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Markus Münzenberg

Researcher at University of Greifswald

Publications -  155
Citations -  7377

Markus Münzenberg is an academic researcher from University of Greifswald. The author has contributed to research in topics: Magnetization & Magnetization dynamics. The author has an hindex of 37, co-authored 155 publications receiving 6049 citations. Previous affiliations of Markus Münzenberg include University of Göttingen.

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Light-wave dynamic control of magnetism

TL;DR: This study unveils light-field coherent control of spin dynamics and macroscopic magnetic moments in the initial non-dissipative temporal regime and establishes optical frequencies as the speed limit of future coherent spintronic applications, spin transistors and data storage media.
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Ultrafast photocurrents at the surface of the three-dimensional topological insulator Bi2Se3

TL;DR: Three-dimensional topological insulators are fascinating materials with insulating bulk yet metallic surfaces that host highly mobile charge carriers with locked spin and momentum, and photon-helicity-dependent photocurrents are found to be orders of magnitude smaller than expected from generation scenarios based on asymmetric depopulation of the Dirac cone.
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Tunneling path toward spintronics

TL;DR: In the past 15 years, several thousands of papers related to spin polarized tunneling and transport have been published, making this topic one of the hottest areas in condensed matter physics from both fundamental science and applications viewpoints.
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Intrinsic and non-local Gilbert damping in polycrystalline nickel studied by Ti : sapphire laser fs spectroscopy

TL;DR: In this paper, the authors used femtosecond laser pulses generated by a Ti : sapphire laser system to gain an insight into the magnetization dynamics on time scales from sub-picosecond up to 1 ns directly in the time domain.
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Intrinsic and non-local Gilbert damping in polycrystalline nickel studied by Ti:Sapphire laser fs spectroscopy

TL;DR: In this paper, the authors used femtosecond laser pulses generated by a Ti:Sapphire laser system to gain an insight into the magnetization dynamics on time scales from sub-picosecond up to 1 ns directly in the time domain.