Robin Bayer
Current Organizations / Institutes
The organizations/institutes from the scholar's latest article
Research Subjects
Robin Bayer has a total of 6 co-authors. Here are the top co-authors by number of shared publications:
- Aysegül Temiz Artmann
Center of Competence for Bioengineering, University of Applied Sciences Aachen, Medical and Biological Laboratory, Jülich, Germany
1 shared publication Gerhard Artmann
Institute for Bioengineering, University of Applied Science Aachen, Jülich, Germany
1 shared publicationIlya Digel
Institute for Bioengineering, University of Applied Science Aachen, Jülich, Germany
1 shared publicationJulia Falkenstein
Institute for Bioengineering, University of Applied Science Aachen, Jülich, Germany
1 shared publicationJürgen Hescheler
Institute for Neurophysiology, University Cologne, Cologne, Germany
1 shared publicationTill Creutz
Institute for Bioengineering, University of Applied Science Aachen, Jülich, Germany
1 shared publication
Latest Publications
- Open Access
- 17 April 2020
- Published by Cell Physiol Biochem Press GmbH and Co KG in Cellular Physiology and Biochemistry
- Vol. 54 (3) , 371-383
Mechano-Pharmacological Testing of L-Type Ca2+ Channel Modulators via Human Vascular Celldrum Model
This study aimed to establish a precise and well-defined working model, assessing pharmaceutical effects on vascular smooth muscle cell monolayer in-vitro. It describes various analysis techniques to determine the most suitable to measure the biomechanical impact of vasoactive agents by using CellDrum technology. The so-called CellDrum technology was applied to analyse the biomechanical properties of confluent human aorta muscle cells (haSMC) in monolayer. The cell generated tensions deviations in the range of a few N/m² are evaluated by the CellDrum technology. This study focuses on the dilative and contractive effects of L-type Ca2+ channel agonists and antagonists, respectively. We analyzed the effects of Bay K8644, nifedipine and verapamil. Three different measurement modes were developed and applied to determine the most appropriate analysis technique for the study purpose. These three operation modes are called, particular time mode" (PTM), "long term mode" (LTM) and "real-time mode" (RTM). It was possible to quantify the biomechanical response of haSMCs to the addition of vasoactive agents using CellDrum technology. Due to the supplementation of 100nM Bay K8644, the tension increased approximately 10.6% from initial tension maximum, whereas, the treatment with nifedipine and verapamil caused a significant decrease in cellular tension: 10nM nifedipine decreased the biomechanical stress around 6,5% and 50nM verapamil by 2,8%, compared to the initial tension maximum. Additionally, all tested measurement modes provide similar results while focusing on different analysis parameters. The CellDrum technology allows highly sensitive biomechanical stress measurements of cultured haSMC monolayers. The mechanical stress responses evoked by the application of vasoactive calcium channel modulators were quantified functionally (N/m²). All tested operation modes resulted in equal findings, whereas each mode features operation-related data analysis.
- 17 April 2020
- Published by Cell Physiol Biochem Press GmbH and Co KG in Cellular Physiology and Biochemistry
- Vol. 54 (3) , 371-383
Open AccessMechano-Pharmacological Testing of L-Type Ca2+ Channel Modulators via Human Vascular Celldrum Model
This study aimed to establish a precise and well-defined working model, assessing pharmaceutical effects on vascular smooth muscle cell monolayer in-vitro. It describes various analysis techniques to determine the most suitable to measure the biomechanical impact of vasoactive agents by using CellDrum technology. The so-called CellDrum technology was applied to analyse the biomechanical properties of confluent human aorta muscle cells (haSMC) in monolayer. The cell generated tensions deviations in the range of a few N/m² are evaluated by the CellDrum technology. This study focuses on the dilative and contractive effects of L-type Ca2+ channel agonists and antagonists, respectively. We analyzed the effects of Bay K8644, nifedipine and verapamil. Three different measurement modes were developed and applied to determine the most appropriate analysis technique for the study purpose. These three operation modes are called, particular time mode" (PTM), "long term mode" (LTM) and "real-time mode" (RTM). It was possible to quantify the biomechanical response of haSMCs to the addition of vasoactive agents using CellDrum technology. Due to the supplementation of 100nM Bay K8644, the tension increased approximately 10.6% from initial tension maximum, whereas, the treatment with nifedipine and verapamil caused a significant decrease in cellular tension: 10nM nifedipine decreased the biomechanical stress around 6,5% and 50nM verapamil by 2,8%, compared to the initial tension maximum. Additionally, all tested measurement modes provide similar results while focusing on different analysis parameters. The CellDrum technology allows highly sensitive biomechanical stress measurements of cultured haSMC monolayers. The mechanical stress responses evoked by the application of vasoactive calcium channel modulators were quantified functionally (N/m²). All tested operation modes resulted in equal findings, whereas each mode features operation-related data analysis.