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MNC 2018, November 13-16, 2018
31st International Microprocesses and Nanotechnology Conference
Sapporo Park Hotel, Sapporo, Japan |
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Dr. Kirsten E. Moselund
IBM Research Zurich;
Materials Innovation and Integration for New Computing Paradigms |
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Scaling has long since ceased to be sufficient to support the performance
improvements expected from the next generation technology. In this talk,
I will address some of the new trends in exploratory materials development
for beyond Moore applications. In particular, I will focus on topics such
as the monolithic and heterogeneous integration of III-V's for photonics
and high-performance electronics. At IBM we have developed a technique
referred to as Template-Assisted-Selective-Epitaxy (TASE), where we grow
III-V confined within hollow oxide cavities. The template guides the growth
and allows for the integration of vertical and lateral nanowires as well
as arbitrarily shaped nanostructures. In terms of devices we have demonstrated
high performance III-V MOSFETs and complementary tunnel FETs, as well as
GaAs and InGaAs micro-disk lasers. Finally, material properties as well
as nanoscale thermal characterization of III-V nanowire and CNT devices
will also be discussed. Using a scanning thermal probe technique we are
able to resolve the thermal response at the nm-scale during device operation. |
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Kirsten Emilie Moselund received the M.Sc. degree in engineering from the Technical University of Denmark in 2003 and the Ph.D. degree in microelectronics from the Swiss Federal Institute of Technology in Lausanne (EPFL), Lausanne, Switzerland, in 2008. In 2008, she joined the IBM Zurich – Research, where she is currently managing the Materials Integration and Nanoscale Devices group, which among other things focuses on III-V on silicon integration for new electronic devices for ultra-low power electronics as well as for active nanophotonics, in particular on their experimental demonstration in the BRNC Nanotechnology Center. Her research interests include nanofabrication technology, semiconductor physics, nanophotonics and novel electronic and photonic device concepts. |
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