Prof. Harald Schneider Profile

Prof. Harald Schneider

Department Head at Helmholtz-Zentrum Dresden-Rossendorf eV

SPIE Involvement:

Author

Publications (30)

Proceedings Article | 5 March 2021 Presentation

Presentation

Mid-infrared frequency combs based on semiconductor lasers

Benedikt Schwarz, Maximilian Beiser, Sandro Dal Cin, Johannes Hillbrand, Nikola Opacak, Gottfried Strasser, Harald Schneider, Marco Piccardo, Federico Capasso, Robert Weih

Proceedings Volume 11705, 117050S (2021) https://doi.org/10.1117/12.2582492

KEYWORDS: Frequency combs, Semiconductor lasers, Mid-IR, Quantum cascade lasers, Spectrometers, Picosecond phenomena, Modulators, Modulation, Integrated photonics, Integrated optics

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Proceedings Article | 20 August 2020 Presentation

Presentation

70-THz bandwidth from an Au-implanted Ge photoconductive emitter pumped by a mode-locked Er:fibre laser

Abhishek Singh, Alexej Pashkin, Stephan Winnerl, Malte Welsch, Cornelius Beckh, Philipp Sulzer, Alfred Leitenstorfer, Manfred Helm, Harald Schneider

Proceedings Volume 11499, 114990Z (2020) https://doi.org/10.1117/12.2568394

KEYWORDS: Terahertz radiation, Germanium, Systems modeling, Pulsed laser operation, Semiconductors, Absorption, Laser systems engineering, Gold, Antennas, Fiber lasers

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Proceedings Article | 10 March 2020 Presentation

Presentation

Picosecond pulses from an actively mode-locked quantum cascade laser (Conference Presentation)

Benedikt Schwarz, Johannes Hillbrand, Marco Piccardo, Aaron Maxwell Andrews, Hermann Detz, Harald Schneider, Gottfried Strasser, Federico Capasso

Proceedings Volume 11288, 112881O (2020) https://doi.org/10.1117/12.2546465

KEYWORDS: Quantum cascade lasers, Mode locking, Picosecond phenomena, Ultrafast phenomena, Mid-IR, Spectroscopy

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Proceedings Article | 21 February 2011 Paper

Paper

Ultrafast carrier capture and THz resonances in InGaAs quantum posts

D. Stehr, C. Morris, D. Talbalyev, M. Wagner, H. C. Kim, A. Taylor, H. Schneider, P. Petroff, M. Sherwin

Proceedings Volume 7937, 793703 (2011) https://doi.org/10.1117/12.874656

KEYWORDS: Terahertz radiation, Picosecond phenomena, Quantum wells, Gallium arsenide, Indium gallium arsenide, Luminescence, Quantum dots, Ultrafast phenomena, Absorption, Semiconductors

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Proceedings Article | 14 February 2011 Paper

Paper

Time resolved spectroscopy on quantum dots and graphene at the FELBE free-electron laser

S. Winnerl, D. Stehr, M. Wagner, H. Schneider, M. Helm, W. Seidel, P. Michel, E. Zibik, B. Carpenter, N. Porter, M. Skolnick, L. Wilson, T. Grange, R. Ferreira, G. Bastard, M. Orlita, P. Plochocka, P. Kossacki, M. Potemski, M. Sprinkle, C. Berger, W. de Heer

Proceedings Volume 7937, 793708 (2011) https://doi.org/10.1117/12.873702

KEYWORDS: Picosecond phenomena, Graphene, Phonons, Free electron lasers, Quantum dots, Terahertz radiation, Polarons, Acoustics, Near infrared, Indium gallium arsenide

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Proceedings Article | 20 May 2009 Paper

Paper

Large-area terahertz emitters based on GaInAsN

F. Peter, S. Winnerl, H. Schneider, M. Helm, K. Köhler

Proceedings Volume 7366, 73661R (2009) https://doi.org/10.1117/12.821483

KEYWORDS: Terahertz radiation, Gallium arsenide, Electrodes, Optical parametric oscillators, Electro optics, Absorption, Heterojunctions, Crystals, Indium, Nitrogen

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Proceedings Article | 20 May 2009 Paper

