{"id":1019,"date":"2023-12-07T13:03:48","date_gmt":"2023-12-07T12:03:48","guid":{"rendered":"https:\/\/www.module-qnc.de\/?page_id=1019"},"modified":"2024-11-05T09:07:19","modified_gmt":"2024-11-05T08:07:19","slug":"angebotskatalog","status":"publish","type":"page","link":"https:\/\/www.module-qnc.de\/en\/angebotskatalog\/","title":{"rendered":"Services"},"content":{"rendered":"
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Discover the innovative power of the Research Fab Microelectronics Germany \u2013 Module Quantum and Neuromorphic Computing (FMD-QNC). We support your developments in the quantum and neuromorphic computing field with a constantly growing range of future-oriented technologies. <\/p>\n\n\n\n

Some of our highlights:<\/h2>\n\n\n\n
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Ultra-low loss integrated photonic platform based on silicon nitride waveguides<\/div>
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low loss integrated photonic platform based on aluminum nitride<\/div>
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AlGaN Photonic Integrated Circuit for fast light switching and routing<\/div>
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Single-pass Lithium-niobate-on-insulator (LNOI) waveguide<\/div>
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LiNbO3 and Si3N4 waveguide circuits for optical qubit I\/O<\/div>
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LNOI resonators for efficient nonlinear frequency conversion<\/div>
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AlGaN bragg waveguide for efficient coupling to single photon emitters like defect centers or atoms<\/div>
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Diffractive metasurfaces for flat lenses and precise light shaping in confined configurations<\/div>
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Quantum-grade diamond grown via chemical vapor deposition<\/div>
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Quantum-grade diamond synthesis and doping <\/div>
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Quantum grade SiC epitaxy and generation of color centers<\/div>
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Diamond & silicon carbide nano-fabrication and integration of defect centers (N, Si, Ge, Sn-Vacancies)<\/div>
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Lens structures enhancing light coupling to color centers in SiC<\/div>
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Nitrogen-vacancy centers in quantum-grade diamond<\/div>
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Monolithic ion trap fabricated using Selective Laser-induced Etching (SLE) <\/div>
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Laser polishing to optical quality and laser welding of SLE manufactured glass components<\/div>
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Electro-optical circuit board \u2013 integration of optical waveguides and electrical conductors on glass<\/div>
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Back-end-of-line wafer technology for combining photonic integrated circuits with electronic components<\/div>
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Glass-based package for on-chip photonic quantum computing with neutral atoms in UHV<\/div>
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Full value-chain laser diode development based on GaAs & GaN<\/div>
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InP laser diodes, balanced detectors, SPAD diodes and SPAD detectors with high quantum efficiency<\/div>
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Full value-chain laser diode development based on GaAs & GaN<\/div>
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From customized laser diodes to micro integrated light control modules<\/div>
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Manufacturing processes for cryogenic qubit technologies on up to 300 mm wafer technology<\/div>
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Growth of CMOS compatible Si\/SiGe quantum heterostructures and their structural characterization (200 mm silicon wafers)<\/div>
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Fabrication of superconducting qubit chips, frontend & 3D heterointegration technologies<\/div>
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Superconducting metal coplanar waveguide resonator<\/div>
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E-beam structured resist for gate architecture of spin qubit shuttle<\/div>
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Etched electrodes architecture for spin qubit shuttle<\/div>
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Precisely controlled suspension of carbon nanotubes or graphene<\/div>
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Wafer-level processing of various metals, insulators, and supercon-ductors, e.g., for ion traps<\/div>
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Flexible, shielded and high density\u000bsuperconducting wiring for qubits<\/div>
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Cryogenic characterization of superconducting materials<\/div>
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Quantum Hall characterization of two-dimensional electron gases (2DEG) at 1.5 Kelvin and 12 Tesla<\/div>
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Microstructural and chemical analysis down to the atomic level with spectroscopic scanning TEM<\/div>
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Thermomechanical optimization for cryogenic packages & components. Design, simulation, test & validation<\/div>
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Multi-channel FPGA-based dynamical control for optical modulators (AOMs and EOMs)<\/div>
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Coherent multi-signal sources for qubit control and readout at cryogenic and room temperature<\/div>
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SiGe chip design chain for cryogenic control and readout electronics<\/div>
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Cryogenic electronics and characterization (4K)<\/div>
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Cryogenic low-noise amplifiers for qubit read-out (50 nm mHEMT)<\/div>
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Customizable and miniaturizable SPAD array detectors with lowest dark count rate and high sensitivity<\/div>
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Silicate and direct bonding for quantum optical components<\/div>
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Micromirror-based spatial light modulators for precise holographic beam shaping<\/div>
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Micromirror array allowing fast modulation of light in phase and intensity with high spatial resolution<\/div>
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Design of MEMS phase shifter for linear optical quantum computing<\/div>
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1D and 2D MEMS scanning mirrors for high laser power or large deflection angles<\/div>
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MEMS wafer-level free-form glass with optical quality, e.g. for vacuum packaging with getter integration<\/div>
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MEMS mirrors in hermetically sealed packages with through glass vias<\/div>
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MEMS device with wafer-level integrated NdFeB micromagnets<\/div>
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Superconducting micro bumps for high density integration<\/div>
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Massive parallel assembly of photonic devices via micro-transfer bonding with precise self-alignment<\/div>
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Broadband electro-magnetic shielding with high optical transmission for neutral atoms<\/div>
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Submicrometer-precise addressing unit for ions utilizing fibre coupled waveguide chip and micro-optics<\/div>
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Design, setup and qualification of laser beam shaping optics for QC<\/div>
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Submicrometer-precise addressing unit for ion trap quantum computer<\/div>
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TE&TM polarization maintaining laser setup, including auxiliary target for active beam (pre-)alignment<\/div>
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Do not hesitate to contact us to discuss your specific requirements. Together we will realize your visions for the computing of the future.<\/p>\n\n\n\n

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We support research groups, start-ups, and industry in developing hardware for quantum and neuromorphic computing with customized microelectronics, nanoelectronics, and photonics solutions.<\/p>\nDr. Tim Rom, FMD-QNC<\/cite><\/blockquote>\n\n\n\n

The Research Fab Microelectronics Germany FMD has launched its new extension module FMD-QNC, which supports the development of quantum computing and neuromorphic hardware in Germany and Europe. The consortium consists of 19 institutions, including institutes of the Fraunhofer-Gesellschaft and the Leibniz Association, as well as Forschungszentrum J\u00fclich and AMO GmbH. FMD-QNC offers research groups, start-ups, and industrial companies access to state-of-the-art microelectronic equipment and process know-how.<\/p>\n\n\n\n

FMD-QNC supports the development of a wide range of quantum and neuromorphic hardware approaches with customized technologies and processes from various fields, such as nanotechnology, microelectronics, optics, and photonics.<\/p>\n\n\n\n

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FMD-QNC supports a variety of platform technologies<\/strong>, including:<\/p>\n\n\n\n