Prof. Dr. rer. nat. Kurt Busch
Profil
Forschungsthemen14
Active Plasmonic Nano-Antennas for Generating, Detecting, and Converting Quantum Light
Quelle ↗Förderer: Einstein Stiftung Berlin Zeitraum: 07/2014 - 06/2017 Projektleitung: Prof. Dr. rer. nat. Kurt Busch
DFG-Sachbeihilfe: SiGeSn-Nanostrukturen für integrierte Quantentopf-Infrarot-Photodetektoren
Quelle ↗Förderer: DFG Sachbeihilfe Zeitraum: 03/2018 - 06/2020 Projektleitung: Prof. Christoph T. Koch, PhD, Prof. Dr. rer. nat. Kurt Busch
DFG-Sachbeihilfe: SiGeSn-Nanostrukturen für integrierte Quantentopf-Infrarot-Photodetektoren
Quelle ↗Förderer: DFG Sachbeihilfe Zeitraum: 03/2019 - 08/2020 Projektleitung: Prof. Dr. rer. nat. Kurt Busch, Prof. Christoph T. Koch, PhD
Durchstimmbarer oberflächenverstärkter Raman-Effekt an metallischen Nanostabensembles
Quelle ↗Förderer: DFG Sachbeihilfe Zeitraum: 08/2012 - 12/2015 Projektleitung: Prof. Dr. rer. nat. Kurt Busch
EU: Phononic Quantum Sensors for Gravity (PhoQuS-G)
Quelle ↗Förderer: Horizon 2020: Individual Fellowship EU (IF-EU) Zeitraum: 10/2019 - 09/2021 Projektleitung: Prof. Dr. rer. nat. Kurt Busch
Laser-geschriebene photonische Schaltkreise auf dem Chip für klassische und Quanten-Anwendungen
Quelle ↗Förderer: Leibniz-Gemeinschaft Zeitraum: 06/2020 - 11/2024 Projektleitung: Prof. Dr. rer. nat. Kurt Busch
Modellierung und Optimierung aktiver und schaltbarer Nano-Filme
Quelle ↗Förderer: Bundesministerium für Forschung, Technologie und Raumfahrt Zeitraum: 10/2016 - 09/2019 Projektleitung: Prof. Dr. rer. nat. Kurt Busch
Photonische Nano-Filme mit umfassender optischer Funktionalität
Quelle ↗Förderer: Bundesministerium für Forschung, Technologie und Raumfahrt Zeitraum: 10/2016 - 06/2020 Projektleitung: Prof. Dr. rer. nat. Oliver Benson
SFB 1375/1: Licht-induzierte Elektronendynamik in und um metallische Nanostrukturen (TP A03)
Quelle ↗Förderer: DFG Sonderforschungsbereich Zeitraum: 07/2019 - 06/2023 Projektleitung: Prof. Dr. rer. nat. Kurt Busch
SFB 1636/1: Steuerung chemischer Reaktionen durch propagierende Oberflächenplasmonpolaritonen (TP A06)
Quelle ↗Förderer: DFG Sonderforschungsbereich Zeitraum: 04/2024 - 12/2027 Projektleitung: Prof. Dr. rer. nat. Kurt Busch
SFB 951/1: HIOS - Theory of Active Hyperbolic Metamaterials and SPASER Action (TP B10)
Quelle ↗Förderer: DFG Sonderforschungsbereich Zeitraum: 01/2013 - 06/2015 Projektleitung: Prof. Dr. rer. nat. Kurt Busch
SFB 951/2: HIOS – Theorie der elektro-optischen und chiralen Kopplung in plasmonisch-verstärkten HIOS (TP B10)
Quelle ↗Förderer: DFG Sonderforschungsbereich Zeitraum: 07/2015 - 06/2019 Projektleitung: Prof. Dr. rer. nat. Kurt Busch
SFB 951/3: Theorie der elktro-optischen und chiralen Kopplung in plasmonisch-verstärkten HIOS (TP B10)
Quelle ↗Förderer: DFG Sonderforschungsbereich Zeitraum: 07/2019 - 06/2023 Projektleitung: Prof. Dr. rer. nat. Kurt Busch