Paper

Terahertz emitters and detectors for radially and azimuthally polarized beams

S. Winnerl, B. Zimmermann, F. Peter, H. Schneider, M. Helm

Proceedings Volume 7366, 73661N (2009) https://doi.org/10.1117/12.821453

KEYWORDS: Terahertz radiation, Antennas, Sensors, Electrodes, Polarization, Destructive interference, Optical lithography, Picosecond phenomena, Optical testing, Wavelets

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Proceedings Article | 7 February 2009 Paper

Paper

Two color pump-probe studies of intraminiband relaxation in doped GaAs/AlGaAs superlattices

D. Stehr, M. Wagner, H. Schneider, M. Helm, A. Andrews, T. Roch, G. Strasser

Proceedings Volume 7214, 72141N (2009) https://doi.org/10.1117/12.809347

KEYWORDS: Electrons, Picosecond phenomena, Absorption, Superlattices, Free electron lasers, Temperature metrology, Scattering, Monte Carlo methods, Quantum wells, Infrared radiation

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Proceedings Article | 22 June 2007 Paper

Paper

Non-Gaussian noise in quantum wells

A. Ben Simon, Y. Paltiel, G. Jung, H. Schneider

Proceedings Volume 6600, 66000U (2007) https://doi.org/10.1117/12.723611

KEYWORDS: Quantum wells, Scattering, Resistance, Quantum well infrared photodetectors, Interference (communication), Signal to noise ratio, Gallium arsenide, Light scattering, Black bodies, Electrons

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Proceedings Article | 8 February 2007 Paper

Paper

Autocorrelation measurements of the FELBE free-electron laser and photocurrent saturation study in two-photon QWIPs

H. Schneider, O. Drachenko, S. Winnerl, M. Helm, M. Walther

Proceedings Volume 6471, 64710T (2007) https://doi.org/10.1117/12.701895

KEYWORDS: Free electron lasers, Quantum well infrared photodetectors, Picosecond phenomena, Quantum wells, Absorption, Interferometry, Sensors, Surface plasmons, Temperature metrology, Nonlinear optics

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Proceedings Article | 31 May 2005 Paper

Paper

Angular response of grating-coupled quantum well infrared photodetectors: an experimental study

J. Le Rouzo, I. Ribet-Mohamed, N. Guerineau, M. Tauvy, H. Schneider, T. Maier

Proceedings Volume 5783, (2005) https://doi.org/10.1117/12.603289

KEYWORDS: Quantum well infrared photodetectors, Etching, Diffraction gratings, Black bodies, Photodetectors, Infrared radiation, Polarization, Absorption, Cryogenics, Sensors

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Proceedings Article | 31 May 2005 Paper

Paper

Third generation focal plane array IR detection modules and applications

W. Cabanski, M. Munzberg, W. Rode, J. Wendler, J. Ziegler, J. Fleissner, F. Fuchs, R. Rehm, J. Schmitz, H. Schneider, M. Walther

Proceedings Volume 5783, (2005) https://doi.org/10.1117/12.605818

KEYWORDS: Stereolithography, Sensors, Quantum well infrared photodetectors, Mid-IR, Staring arrays, Long wavelength infrared, Missiles, Superlattices, Readout integrated circuits, Absorption

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The 3rd generation of infrared (IR) detection modules is expected to provide advanced features like higher resolution 1024x1024 or 1280x720 pixels and/or new functions like multicolor or multi band capability, higher frame rates and better thermal resolution. This paper is intended to present the current status at AIM on quantum well (QWIP) and antimonide superlattices (SL) detection modules for ground and airborne applications in the high performance range. For spectral selective detection, a QWIP detector combining 3-5μm (MWIR) and 8-10μm (LWIR) detection in each pixel with coincident integration has been developed in a 384x288x2 format with 40 μm pitch. Excellent thermal resolution with NETD < 30mK @ F/2, 6.8 ms for both peak wavelengths (4.8 μm and 8.0 μm) has been achieved. Thanks to the well established QWIP technology, the pixel outage rates even in these complex structures are below 0.5% in both bands. QWIP dual band or dual color detectors provide good resolution as long as integration times in the order of 5-10ms can be tolerated. This is acceptable for all applications where no fast motions of the platform or the targets are to be expected. For rapidly changing scenes-like e.g. in case of missile warning applications for airborne platforms-a material system with higher quantum efficiency is required to limit integration times to typically 1ms. AIM and IAF selected antimonide based type II superlattices (SL) for such kind of applications. The SL technology provides-similar to QWIP's-an accurate engineering of sensitive layers by MBE with very good homogeneity and yield. While promising results on single SL pixels have been reported since many years, so far no SL based detection module could be realized. IAF and AIM last year managed to realize first most promising SL based detectors. Fully integrated IDCA's with a MWIR SL device with 256x256 pixels in 40µm pitch have been integrated and tested. The modules exhibit excellent thermal resolution of NETD<10mk @ F/2 and 5ms. Product improvement meanwhile allowed to reduce pixel outage rates below 1% i.e. down to a level as required for the military use of such detectors. Presently under development is therefore a dual color MWIR device based on SL technology and the existing 384x288 read out circuit (ROIC) used in the dual band QWIP device. This detector is primarily intended for the use in missile approach warning systems where the dual color capability significantly improves suppression of false alarms. Details of the modules and results of the electrooptical performance will be presented for the different items mentioned above.

