Flexible Electronic Skin Based on Graphene and Its Composites

Authors

  • Haoyang Liu

DOI:

https://doi.org/10.61173/vwet7c54

Keywords:

Graphene, flexible electronic skin, composite material, wearable sensors

Abstract

Flexible electronic skin, as an important part of bionic technology, has a wide range of applications in the fields of wearable devices, intelligent robots, and bionic prostheses. Graphene, as a two-dimensional material with excellent electrical conductivity, mechanical flexibility and chemical stability, shows great potential in flexible electronic skin. This paper reviews recent advances in flexible electronic skin based on graphene and its composites, presenting the unique physicochemical properties of graphene and its advantages in flexible sensor materials. This paper discusses in detail the application of graphene and its composites in flexible sensors, including pressure sensors, humidity sensors, and flexible supercapacitors. This paper summarizes the challenges faced in current research, such as the cost and process complexity of material preparation, increased sensor integration, and issues of long-term stability. In addition, this paper proposes future directions, including the large-scale preparation of low-cost and high-performance graphene materials, the improvement of sensor sensitivity and durability, the optimization of graphene composites, and the realization of multifunctional and integrated flexible e-skin systems. Valuable references are provided to further promote the practical applications of graphene-based flexible electronic skin in the fields of medical monitoring, bionic technology and smart wearable.

References

[1] Cui Jinjing, Wen Danliang, Xu Li, et al. Recent advances in flexible sensors based on laser-induced graphene. Journal of Functional Materials and Devices,2021,27(04):304-314.

[2] Li Xinlu, Zhang Yanyan, Su Zelong, et al. Graphene nanosheets as backbones to build a 3D conductive network for negative active materials of lead-acid batteries. Journal of Applied Electrochemistry, 2017,47(5): 1-12.

[3] Wang Jianxin, Zhou Ming. Tribological study of graphene/ polymer composites prepared as lubrication additives by in situ polymerization. Mechatronics Information,2024,(11):35-39.

[4] Li Danyi, Huang Xianting, LI Jichao, et al. Progress of graphene oxide and its composites for the removal of antibiotics in water. Journal of Ecology and Environme nt,2024,33(01):144-155.

[5] Le Ziyu. Preparation and study of flexible bionic sensors based on graphene film. University of Electronic Science and Technology,2021.

[6] Chen Long, Li Liang. Research progress of MXene/ graphene composites. Journal of Dongguan Institute of Technology,2024,31(03):81-88.

[7] Zou, Tingting et al. High-speed femtosecond laser plasmonic lithography and reduction of graphene oxide for anisotropic photoresponse.Light, Science & Applications, 2020

[8] Zhang Xiaoyong, Kou Hairong, Shang Zhenzhen, et al. Research on flexible LC wireless humidity sensor based on GO/ Mxene composite material.Journal of Electronic Measurement and Instrumentation, 2024,(08):1-8.

[9] Hu Xiaoyan. Preparation and performance study of reduced graphene oxide/iron nanowire flexible pressure sensor. Southwest University,2023.

[10] Zhang Qi. Preparation of electrochemical sensors based on graphene nanocomposites and their HBsAg performance Taiyuan University of Technology,2020.

[11] Bai Yufeng, He Xiaofang, Kang Dongdong, et al. Research progress on the preparation and application of graphene/polypyrrole composites. Chemical New Materials,2019,47(05):5-9.

[12] Szu Rongfang, Wen Xinyi, Wang Jun, et al. Research progress of smart wearable flexible pressure sensors. Materials Engineering,2024,52(08):98-108.

[13] Shi Qiongfeng , Sun Zhongda, Le Xianhao, et al. Soft robotic perception system with ultrasonic auto-positioning and multimodal sensory intelligence .ACS Nano, 2023, 17(5): 4985- 4998.

[14] Chen Ziwei. Research on nitrogen dioxide gas sensor based on ZnO/rGO composites. Chongqing University,2022.

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Published

2024-12-31