B01 | Ultra-soft matrix composites for the 3D neuroglia in vitro research

Ultra-soft matrices are challenging for cell culture due to their poor structural properties. However, it is known that they promote excellent interconnection between neurons and create neural networks. This project proposes to use highly resolved 3D-printed structures to mechanically stabilize ultra-soft matrices so that 3D electrophysiology can be performed on neural networks. In line with neural networks, controlled migration of glioblastoma tumor cells through similar ultra-soft matrix/fiber composites will also be investigated so that neurons, astrocytes and tumor cells can be used in the future as an in vitro model for glioblastoma research.

Prof. Dr. Paul Dalton
Prof. Dr. Reiner Strick
Prof. Dr. Carmen Villmann 

Poster

Wieland A, Janzen D, Bakirci E, Schäfer N, Strissel PL, Strick R, Villmann C, Dalton P (2018) Ultra-soft Matrix Composites for 3D Neuroglia in vitro Research, Summer School “3D Printing Technologies”, 16 – 20 Jul 2018 (Würzburg, Germany)

Annalena Wieland

Previous academic education: Master of Science in Molecular Medicine
Academic Advisor within SFB TRR225: Prof. Dr.Reiner Strick
Location: University Hospital Erlangen, Department of Molecular Medicine
Topic of thesis: Ultra-soft matrix composites as three-dimensional models mimicking 3D glioblastoma in vitro.
Main techniques and methodologies to be used: Isolation and fractionation of human primary cells, cell culture, gene- and protein- expression analysis (ECM), proliferation- and migration assays.

Contact: Annalena.Wieland@uk-erlangen.de

Ezgi Bakirci

Previous academic education: Yildiz Technical University-Bioengineering, Sabanci University- Material Sciences and Engineering
Academic Advisor within SFB TRR225: Prof. Dr. Paul Dalton
Subproject: Ultra-soft matrix composite for 3D Neuroglia in vitro Research
Location: University of Würzburg, Department for Functional Materials in Medicine and Dentistry
Topic of thesis: Developing in vitro Culture System for Nerve Tissue Engineering Application using Melt Electrospinning Writing
Main techniques and methodologies to be used: Melt Electrospinning Writing, Hydrogel, Cell Culture

Contact: ezgi.bakirci@fmz.uni-wuerzburg.de

Concratulations to Ezgi Bakirci and Paul Dalton Project A04 & B01. Ezgi Bakirci won the IOP Biofabrication Best Presentation Award 2018 at the @utrechtsummer course 3D Printing & Biofabrication.

Dieter Janzen

Previous academic education: Master-Thesis
Academic Advisor within SFB TRR225: Prof. Dr. Carmen Villmann
Location: University Hospital of Würzburg, Institute for Clinical Neurobiology
Topic of thesis: 3D electrophysiology in ultra-soft matrices
Main techniques and methodologies to be used: Primary cell culture, 3D electrophysiology, Immunocytochemistry

Contact: janzen_d@ukw.de