SPP 1391: Klassische und Quanten-Hydrodynamische Modelle zur Berechnung der ultraschnellen nichtlinearen optischen Eigenschaften metallischer Nanostrukturen
Quelle ↗Förderer: DFG Schwerpunktprogramm Zeitraum: 02/2013 - 07/2016 Projektleitung: Prof. Dr. rer. nat. Kurt Busch
Mögliche Industrie-Partner10
Stand: 26.4.2026, 19:48:44 (Top-K=20, Min-Cosine=0.4)
- 149 Treffer63.6%
- Interfaces in opto-electronic thin film multilayer devicesP63.6%
- Interfaces in opto-electronic thin film multilayer devices
- 14 Treffer57.8%
- Zuwendung im Rahmen des Programms „exist – Existenzgründungen aus der Wissenschaft“ aus dem Bundeshaushalt, Einzelplan 09, Kapitel 02, Titel 68607, Haushaltsjahr 2026, sowie aus Mitteln des Europäischen Strukturfonds (hier Euro-päischer Sozialfonds Plus – ESF Plus) Förderperiode 2021-2027 – Kofinanzierung für das Vorhaben: „exist Women“T57.8%
- Zuwendung im Rahmen des Programms „exist – Existenzgründungen aus der Wissenschaft“ aus dem Bundeshaushalt, Einzelplan 09, Kapitel 02, Titel 68607, Haushaltsjahr 2026, sowie aus Mitteln des Europäischen Strukturfonds (hier Euro-päischer Sozialfonds Plus – ESF Plus) Förderperiode 2021-2027 – Kofinanzierung für das Vorhaben: „exist Women“
- 72 Treffer57.4%
- Lösung gekoppelter Probleme in der Nanoelektronik (nanoCOPS)P57.4%
- Lösung gekoppelter Probleme in der Nanoelektronik (nanoCOPS)
- 66 Treffer57.4%
- Lösung gekoppelter Probleme in der Nanoelektronik (nanoCOPS)P57.4%
- Lösung gekoppelter Probleme in der Nanoelektronik (nanoCOPS)
- 67 Treffer57.4%
- Lösung gekoppelter Probleme in der Nanoelektronik (nanoCOPS)P57.4%
- Lösung gekoppelter Probleme in der Nanoelektronik (nanoCOPS)
- 98 Treffer56.6%
- EU: Hybrid Organic/Inorganic Memory Elements for Integration of Electronic and Photonic Circuitry (HYMEC)P56.6%
- EU: Hybrid Organic/Inorganic Memory Elements for Integration of Electronic and Photonic Circuitry (HYMEC)
- 28 Treffer56.4%
- Optimierte Natrium-Feststoffbatterien mit neuen Anoden basierend auf KohlenstoffgerüststrukturenP56.4%
- Optimierte Natrium-Feststoffbatterien mit neuen Anoden basierend auf Kohlenstoffgerüststrukturen
- DYnamic control in hybrid plasmonic NAnopores: road to next generation multiplexed single MOlecule detectionP56.0%
- DYnamic control in hybrid plasmonic NAnopores: road to next generation multiplexed single MOlecule detection
- 50 Treffer55.6%
- Entwicklung von wenig löslichen, homodispers nanoskopischen Metallfluoriden in Zahnzementen, Kompositfüllmaterialien und in Prophylaxepräparaten zum Einsatz im DentalbereichP55.6%
- Entwicklung von wenig löslichen, homodispers nanoskopischen Metallfluoriden in Zahnzementen, Kompositfüllmaterialien und in Prophylaxepräparaten zum Einsatz im Dentalbereich
- 20 Treffer55.3%
- Embodied Audition for RobotSP55.3%
- Embodied Audition for RobotS
Publikationen25
Top 25 nach Zitationen — Quelle: OpenAlex (BAAI/bge-m3 embedded für Matching).
