Multifunctional binder designs for lithium-sulfur batteries

Rational Design of Core‐Shell ZnTe@N‐Doped Carbon Nanowires for High Gravimetric and Volumetric Alkali Metal Ion Storage

A review on electronically conducting polymers for lithium-sulfur battery and lithium-selenium battery: Progress and prospects

Silica-based ceramics have been explored extensively as a class of versatile materials for various applications in architecture, catalysis, energy, machinery, and biomedical engineering. Nevertheless, comprehensive information on silica-based ceramic and electromagnetic microwave (EMW) absorption is scarce, although excellent progress has been made in this field. Here, recent progress in the investigation of silica-based ceramics toward EMW absorption is reviewed. We first introduced the basis of ceramics (characteristics, classification, synthetic methods, potential applications). Subsequently, the silica-based ceramics, including Si-based oxides and alloys, SiOC/SiC/Si3N4/SiCN-based composite, Ti3SiC2 and composite for EMW absorption were systematically summarized. Notably, the fabrication strategies, absorption properties, and mechanisms of silica-based ceramics are described in detail, with a focus on structure and component design. Lastly, the prospects and ongoing challenges of this field in the future are presented. This review is expected to learn from the past and achieve progress toward the future of silica-based ceramic for EMW absorption.

Silica-based ceramics toward electromagnetic microwave absorption

Electrospun CoSe@NC nanofiber membrane as an effective polysulfides adsorption-catalysis interlayer for Li-S batteries

Rational design of self-supporting graphene - Polypyrrole/sulfur - Graphene sandwich as structural paper electrode for lithium sulfur batteries

Surface layer and its effect on dielectric properties of SiC ceramics

The invention discloses a preparation method of a porous carbon-coated antimony telluride nanosheet, and an application of the porous carbon-coated antimony telluride nanosheet as a negative electrodematerial of a metal ion battery. The preparation method is characterized by comprising the steps of: firstly, acquiring an antimony telluride nanosheet by adopting a hydrothermal method; secondly, coating the antimony telluride nanosheet with resorcinol-formaldehyde resin by adopting a liquid phase reaction technology; and finally, converting the resorcinol-formaldehyde resin into porous carbon through high-temperature carbonization, and acquiring the porous carbon-coated antimony telluride nanosheet. The preparation method of the product is simple, the used raw materials are cheap and easy to obtain, the porous carbon-coated antimony telluride nanosheet shows good cyclic stability and high cycle specific capacity when applied to the metal (lithium, sodium) ion battery, and the electrochemical performance is excellent.

Dawei Zhang

Papers

Rational design of self-supporting graphene - Polypyrrole/sulfur - Graphene sandwich as structural paper electrode for lithium sulfur batteries

Surface layer and its effect on dielectric properties of SiC ceramics

Preparation method of porous carbon-coated antimony telluride nanosheet and application thereof as negative electrode material of metal ion battery