TY - JOUR
T1 - Porous MXenes
T2 - synthesis, structures, and applications
AU - Bu, Fanxing
AU - Zagho, Moustafa M.
AU - Ibrahim, Yasseen
AU - Ma, Bing
AU - Elzatahry, Ahmed
AU - Zhao, Dongyuan
N1 - Funding Information:
This work was supported by the National Key R&D Program of China ( 2018YFA0209401 , 2017YFA0207303 and 2016YFA0204000 ), and NSFC (Grant nos. 21733003 and 21603036 ), Science and Technology Commission of Shanghai Municipality ( 17JC1400100 and 16520710100 ), China Postdoctoral Science Foundation ( 2019M651344 , 2019T120297 ). It was also funded by Qatar University under High Impact-Fund Program Grant QUHI-CAS-19/20-1 . Fanxing Bu is currently a postdoc research fellow with Prof. Dongyuan Zhao at Fudan University. He completed his Ph.D. degrees from East China Normal University in 2016. Then he worked as a postdoctoral research fellow with Prof. Yuxi Xu at Fudan University (2016–2018). His scientific interests focus on rational design and fabrication of porous two-dimensional materials for energy related applications. Yasseen Ibrahim received his BS degrees in Chemical Engineering in 2018 from Qatar University. Currently, he is a master student and graduate research assistant in Material Science and Technology program at Qatar University, working on the development of functional and mesoporous MXENE based composites for renewable energy, and nanocatalysis applications. Moustafa M. Zagho received his Master degree in Chemistry in 2015 from Alexandria University. He worked as lab a lab manager at Qatar University (2016–2019). Currently he is a Ph.D student in Polymer science and engineering at University of Southern Mississippi, investigating the assembly of advanced membranes and mesoporous materials for renewable energy, and gas separation applications. Bing Ma is currently a postdoc research fellow with Prof. Dongyuan Zhao at Fudan University. He completed Ph.D. degrees from East China Normal University in China in 2018. His scientific interests focus on synthesis characterization and catalytic properties of zeolite catalysts. Ahmed Elzatahry received his Ph.D (2007) from Al-Azhar University in Egypt. He is currently an associate professor in the Materials Science and Technology program, Qatar University, and is also appointed as dean of graduate studies. In 2016, he has appointed as adjunct associate professor at lab. of Advanced Materials, Fudan University. His interdisciplinary research focuses on mesoporous materials, and nanocomposites and their applications in energy, sensing, nanocatalysis, and nanomedicine. Dongyuan Zhao is a Professor of Materials and Chemistry (Cheung Kong and Hao Qing Professorship), and Director of the Laboratory of Advanced Materials at FudanUniversity (China). He is also the Co-Director of the 2011 Collaborative Innovation Center of Chemistry for Energy Materials (iChEM). He received his BS (1984) and PhD (1990) from Jilin University. He carried out postdoctoral research at the Weizmann Institute of Science (1993–1994), University of Houston (1995–1996), and University of California at Santa Barbara (1996–1998). He was elected as an academician of the Chinese Academy of Science in 2007, and a member of The World Academy of Science (TWAS) in 2010. His research interests are focused on the interfacial assembly and macroscopic control of functional mesoporous materials for applications in catalysis, energy, water purification and biomedicine.
Publisher Copyright:
© 2019 Elsevier Ltd
PY - 2020/2
Y1 - 2020/2
N2 - Due to highly tunable metallic compositions and surface functional groups, MXenes have attracted significant interests for a wide range of applications, such as energy storage, electromagnetic interference shielding, sensors, and biomedicine. With the introduction of porous structures, which have unique advantages in tuning the conductivity and dielectric constant, adjusting the ion/guest and even electromagnetic wave transport, and also directing the loading and distribution of other functional materials, porous MXenes hold great potential in profoundly enhancing their properties. We have surveyed rapidly increasing efforts in the design and synthesis of porous MXenes with advantageous structures for diverse applications, especially in the last three years. Here we classify Porous MXenes into four categories according to their formation routes, including (i) assembly by MXenes, (ii) depositing or inserting MXenes into porous substrates, (iii) loading or coating functional porous materials on the surface of MXenes, and (iv) creating in-plane pores within MXenes. Then we summarize the primary synthetic methods for each kind of porous MXenes and discuss their applications for pseudo-capacitors, lithium/sodium batteries, lithium-sulfur batteries, electromagnetic interference shielding and adsorption, piezoresistive sensors, and cancer therapy. A particular emphasis is on the formation mechanisms of different porous structures and the detailed composition-structure-property relationships in related applications. We lastly conclude with a brief perspective on future opportunities and challenges.
AB - Due to highly tunable metallic compositions and surface functional groups, MXenes have attracted significant interests for a wide range of applications, such as energy storage, electromagnetic interference shielding, sensors, and biomedicine. With the introduction of porous structures, which have unique advantages in tuning the conductivity and dielectric constant, adjusting the ion/guest and even electromagnetic wave transport, and also directing the loading and distribution of other functional materials, porous MXenes hold great potential in profoundly enhancing their properties. We have surveyed rapidly increasing efforts in the design and synthesis of porous MXenes with advantageous structures for diverse applications, especially in the last three years. Here we classify Porous MXenes into four categories according to their formation routes, including (i) assembly by MXenes, (ii) depositing or inserting MXenes into porous substrates, (iii) loading or coating functional porous materials on the surface of MXenes, and (iv) creating in-plane pores within MXenes. Then we summarize the primary synthetic methods for each kind of porous MXenes and discuss their applications for pseudo-capacitors, lithium/sodium batteries, lithium-sulfur batteries, electromagnetic interference shielding and adsorption, piezoresistive sensors, and cancer therapy. A particular emphasis is on the formation mechanisms of different porous structures and the detailed composition-structure-property relationships in related applications. We lastly conclude with a brief perspective on future opportunities and challenges.
KW - Cancer therapy
KW - Electromagnetic shielding
KW - Energy storage
KW - Piezoresistive sensor
KW - Porous MXenes
UR - http://www.scopus.com/inward/record.url?scp=85075511093&partnerID=8YFLogxK
U2 - 10.1016/j.nantod.2019.100803
DO - 10.1016/j.nantod.2019.100803
M3 - Review Article
AN - SCOPUS:85075511093
SN - 1748-0132
VL - 30
JO - Nano Today
JF - Nano Today
M1 - 100803
ER -