Yanan Gao

Hainan University

Prof. Yanan Gao received his bachelor’s degree in 1999 and doctorate degree in 2005 from Shandong University. Then he continued his research at Max Planck Institute for Dynamics of Complex Technical Systems(2006-2008), University of Akron(2008-2009)and University of York(2009-2011)as a postdoctoral research fellow. In 2011, Prof. Gao jointed Dalian Institute of Chemical Physics, Chinese Academy of Sciences as the principal investigator of Chinese Ionic Liquids Lab and Dalian Institute of Chemical Physics-Queen’s University Joint Lab and the leader of Porous Organic Framework Material Group. Now Prof. Gao is the vice director of Key Laboratory of Advanced Materials of Tropical Island Resources, Ministry of Education and the member of Academic committee in School of Chemical Engineering and Technology in Hainan University. His current research interests focus on the design, synthesis and application of covalent organic frameworks (COFs).

Yanan Gao

1books edited

3chapters authored

Latest work with IntechOpen by Yanan Gao

In recent decades, artificial porous structures have attracted increasing enthusiasm from researchers inspired by the fascinating molecular pores in nature and their unique biological functions. Although substantial achievements in porous materials have been realized, the construction of topologically designed pores is still challenging. Recently, the emergence of covalent organic frameworks (COFs), which are constructed based on organic and polymer chemistry, has made it possible to design artificial pores with controlled pore size, topology and interface properties. COFs are crystalline porous materials constructed by the precise reticulation of organic building blocks via dynamic covalent bonds. Distinct from non-covalent interactions which tend to produce isostructures, covalent bonds enable accurate pore design owing to their predetermined reaction pathways. In addition, the appropriate polycondensation of organic building units enables the formation of extended two-dimensional (2D) and three-dimensional (3D) polymer architectures with periodically ordered skeletons and well-defined pores. With their large surface area, tailorable structures, and tunable chemistry, COFs are regarded as potentially superior candidates for various applications including catalysis, energy storage and conversion, mass transport and biotechnology. This book examines the historic achievement of COFs, providing clear and comprehensive guidance for researchers on their structural design, synthetic protocols and functional exploration.

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