Nature Materials · 1075 Zitationen · DOI
Physical review. E, Statistical physics, plasmas, fluids, and related interdisciplinary topics · 876 Zitationen · DOI
We present a detailed study of photonic band structure in certain self-organizing systems that self-assemble into large-scale photonic crystals with photonic band gaps (PBGs) or pseudogaps in the near-visible frequency regime. These include colloidal suspensions, inverted opals, and macroporous silicon. We show that complete three-dimensional PBGs spanning roughly 10% and 15% of the gap center frequency are attainable by incomplete infiltration of an opal with silicon and germanium, respectively. The photonic band structure of both face center cubic and hexagonal close packed photonic crystals are evaluated. We delineate how the PBG is modified by sintering the opal prior to infiltration and by applying strain along various crystallographic directions. We evaluate the total photon density of states as well as the local density of states (LDOS) projected onto various points within the photonic crystal. It is shown that the LDOS may exhibit considerable pseudogap structure even for systems that do not exhibit a complete PBG. These results are directly relevant to quantum optical experiments in which atoms, dye molecules, or other active materials are inserted into specific locations within the photonic crystal. When the resonant optical transition of these dopants is tuned close to a pseudogap or other abrupt structure in the LDOS, novel effects in radiative dynamics associated with a ``colored vacuum'' may be realized.
Physical Review Letters · 744 Zitationen · DOI
We demonstrate that when an optically birefringent nematic liquid crystal is infiltrated into the void regions of an inverse opal, photonic-band-gap (PBG) material, the resulting composite material exhibits a completely tunable PBG. In particular, the three-dimensional PBG can be completely opened or closed by applying an electric field which rotates the axis of the nematic molecules relative to the inverse opal backbone. Tunable light localization effects may be realized by controlling the orientational disorder in the nematic.
Physics Reports · 434 Zitationen · DOI
Physical review. B, Condensed matter · 378 Zitationen · DOI
The photonic band gap of a two-dimensional photonic crystal is continuously tuned using the temperature dependent refractive index of a liquid crystal. Liquid crystal $E7$ was infiltrated into the air pores of a macroporous silicon photonic crystal with a triangular lattice pitch of 1.58 $\ensuremath{\mu}$m and a band gap wavelength range of 3.3--5.7 \ensuremath{\mu}m. After infiltration, the band gap for the H polarized field shifted dramatically to 4.4--6.0 \ensuremath{\mu}m while that of the E-polarized field collapsed. As the sample was heated to the nematic-isotropic phase transition temperature of the liquid crystal $(59\ifmmode^\circ\else\textdegree\fi{}\mathrm{C}),$ the short-wavelength band edge of the H gap shifted by as much as 70 nm while the long-wavelength edge was constant within experimental error. Band structure calculations incorporating the temperature dependence of the liquid crystal birefringence can account for our results and also point to an escaped-radial alignment of the liquid crystal in the nematic phase.
Advanced Functional Materials · 348 Zitationen · DOI
Abstract Recent progress in direct laser writing of three‐dimensional (3D) polymer nanostructures for photonics is reviewed. This technology has reached a level of maturity at which it can be considered as the 3D analogue of planar electron‐beam lithography. Combined with atomic‐layer deposition and/or chemical‐vapor deposition of dielectrics—the 3D analogues of planar evaporation technologies, the 3D polymer templates can be converted or inverted into 3D high‐refractive‐index‐contrast nanostructures. Examples discussed in this review include positive and inverse 3D silicon‐based woodpile photonic crystals possessing complete photonic bandgaps, novel optical resonator designs within these structures, 3D chiral photonic crystals for polarization‐state manipulation, and 3D icosahedral photonic quasicrystals. The latter represent a particularly complex 3D nanostructure.
