Mohd Firdaus Rabita, Berrada Nawal, Desforges Alexandre, Mohamed Abdul Rahman, Vigolo Brigitte
School of Chemical Engineering, Engineering Campus Universiti Sains, Malaysia, 14300, Nibong Tebal, Seberang, Perai Selatan, P., Pinang, Malaysia.
Université de Lorraine, CNRS, IJL, F-54000, Nancy, France.
Chem Asian J. 2020 Oct 1;15(19):2902-2924. doi: 10.1002/asia.202000747. Epub 2020 Sep 4.
The combination of exceptional functionalities offered by 3D graphene-based macrostructures (GBMs) has attracted tremendous interest. 2D graphene nanosheets have a high chemical stability, high surface area and customizable porosity, which was extensively researched for a variety of applications including CO adsorption, water treatment, batteries, sensors, catalysis, etc. Recently, 3D GBMs have been successfully achieved through few approaches, including direct and non-direct self-assembly methods. In this review, the possible routes used to prepare both 2D graphene and interconnected 3D GBMs are described and analyzed regarding the involved chemistry of each 2D/3D graphene system. Improvement of the accessible surface of 3D GBMs where the interface exchanges are occurring is of great importance. A better control of the chemical mechanisms involved in the self-assembly mechanism itself at the nanometer scale is certainly the key for a future research breakthrough regarding 3D GBMs.
基于3D石墨烯的宏观结构(GBMs)所具备的卓越功能组合引起了极大的关注。二维石墨烯纳米片具有高化学稳定性、高表面积和可定制的孔隙率,已针对包括CO吸附、水处理、电池、传感器、催化等在内的各种应用进行了广泛研究。最近,通过几种方法已成功制备出3D GBMs,包括直接和非直接自组装方法。在这篇综述中,描述并分析了用于制备二维石墨烯和互连3D GBMs的可能途径,并涉及每个二维/三维石墨烯系统的相关化学过程。改善发生界面交换的3D GBMs的可及表面非常重要。在纳米尺度上更好地控制自组装机制本身所涉及的化学机制,无疑是未来关于3D GBMs研究突破的关键。