Proceedings Article | 7 April 2005 Paper

Paper

Infrared focal plane array based on MWIR/LWIR dual-band QWIPs: detector optimization and array properties

Harald Schneider, Thomas Maier, Joachim Fleissner, Martin Walther, Peter Koidl, Gunter Weimann, Wolfgang Cabanski, Marcus Finck, Peter Menger, Werner Rode, Johann Ziegler

Proceedings Volume 5726, (2005) https://doi.org/10.1117/12.591546

KEYWORDS: Quantum well infrared photodetectors, Mid-IR, Staring arrays, Long wavelength infrared, Sensors, Thermography, Detector arrays, Readout integrated circuits, Gallium arsenide, Infrared radiation

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Proceedings Article | 30 August 2004 Paper

Paper

Third-generation focal plane array IR detection modules and applications

Wolfgang Cabanski, Kurt Eberhardt, Werner Rode, Joachim Wendler, Johann Ziegler, Joachim Fleissner, Frank Fuchs, Robert Rehm, Johannes Schmitz, Harald Schneider, Martin Walther

Proceedings Volume 5406, (2004) https://doi.org/10.1117/12.542186

KEYWORDS: Stereolithography, Quantum well infrared photodetectors, Sensors, Mid-IR, Long wavelength infrared, Staring arrays, Superlattices, Readout integrated circuits, Quantum efficiency, Infrared detectors

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The 3rd generation of infrared (IR) detection modules is expected to provide advanced features like higher resolution 1024x1024 or 1280x720 pixels and/or new functionalities like multicolor or multi band capability, higher frame rates and better thermal resolution. This paper is intended to present the current status at AIM on the Mercury Cadmium Telluride (MCT), quantum well (QWIP) and antimonide superlattices (SL) detection modules for ground and airborne applications in the high performance range. For high resolution a 1280x720 MCT device in the 3-5μm range (MWIR) is presently under development. For spectral selective detection, a QWIP detector combining MWIR and 8-10μm (LWIR) detection in each pixel has been developed in a 384x288x2 format with 40 μm pitch, NETD < 35mK @ F/2, 6,8 ms for both peak wavelengths (4.8 μm and 8.0 μm). The device provides synchronous integration of both bands for temporal and spatial coincidence of the events observed. QWIP dual band or dual color detectors provide good resolution as long as integration times in the order of 5-10ms can be tolerated. This is acceptable for all applications where no fast motions of the platform or the targets are to be expected. For rapidly changing scenes - like e.g. in case of missile warning applications for airborne platforms - a material system with higher quantum efficiency is required to limit integration times to typically 1ms. For this case, several companies work on molecular beam epitaxy (MBE) of MCT to have access to double or multi layer structures. AIM and IAF selected antimonide based type II superlattices (SL) for such kind of applications. The SL technology provides -- similar to QWIP's -- an accurate engineering of sensitive layers by MBE with very good homogeneity and yield. While promising results on single SL pixels have been reported since many years, so far no SL based detection module could be realized. Just recently, IAF and AIM managed to realize first most promising SL based detectors. Fully integrated IDCAs with a MWIR SL device with 256 x 256 pixels in 40 μm pitch have been integrated and tested. The modules exhibit excellent thermal resolution of NETD > 12 mk @ F/2 and 5 ms. The next step will now be to stabilize the technology and to start the development of a dual color MWIR device based on SL technology and the existing 384 x 288 read out circuit (ROIC) used in the dual band QWIP device.