Advanced Materials · 320 Zitationen · DOI
Photonic crystals can be thought of as optical analogues of semiconductors. Here recent advances in photonic crystals based on silicon are reviewed. After summarizing the theory of photonic bandgap materials, the preparation and linear optical properties of 1D, 2D, and 3D silicon-based photonic crystals are discussed. Laterally structured porous silicon with a defect line is shown in the Figure.
Applied Physics Letters · 312 Zitationen · DOI
We have fabricated a two-dimensional photonic band structure based on macroporous silicon with a gap common to both polarizations and centered at 5 μm. A triangular lattice of circular air rods with a lattice constant of 2.3 μm was etched 75 μm deep in an n-type silicon substrate by electrochemical pore formation in hydrofluoric acid. The porous layer was then micromechanically structured in such a way that 200 μm thick free-standing bars of porous material were left over on the silicon substrate. These bars were then used for measuring the transmission of the photonic lattice. The results showed an excellent agreement with the theoretically calculated structure.
Applied Physics Letters · 252 Zitationen · DOI
We fabricate three-dimensional photoresist templates by means of laser holography. In particular, fcc structures are achieved by placing a specially designed “prism” onto the photoresist surface. This solves the problem of previous work, in which the refraction at the air–photoresist interface made it impossible to obtain the required angles of the light wave vectors inside the photoresist. The photoresist templates are characterized by scanning electron microscopy as well as by optical transmission spectroscopy, which agree well with numerical band-structure calculations.
Physical Review Letters · 211 Zitationen · DOI
We present a detailed analysis of the dynamics of photon transport in waveguiding systems in the presence of a two-level system. In these systems, quantum interference effects generate a strong effective optical nonlinearity on the few-photon level. We clarify the relevant physical mechanisms through an appropriate quantum many-body approach. Based on this, we demonstrate that a single-particle photon-atom bound state with an energy outside the band can be excited via multiparticle scattering processes. We further show that these trapping effects are robust and, therefore, will be useful for the control of photon entanglement in solid-state based quantum-optical systems.
Physical Review A · 203 Zitationen · DOI
We present a formalism for the description of fluorescence from optically active materials embedded in a photonic crystal structure possessing a photonic band gap or pseudogap. An electromagnetic field expansion in terms of Bloch modes of the crystal is used to develop the equations for fluorescence in terms of the local density of photon modes available to the emitting atoms in either the high or low dielectric regions of the crystal. We then obtain expressions for fluorescence spectra and emission dynamics for luminescent materials in photonic crystals. The validity of our formalism is demonstrated through the calculation of relevant quantities for model photon densities of states. The connection of our calculations to the description of realistic systems is discussed. We also describe the consequences of these analyses on the accurate description of the interaction between radiative systems and the electromagnetic reservoir within photonic crystals.
Quantization of Quasinormal Modes for Open Cavities and Plasmonic Cavity Quantum Electrodynamics
2019Physical Review Letters · 196 Zitationen · DOI
We introduce a second quantization scheme based on quasinormal modes, which are the dissipative modes of leaky optical cavities and plasmonic resonators with complex eigenfrequencies. The theory enables the construction of multiplasmon or multiphoton Fock states for arbitrary three-dimensional dissipative resonators and gives a solid understanding to the limits of phenomenological dissipative Jaynes-Cummings models. In the general case, we show how different quasinormal modes interfere through an off-diagonal mode coupling and demonstrate how these results affect cavity-modified spontaneous emission. To illustrate the practical application of the theory, we show examples using a gold nanorod dimer and a hybrid dielectric-metal cavity structure.
Laser & Photonics Review · 170 Zitationen · DOI
Abstract This article reviews the state of the recently developed discontinuous Galerkin finite element method for the efficient numerical treatment of nanophotonic systems. This approach combines the accurate and flexible spatial discretisation of classical finite elements with efficient time stepping capabilities. We describe in detail the underlying principles of the discontinuous Galerkin technique and its application to the simulation of complex nanophotonic structures. In addition, formulations for both time‐ and frequency‐domain solvers are provided and specific advantages and limitations of the technique are discussed. The potential of the discontinuous Galerkin approach is illustrated by modelling and simulating several experimentally relevant systems.
