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Plenary Session Featuring The Fred Kavli Distinguished Lectureship in Materials Science

Tuesday, April 11
8:45 am – 10:00 am
InterContinental, Third Floor, Grand Ballroom

Plenary Speaker

Jenny Nelson
Kostya Novoselov
National University of Singapore, The University of Manchester

Sir Konstantin ‘Kostya’ Novoselov FRS is a director of the Institute of Functional Intelligent Materials and is a Tan Chin Tuan Centennial Professor at the National University of Singapore. He is also a part-time Langworthy Professor of Physics and the Royal Society Research Professor at The University of Manchester. After graduating from the Moscow Institute of Physics and Technology, Novoselov earned his PhD degree at the University of Nijmegen before transitioning to The University of Manchester in 2001. He would later join the National University of Singapore in 2019.

Novoselov is best-known for isolating graphene at The University of Manchester, earning the Nobel Prize for Physics for his achievements with the nanostructure in 2010. He is also an expert in condensed matter physics, mesoscopic physics and nanotechnology.

One of the most highly cited researchers in the world, Novoselov has published more than 400 peer-reviewed research papers. He has been awarded numerous prizes, including Nicholas Kurti Prize (2007), International Union of Pure and Applied Science Prize (2008), MIT Technology Review young innovator (2008), Europhysics Prize (2008), Bragg Lecture Prize from the Union of Crystallography (2011), the Kohn Award Lecture (2012), Leverhulme Medal from the Royal Society (2013), Onsager medal (2014), Carbon medal (2016), Dalton medal (2016), Otto Warburg Prize (2019), John von Neumann Professor from the John von Neumann Computer Society (2022) among many others. He was knighted in the 2012 New Year Honours.

Materials for the Future

Graphene and 2D materials, despite being relatively fresh materials, have already taken a firm place in research, development and applications. A number of exciting phenomena have been discovered in these crystals and they continue bringing exciting results on a regular basis. However, probably the most important characteristic about 2D materials is that they offer a possibility to form on-demand van der Waals heterostructures, where individual 2D crystals are stacked together, forming a novel, 3D structure, which composition (and thus, their properties) can be controlled with atomic precision. This have opened a new directions of research: materials on demand. The properties of the resulting heterostructure can be designed with very high precision. The space of parameters is so large that the use of machine learning methods becomes essential. Furthermore, since individual components in such heterostructures interact through a number of channels (elastic, van der Waals, electronic, etc.) – a degenerate energy landscape is formed, leading to a number of competing phases, which opens a way to engineer particular phase transitions between different states and, thus, study also the out-of-equilibrium phenomena in such structures.

Publishing Alliance

MRS publishes with Springer Nature

 

 

Symposium Support