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Offer Description The recruited researcher will be responsible for studying and characterizing complex spin textures at the atomic scale using a scanning tunneling microscope (STM) functionalized with a
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positions to work in experimental condensed matter physics with focus on angle-resolved photoemission (ARPES) and scanning tunneling spectroscopy (STS/STM) based studies of topological, strongly correlated
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) systems. The selected candidate is expected to mainly conduct research in the field of on-surface synthesis of functional nanomaterials and their characterization using scanning probe techniques (STM, STS
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(including molecules, polymers and two-dimensional networks), for advanced optoelectronic applications, using scanning probe techniques (STM, STS and nc-AFM). He/she will also have the opportunity to work
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positions to work in experimental condensed matter physics with focus on angle-resolved photoemission (ARPES) and scanning tunneling spectroscopy (STS/STM) based studies of topological, strongly correlated
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work in the laboratory for Quantum Magnetism fully equipped with low-temperature, high magnetic field scanning tunneling microscopy (STM) and tuning fork atomic force microscopy (QPlus AFM), integrated
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use scanning tunneling microscopy (STM), combined with electron spin resonance (ESR), to address the spin states of individual atoms. Making use of advanced nanosecond pulsed measurement techniques, you
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significant challenge. Our laboratory advances atomic-scale spectroscopy based on photon scanning tunneling microscopy (Photon-STM) to directly correlate the local structure and energy conversion properties
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focus on angle-resolved photoemission (ARPES) and scanning tunneling spectroscopy (STS/STM) based studies of topological, strongly correlated and novel 2D quantum materials including unconventional
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a range of surface analytical techniques, such as HRXPS, UPS, LEIS, AFM, and STM, with an emphasis on vibrational spectroscopy using IR spectroscopy or HREELS to identify and follow reactions