dr Michał Karpiński

Laboratorium Fotoniki Kwantowej (QPL)

dr Michał Karpiński

Laboratorium Fotoniki Kwantowej (QPL)

ORCID ID: 0000-0001-8195-214X

Telefon biuro: 22 55 32 740

Telefon laboratorium: 22 55 46 872

mkarp@fuw.edu.pl

Biogram

Po uzyskaniu doktoratu na Wydziale Fizyki Uniwersytetu Warszawskiego w 2012 r. dr Michał Karpiński odbył staż podoktorski w ramach Stypendium Marie Curie na Uniwersytecie Oksfordzkim, pracując nad optycznymi technologiami kwantowymi.

Obecnie zajmuje stanowisko adiunkta na Wydziale Fizyki Uniwersytetu Warszawskiego, kierując Laboratorium Fotoniki Kwantowej. Jest autorem wielu prac naukowych z zakresu eksperymentalnej optyki kwantowej i ma duże doświadczenie w tomografii stanów i procesów kwantowych. W szczególności po raz pierwszy zademonstrował deterministyczne soczewki czasowe dla kwantowych impulsów światła.

Począwszy od 2019 r. kieruje projektem TEAM Fundacji na rzecz Nauki Polskiej „Czysto fazowe kształtowanie impulsów światła do zastosowań w technologiach kwantowych” oraz od 2020 r. pracami grupy warszawskiej w międzynarodowym projekcie QuICHE (Quantum information & communication with high-dimensional encoding – Informacja kwantowa i komunikacja z wykorzystaniem kodowania o wysokiej wymiarowości) w ramach programu QuantERA Unii Europejskiej. Ponadto koordynuje Laboratoria Technologii Kwantowych w ramach projektu NLPQT.

Lokalizacja

Uniwersytet Warszawski, Wydział Fizyki

ul. Pasteura 5, budynek A

Pokój: 3.40

Linki zewnętrzne

Laboratorium Fotoniki Kwantowej - strona grupy badawczej

Projekty

Publikacje

2023 Nature Photonics

Interface between picosecond and nanosecond quantum light pulses
2023 Journal of Lightwave Technology

Precise on-chip spectral and temporal control of single-photon-level optical pulses
2023 Laser Science

Characterization of Energy-Time Entangled Photon Pairs by Time-Resolved Detection
2022 Physical Review Letters 129, 123605

Electro-optic Fourier transform chronometry of pulsed quantum light
2022 Arxiv

Aberration-Corrected Time Aperture of an Electro-Optic Time Lens
2021 Advanced Quantum Technologies 4, 2000150

Control and Measurement of Quantum Light Pulses for Quantum Information Science and Technology
2021 Smart Mater. Struct. 30, 125011

Actuator placement optimization for guided waves based structural health monitoring using fibre Bragg grating sensors
2020 Applied Physics Letters 116, 234003

Aperiodic electro-optic time lens for spectral manipulation of single-photon pulses
2020 Phys. Review Applied 14, 014052

Pure Single Photons From Scalable Frequency Multiplexing
2020 Sensors. 20(20)

A Two-Step Guided Waves Based Damage Localization Technique Using Optical Fiber Sensors
2019 Nature Photonics 13, 306

Shaking the phase of light
2018 J. Mod. Opt., 10.1080/09500340.2018.144480

Engineering the spectral and temporal properties of a GHz-bandwidth heralded single-photon source interfaced with an on-demand, broadband quantum memory
2018 J. Mod. Opt. 65, 262-267

Measurement of radio-frequency temporal phase modulation using spectral interferometry
2018 Optics Express 26, 31307-31316

Large-scale spectral bandwidth compression by complex electro-optic temporal phase modulation
2018 PHYSICAL REVIEW LETTERS 121, 083602

Measuring the Single-Photon Temporal-Spectral Wave Function
2018 PHYSICAL REVIEW A 98, 023840

Experimental single-photon pulse characterization by electro-optic shearing interferometry
2018 PHYSICAL REVIEW A 98, 023836

Entanglement swapping for generation of heralded time-frequency-entangled photon pairs
2018 J. Mod. Opt. 65, 262-267

Measurement of radio-frequency temporal phase modulation using spectral interferometry
2017 Nature Photon. 11, 53-57

Bandwidth manipulation of quantum light by an electro-optic time lens
2017 Opt. Express 25, 12804-12811

Pulsed single-photon spectrograph by frequency-to-time mapping using chirped fiber Bragg gratings
2017 Phys. Rev. Lett. 118, 023601

Spectral shearing of quantum light pulses by electro-optic phase modulation
2015 Optics Express 23, 10.1364/OE.23.033087

Scheme for on-chip verification of transverse mode entanglement using the electro-optic effect
2015 Phys.Rev. A 91, 033824

Generation of higher-dimensional modal entanglement using a three-waveguide directional coupler
2014 Opt. Express 22, 8624-8632

High-visibility nonclassical interference of photon pairs generated in a multimode nonlinear waveguide
2013 Nature Commun. 4, 2594

Quantum mechanical which-way experiment with an internal degree of freedom
2013 Laser Phys. 23, 025204

Experimental generation of complex noisy photonic entanglement
2012 Proc. SPIE 8518, 85180J

Generation of spatially pure photon pairs in a multimode nonlinear waveguide using intermodal dispersion
2012 Opt. Lett. 37, 878–880

Dispersion-based control of modal characteristics for parametric down-conversion in a multimode waveguide
2012 Optics Letters 37, 878-880

Dispersion-based control of modal characteristics for parametric down-conversion in multimode waveguide
2012 Proc. SPIE 8518, 1-5

Generation of spatially pure photon pairs in a multimode nonlinear waveguide using intermodal dispersion
2011 Opt. Express 19, 10351–10358

Photon coincidences in spontaneous parametric down-converted radiation excited by a blue LED in bulk LiIO₃ crystal
2011 Phys. Rev. Lett. 106, 030501

Experimental Extraction of Secure Correlations from a Noisy Private State
2010 Opt. Commun. 283, 713–718

Quantum and semiclassical polarization correlations
2009 Appl. Phys. Lett. 94, 181105

Experimental characterization of three-wave mixing in a multimode nonlinear KTiOPO4 waveguide
2008 J. Opt. Soc. Am. B 24, 668–673

Fiber-optic realization of anisotropic depolarizing quantum channels

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