Ferenc Krausz, a distinguished Hungarian-Austrian physicist, stands at the forefront of attosecond physics, a discipline dedicated to scrutinizing the swiftest movements of electrons. His trailblazing research has catalyzed the emergence of diverse fields, including the pioneering realm of high-resolution microscopy for living organisms. Notably, Krausz engineered advanced laser technologies that contribute to the early detection of cancer and ocular disorders. Alongside his collaborators, he achieved a historic milestone by generating and precisely measuring the duration of an attosecond light pulse, a minuscule interval equating to one billionth of a billionth of a second.
Harnessing these infinitesimal flashes of light, Krausz has unlocked the ability to observe electrons traversing atomic landscapes in real-time. He and his research collective have meticulously crafted the laser systems and ancillary components necessary for such feats. Electrons, propelled at velocities approximating one thousand kilometers per second, appear frozen in motion when illuminated by these ultra-rapid photo flashes. Krausz's ensemble has determined that electrons take between seven and twenty attoseconds to navigate the atomic periphery, with their precise transit times contingent on interatomic interactions and nuclear influences.
In pursuit of higher intensities, Krausz's attosecond light pulses have demonstrated the capacity to dislodge electrons from their atomic moorings and propel them near the speed of light, ushering in the era of high-field attosecond physics. His ambitious goal is to construct a Petawatt Field Synthesizer (PFS), an apparatus designed to amalgamate disparate lasers, yielding light pulses surging at one quadrillion watts (Petawatt). Such a breakthrough would empower Krausz and his team to elucidate electron processes with unparalleled granularity.
Through the instruments conceived under his guidance, Krausz has witnessed in real-time the fundamental dance of electrons, encompassing charge transfer, tunneling, and the photoelectric effect. These observations hold immense promise for the burgeoning fields of quantum computing and advanced electronics, underscoring the transformative potential of Krausz's contributions to the scientific community.
1.
Journal ArticleWeigel, A.; Jacob , P.;
Schweinberger, W.;
Huber, M.;
Trubetskov, M. K.; Karandusovsky, P.;
Hofer, C.;
Buberl, T.;
Amotchkina, T. V.;
Högner, M. et al.: Dual-oscillator infrared electro-optic sampling with attosecond precision. Optica 11, pp. 726 - 735 (2024)
MPG.PuReDOIpublisher-version2.
Journal ArticleMamaikin, M.;
Ridente, E.;
Krausz, F.;
Karpowicz, N.: Spatiotemporal electric-field characterization of synthesized light transients. Optica 11, pp. 88 - 93 (2024)
MPG.PuReDOIpublisher-version3.
Journal ArticleAgarwal , M.; Scrinzi , A.;
Krausz, F.;
Yakovlev, V. S.: Theory of Nonlinear Photoconductive Sampling in Atomic Gases. Annalen der Physik (2023)
MPG.PuReDOIpublisher-version4.
Journal ArticleKowalczyk , M.;
Nagl, N.;
Steinleitner, P.;
Karpowicz, N.; Pervak, V.; Gluszek, A.; Hudzikowski, A.;
Krausz, F.;
Mak, K.;
Weigel, A.: Ultra-CEP-stable single-cycle pulses at 2.2 µm. Optica 10 (6), pp. 801 - 811 (2023)
MPG.PuReDOIpublisher-version5.
Journal ArticleZimin, D.;
Karpowicz, N.;
Qasim, M.;
Weidman, M.;
Krausz, F.;
Yakovlev, V. S.: Dynamic optical response of solids following 1-fs-scale photoinjection. Nature 618, pp. 276 - 280 (2023)
MPG.PuReDOIpublisher-version6.
Journal ArticleSong, W.;
Major, Z.; Guo, Y.;
Karsch, S.; Guo, H.;
Krausz, F.; Fukumoto, M.; Dingwell, D. B.: Biomimetic Super "Silicate" Phobicity and Superhydrophobicity of Ceramic Material. Advanced Materials Interfaces 2022, 2201267 (2022)
MPG.PuReDOI7.
Journal ArticleZigman, M.; Huber, M.; Kepesidis, K.; Voronina, L.; Fleischmann, F.;
Fill, E. E.; Hermann, J.; Koch, I.; Kolben, T.; Schulz, G. B.
et al.: Infrared molecular fingerprinting: A new in vitro diagnostic platform technology for cancer detection in blood-based liquid biopsies. Annals of Oncology 33, p. S580 - S580 (2022)
MPG.PuReDOIpublisher-version8.