Applied Physics Letters · 144 Zitationen · DOI
We report on the fabrication and optical characterization of a three-dimensional (3D) photonic crystal on the basis of macroporous silicon. The structure consists of a 2D array of air pores in silicon whose diameter is varied (modulated) periodically with depth. The bandstructure of the resulting 3D hexagonal photonic crystal is calculated and compared with transmission measurements. The described structure allows to adjust the dispersion relation along the pore axis almost independently from the dispersion relation in the plane perpendicular to the pore axis.
Journal of Lightwave Technology · 126 Zitationen · DOI
We describe the microfabrication and band structure of large scale three-dimensional (3D) photonic bandgap (PBG) materials based on self-organizing templates. The simplest of these templates is an fcc lattice of close-packed, weakly sintered spheres. Other templates include hcp and hexagonal AB/sub 2/ self-organizing photonic crystals. These photonic crystals may be converted into PEG materials by partially infiltrating the template with high refractive index semiconductors such as Si, Ge, or GaP and subsequently removing the template. The resulting "inverse opal" structure exhibits both a photonic pseudogap and a complete (3D) PBG in the near visible spectrum, spanning up to 15% of the gap center frequency. The local density of states (LDOS) for photons exhibits considerable variation from point to point in coordinate space and reveals large spectral gaps even in the absence of a PEG in the total density of states. These gaps in the LDOS may lead to novel effects in quantum and nonlinear optics when active atoms or molecules are placed within the PBG material. These effects include anomalous, low threshold nonlinear response, collective atomic switching, and low-threshold all-optical transistor action. When an optically birefringent nematic liquid crystal is infiltrated into the void regions of the "inverse" opal PBG material, the resulting composite material exhibits a completely tunable PBG. In particular, the 3D PBG can be completely opened or closed by applying an electric field which rotates the axis of the nematic molecules relative to the inverse opal backbone.
Physical review. E, Statistical physics, plasmas, fluids, and related interdisciplinary topics · 117 Zitationen · DOI
Using the exact theory of multipole expansions, we construct the two-dimensional Green's function for photonic crystals, consisting of a finite number of circular cylinders of infinite length. From this Green's function, we compute the local density of states (LDOS), showing how the photonic crystal affects the radiation properties of an infinite fluorescent line source embedded in it. For frequencies within the photonic band gap of the infinite crystal, the LDOS decreases exponentially inside the crystal; within the bands, we find "hot" and "cold" spots. Our method can be extended to three dimensions as well as to treating disorder and represents an important and efficient tool for the design of photonic crystal devices.
Journal of Physics Condensed Matter · 108 Zitationen · DOI
We introduce a novel approach to the accurate and efficient calculation of the optical properties of defect structures embedded in photonic crystals (PCs). This approach is based on an expansion of the electromagnetic field into optimally adapted photonic Wannier functions, which leads to effective lattice models of the PC structures. Calculations for eigenmode frequencies of simple and complex cavities as well as the dispersion relations for straight waveguides agree extremely well with the results from numerically exact supercell calculations. Similarly, calculations of the transmission through various waveguiding structures agree very well with the results of corresponding finite-difference time domain simulations. Besides being substantially more efficient than standard simulation tools, the Wannier function approach offers considerable insight into the nature of defect modes in PCs. With this approach, design studies and accurate simulation of optical anisotropic and non-linear defects as well as detailed investigations of disorder effects in higher-dimensional PCs become accessible.
