Proof of concept ERC Grant for Ursula Keller Dual-comb laser driven terahertz spectrometer for industrial sensing (DC-THz)
Farewell and Welcome!Chris Milne leaves for the European XFEL, Camila Bacellar takes over
SY-GAIA expedition - measures aerosols in the North-Atlantic
Synergy grants for MUST-AssociatesSylvie Roke (EPFL) and Gebhard Schertler (PSI/ETH).
Promotion to Associate Professor of Photonicscongratulations to Rachel Grange!
First light in the SwissFEL Maloja endstation- on track for first experiments in 2021
New scientific highlights- by MUST PIs Chergui, Milne, Wörner, Vaníček and Röthlisberger
New scientific highlights- from MUST researchers at PSI

Manfred Fiebig

April 2016

Prof. Manfred Fiebig was awarded a 2016 ERC Advanced Grant for the project: In-Situ Second Harmonic Generation for Emergent Electronics in Transition-Metal Oxides.

(from the ETH D-MATL news item)

An ERC Advanced Grant was awarded to the "Laboratory of Multifunctional Ferroic Materials" of Prof. Manfred Fiebig for the development of a new technique for monitoring the emergence of ordered states in thin-film heterostructures in real-time, while they are growing. A laser-optical process is the basis of this approach.

Since transition-metal oxide heterostructures can be grown by pulsed-laser deposition with semiconductor-like accuracy, fascinating phases and functionalities derived from such accurately architecture samples have been discovered. Examples are conducting, ferromagnetic or even superconducting interfaces between otherwise insulating materials. So far, electron diffraction is the only widely established technique for monitoring multilayers in-situ, while they are growing, and provide direct feedback on how to optimize the growth process. The ERC Advanced Grant will allow the Laboratory of Multifunctional Ferroic Materials of Prof. Manfred Fiebig and Dr. Morgan Trassin to introduce nonlinear laser-optical processes as new in-situ technique that allows to track spin-and charge-related phenomena such as ferroelectricity, insulator-metal transitions, domain coupling effects or interface states in a non-invasive way throughout the deposition process. This new, property-monitoring tool in thin-film growth has an immense potential to uncover new states of matter and functionalities. A particular focus will be on the simultaneous emergence of magnetic and electric order in so-called "multiferroics", a long-standing topic in the group.

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