MBI-Mitarbeiter - Persönliche Daten

Research

In ultrafast optics, it often proves invaluable to exactly know the temporal structure of the few-cycle pulses in the experiments. Compared to transient events in electronics, our means of precisely measuring optical transients on the femtosecond scale appear much more limited. To this end, a number of techniques have emerged that enable simultaneous measurement of the amplitude and phase structures of ultrashort pulses. Among these techniques, interferometric frequency-resolved optical gating has evolved as a particularly powerful technique, which can also be used for spectroscopic experiments on the few-cycle temporal scale.

Experimental setup for filament generation in a controlled noble-gas atmosphere. The characteristic sign for the onset of plasma formation and filamentation is the color change from red (scattered light) to violet (fluorescence) appearing at the 7 cm position on the ruler. After the collapse of the filamention process at 70 cm, a white-light spectrum emerges. Spectral width and the number of filaments inside the cell can be controlled by pressure and gas fill.

A second important aspect is measurement and control of the carrier-envelope phase of an ultrashort optical pulse. This phase plays an important role in attosecond spectroscopy. We have developed the feed-forward technique for stabilization of the carrier-envelope phase. This patented method is now commercially available from a major laser manufacturer. Our research continues and tries to explore the absolute limits of carrier-envelope phase measurements, as they are, e.g., imposed by quantum noise mechanisms.

Further research is devoted to optical filamentation. Loosely focusing an intense laser beam in air, one observes a collapse of the beam profile, and a plasma channel forms that guides the light at nearly constant beam diameter for lengths in the centimeter or meter range. Further increasing the laser power, several such filaments coexist parallel to each other and show highly dynamic behavior. The resulting beam profiles exhibit short-lived extremely bright flashes, which appear in analogy to ocean rogue waves. We carefully studied the statistics of rogue waves in our multifilament scenario and compared them to other rogue-wave supporting systems. This comparison seems to enable some intriguing new insight into the ocean rogue wave mystery, which we are currently exploring in more depth.

Curriculum vitae

10/2017 Fellow, American Physical Society (APS)

09/2017 Full (W3-S) Professor, Department of Physics, Humboldt Universität zu Berlin

03/2017 Fellow, International Union of Radio Science (URSI)

01/2016 Fellow, Optical Society of America (OSA)

01/2015 - 12/2017 Member Editorial Board, Physical Review A

01/2014 Outstanding Referee, American Physical Society (APS)

04/2012 - 03/2018 Topical Editor, Ultrafast Phenomena, Optics Letters

11/2008 - 10/2013 Finland Distinguished Professor Optoelectronics Research Centre, Tampere University of Technology, Finland

07/2002 - present: Senior Staff Scientist and Head of the Department C2, Solid-State Light Sources Max-Born-Institut, Berlin, Germany

09/2002 Habilitation in Experimental Physics Dissertation: New approaches to the Generation and Characterization of Few- Cycle Laser Pulses , Prof. Dr. Ursula Keller

02/1998 - 07/2002 Research Associate Institute of Quantum Electronics,Swiss Federal Institute of Technology, Zürich, Switzerland

11/1995 - 12/1997 Postdoctoral Researcher Research Lab of Electronics, Massachusetts Institute of Technology, Cambridge, Massachusetts, USA

04/1995 - 10/1995 Postdoctoral Researcher Institute of Applied Physics, University of Münster, Germany

02/1995 Ph.D. in Physics (with distinction) Dissertation: Pulse Shaping Processes and Optical Turbulence in a Nonlinear Fiber Ring Resonator , Prof. Dr. Fedor Mitschke

05/1992 - 03/1995 Graduate Student Institute of Quantum Optics, Hannover University, Germany

05/1992 - 03/1995 Teaching Assistant (part time, several appointments) Hannover University and Hannover Medical School, Germany

04/1992 Diploma in Physics Diploma thesis: Construction and Application of a Spectrometer for the VUV/XUV Spectral Range Employing a Laser-Induced Plasma Light Source Prof. Dr. Bernd Wellegehausen

08/1987 - 04/1992 Teaching Assistant (part time, several appointments) Institute of Mathematics, Hannover University, Germany

MBI Publikationen

  1. Nonlinear compression of few-cycle multi-mJ 5 µm pulses in ZnSe around zero-dispersion

    M. Bock, L. von Grafenstein, D. Ueberschaer, G. Steinmeyer, U. Griebner

    Optics Letters 49 (2024) 351-354
  2. Acoustic gigawatt laser deflection

    G. Steinmeyer

    Nature Photonics 18 (2024) 10-11
  3. In-situ measurement and compensation of complex spatio-temporal couplings in ultra-intense lasers

    Z. Zang, S. Peng, W. Jin, Y. Zuo, G. Steinmeyer, Y. Dai, D. Liu

    Optics and Lasers in Engineering 160 (2023) 107239/1-8
  4. Efficient electronic excitation transfer via phonon-assisted dipole-dipole coupling in Fe2+∶Cr2+:ZnSe

    G. Steinmeyer, J. W. Tomm, P. Fuertjes, U. Griebner, S. S. Balabanov, T. Elsaesser

    Physical Review Applied 19 (2023) 054043/1-11
  5. Excitation transfer from Cr2+ to Fe2+ ions in co-doped ZnSe as a pumping scheme for infrared solid-state lasers

    J. W. Tomm, G. Steinmeyer, P. Fuertjes, U. Griebner, T. Elsaesser

    Journal of Electronic Materials 52 (2023) 5166-5171
  6. Kinetics of excitation transfer from Cr2+ to Fe2+ ions in co-doped ZnSe

    P. Fuertjes, J. W. Tomm, U. Griebner, G. Steinmeyer, S. S. Balabanov, E. M. Gavrishchuk, T. Elsaesser

    Optics Letters 47 (2022) 2129-2131
  7. Intermodal synchronization effects in multimode fibers with noninstantaneous nonlinearity

    C. Mei, G. Steinmeyer, J. Yuan, X. Zhou, K. Long

    Physical Review A 105 (2022) 013516/1-12
  8. Cage solitons

    G. Steinmeyer, T. Nagy, I. Babushkin, C. Mei

    SPIE Proceedings Series 11986 (2022) 1198602/1-6
  9. Creating the perfect plasmonic wave

    G. Steinmeyer

    Light: Science & Applications 11 (2022) 229/1-2
  10. Thermodynamic and nonlinear optical analysis of solid-state multipass cells for compression of picosecond pulses in the 2-μm range

    C. Mei, U. Griebner, G. Steinmeyer

    Physical Review A 106 (2022) 053527/1-9