In this communication, we use first-principles based multi-level computational methods to predict the crystal structure of Li4C6O6, the key intermediate material that can be oxidized to Li2C6O6 or reduced to Li6C6O6. This predicted structure leads to an X-ray diffraction (XRD) pattern in good agreement with experiment, validating the predicted structure. With this structure in hand one can proceed to determine details for the electrochemical properties of these organic electrodes (chemical potential for Li ion as a function of loading and the mechanism for the lithiation/delithiation process) useful in designing optimum systems.
The idea of first-principles methods is to determine the properties of materials by solving the basi...
Anionic redox revealed reversibility in Li-rich layered oxides Li2MO3, which was strongly dependent ...
A computational study of the electrochemical properties of three isotopic LiMBO3 compounds (M = Mn, ...
In this communication, we use first-principles based multi-level computational methods to predict th...
In this communication, we use first-principles based multi-level computational methods to predict th...
In the search for sustainable, eco-friendly energy storage technology, there is a demand for satisfa...
In this work, the Li-ion insertion mechanism in organic electrode materials is investigated through ...
This research analyzes the possibility of using lithiated benzenedipropiolate, an organic material, ...
Organic electroactive materials are promising candidates to be used as lithium insertion electrodes ...
Several forms of organic materials have arisen as promising candidates for future active electrode m...
Development of cathode active materials (CAM) with higher energy density has been desired in the dev...
Herein, we explore the capacity degradation of dilithium rhodizonate salt (Li2C6O6) in lithium recha...
The tremendous growth of Li-ion batteries into a wide variety of applications is setting new require...
Improving the target properties of existing materials or finding new materials with enhanced functio...
Lithium-ion batteries are under intense scrutiny as alternative energy/power sources. Their electroc...
The idea of first-principles methods is to determine the properties of materials by solving the basi...
Anionic redox revealed reversibility in Li-rich layered oxides Li2MO3, which was strongly dependent ...
A computational study of the electrochemical properties of three isotopic LiMBO3 compounds (M = Mn, ...
In this communication, we use first-principles based multi-level computational methods to predict th...
In this communication, we use first-principles based multi-level computational methods to predict th...
In the search for sustainable, eco-friendly energy storage technology, there is a demand for satisfa...
In this work, the Li-ion insertion mechanism in organic electrode materials is investigated through ...
This research analyzes the possibility of using lithiated benzenedipropiolate, an organic material, ...
Organic electroactive materials are promising candidates to be used as lithium insertion electrodes ...
Several forms of organic materials have arisen as promising candidates for future active electrode m...
Development of cathode active materials (CAM) with higher energy density has been desired in the dev...
Herein, we explore the capacity degradation of dilithium rhodizonate salt (Li2C6O6) in lithium recha...
The tremendous growth of Li-ion batteries into a wide variety of applications is setting new require...
Improving the target properties of existing materials or finding new materials with enhanced functio...
Lithium-ion batteries are under intense scrutiny as alternative energy/power sources. Their electroc...
The idea of first-principles methods is to determine the properties of materials by solving the basi...
Anionic redox revealed reversibility in Li-rich layered oxides Li2MO3, which was strongly dependent ...
A computational study of the electrochemical properties of three isotopic LiMBO3 compounds (M = Mn, ...