Toward batch synthesis of high-quality graphene by cold-wall chemical vapor deposition approach

Jia, Kaicheng; Ma, Ziteng; Wang, Wendong; Wen, Yongliang; Li, Huanxin; Zhu, Yeshu; Yang, Jiawei; Song, Yuqing; Shao, Jiaxin; Liu, Xiaoting; Lu, Qi; Zhao, Yixuan; Yin, Jianbo; Sun, Luzhao; Peng, Hailin; Zhang, Jincan; Liu, Zhongfan

doi:10.1007/s12274-022-4347-x

Cited by 7 publications

(2 citation statements)

References 38 publications

Supporting

Mentioning

Contrasting

Order By: Relevance

“…The search for a method that can reproducibly generate high-quality monolayer graphene sheets with large surface areas and large production volumes is greatly required. Now, several physical and chemical methods have been developed to produce graphene, including the mechanical or chemical exfoliation of graphite [ 53 ], chemical vapor deposition (CVD) [ 56 ], epitaxial growth [ 57 ], reduction of Graphene Oxide (rGO) [ 58 ], and many other organic synthetic methods [ 59 ]. In addition, graphene can be modified to derive many composite materials, thus providing a more viable option for flexible biosensor fields.…”

Section: Two-dimensional Materialsmentioning

confidence: 99%

2D-Materials-Based Wearable Biosensor Systems

Wang

et al. 2022

Biosensors

View full text Add to dashboard Cite

As an evolutionary success in life science, wearable biosensor systems, which can monitor human health information and quantify vital signs in real time, have been actively studied. Research in wearable biosensor systems is mainly focused on the design of sensors with various flexible materials. Among them, 2D materials with excellent mechanical, optical, and electrical properties provide the expected characteristics to address the challenges of developing microminiaturized wearable biosensor systems. This review summarizes the recent research progresses in 2D-materials-based wearable biosensors including e-skin, contact lens sensors, and others. Then, we highlight the challenges of flexible power supply technologies for smart systems. The latest advances in biosensor systems involving wearable wristbands, diabetic patches, and smart contact lenses are also discussed. This review will enable a better understanding of the design principle of 2D biosensors, offering insights into innovative technologies for future biosensor systems toward their practical applications.

show abstract

Section: Two-dimensional Materialsmentioning

confidence: 99%

2D-Materials-Based Wearable Biosensor Systems

Wang

et al. 2022

Biosensors

View full text Add to dashboard Cite

show abstract

“…The graphene membrane fabricated by different fabrication technologies has different surface charge densities. [17][18][19] In the last years, some researchers have fabricated graphene polymer nanochannels in experiments by spin coating, [20] oxidation reduction, [21] vacuum infiltration, [22] and other fabrication methods. However, due to the limitations of experimental technology, some basic properties and experimental phenomena of graphene nanochannels are not well understood.…”

Section: Introductionmentioning

confidence: 99%

The Enhancing Ionic Current Rectification in Single Graphene Conical Nanochannel

Gao

2023

Adv Eng Mater

View full text Add to dashboard Cite

Enhanced ionic current rectification induced by the concentration gradient has been reported recently owing to the development of asymmetric nanofluidic system, in particular graphene nanochannels. However, the reasons for the enhancement of ionic current rectification of graphene conical nanochannels are not well understood. Herein, a finite element model of a single graphene conical nanochannel is established to explore the fundamental mechanisms of the ionic current rectification. The model proves that the highest cation concentration caused by graphene is almost 42 times higher than the bulk ion concentration. Compared with the nongraphene model, the graphene with higher surface charge density can absorb more cation in the tip (the small pore) of graphene conical nanochannel. Besides, the nanoscale corner consisting of graphene membrane and the wall of the conical nanochannel is a semihermetic reservoir for cation accumulation. It demonstrates that the enhancement of ionic current rectification is mainly ascribed to the unique structure of the graphene nanochannel and the graphene membrane with a high surface charge density. This work provides a new mechanism explanation about the influence of graphene in ionic current rectification.

show abstract