Search engine for discovering works of Art, research articles, and books related to Art and Culture
Javascript must be enabled to continue!
An Antiaromatic Electrode‐Active Material Enabling High Capacity and Stable Performance of Rechargeable Batteries
View through CrossRef
Abstract
Although aromatic compounds occupy a central position in organic chemistry, antiaromatic compounds have demonstrated little practical utility. Herein we report the application of an antiaromatic compound as an electrode‐active material in rechargeable batteries. The performance of dimesityl‐substituted norcorrole nickel(II) complex (NiNC) as a cathode‐active material was examined with a Li metal anode. A maximum discharge capacity of about 207 mAhg
−1
was maintained after 100 charge/discharge cycles. Moreover, the bipolar redox property of NiNC enables the construction of a Li metal free rechargeable battery. The high performance of NiNC batteries demonstrates a prospective feature of stable antiaromatic compounds as electrode‐active materials.
Title: An Antiaromatic Electrode‐Active Material Enabling High Capacity and Stable Performance of Rechargeable Batteries
Description:
Abstract
Although aromatic compounds occupy a central position in organic chemistry, antiaromatic compounds have demonstrated little practical utility.
Herein we report the application of an antiaromatic compound as an electrode‐active material in rechargeable batteries.
The performance of dimesityl‐substituted norcorrole nickel(II) complex (NiNC) as a cathode‐active material was examined with a Li metal anode.
A maximum discharge capacity of about 207 mAhg
−1
was maintained after 100 charge/discharge cycles.
Moreover, the bipolar redox property of NiNC enables the construction of a Li metal free rechargeable battery.
The high performance of NiNC batteries demonstrates a prospective feature of stable antiaromatic compounds as electrode‐active materials.
Related Results
An Antiaromatic Electrode‐Active Material Enabling High Capacity and Stable Performance of Rechargeable Batteries
An Antiaromatic Electrode‐Active Material Enabling High Capacity and Stable Performance of Rechargeable Batteries
Abstract
Although aromatic compounds occupy a central position in organic chemistry, antiaromatic compounds have demonstrated little practica...
Cycling Behavior of Iron Electrodes in Alkaline Batteries
Cycling Behavior of Iron Electrodes in Alkaline Batteries
Iron based alkaline battery systems such as nickel-iron and iron-air batteries are very attractive candidates for grid-scale energy storage applications [1]. Iron, which is the pri...
Boosting Oxygen Electrode Performance via a Redox-Treatment
Boosting Oxygen Electrode Performance via a Redox-Treatment
Introduction
The transition to a sustainable energy system complying with climate policy targets is a huge societal challenge. “Hard to electri...
Lithium Surface Modification for Enhanced Cycle Life and Safety of Lithium Batteries
Lithium Surface Modification for Enhanced Cycle Life and Safety of Lithium Batteries
Lithium (Li) metal is an ideal anode material for rechargeable batteries due to its extremely high theoretical specific capacity (3860 mAh/g), low density (0.59 g/cm3) and the lowe...
Transition Metal Oxyfluorides for Next‐Generation Rechargeable Batteries
Transition Metal Oxyfluorides for Next‐Generation Rechargeable Batteries
AbstractTransition metal oxyfluorides are attracting much attention for next‐generation rechargeable batteries, including lithium‐ion batteries and those beyond lithium‐ion batteri...
Electrolyte Solutions for Magnesium Rechageable Batteries
Electrolyte Solutions for Magnesium Rechageable Batteries
Innovative rechargeable batteries beyond the present lithium-ion batteries (LIB) have been investigated for the environmental and energy problem. Among the batteries, rechargeable ...
Rechargeable Batteries: Regulating Electronic and Ionic Transports for High Electrochemical Performance
Rechargeable Batteries: Regulating Electronic and Ionic Transports for High Electrochemical Performance
AbstractRechargeable batteries are serving society and are continuing to develop according to application requirements. Recently, rechargeable batteries with high energy density, p...
Surface Engineering of MXene-Based Materials for Next-Generation Rechargeable Batteries
Surface Engineering of MXene-Based Materials for Next-Generation Rechargeable Batteries
Next-generation rechargeable batteries are being developed to address challenges such as low cost, high stability, high energy density, and safe energy storage materials. MXene-bas...