
Laser cutting of Li-ion battery electrodes represents an alternative to mechanical blanking that avo...
none4noLaser exposures are performed on lithium iron phosphate battery electrodes at 1m/s with proce...
Laser cutting of lithium-ion battery electrodes has been shown to be a viable alternative to mechani...
Lithium-ion battery performance is affected by cut surface quality during the electrodes' cutting pr...
Lithium-ion batteries are currently considered to be the most promising advanced battery technology ...
AbstractLi-Ion batteries are crucial components in mobile devices that range from cellular phones to...
Surface functionalization as well as the microstructure modification of electrodes by laser material...
AbstractDue to the current limiting factor of the energy storage alternative electrical drive (e-dri...
Lithium ion battery electrodes have been exposed to 1064nm nanosecond pulsed laser irradiation with ...
Lithium ion battery electrodes have been exposed to 1064nm nanosecond pulsed laser irradiation with ...
Lithium iron phosphate battery electrodes are subject to continuous-wave and pulsed laser irradiatio...
Lithium iron phosphate battery electrodes are subject to continuous-wave and pulsed laser irradiatio...
Laser cutting of Li-ion battery electrodes represents an alternative to mechanical blanking that avo...
Laser cutting of Li-ion battery electrodes represents an alternative to mechanical blanking that avo...
none4noLaser exposures are performed on lithium iron phosphate battery electrodes at 1m/s with proce...
Laser cutting of lithium-ion battery electrodes has been shown to be a viable alternative to mechani...
Lithium-ion battery performance is affected by cut surface quality during the electrodes' cutting pr...
Lithium-ion batteries are currently considered to be the most promising advanced battery technology ...
AbstractLi-Ion batteries are crucial components in mobile devices that range from cellular phones to...
Surface functionalization as well as the microstructure modification of electrodes by laser material...
AbstractDue to the current limiting factor of the energy storage alternative electrical drive (e-dri...