New project builds on CoEBoC success in brain cancer modeling

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3D human coculture model that mimics interactions between glioblastoma cells and neurons. Made with Biorender.com

CoEBoC researchers have gained significant funding in tackling challenges of hard-to-treat gliomas. The new project marks an important step forward in translating the consortium’s foundational work into focused disease modeling applications.

Doctoral Researcher Lotta Isosaari has been awarded three years of research funding from the Finnish Cultural Foundation and one year of funding from the Instrumentarium Science Foundation, and Postdoctoral Researcher Uzma Hasan has received one year of funding from Wihuri Foundation to advance research on modeling Glioma-Brain interactions using organ-on-chip techniques. Both researchers are working in NeuroGroup led by PI Adj. Prof. Susanna Narkilahti at Faculty of Medicine and Health Technology (MET) at Tampere University.

 

Lotta and Uzma
Postdoctoral Researcher Uzma Hasan (left) and Doctoral Researcher Lotta Isosaari (right) at the Cancer Neuroscience Conference, celebrating new funding for the project on modeling Glioma-Brain interactions using organ-on-chip techniques.

 

The new project emerges as a continuation of the work carried out within the Centre of Excellence in Body-on-Chip Research (CoEBoC). This has also facilitated new collaborative actions in MET, namely with groups of Adj. Prof. Kirsi Rautajoki and Adj. Prof. Joonas Haapasalo in tackling challenges of hard-to-treat gliomas, initially supported by MET bequest funding 2024.

Building on recent breakthroughs of modelling tumor microenvironment

Earlier this year, the team published a significant study of a novel 3D human coculture model that mimics interactions between glioblastoma cells and neurons. The work, co-authored by Nanna Förster, Lotta Isosaari and colleagues from Tampere University, was published in The FASEB Journal titled Functional 3D Human Neuron–Glioblastoma Model Reveals Cellular Interactions Enabling Drug Safety Assessments. The model revealed how both functional neuron-glioblastoma connections and paracrine signaling in the tumor microenvironment supports glioblastoma progression and demonstrated the selective efficacy of temozolomide in inhibiting tumor invasion while preserving neuronal integrity.

Looking ahead

This new project continues to explore glioblastoma-brain interactions using advanced organ-on-chip platforms, aiming to develop more predictive models for therapeutic testing and deepen our understanding of tumor biology in the central nervous system.