Nature Photonics · 107 Zitationen · DOI
Optics Letters · 105 Zitationen · DOI
We study second-harmonic generation from gold split-ring resonators on a crystalline GaAs substrate. By systematically varying the relative orientation of the split-ring resonators with respect to the incident linear polarization of light and the GaAs crystallographic axes, we unambiguously identify a nonlinear contribution that originates specifically from the interplay of the local fields of the split-ring resonators and the bulk GaAs second-order nonlinear-susceptibility tensor. The experimental results are in good agreement with theoretical modeling.
Physical Review E · 101 Zitationen · DOI
We analyze the resonant linear and nonlinear transmission through a photonic crystal waveguide side-coupled to a Kerr-nonlinear photonic crystal resonator. First, we extend the standard coupled-mode theory analysis to photonic crystal structures and obtain explicit analytical expressions for the bistability thresholds and transmission coefficients which provide the basis for a detailed understanding of the possibilities associated with these structures. Next, we discuss limitations of standard coupled-mode theory and present an alternative analytical approach based on the effective discrete equations derived using a Green's function method. We find that the discrete nature of the photonic crystal waveguides allows a geometry-driven enhancement of nonlinear effects by shifting the resonator location relative to the waveguide, thus providing an additional control of resonant waveguide transmission and Fano resonances. We further demonstrate that this enhancement may result in the lowering of the bistability threshold and switching power of nonlinear devices by several orders of magnitude. Finally, we show that employing such enhancements is of paramount importance for the design of all-optical devices based on slow-light photonic crystal waveguides.
Physical Review A · 100 Zitationen · DOI
We analyze the role of quantum interference effects induced by an embedded two-level system on the photon transport properties in waveguiding structures that exhibit cutoffs (band edges) in their dispersion relation. In particular, we demonstrate that these systems invariably exhibit single-particle photon-atom bound states and strong effective nonlinear responses on the few-photon level. Based on this, we find that the properties of these photon-atom bound states may be tuned via the underlying dispersion relation and that their occupation can be controlled via multiparticle scattering processes. This opens an interesting route for controlling photon transport properties in a number of solid-state-based quantum optical systems and the realization of corresponding functional elements and devices.
Physical review. B, Condensed matter · 92 Zitationen · DOI
We apply a recently developed approach for calculating the transport properties of random media to the case of disordered arrays of parallel oriented and normally illuminated cylinders. Within this effective-medium theory resonant scattering of the individual scatterer is treated exactly, and by using a coated cylinder as the basic scattering unit, multiple scattering contributions are incorporated in a mean-field sense. In the long-wavelength limit we are able to calculate the effective dielectric constant analytically. We compare our findings with results for periodic systems. For both ``scalar'' and ``vector'' polarization, we reliably calculate the mean-free path, the transport velocity, and the diffusion coefficient for finite frequencies for all densities of scatterers and dielectric contrasts. Furthermore, within this effective-medium approach, we present our results for the localization parameter $\overline{k}{\mathcal{l}}_{\mathrm{t}}$ for both two- and three-dimensional systems, thereby identifying the optimal parameters for observing localization.
npj Quantum Information · 91 Zitationen · DOI
Abstract The quantum theory of electromagnetic radiation predicts characteristic statistical fluctuations for light sources as diverse as sunlight, laser radiation, and molecule fluorescence. Indeed, these underlying statistical fluctuations of light are associated with the fundamental physical processes behind their generation. In this contribution, we experimentally demonstrate that the manipulation of the quantum electromagnetic fluctuations of two-mode squeezed vacuum states leads to a family of quantum-correlated multiphoton states with tunable mean photon numbers and degree of correlation. Our technique relies on the use of conditional measurements to engineer the excitation mode of the field through the simultaneous subtraction of photons from two-mode squeezed vacuum states. The experimental generation of nonclassical multiphoton states by means of photon subtraction unveils novel mechanisms to control fundamental properties of light. As a remarkable example, we demonstrate the engineering of a quantum state of light with up to ten photons, exhibiting nearly Poissonian photon statistics, that constitutes an important step towards the generation of entangled lasers. Our technique enables a robust protocol to prepare quantum states with multiple photons in high-dimensional spaces and, as such, it constitutes a novel platform for exploring quantum phenomena in mesoscopic systems.