Proceedings Article | 23 January 2003 Paper

Paper

High-resolution QWIP FPAs for the 8- to 12-µm and 3- to 5-µm regimes

Harald Schneider, Joachim Fleissner, Robert Rehm, Martin Walther, Wilfried Pletschen, Peter Koidl, Guenter Weimann, Johann Ziegler, Rainer Breiter, Wolfgang Cabanski

Proceedings Volume 4820, (2003) https://doi.org/10.1117/12.451319

KEYWORDS: Quantum well infrared photodetectors, Mid-IR, Staring arrays, Long wavelength infrared, Sensors, Quantum efficiency, Quantum wells, Cameras, Thermography, Diffraction gratings

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Proceedings Article | 6 August 2002 Paper

Paper

Multicolor and dual-band IR camera for missile warning and automatic target recognition

Rainer Breiter, Wolfgang Cabanski, Karl-Heinz Mauk, Werner Rode, Johann Ziegler, Harald Schneider, Martin Walther

Proceedings Volume 4718, (2002) https://doi.org/10.1117/12.478815

KEYWORDS: Missiles, Mid-IR, Sensors, Quantum well infrared photodetectors, Thermography, Cameras, Optical filters, Infrared cameras, Automatic target recognition, Long wavelength infrared

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Proceedings Article | 5 August 2002 Paper

Paper

QWIP LWIR cameras with NETD<10 mK and improved low-frequency drift for long observation time in medicine and research

Wolfgang Cabanski, Rainer Breiter, Werner Rode, Johann Ziegler, Harald Schneider, Martin Walther, Mark Fauci

Proceedings Volume 4721, (2002) https://doi.org/10.1117/12.478843

KEYWORDS: Quantum well infrared photodetectors, Cameras, Infrared imaging, Thermography, Medical imaging, Medicine, Staring arrays, Infrared radiation, Imaging systems, Infrared cameras

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Proceedings Article | 10 October 2001 Paper

Paper

Third-generation focal plane array IR detection modules at AIM

Wolfgang Cabanski, Rainer Breiter, R. Koch, Karl-Heinz Mauk, Werner Rode, Johann Ziegler, Harald Schneider, Martin Walther, Reinhard Oelmaier

Proceedings Volume 4369, (2001) https://doi.org/10.1117/12.445314

KEYWORDS: Quantum well infrared photodetectors, Sensors, Mid-IR, Staring arrays, Nonuniformity corrections, Long wavelength infrared, Optical filters, Digital signal processing, Thermography, Electronics

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According to the common understanding, the 3rd generation of infrared (IR) detection modules is expected to provide advanced functionalities like more pixels, multicolor or multiband capability, higher frame rates and better thermal resolution. This paper is intended to present the present status at AIM on such technologies. A high speed device with 256 X 256 pixels in a 40μm pitch is designed to provide up to 800 Hz full frame rate with pixel rates as high as 80 Mpixels/s. The read out circuit is designed to stare while scan in a flash integration mode to allow nearly full frame integration for even 800 Hz frame rate. A miniaturized command and control electronics with 14 Bit deep digital output and a non uniformity correction board capable to take into account non linear self learning scene based correction models are developed together with the integrated detector cooler assembly (IDCA). As working horse for dual color/band capabilities, AIM has developed a sequential multi color module to provide customers with a flexible tool to analyze the pros and cons of spectral selective detection. The module is based on a 384x288 mercury cadmium telluride (MCT) detector available in the mid wave (MWIR) or long wave spectral band (LWIR). A rotating wheel with 4 facets for filters or microscanner plates provides spectral selectivity. AIM's programmable MVIP image processing is used for controlling the detector and for non uniformity correction. The MVIP allows set the integration time and NUC coefficients individually for each filter position for comparable performance to accurately evaluate the pay off of spectral selectivity in the IR. In parallel, a dual color detector FPA is under development. The FPA is realized as a MCT MWIR device, LWIR, however, is also doable. Dual color macro cells are realized with 192x192 pixels in a pitch of effectively 56 μm. The cell design provides, that both colors detect radiation from target points identical within the limited resolution of the optics to ensure coincident detection plus compensates the significant variation in photon flux of the different colors to output the analog signal at approximately the same level for good thermal resolution and correctability. The photovoltaic device is realized using AIM's mature liquid phase epitaxy. Since quantum well (QWIP) technology has proven state of the art results based on a well established material system, AIM is heading for QWIP devices for most affordable solutions in the MWIR/LWIR dual band applications. A summary of state of the art results achieved so far as basis for a QWIP dual band detector is presented.

