Cooperations
- European Quantum Flagship Projects
MoSaiQC
Modular Systems for Advanced Integrated Quantum Clocks
QIA – Phase 1
Quantum Internet Alliance – Phase 1
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Millenion
Advancing Europe’s quantum computers with trapped ions
PASQuanS2
Programmable atomic large-scale quantum simulation
- Projects funded by German Ministry of Education and Research (BMBF)
6G-ADLANTIK
New laser architectures to utilize the terahertz frequency range for 6G communications
Sixth-generation mobile communications (6G) will enable completely new application scenarios in industry, medical technology and everyday life. This will be accompanied by new requirements in terms of latency or the transmittable data rate, which cannot be met by current communication systems.
QuNET + LORELAY
Low-noise and reliable laser sources for continuous-variable quantum key distribution
The aim of the LORELAY project (which is part of the German-funded QuNET initiative) is to realize integrated, low-noise laser modules for continuous-variable quantum-key-distribution (CV-QKD) systems.
- German Quantum Technology Projects
MUNIQC-Atoms
MQV Neutral-Atom Quantum Computing Demonstrator
FermiQP
Fermion Quantum Processor
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QRydDemo
Quantum Computer with Rydberg Atoms
Click here for more information or see the project homepage.
IQuAn
Ion Quantum Processor with HPC Connection
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HiPEQ
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QGrad
Quantum Gradiometers for Geoexploration
The goal of this research project is the development of a highly-sensitive magnetic field sensor on a drone. The sensor is based on an optically pumped magnetometer which will include a compact and robust laser system from TOPTICA with a high absolute wavelength accuracy.
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QUANCER
Quantum-enhanced microscope for tumor diagnostic
The goal of this research project is to develop an imaging system which exploits quantum entanglement to achieve a higher signal-to-noise ratio than conventional microscopes.
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QSPEC
The QSPEC project aims to use quantum technology to develop a new, cost-effective and highly sensitive method for analyzing food content and origin, combating fraud that can cause economic damage and health risks.
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- Projects funded by the European Union
POLYNICES
POLYmer based electro-optic PCB motherboard integration with Si3N4 Chiplets, InP Components and Electronic ICs enabling affordable photonic modules for THz Sensing and quantum computing applications.
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- Projects funded by German Ministry of Economic Affairs and Climate Action (BMWK)
microSPIN
Micro Surface Plasmon Resonance Spectroscopy Imaging Sensor System II
The aim of this research project is the development of an integrated MOEMS sensor platform, which uses the principle of surface plasmon resonance imaging (SPR-i) to track changes in the chemical composition of different liquids both in real time and inline.
- Projects funded by Bavarian Ministry of Economic Affairs, Regional Development and Energy
DigiQuant
Digitization of laser technology for quantum applications
In the DigiQuant project, TOPTICA develops the basis for the digitalization and miniaturization of today's largely analog controlled laser diode technology for quantum and terahertz applications. This will enable the implementation of complex laboratory technology in portable and robust devices with high wall plug efficiency for industrial use. In order to strengthen the technological sovereignty of Bavaria, new laser diodes will be developed together with OSRAM, which are suitable for hybrid integration of photonic waveguides and digital control electronics at TOPTICA. In parallel, the miniaturization of electronics in integrated circuits for digitized operation of any material class laser diodes from diverse manufacturers will be investigated with Fraunhofer IIS.
- Projects funded by ZIM (Zentrales Innovationsprogramm Mittelstand)
SEMICON
Analysis of semiconductors using terahertz radiation
This project aims to demonstrate contactless and non-destructive mapping of semiconductor properties using terahertz radiation. The core of the inspection system is a fast dual-channel terahertz spectrometer based on ECOPS technology synchronized with a sample positioning system. A model-based data analysis algorithm is developed to extract semiconductor parameters of individual sample layers.
- Advisory boards
www.cleoconference.org
info@cleoconferenc.org - Corporate Memberships
- Technical Cooperations
Entitled for research and development incentivation from the state of Germany (BSFZ)
