LIT Lecture am 10. Jänner 2018
Platz für Innovation!
Denkende Autos, U-Bahnen auf Computerchips, Fingerabdrücke von Atomen - wenn Sie wissen wollen, worum es an der JKU geht, sind Sie herzlich eingeladen, an der LIT Lecture Series teilzunehmen!
Programm:
"Single atom radio frequency fingerprinting" Stefan Mühlegger (Institute of Semiconductor and Solid State Physics
"Neuroenhancement in everyday life" Nicole Kronberger (Institute of Education and Psychology)
LIT Lecture
Datum
10. Jänner 2018
Uhrzeit
12.00 - 13.30 Uhr
Adresse
Johannes Kepler Universität Linz
Altenberger Straße 69
4040 Linz
Standort
Uni-Center, Festsaal A
Programm
Single atom radio frequency fingerprinting
Modern nanoscience approaches the atomic scale: Individual atoms, rather than ensembles, carry the functionalities of man - made devices (switching, storing, calculating, catalyzing, etc). While single - atom imaging is routine since the advent of the scanning tunneling microscope (STM) in the ‘80s, their chemical identification is difficult. I develop a “6th sense” that turns the STM from an imaging - to an identification tool with atomic resolution.
Stefan Mühlegger
Institute of Semiconductor and Solid State Physics
Neuroenhancement in everyday life
Public reactions to new technologies can occur in forms not foreseen by developers and experts. In this LIT project we address public views of medical and technological developments commonly summarized under the umbrella term neuroenhancement”. The project will add insights on how societally robust innovation can be promoted in modern societies.
Nicole Kronberger
Institute of Education and Psychology
Recurring patterns in gas - solid flows
Detailed simulations of multiphase flows are very time - consuming. We introduce a method that identifies reappearing structures in such systems and allows to study slow, long - lasting processes on highly dynamic backgrounds at low computational costs for applications like steelmaking and chemical process industries to environmental flows like atmospheric aerosol transport.
Thomas Lichtenegger
Department of Particulate Flow Modelling