Journal ArticleMamaikin, M.; Li , Y.-L.;
Ridente, E.; Chen, W. T.; Park, J.-S.; Zhu, A. Y.; Capasso, F.;
Weidman, M.;
Schultze, M.;
Krausz, F. et al.: Electric-field-resolved near-infrared microscopy. Optica 9 (6), pp. 616 - 622 (2022)
MPG.PuReDOIpublisher-version9.
Journal ArticleOssiander, M.;
Golyari, K.; Scharl , K.;
Lehnert, L.;
Siegrist, F.; Bürger, J. P.;
Zimin, D.;
Gessner, J.;
Weidman, M.; Floss, I.
et al.: The speed limit of optoelectronics. Nature Communications 13 (1), 1620 (2022)
MPG.PuReDOIpublisher-version10.
Journal ArticleOssiander, M.;
Golyari, K.; Scharl , K.;
Lehnert, L.;
Siegrist, F.; Bürger , J. P.;
Zimin, D.;
Gessner, J.;
Weidman, M.; Floss, I.
et al.: The speed limit of optoelectronics. Nature Communications 13, 1620 (2022)
MPG.PuReDOIpublisher-version11.
Journal ArticleRidente, E.; Mamaikin, M.; Altwaijry, N.;
Zimin, D.;
Kling, M. F.;
Pervak, V.;
Weidman, M.;
Krausz, F.;
Karpowicz, N.: Electro-optic characterization of synthesized infrared-visible light fields. Nature Communications 13 (1), 1111 (2022)
MPG.PuReDOIpublisher-version12.
Journal ArticleZhang, J.; Pӧtzlberger, M.; Wang, Q.;
Brons, J.; Seidel, M.; Bauer, D.; Sutter, D.; Pervak, V.;
Apolonskiy, A.;
Mak, K. et al.: Distributed kerr-lens mode-locked Yb:YAG thin-disk oscillator. Ultrafast Science 2022, 9837892 (2022)
MPG.PuReDOIpublisher-version13.
Journal ArticleSteinleitner, P.;
Nagl, N.; Kowalczyk, M.;
Zhang, J.; Pervak, V.;
Hofer, C.; Hudzikowski, A.; Sotor, J.;
Weigel, A.;
Krausz, F. et al.: Single-cycle infrared waveform control. Nature Photonics 16, pp. 512 - 518 (2022)
MPG.PuReDOIpublisher-version14.
Journal ArticleKepesidis V, K.; Bozic-Iven, M.;
Huber, M.; Abdel-Aziz, N.; Kullab, S.; Abdelwarith, A.; Al Diab, A.; Al Ghamdi, M.; Abu Hilal, M.; Bahadoor, M. R. K.
et al.: Breast-cancer detection using blood-based infrared molecular fingerprints. BMC Cancer 21 (1), 1287 (2021)
MPG.PuReDOIpublisher-version15.
Journal ArticleHuber, M.; Kepesidis , K. V.; Voronina, L.; Fleischmann, F.;
Fill, E. E.; Hermann, J.; Koch, I.; Milger-Kneidinger, K.; Kolben, T.; Schulz, G. B.
et al.: Infrared molecular fingerprinting of blood-based liquid biopsies for the detection of cancer. eLife 10, e68758 (2021)
MPG.PuReDOIpublisher-version16.
Journal ArticleVoronina, L.; Leonardo , C.; Mueller-Reif, J. B.; Geyer, P. E.;
Huber, M.;
Trubetskov, M. K.; Kepesidis V, K.; Behr, J.; Mann, M.;
Krausz, F. et al.: Molecular Origin of Blood-Based Infrared Spectroscopic Fingerprints. Angewandte Chemie, International Edition in English 60 (31), pp. 17060 - 17069 (2021)
MPG.PuReDOIpublisher-version17.
Journal ArticleAizpurua, J.; Atwater*, H. A.; Baumberg, J. J.; Bozhevolnyi, S. I.; Brongersma, M. L.; Dionne, J. A.; Giessen, H.; Halas, N.; Kivshar, Y.;
Kling, M. F. et al.: Mark Stockman: Evangelist for Plasmonics. ACS Photonics 8 (3), pp. 683 - 698 (2021)
MPG.PuReDOI18.
