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  1. Friedrich-Alexander-Universität
  2. Technische Fakultät
  3. Department Chemie- und Bioingenieurwesen
Friedrich-Alexander-Universität Department Chemical and Biological Engineering
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  4. Optical Technologies

Optical Technologies

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    • Energy Technologies
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    • Optical Technologies

Optical Technologies

Researchers

  • apl. Prof. Dr.-Ing. habil. Stefan Becker
  • Prof. Dr. Dr. Oliver Friedrich
  • Prof. Dr.-Ing. habil. Andreas Paul Fröba
  • Prof. Dr. Marco Haumann
  • Prof. Robin N. Klupp Taylor, MEng, DPhil (Oxon)
  • Prof. Dr.-Ing. Wolfgang Peukert
  • Prof. Dr. rer. nat. Nicolas Vogel
  • Prof. Dr.-Ing. Michael Wensing
  • Prof. Dr. habil. Andreas Wierschem
  • Prof. Dr.-Ing. Stefan Will

Optical technologies

Advanced optical technologies play a vital role in the in-depth understanding of systems and processes in chemical and energy engineering and biotechnology, enabling comprehensive characterisation without disturbing the system or process. They can be used to provide essential information on properties of fluids, complex molecules, particles and tissue and enable in-process monitoring ranging from the nanoscale to large-scale industrial processes in real time.

Methods (Scope)

At the Department CBI a large variety of optical techniques are developed and applied to gain deeper insight into systems and processes. They encompass a wide range of various light scattering and spectroscopic techniques, including different variants of Raman, absorption and fluorescence spectroscopy, light-sheet and imaging techniques and multiphoton methods. These are often combined with additional approaches to obtain further information, e.g., using specialized microscopy, tomographic methods and dedicated fibre-optics.

Highlights (Scientific scope)

The activities of the department CBI on Optical Technologies are centrally integrated into the corresponding research focus at FAU and closely linked to the Erlangen Graduate School in Advanced Optical Technologies (SAOT), the Optical Imaging Center Erlangen (OICE) and the CRC 1411 “Design of Particulate Products”, among others. The methods developed allow for the highly accurate determination of thermophysical properties, minimally invasive tissue imaging, monitoring of chemical reactions, reactive flows and particle formation processes, design of materials with defined optical properties, to name just a few of the many scientifically and technically relevant achievements at CBI.

Laser-based investigation of combustion processes (Image: LTT/FAU)
View into an SLS measuring cell with an incident laser beam that strikes the phase boundary between a vapor and a liquid phase. Rayleigh scattered light is visible for the latter (Image: M. Gmelch/FAU)
Surface light scattering (Image: SLS) for the determination of viscosity and interfacial tension of working fluids relevant for process and energy engineering (Image: M. Gmelch/FAU)
Laser spectroscopy (Image: LTT/FAU)
Optical high-speed diagnostics of flames (Image: LTT/FAU)
Tomographic investigation of soot formation (Image: LTT/FAU)
Light scattering patterns of nanoaggregates and droplets (Image: LTT/FAU)
A novel multiphoton endomicroscopy technique enables in vivo label-free colonoscopy (Image: MBT/FAU)
Label-free multiphoton microscopy in a fresh tissue biopsy of healthy human colon (Image: MBT/FAU)
Structural color emerges as a collective property of assemblies of colloidal particles (Image: LFG/FAU)
Sedimentation analytics toolbox for multidimensional particle property characterization (Image: LFG/FAU)
Photonic Crystal Fibers for monitoring of chemical reactions (Image: CRT/FAU)
Laser-based investigation of combustion processes (Image: LTT/FAU)
View into an SLS measuring cell with an incident laser beam that strikes the phase boundary between a vapor and a liquid phase. Rayleigh scattered light is visible for the latter (Image: M. Gmelch/FAU)
Surface light scattering (Image: SLS) for the determination of viscosity and interfacial tension of working fluids relevant for process and energy engineering (Image: M. Gmelch/FAU)
Laser spectroscopy (Image: LTT/FAU)
Optical high-speed diagnostics of flames (Image: LTT/FAU)
Tomographic investigation of soot formation (Image: LTT/FAU)
Light scattering patterns of nanoaggregates and droplets (Image: LTT/FAU)
A novel multiphoton endomicroscopy technique enables in vivo label-free colonoscopy (Image: MBT/FAU)
Label-free multiphoton microscopy in a fresh tissue biopsy of healthy human colon (Image: MBT/FAU)
Structural color emerges as a collective property of assemblies of colloidal particles (Image: LFG/FAU)
Sedimentation analytics toolbox for multidimensional particle property characterization (Image: LFG/FAU)
Photonic Crystal Fibers for monitoring of chemical reactions (Image: CRT/FAU)

 

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Department Chemical and Biological Engineering
Immerwahrstr. 2a
91058 Erlangen
Germany
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