The redox activity of tavorite LiFeSO4F coated with poly (3,4-ethylenedioxythiophene), i.e. PEDOT, is investigated by means of several spectroscopic techniques. The electronic changes and iron-ligand redox features of this LiFeSO4F-PEDOT composite are probed upon delithiation through X-ray absorption spectroscopy. The PEDOT coating, which is necessary here to obtain enough electrical conductivity for the electrochemical reactions of LiFeSO4F to occur, is electrochemically stable within the voltage window employed for cell cycling. Although the electronic configuration of PEDOT shows also some changes in correspondence of its reduced and oxidized forms after electrochemical conditioning in Li half-cells, its p-type doping is fully retained b...
Improving cathode materials is mandatory for next-generation Li-ion batteries. Exploring polyanion c...
International audienceFe0.5TiOPO4/C composite was used as anode material for LIB and exhibits excell...
The Li-ion rechargeable battery, due to its high energy density, has driven remarkable advances in p...
Li-ion battery technology is currently the most efficient form of electrochemical energy storage. Th...
Li-ion batteries are currently the most efficient technology available for electrochemical energy st...
In this thesis, two recently discovered polymorphs of LiFeSO4F, adopting a tavorite- and triplite-ty...
In situ X-ray Absorption Spectroscopy (XAS) results are presented for Li2FeSiO4 and Li2.2Fe0.9SiO4, ...
There are today clear indications that the Li-ion battery of the type currently used worldwide in mo...
Lithium–air (O₂) batteries have shown great promise because of their high gravimetric energy density...
International audienceOwing to the attractive energy density, high reversibility, and long product l...
The discovery of anion redox activity is promising for boosting the capacity of lithium ion battery ...
For over 25 years, lithium iron phosphate (LiFePO4) has been a material of interest for Li-ion batte...
Development of functional and stable solid polymer electrolytes SPEs for battery applications is a...
In this work, we discuss the electrochemical insertion and deinsertion of lithium into poly(3,4-ethy...
Improving cathode materials is mandatory for next-generation Li-ion batteries. Exploring polyanion c...
International audienceFe0.5TiOPO4/C composite was used as anode material for LIB and exhibits excell...
The Li-ion rechargeable battery, due to its high energy density, has driven remarkable advances in p...
Li-ion battery technology is currently the most efficient form of electrochemical energy storage. Th...
Li-ion batteries are currently the most efficient technology available for electrochemical energy st...
In this thesis, two recently discovered polymorphs of LiFeSO4F, adopting a tavorite- and triplite-ty...
In situ X-ray Absorption Spectroscopy (XAS) results are presented for Li2FeSiO4 and Li2.2Fe0.9SiO4, ...
There are today clear indications that the Li-ion battery of the type currently used worldwide in mo...
Lithium–air (O₂) batteries have shown great promise because of their high gravimetric energy density...
International audienceOwing to the attractive energy density, high reversibility, and long product l...
The discovery of anion redox activity is promising for boosting the capacity of lithium ion battery ...
For over 25 years, lithium iron phosphate (LiFePO4) has been a material of interest for Li-ion batte...
Development of functional and stable solid polymer electrolytes SPEs for battery applications is a...
In this work, we discuss the electrochemical insertion and deinsertion of lithium into poly(3,4-ethy...
Improving cathode materials is mandatory for next-generation Li-ion batteries. Exploring polyanion c...
International audienceFe0.5TiOPO4/C composite was used as anode material for LIB and exhibits excell...
The Li-ion rechargeable battery, due to its high energy density, has driven remarkable advances in p...