We present results testing the hypothesis that there is a different reaction pathway for the electrochemical reduction of PC versus EC-based electrolytes at graphite electrodes with LiPF6 as the salt in common. We examined the reduction products formed using ex-situ Fourier Transform Infrared (FTIR) spectroscopy in attenuated total reflection (ATR) geometry. The results show the pathway for reduction of PC leads nearly entirely to lithium carbonate as the solid product (and presumably ethylene gas as the co-product) while EC follows a path producing a mixture of organic and inorganic compounds. Possible explanations for the difference in reaction pathway are discussed
Cyclic voltammetry and in-situ microscopic FTIR spectroelectrochemistry were used for the electroche...
An investigation of the interrelationship of cycling performance, solution structure, and electrode ...
The thermal reactions of a lithiated graphite anode with and without 1.3 M lithium hexafluorophospha...
We present results testing the hypothesis that there is a different reaction pathway for the electr...
Surface films formed on edge plane pyrolytic graphite electrodes were characterized by attenuated to...
Lithium ethylene dicarbonate (CH2OCO2Li)2 was chemically synthesized and its Fourier Transform Infr...
The formation of passive films on electrodes due to electrolyte decomposition significantly affects ...
Lithium ethylene dicarbonate (CH2OCO2Li)2 was chemically synthesized and its Fourier Transform Infra...
While silicon is the most promising next-generation anode material for lithium-ion batteries (LIBs),...
Lithium naphthalenide has been investigated as a one electron reducing agent for organic carbonates ...
Understanding the mechanistic details of the superoxide induced solvent degradation, is important in...
Lithium naphthalenide has been investigated as a one electron reducing agent for organic carbonates ...
We have investigated the role of chioroethylene carbonate (CIEC) on the formation of the solid-elect...
Although controlling the interfacial chemistry of electrodes in Li-ion batteries (LIBs) is crucial f...
Sufficient understanding of surface chemistry for electrode and electrolytes during an electrochemic...
Cyclic voltammetry and in-situ microscopic FTIR spectroelectrochemistry were used for the electroche...
An investigation of the interrelationship of cycling performance, solution structure, and electrode ...
The thermal reactions of a lithiated graphite anode with and without 1.3 M lithium hexafluorophospha...
We present results testing the hypothesis that there is a different reaction pathway for the electr...
Surface films formed on edge plane pyrolytic graphite electrodes were characterized by attenuated to...
Lithium ethylene dicarbonate (CH2OCO2Li)2 was chemically synthesized and its Fourier Transform Infr...
The formation of passive films on electrodes due to electrolyte decomposition significantly affects ...
Lithium ethylene dicarbonate (CH2OCO2Li)2 was chemically synthesized and its Fourier Transform Infra...
While silicon is the most promising next-generation anode material for lithium-ion batteries (LIBs),...
Lithium naphthalenide has been investigated as a one electron reducing agent for organic carbonates ...
Understanding the mechanistic details of the superoxide induced solvent degradation, is important in...
Lithium naphthalenide has been investigated as a one electron reducing agent for organic carbonates ...
We have investigated the role of chioroethylene carbonate (CIEC) on the formation of the solid-elect...
Although controlling the interfacial chemistry of electrodes in Li-ion batteries (LIBs) is crucial f...
Sufficient understanding of surface chemistry for electrode and electrolytes during an electrochemic...
Cyclic voltammetry and in-situ microscopic FTIR spectroelectrochemistry were used for the electroche...
An investigation of the interrelationship of cycling performance, solution structure, and electrode ...
The thermal reactions of a lithiated graphite anode with and without 1.3 M lithium hexafluorophospha...