Keynote Speaker

Anthony Johnson (new photo)

Dr. Kwun Nam Hui

Associate Professor

Institute of Applied Physics and Materials Engineering

University of Macau, Macau, China


Introduction of Dr. Kwun Nam Hui

Dr. Kwun Nam HUI is currently an Associate Professor at the Institute of Applied Physics and Materials Engineering, University of Macau, Macau SAR, China. Before this, he was Associate Professor at Pusan National University, Republic of Korea. His current research focuses on the synthesis of hierarchical carbon/graphene materials as well as on the development of 3D hierarchical layered double hydroxide materials as advanced electrode materials for energy storage and conversion applications. He has published more than 130 journal articles with a citation of over 2800 times and an h-index of 34.

Title: Defect Engineering of Metal Oxide Materials for Energy Storage

Abstract:

Transition metal oxide-based supercapacitors are one of the most efficient classes of electrochemical storage devices because of their higher power density, faster charge–discharge rate, and longer lifespan than those of lithium-ion batteries. Generally, transition-metal oxides involve fast reversible Faradaic reactions at the surface or at a near-surface region, producing high energy densities. However, the high energy density of transition-metal oxides is achieved by sacrificing power density and cycling lifetime, impeding their large-scale practical application in supercapacitors. In tackling these problems, several approaches have been explored. For instance, surface modification, doping, and defect engineering of transition metal oxides have been considered an effective strategy to accelerate and intensify reaction kinetics, realizing high electrochemical performance. In this talk, the speaker will present his recent work in the development and application of nanostructured metal oxide electrode for high-performance supercapacitors. Several strategies, including the morphology control, core/shell architecture, and defect engineering, will be discussed to improve the electron transports, electrolyte ions diffusion kinetics, and electrical conductivity of metal oxide electrodes.

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Online Submission

Important Dates:

Submission Deadline:
February 19, 2019

March 19, 2019

Notification of Acceptance:
from March 8, 2019

Paper reviewing takes 20 days

Registration Deadline:
April 8, 2019

Final.Modification Deadline:
April 23, 2019