Proceedings Article | 12 June 2001 Paper

Paper

Responsivity and gain in InGaAs/GaAs-QWIPs and GaAs/AlGaAs-QWIPs: a comparative study

Robert Rehm, Harald Schneider, K. Schwarz, Martin Walther, Peter Koidl, Guenter Weimann

Proceedings Volume 4288, (2001) https://doi.org/10.1117/12.429424

KEYWORDS: Quantum well infrared photodetectors, Gallium arsenide, Sensors, Doping, Quantum wells, Quantum efficiency, Mirrors, Solids, Black bodies, Imaging systems

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Proceedings Article | 15 December 2000 Paper

Paper

Low-noise QWIPs for FPA sensors with high thermal resolution

Harald Schneider, Martin Walther, Joachim Fleissner, Robert Rehm, E. Diwo, K. Schwarz, Peter Koidl, Guenter Weimann, Johann Ziegler, Rainer Breiter, Wolfgang Cabanski

Proceedings Volume 4130, (2000) https://doi.org/10.1117/12.409877

KEYWORDS: Quantum well infrared photodetectors, Sensors, Staring arrays, Cameras, Imaging systems, Quantum wells, Long wavelength infrared, Electrons, Gallium arsenide, Infrared sensors

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Proceedings Article | 17 July 2000 Paper

Paper

High-resolution focal plane array IR detection modules and digital signal processing technologies at AIM

Wolfgang Cabanski, Rainer Breiter, R. Koch, Karl-Heinz Mauk, Werner Rode, Johann Ziegler, Kurt Eberhardt, Reinhard Oelmaier, Harald Schneider, Martin Walther

Proceedings Volume 4028, (2000) https://doi.org/10.1117/12.391723

KEYWORDS: Quantum well infrared photodetectors, Mid-IR, Image filtering, Staring arrays, Sensors, Digital signal processing, Optical filters, Filtering (signal processing), Infrared imaging, Long wavelength infrared

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Full video format focal plane array (FPA) modules with up to 640 X 512 pixels have been developed for high resolution imaging applications in either mercury cadmium telluride (MCT) mid wave (MWIR) infrared (IR) or platinum silicide (PtSi) and quantum well infrared photodetector (QWIP) technology as low cost alternatives to MCT for high performance IR imaging in the MWIR or long wave spectral band (LWIR). For the QWIP's, a new photovoltaic technology was introduced for improved NETD performance and higher dynamic range. MCT units provide fast frame rates > 100 Hz together with state of the art thermal resolution NETD < 20 mK for short snapshot integration times of typically 2 ms. PtSi and QWIP modules are usually operated in a rolling frame integration mode with frame rates of 30 - 60 Hz and provide thermal resolutions of NETD < 80 mK for PtSi and NETD < 20 mK for QWIP, respectively. Due to the lower quantum efficiency compared to MCT, however, the integration time is typically chosen to be as long 10 - 20 ms. The heat load of the integrated detector cooler assemblies (IDCAs) could be reduced to an amount as low, that a 1 W split liner cooler provides sufficient cooling power to operate the modules -- including the QWIP with 60 K operation temperature -- at ambient temperatures up to 65 degrees Celsius. Miniaturized command/control electronics (CCE) available for all modules provide a standardized digital interface, with 14 bit analogue to digital conversion for state to the art correctability, access to highly dynamic scenes without any loss of information and simplified exchangeability of the units. New modular image processing hardware platforms and software for image visualization and nonuniformity correction including scene based self learning algorithms had to be developed to accomplish for the high data rates of up to 18 M pixels/s with 14-bit deep data, allowing to take into account nonlinear effects to access the full NETD by accurate reduction of residual fixed pattern noise. The main features of these modules are summarized together with measured performance data for long range detection systems with moderately fast to slow F-numbers like F/2.0 - F/3.5. An outlook shows most recent activities at AIM, heading for multicolor and faster frame rate detector modules based on MCT devices.