Journal ArticleHuber, M.; Kepesidis V, K.; Voronina, L.; Bozic, M.;
Trubetskov, M. K.; Harbeck, N.;
Krausz, F.;
Zigman, M.: Stability of person-specific blood-based infrared molecular fingerprints opens up prospects for health monitoring. Nature Communications 12 (1), 1511 (2021)
MPG.PuReDOIpublisher-version19.
Journal ArticleSchötz, J.; Seiffert, L.; Maliakkal, A.; Blöchl, J.; Zimin, D.; Rosenberger, P.;
Bergues, B.; Hommelhoff, P.;
Krausz, F.; Fennel, T.
et al.: Onset of charge interaction in strong-field photoemission from nanometric needle tips. Nanophotonics 10 (14), pp. 3769 - 3775 (2021)
MPG.PuReDOIpublisher-version20.
Journal ArticleZimin, D.;
Weidman, M.;
Schötz, J.;
Kling, M. F.;
Yakovlev, V. S.;
Krausz, F.;
Karpowicz, N.: Petahertz-scale nonlinear photoconductive sampling in air. Optica 8 (5), pp. 586 - 590 (2021)
MPG.PuReDOIpublisher-version21.
Journal ArticleRidente, E.;
Weidman, M.; Mamaikin, M.;
Jakubeit, C.;
Krausz, F.;
Karpowicz, N.: Hybrid phase-matching for optical parametric amplification of few-cycle infrared pulses. Optica 7 (9), pp. 1093 - 1096 (2020)
MPG.PuReDOIpublisher-version22.
Journal ArticleMaier, A. R.;
Kajumba, N.;
Guggenmos, A.; Werle, C.;
Wenz, J.; Delbos, N.; Zeitler, B.; Dornmair, I.; Schmidt , J.; Gullikson, E. M.
et al.: Water-Window X-Ray Pulses from a Laser-Plasma Driven Undulator. Scientific Reports 10 (1), 5634 (2020)
MPG.PuReDOIpublisher-version23.
Journal ArticleAlismail, A.;
Wang, H.;
Barbiero, G.; Altwaijry, N.;
Hussain, S. A.; Pervak, V.; Schweinberger, W.; Azzeer, A. M.;
Krausz, F.;
Fattahi, H.: Multi-octave, CEP-stable source for high-energy field synthesis. Science Advances 6 (7), eaax3408 (2020)
MPG.PuReDOIpublisher-version24.
Journal ArticlePupeza, I.; Huber , M.;
Trubetskov, M. K.; Schweinberger, W.;
Hussain, S. A.;
Hofer, C.; Fritsch, K.;
Pötzlberger, M.;
Vamos, L.; Fill, E.
et al.: Field-resolved infrared spectroscopy of biological systems. Nature 577 (7788), pp. 52 - 59 (2020)
MPG.PuReDOI25.
Journal ArticleSederberg, S.;
Zimin, D.;
Keiber, S.;
Siegrist, F.;
Wismer, M. S.;
Yakovlev, V. S.; Floss, I.; Lemell, C.; Burgdörfer, J.;
Schultze, M. et al.: Attosecond optoelectronic field measurement in solids. Nature Communications 11, 430 (2020)
MPG.PuReDOIpublisher-version26.
Journal ArticlePervak, V.; Amotchkina , T.; Hahner, D.; Jung, S.; Pervak, Y.;
Trubetskov, M. K.;
Krausz, F.: Complementary Si/SiO
2 dispersive mirrors for 2-4 µm spectral range. Optics Express 27 (24), 375132 (2019)
MPG.PuReDOIpublisher-version27.
Journal ArticleAmotchkina, T.;
Trubetskov, M. K.;
Hussain, S. A.; Hahner, D.;
Gerz, D.; Huber , M.; Schweinberger, W.; Pupeza, I.;
Krausz, F.; Pervak, V.: Broadband dispersive Ge/YbF
3 mirrors for mid-infrared spectral range. Optics Letters 44 (21), pp. 5210 - 5213 (2019)
MPG.PuReDOI28.
Journal ArticleButler, T.;
Lilienfein, N.;
Xu, J.; Nagl, N.;
Hofer, C.;
Gerz, D.;
Mak, K.; Gaida, C.; Heuermann, T.; Gebhardt, M.
et al.: Multi-octave spanning, Watt-level ultrafast mid-infrared source. Journal of Physics: Photonics 1 (4), 044006 (2019)
MPG.PuReDOIpublisher-version29.
