To improve the charge-discharge cycle stability, we adopted a gas-deposition 1;GD2; method to prepare lithium storage alloy electrodes. The resulting Mg2Ge GD film exhibited an increase in both charge and discharge capacities in comparison with the conventional bulk electrode, suggesting improvement of adhesion between the Mg2Ge layer and Cu foil. Furthermore, the cyclability of the GD film electrode was noticeably superior to that of the bulk electrode. The discharge capacity of the film electrode maintained 35% of the initial capacity, even at the 200th cycle. It is noteworthy that the GD-film electrode was able to operate at very large current densities
Silicon thick-film electrodes for Li-ion battery anodes were prepared by a gas-deposition method usi...
LaSi2 and LaSi2/Si composite as active materials for the negative electrode of lithium-ion battery w...
Thick film electrodes of Cu-coated Si particles were fabricated by an electroless deposition and a s...
Mg2Ge/Si composite electrodes were prepared by a gas-deposition (GD) method and evaluated their elec...
Lithium-ion batteries (LIBs) have been the driver of the widespread application of portable electron...
Lithium-ion batteries (LIBs) have been the driver of the widespread application of portable electron...
A simple, cost-effective, and easily scalable molten salt method for the preparation of Li2GeO3 as a...
A simple, cost-effective, and easily scalable molten salt method for the preparation of Li2 GeO3 as ...
High-capacity anode is needed for lithium ion battery to meet future energy demand of portable elect...
Germanium-based materials as anode can improve the capacity of lithium-ion battery because of its ex...
High-capacity anode is needed for lithium ion battery to meet future energy demand of portable elect...
Germanium-based materials as anode can improve the capacity of lithium-ion battery because of its ex...
Germanium nanocrystals (12 nm mean diam) and amorphous thin films (60-250 nm thick) were prepared as...
Li–Mg alloy electrodes are prepared by two methods: (1) direct-alloying through the melting of mole ...
Amorphous germanium and germanium-based films are sputter-deposited as anodes for lithium ion batter...
Silicon thick-film electrodes for Li-ion battery anodes were prepared by a gas-deposition method usi...
LaSi2 and LaSi2/Si composite as active materials for the negative electrode of lithium-ion battery w...
Thick film electrodes of Cu-coated Si particles were fabricated by an electroless deposition and a s...
Mg2Ge/Si composite electrodes were prepared by a gas-deposition (GD) method and evaluated their elec...
Lithium-ion batteries (LIBs) have been the driver of the widespread application of portable electron...
Lithium-ion batteries (LIBs) have been the driver of the widespread application of portable electron...
A simple, cost-effective, and easily scalable molten salt method for the preparation of Li2GeO3 as a...
A simple, cost-effective, and easily scalable molten salt method for the preparation of Li2 GeO3 as ...
High-capacity anode is needed for lithium ion battery to meet future energy demand of portable elect...
Germanium-based materials as anode can improve the capacity of lithium-ion battery because of its ex...
High-capacity anode is needed for lithium ion battery to meet future energy demand of portable elect...
Germanium-based materials as anode can improve the capacity of lithium-ion battery because of its ex...
Germanium nanocrystals (12 nm mean diam) and amorphous thin films (60-250 nm thick) were prepared as...
Li–Mg alloy electrodes are prepared by two methods: (1) direct-alloying through the melting of mole ...
Amorphous germanium and germanium-based films are sputter-deposited as anodes for lithium ion batter...
Silicon thick-film electrodes for Li-ion battery anodes were prepared by a gas-deposition method usi...
LaSi2 and LaSi2/Si composite as active materials for the negative electrode of lithium-ion battery w...
Thick film electrodes of Cu-coated Si particles were fabricated by an electroless deposition and a s...