Exploring Brain Mechanics
@ebmresearch.bsky.social
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Official account of the Collaborative Research Center (CRC 1540) Exploring Brain 🧠 Mechanics funded by @dfgpublic.bsky.social @fau.de Charité Berlin Universität Bonn MPI Light Homepage: https://www.crc1540-ebm.research.fau.eu/
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ebmresearch.bsky.social
☀️ On Sept 28, EBM members & families met at the Entlas-Keller in Erlangen. Sunshine, Franconian food, and good company made for a relaxed afternoon to reconnect after summer and recharge before the busy months ahead. Thanks to all who came by! 🍻
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💻 Mathar Kravikass (C01) showed a model of how neurons interact with different extracellular matrix environments, offering insights into network development.

📸 Stefan Rampp
ebmresearch.bsky.social
At the 15th EBM (Post)Doctoral Researchers' seminar on September 18th, two projects were presented.

🧠 Stefan Rampp (A02) presented how cortical malformations can be characterized by neuroimaging and linking these findings to brain tissue mechanics.
ebmresearch.bsky.social
From left to right: Aldo R. Boccaccini, Prof. Nicholas Dunne (President of the ESB), and Prof. Maria Pau Ginebra (Chair of the ESB Awards Committee). (Copyright: European Society for Biomaterials, ESB)

www.crc1540-ebm.research.fau.eu/2025/09/10/p...
ebmresearch.bsky.social
A global authority in bioactive materials, tissue engineering, and nanomaterials, he has authored 1,100+ papers and mentored 70+ PhDs. His visionary research in ceramics, glasses and composites has helped shape modern biomaterials science.

Many congratulations – such a well-deserved honor!
ebmresearch.bsky.social
We are proud to announce that our PI, Prof. Aldo R. Boccaccini, has received the prestigious George Winter Award from the European Society for Biomaterials (ESB), honoring pioneers whose work has made lasting contributions to biomaterials.
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Want to stay updated on future talks? Sign up for our mailing list for regular invitations and Zoom links: lists.fau.de/cgi-bin/list... (unsubscribe anytime).
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📩 To receive the Zoom link, contact EBM coordinator Andrea Dakkouri-Baldauf at [email protected].

Join us on the translational journey in neurosurgery and discover how research shapes patient care!
ebmresearch.bsky.social
Upcoming EBM Virtual Brain Talk 🧠

We are excited to announce our next virtual brain talk:
"There and back again - The translational journey in modern Neurosurgery"

Speaker: Prof. Dr.med. Oliver Schnell (UKER, Germany)
📅 22.09.2025
⏰ 4:00 PM (CEST)
💻 Online via Zoom
ebmresearch.bsky.social
Using our recently developed "Mean Zero Artificial Diffusion" approach, we have successfully captured the behavior of aggregate formation and obtained an equilibrium state consistent with experimental observations.
ebmresearch.bsky.social
In our project C01, we proposed a nonlinear continuum mechanics framework to model the physics of cellular aggregate formation.
ebmresearch.bsky.social
Collaborative work involving several projects in the consortium has already established the composition of the extracellular matrix as a determinant of the mechanical properties of spinal cord lesions.
ebmresearch.bsky.social
Using genetic manipulations, project B05 investigates a link between the mechanical and biochemical properties of spinal cord lesions and axon regeneration in zebrafish.
ebmresearch.bsky.social
We want to find out how astrocytes sense mechanical changes of spinal cord tissue and how this influences disease progression in this mouse model of MS.
ebmresearch.bsky.social
In project B04, we study the impact of mechanobiology on the pathology of multiple sclerosis (MS). The mechanosensory ion channel Piezo1 (red) is upregulated on astrocytes (green) in a mouse model of MS.
ebmresearch.bsky.social
This is achieved through the combined application of Brillouin microscopy and atomic force microscopy (AFM)-enabled indentation measurements.
ebmresearch.bsky.social
B03 aims to investigate the mechanical phenotype of the central nervous system (CNS) at the cellular and tissue-wide levels following targeted manipulations, utilizing in vivo and in vitro models.
ebmresearch.bsky.social
B02 focuses on understanding the mechanical properties of the spinal cord in Xenopus laevis using advanced techniques such as atomic force microscopy (AFM) and Brillouin microscopy.
ebmresearch.bsky.social
Thereby, we addressed the long-standing problem of inconsistent mechanical responses when characterizing brain tissue with different experimental techniques. Read here: doi.org/10.1016/j.jm...
ebmresearch.bsky.social
By combining the mechanical responses in a hyper-viscoelastic model, we demonstrate that the frequency-dependent behavior can be inferred from the material's time response.
ebmresearch.bsky.social
🧠 A new exciting paper from our EBM scientists: In this study, a brain phantom material was characterized in the time domain using a rheometer in the mid-frequency range at a vibration table and in the high-frequency range with tabletop magnetic resonance elastography.
ebmresearch.bsky.social
The microscopy image was created in collaboration with Nora John from the research group of Daniel Wehner (B05).
ebmresearch.bsky.social
To this end, we use the morphological changes of zebrafish spinal cord tissue during post-injury remodeling as a bridge to connect the mechanical stimuli of the regeneration-promoting processes with growth modeling and simulation based on the Finite Element Method.
ebmresearch.bsky.social
Project B01 aims to understand the complex mechanical signature of spinal cord tissue before and after injury to develop continuum models that simulate the process of successful regeneration.
ebmresearch.bsky.social
In vivo model to study the mechanics of developmental brain disorders: Project A05 investigates how specific somatic mutations affect the mechanical properties of developing brain tissue.