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SUMMARY:IMX Talks - Ultrafast control of quantum materials on chip
DTSTART:20241028T161500
DTEND:20241028T171500
DTSTAMP:20260921T183915Z
UID:af60ea3756f1314a933167edfe30879bda8cb04ba782c104c4ac55f0
CATEGORIES:Conferences - Seminars
DESCRIPTION:Dr. Eryin Wang\, Max Planck Institute Germany\nOptical drive h
 as emerged as a powerful tool for manipulating the functional properties o
 f quantum materials on ultrashort timescales and provides the platforms to
  develop ultrafast electronics on chip. Despite extensive characterization
 s of these transient dynamics using optical\, scattering\, scanning\, and 
 photoemission techniques\, their transport responses\, which directly impa
 ct electronic circuit performance—remain largely unexplored. In this tal
 k\, I will show two examples based on recently developed ultrafast transpo
 rt techniques\, to probe the electrical responses from light-induced super
 conducting-like state in K3C60. Furthermore\, I will demonstrate our recen
 t efforts  and progress on developing full-electrical platform to achieve
  ultrafast electrical control of quantum materials.\n\nBio: Eryin Wang is 
 currently a staff scientist at Max Planck Institute for the structure and 
 dynamics of matter at Hamburg. His research focuses on ultrafast control o
 f quantum material with strong optical and electrical pulses.\nHe received
  his doctorate from Tsinghua University in 2017\, where he used angle-reso
 lved photoemission spectroscopy to study the interfacial effect in two-dim
 ensional material heterostructures. He received the Chorafas Prize for his
  Ph. D. work.\nSince 2017 he started his postdoc research in Andrea Cavall
 eri’s laboratory at Max Planck Institute for the structure and dynamics 
 of matter at Hamburg\, and later in 2019 he received Humboldt fellowship t
 o further support his research. In 2021\, he became a staff scientist in H
 amburg. His work focused on studying electrical dynamics in optically and 
 electrically driven quantum materials with femtosecond optoelectronic plat
 forms.\n\n 
LOCATION:BM 5202 https://plan.epfl.ch/?room==BM%205202
STATUS:CONFIRMED
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