Current Research and Network Projects

EID

Development of a method to control cell growth and protein/cell layers in hollow fiber bioreactors by impedance spectroscopy

MOEBIUS

Development of a multiadaptive micro-opto-electronic bragg sensor system for fluid analysis (“lab on a chip”)

EID - Development of a method to control cell growth and protein/cell layers in hollow fiber bioreactors by impedance spectroscopy
Project partner:

  • Universitätsklinikum Würzburg – Lehrstuhl Tissue Engineering und Regenerative Medizin (TERM)
  • Unterauftragnehmer: IncuReTERM GmbH

The aim of the project is to research a continuous method for monitoring hollow fiber reactors. For this purpose, an interdisciplinary consortium of technology developers and research service providers has come together, which wants to apply an innovative and cost-effective measurement method in the field of hollow fiber reactors based on impedance spectroscopy.

MOEBIUS: Development of a multiadaptive micro-opto-electronic bragg sensor system for fluid analysis (“lab on a chip”)
Project partner:

  • STEHA-Elektronik GmbH, 63856 Bessenbach
  • Hochschule Aschaffenburg, AG Angewandte Lasertechnik und Photonik, 63743 Aschaffenburg

Description of the project:

Within the BMBF project MOEBIUS a stand-alone micro-opto-electronic system for versatile sensor applications in the fields of biomedicine, process engineering as well as environmental analytics is invented. The highly interdisciplinary project tasks comprise the design and development of an innovative lab-on-a-chip concept based on bio-selectively coated optical Bragg grating sensors together with an optoelectronic interrogation device including an end-user-friendly graphical unit interface.

Benefiting from the combined advantages of microfluidics, integrated optics and spectroscopy, the system simultaneously provides quick and ultra-precise measurements of multiple fluid parameters while only using minimum sample volumina. Manifold application potentials in terms of point-of-care diagnostics in particular promise vast and attractive impacts on current state-of-the-art fluid analysis.