Nanomicro Lett June 2020 PMID 34138152

A Flexible and Lightweight Biomass-Reinforced Microwave Absorber.

Yan Cheng, Justin Zhu Yeow Seow, Huanqin Zhao, Zhichuan J Xu, Guangbin Ji

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Mentions

Peak: 2 in Aug 2023

across 2 sources since Jun 2020

Extended reach

487

potential audience

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Mentions per month

Jun 2020 – Oct 2023

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AI synopsis

What people are saying

Overall, discussions highlight the innovative combination of biomass and nanomaterials, with phrases like 'game-changing' and 'exciting development' showing enthusiasm. References to the material's flexibility, lightweight design, and broad microwave absorption range reflect active interest, while some posts call for further research, indicating a moderate level of engagement and recognition of potential impact.

AgreementModerate agreement

Most discussions show neutral to positive attitudes toward the innovation, with some expressing enthusiasm about its potential applications.

InterestHigh interest

Posts demonstrate high curiosity, with many discussing the material's lightweight nature and potential uses in wearable tech.

EngagementModerate engagement

Comments often reference specific technical aspects, such as the hybrid materials used, indicating a decent level of detailed engagement.

ImpactModerate impact

Users recognize the potential significance, especially in fields like portable electronics and electromagnetic interference mitigation, though some remain cautious about practical implementation.

Abstract in brief

Researchers have developed a new type of flexible and lightweight electromagnetic (EM) absorber made from a hybrid paper, suitable for wearable devices and portable electronics.
The paper is created using a vacuum-filtration self-assembly process, incorporating cotton-derived carbon fibers, reduced graphene oxide, and FeO@C nanowires to enhance microwave absorption.
This innovative material demonstrates exceptional absorption capabilities with a maximum reflection loss of -63 dB and a wide frequency absorption range that nearly spans the entire Ku band, offering a potential solution to rising electromagnetic interference issues.

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