Proceedings Article | 30 March 2000 Paper

Paper

High-performance focal plane array modules for research and development

Rainer Breiter, Wolfgang Cabanski, Johann Ziegler, Martin Walther, Harald Schneider

Proceedings Volume 4020, (2000) https://doi.org/10.1117/12.381558

KEYWORDS: Quantum well infrared photodetectors, Thermography, Staring arrays, Image processing, Mid-IR, Sensors, Digital signal processing, Analog electronics, Nonuniformity corrections, Cameras

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Proceedings Article | 26 October 1999 Paper

Paper

High-speed photocurrent in quantum well infrared photodetectors

Harald Schneider, Peter Koidl, Martin Walther, Z. Lao, Michael Schlechtweg

Proceedings Volume 3794, (1999) https://doi.org/10.1117/12.366729

KEYWORDS: Quantum well infrared photodetectors, Picosecond phenomena, Heterodyning, Sensors, Amplifiers, Gallium arsenide, Infrared radiation, Signal detection, Field effect transistors, Optical amplifiers

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Proceedings Article | 26 October 1998 Paper

Paper

III-V semiconductor quantum well and superlattice detectors

Martin Walther, Frank Fuchs, Harald Schneider, Joachim Fleissner, J. Schmitz, Wilfried Pletschen, Juergen Braunstein, Johann Ziegler, Wolfgang Cabanski, Peter Koidl, Guenter Weimann

Proceedings Volume 3436, (1998) https://doi.org/10.1117/12.328032

KEYWORDS: Sensors, Staring arrays, Quantum well infrared photodetectors, Cameras, Gallium arsenide, Quantum wells, Diodes, Thermography, Long wavelength infrared, Chemical elements

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Proceedings Article | 26 August 1997 Paper

Paper

Dynamical aspects of carrier transport in quantum well intersubband photodetectors

Harald Schneider, Stefan Ehret, G. Bihlmann, Gerhard Boehm

Proceedings Volume 3182, (1997) https://doi.org/10.1117/12.280425

KEYWORDS: Quantum wells, Photodetectors, Infrared detectors, Picosecond phenomena

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Proceedings Article | 19 April 1996 Paper

Paper

Photocurrent anomaly in double-barrier quantum well structures

Stefan Ehret, Harald Schneider, Eric Larkins

Proceedings Volume 2694, (1996) https://doi.org/10.1117/12.238391

KEYWORDS: Quantum wells, Gallium arsenide, Electrons, Absorption, Quantum well infrared photodetectors, Photovoltaics, Solids, Sensors, Modulation, Silicon

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Proceedings Article | 3 September 1992 Paper

Paper

Interaction of Wannier-Stark ladders in GaAs-AlAs superlattices observed by electroreflectance

Udo Behn, Holger Grahn, Harald Schneider, Klaus Ploog

Proceedings Volume 1675, (1992) https://doi.org/10.1117/12.137620

KEYWORDS: Superlattices, Quantum wells, Physics, Spectroscopy, Modulation, Dielectrics, Oscillators, Temperature metrology, Phase shift keying, Solids

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Proceedings Article | 3 September 1992 Paper

Paper

Franz-Keldysh oscillations and Wannier-Stark localization in GaAs/AlAs superlattices

Harald Schneider, A. Fischer, Klaus Ploog

Proceedings Volume 1675, (1992) https://doi.org/10.1117/12.137625

KEYWORDS: Stereolithography, Superlattices, Absorption, Quantum wells, Physics, Gallium arsenide, Excitons, Spectroscopy, Diodes, Semiconductors

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Proceedings Article | 1 October 1990 Paper

Paper

Optical detection of resonant tunneling in GaAs/AlAs superlattices

Harald Schneider, Holger Grahn, K. Klitzing, Klaus Ploog

Proceedings Volume 1283, (1990) https://doi.org/10.1117/12.20723

KEYWORDS: Stereolithography, Superlattices, Physics, Luminescence, Spectroscopy, Gallium arsenide, Electron transport, Absorption, Diodes, Time resolved spectroscopy

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Proceedings Article | 1 October 1990 Paper

Paper

Miniband transport in GaAs-AlAs superlattices

Holger Grahn, Harald Schneider, Klaus von Klitzing, Klaus Ploog

Proceedings Volume 1283, (1990) https://doi.org/10.1117/12.20728

KEYWORDS: Superlattices, Scattering, Physics, Temperature metrology, Semiconductors, Statistical modeling, Solids, Nanoelectromechanical systems, Diodes, Semiconductor lasers

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Showing 5 of 30 publications

Conference Committee Involvement (1)

Infrared Photoelectronics

30 August 2005 | Warsaw, Poland

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