VIVA-SAX: Validierung einer 96-Wellplatten-Implementierung
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Chair of Biophotonics/Physical Engineering
Prof. Dr Richard Börner is Professor of Biophotonics/Physical Engineering at the Faculty Engineering Sciences at Mittweida University of Applied Sciences and heads the Biophotonics Research Group at the Laser Institute of Mittweida University of Applied Sciences. After studying Medical Physics at Martin Luther University Halle-Wittenberg, he completed his PhD at the University of Lübeck in the field of single-molecule spectroscopy. He then conducted research as a postdoctoral fellow and later as head of a sub-group specialising in single-molecule FRET at the University of Zurich.
Richard Börner has been working at Mittweida University of Applied Sciences since 2019. His research combines single-molecule fluorescence spectroscopy, FRET-based structural biology, laser measurement technology, instrument development and computer-aided data analysis. A particular focus is on the investigation of biomolecular structures and dynamics, especially of RNA, as well as on the development of new Biophotonics measurement and analysis methods.
In his teaching and research, he bridges the gap between physics, photonics, biophysics and applied engineering. His research group develops experimental and data-driven methods for modern fluorescence microscopy, single-molecule measurements and Biophotonics applications.
Teaching responsibilities and areas of research
A physicist by profession, Richard Börner’s research focuses on the dynamic process by which a linear RNA molecule, following synthesis, assumes its specific, functional three-dimensional structure – the kinetics of RNA folding. In his work, he utilises a wide variety of microscopy techniques to visualise movements and changes, and to apply the findings in a targeted manner. His research group reports on the latest progress in the development of the MASH-FRET software package for analysing single-molecule videos on GitHub: github.com/RNA-FRETools/MASH-FRET.
Career
Degree
Chemnitz University of Technology
Graduate Engineer (Dipl.-Ing.) in Mechanical Engineering, specialising in machine tools and applied mechanics
A-levels
Olbernhau Grammar School
Teaching post
Chemnitz University of Technology for the department of
"Machine Tools – Properties Analysis"
PhD
Chemnitz University of Technology
Thesis topic: ‘Extending the operational limits for clamping highly loaded, elongated workpieces’
Research Assistant at Chemnitz University of Technology
Project Engineer, ‘New Technologies’, ESKA Automotive GmbH
Professor of Design Engineering (CAE Techniques and FEM)
Teaching responsibilities and areas of research
A physicist by profession, Richard Börner’s research focuses on the dynamic process by which a linear RNA molecule, following synthesis, assumes its specific, functional three-dimensional structure – the kinetics of RNA folding. In his work, he utilises a wide variety of microscopy techniques to visualise movements and changes, and to apply the findings in a targeted manner. His research group reports on the latest progress in the development of the MASH-FRET software package for analysing single-molecule videos on GitHub: github.com/RNA-FRETools/MASH-FRET.
Career
Degree
Chemnitz University of Technology
Graduate Engineer (Dipl.-Ing.) in Mechanical Engineering, specialising in machine tools and applied mechanics
A-levels
Olbernhau Grammar School
Teaching post
Chemnitz University of Technology for the department of
"Machine Tools – Properties Analysis"
PhD
Chemnitz University of Technology
Thesis topic: ‘Extending the operational limits for clamping highly loaded, elongated workpieces’
Research Assistant at Chemnitz University of Technology
Project Engineer, ‘New Technologies’, ESKA Automotive GmbH
Professor of Design Engineering (CAE Techniques and FEM)
Projects
WIR-DIANA-Education for Point of Care Technology
VIVA-SAX: Validierung einer KHZ-Lasersteuerung
RNA Dynamik mithilfe von smFRET und nsFCS aufklären und in hybride RNA Strukturmodelle integrieren (RNAdyn)
Innovationscluster HSMW 2023, AP03: Integration der kHz und MHz Steuerung in ein modulares Fluoreszenzlesegerät
Publications
Combining UV-vis Absorption and FRET melting curves to screen the thermodynamic stability and folding pathways of NAs in vitro
FAMP: A Software Framework for FRET-Based Integrative Modeling of RNA
FRET-guided selection of RNA 3D structures
Site-Specific Dual-Color Labeling of Long RNAs
FRET-guided selection of RNA 3D structures