Journal ArticleNagl, N.; Gröbmeyer, S.; Pervak, V.;
Krausz, F.;
Pronin, O.;
Mak, K.: Directly diode-pumped, Kerr-lens mode-locked, few-cycle Cr:ZnSe oscillator. Optics Express 27 (17), pp. 24445 - 24454 (2019)
MPG.PuReDOIpublisher-version30.
Journal ArticleZhang, J.;
Mak, K.; Fritsch, K.; Wang , Q.;
Krausz, F.;
Pronin, O.: Intra-pulse difference-frequency generation of mid-infrared (2.7-20 μm) by random quasi-phase-matching. Optics Letters 44 (12), pp. 2986 - 2989 (2019)
MPG.PuReDOIpublisher-version31.
Journal ArticleNagl, N.;
Mak, K.; Wang, Q.; Pervak, V.;
Krausz, F.;
Pronin, O.: Efficient femtosecond mid-infrared generation based on a Cr:ZnS oscillator and step-index fluoride fibers. Optics Letters 44 (10), pp. 2390 - 2393 (2019)
MPG.PuReDOI32.
Journal ArticleButler, T.;
Gerz, D.;
Hofer, C.;
Xu, J.; Gaida, C.; Heuermann, T.; Gebhardt, M.; Vamos, L.; Schweinberger, W.;
Gessner, J. et al.: Watt-scale 50-MHz source of single-cycle waveform-stable pulses in the molecular fingerprint region. Optics Letters 44 (7), pp. 1730 - 1733 (2019)
MPG.PuReDOIpublisher-version33.
Journal ArticleJahn, O.;
Leshchenko, V.; Tzallas , P.;
Kessel, A.;
Krüger, M.;
Münzer, A.;
Trushin, S. A.;
Tsakiris, G. D.; Kahaly, S.;
Kormin, D. et al.: Towards intense isolated attosecond pulses from relativistic surface high harmonics. Optica 6 (3), pp. 280 - 287 (2019)
MPG.PuReDOIpublisher-version34.
Journal ArticleBuberl, T.; Sulzer, P.; Leitenstorfer, A.;
Krausz, F.;
Pupeza, I.: Broadband interferometric subtraction of optical fields. Optics Express 27 (3), pp. 2432 - 2443 (2019)
MPG.PuReDOIpublisher-version35.
Journal ArticleLilienfein, N.;
Hofer, C.;
Högner, M.;
Saule, T.;
Trubetskov, M. K.; Pervak, V.; Fill, E.; Riek, C.; Leitenstorfer, A.; Limpert, J.
et al.: Temporal solitons in free-space femtosecond enhancement cavities. Nature Photonics 13 (3), pp. 214 - 219 (2019)
MPG.PuReDOI36.
Journal ArticleUeffing, M.; Reiger, S.; Kaumanns, M.; Pervak, V.;
Trubetskov, M. K.; Nubbemeyer, T.;
Krausz, F.: Nonlinear pulse compression in a gas-filled multipass cell. Optics Letters 43 (9), pp. 2070 - 2073 (2018)
MPG.PuReDOI37.
Journal ArticleSeidel, M.; Xiao , X.; Hussain, S. A.; Arisholm, G.; Hartung, A.; Zawilski, K. T.; Schunemann, P. G.; Habel, F.;
Trubetskov, M. K.; Pervak, V.
et al.: Multi-watt, multi-octave, mid-infrared femtosecond source. Science Advances 4 (4), eaaq1526 (2018)
MPG.PuReDOIpublisher-version38.
Journal ArticleKruchinin, S.;
Krausz, F.;
Yakovlev, V. S.: Colloquium: Strong-field phenomena in periodic systems. Reviews of Modern Physics 90 (2), 021002 (2018)
MPG.PuReDOIpre-print39.
Journal ArticleKessel, A.;
Leshchenko, V.;
Jahn, O.;
Krüger, M.;
Münzer, A.;
Schwarz, A.; Pervak, V.;
Trubetskov, M. K.;
Trushin, S. A.;
Krausz, F. et al.: Relativistic few-cycle pulses with high contrast from picosecond-pumped OPCPA. Optica 5 (4), pp. 434 - 442 (2018)
MPG.PuReDOI40.
Journal ArticleBergues, B.; Rivas, D. E.;
Weidman, M.; Muschet, A. A.; Helml, W.;
Guggenmos, A.; Pervak, V.;
Kleineberg, U.; Marcus , G.;
Kienberger, R. et al.: Tabletop nonlinear optics in the 100-eV spectral region. Optica 5 (3), pp. 237 - 242 (2018)
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