APL Photonics · 91 Zitationen · DOI
Providing efficient access from optical fibers to on-chip photonic systems is a key challenge for integrated optics. In general, current solutions allow either narrowband out-of-plane-coupling to a large number of devices or broadband edge-coupling to a limited number of devices. Here we present a hybrid approach using 3D direct laser writing, merging the advantages of both concepts and enabling broadband and low-loss coupling to waveguide devices from the top. In the telecom wavelength regime, we demonstrate a coupling loss of less than −1.8 dB between 1480 nm and 1620 nm. In the wavelength range between 730 nm and 1700 nm, we achieve coupling efficiency well above −8 dB which is sufficient for a range of broadband applications spanning more than an octave. The 3D couplers allow relaxed mechanical alignment with respect to optical fibers, with −1 dB alignment tolerance of about 5 µm in x- and y-directions and −1 dB alignment tolerance in the z-direction of 34 µm. Using automatized alignment, many such couplers can be connected to integrated photonic circuits for rapid prototyping and hybrid integration.
Physical review. E, Statistical physics, plasmas, fluids, and related interdisciplinary topics · 90 Zitationen · DOI
The radiation dynamics of a dipole antenna embedded in a photonic crystal are modeled by an initially excited harmonic oscillator coupled to a non-Markovian bath of harmonic oscillators representing the colored electromagnetic vacuum within the crystal. Realistic coupling constants based on the natural modes of the photonic crystal, i.e., Bloch waves and their associated dispersion relation, are derived. For simple model systems, well-known results such as decay times and emission spectra are reproduced. This approach enables direct incorporation of realistic band structure computations into studies of radiative emission from atoms and molecules within photonic crystals. We therefore provide a predictive and interpretative tool for experiments in both the microwave and optical regimes.
Kooperationen11
Bestätigte Forscher↔Partner-Paare aus HU-FIS — Gold-Standard-Positive für das Matching.
SFB 951/3: Theorie der elktro-optischen und chiralen Kopplung in plasmonisch-verstärkten HIOS (TP B10)
university
DFG-Sachbeihilfe: SiGeSn-Nanostrukturen für integrierte Quantentopf-Infrarot-Photodetektoren
university
SFB 1375/1: Licht-induzierte Elektronendynamik in und um metallische Nanostrukturen (TP A03)
university
SFB 951/3: Theorie der elktro-optischen und chiralen Kopplung in plasmonisch-verstärkten HIOS (TP B10)
other
SFB 951/3: Theorie der elktro-optischen und chiralen Kopplung in plasmonisch-verstärkten HIOS (TP B10)
other
DFG-Sachbeihilfe: SiGeSn-Nanostrukturen für integrierte Quantentopf-Infrarot-Photodetektoren
other
Laser-geschriebene photonische Schaltkreise auf dem Chip für klassische und Quanten-Anwendungen
other
Photonische Nano-Filme mit umfassender optischer Funktionalität
university
Photonische Nano-Filme mit umfassender optischer Funktionalität
university
SFB 951/3: Theorie der elktro-optischen und chiralen Kopplung in plasmonisch-verstärkten HIOS (TP B10)
university
SFB 1636/1: Steuerung chemischer Reaktionen durch propagierende Oberflächenplasmonpolaritonen (TP A06)
university
Stammdaten
Identität, Organisation und Kontakt aus HU-FIS.
- Name
- Prof. Dr. rer. nat. Kurt Busch
- Titel
- Prof. Dr. rer. nat.
- Fakultät
- Mathematisch-Naturwissenschaftliche Fakultät
- Institut
- Institut für Physik
- Arbeitsgruppe
- Theoretische Physik, Theoretische Optik
- Telefon
- +49 30 2093-82452
- HU-FIS-Profil
- Quelle ↗
- Zuletzt gescrapt
- 26.4.2026, 01:03:29