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In the Photonic Systems research unit at Silicon Austria Labs we develops advanced optical and photonic technologies across the full innovation chain, from concept to industrial prototypes. Our expertise includes the design, simulation, and integration of micro- and macro-optical systems, such as MEMS/MOEMS components and photonic packaging.
A major focus is imaging and spectroscopy for high-resolution analysis, process monitoring, and data-driven interpretation across scales. We also advance laser technologies, including compact high-power systems, beam shaping, and optical metrology for industrial and aerospace applications.
In emerging areas like quantum and non-linear spectroscopy, our team develops ultrafast measurement methods and quantum sensing solutions. Strong capabilities in system integration, electronics, and real-time data processing enable the delivery of fully functional demonstrators.
Supported by specialized labs and tools, our interdisciplinary team ensures precise validation and optimization, providing scalable photonic solutions for next-generation sensing and analytical applications.
Imaging & Advanced Spectroscopy
Advanced optical imaging and spectroscopic techniques for material analysis and characterization across micro- and macro-scales. This includes data analysis, modelling, and interpretation for applications such as process monitoring and quality control. A main topic is nonlinear spectroscopy with the ability to selectively probe ultrafast dynamics and interactions in materials (e.g. metrology/QC for semiconductors).
Photonic System Solutions
End-to-end development of photonic systems, including design, system integration and electronic development. The focus is on translating concepts into application-ready system solutions, supported by advanced simulation tools (e.g., ray tracing, multi domain, etc.). This enables optimization and validation of photonic components and systems before prototyping.
Quantum Technologies
Development of quantum sensing technologies (e.g., based on NV centers), enabling highly sensitive and time-resolved measurements for advanced scientific and industrial applications. This is e.g. relevant for ion traps, because they use precisely controlled trapped ions to enable high-fidelity operations for quantum computing, simulation and sensing.
Laser Applications
Design and development of miniaturized high-power laser systems, including beam shaping, optical metrology, and laser-based processing tools for industrial and scientific use.
Compact MEMS LiDAR systems for high-resolution environmental sensing
Highly sensitive photonic sensors for detecting gases and chemicals
Fiber-based laser ignition technologies for reliable and reusable space propulsion systems
Imaging and Spectroscopy for Precise Material Analysis and Quality Assurance