News

Nanofiber scaffolds demonstrate new features in the behaviour of stem and cancer cells

A discovery in the field of biomaterials may open new frontiers in stem and cancer cell manipulation and associated advanced therapy development.
Biomedical scaffold

Novel scaffolds are shown enabling cells to behave in a different but controlled way in vitro due to the presence of aligned, self-assembled ceramic nanofibers of an ultra-high anisotropy ratio augmented into graphene shells.

“This unique hybrid nano-network allows for an exceptional combination of selective guidance stimuli for stem cell development, variations in immune reactions, and behavior of cancer cells”, says Professor Michael Gasik from Aalto University.

These scaffolds, for example, were shown to be able to direct the preferential orientation of human mesenchymal stem cells, similarly to neurogenic lineage, to suppress of major inflammatory factors expression and to immobilize cancer cells.

The selective downregulation of specific inflammatory cytokines may be anticipated as a new tool for understanding the human immune system and ways of treating associated diseases. The effects observed are self-regulated by cells only, without the side effects usually arising from the use of external factors.

New scaffolds may help to control the fate of stem cells, such as development towards axons and neurites formation. This is important, for instance, in the development of Alzheimer’s disease therapy. The discovery may also be very useful in developing new cancer tumour models, understanding how cancer develops, and developing new cancer therapies.

Fluorescent images of breast carcinoma cell line showing the morphological changes of cells grown on vertical GAIN scaffolds.

The results of the study were published in Nature Scientific Reports. Aalto University made the study in collaboration with Protobios, CellIn Technologies, and Tallinn University of Technology.

For more information:

Professor Michael Gasik
Aalto University
michael.gasik@aalto.fi
Tel. +358 50 5609511 

Kazantseva, J. et al. Graphene-augmented nanofiber scaffolds demonstrate new features in cells behaviour. Sci. Rep. 6, 30150; doi: 10.1038/srep30150 (2016).

  • Updated:
  • Published:
Share
URL copied!

Read more news

Text 'Doc+ initiative' with colourful explosion on black background. Slogan: Your skills. Your path. Your impact.
Research & Art, Studies Published:

Enhancing doctoral researchers’ work-life skills – Join the DOC+ events

Doctoral student or postdoc, have you been pondering about building a meaningful doctoral career? Or about the future of AI in research and working life? These events and learning opportunities are for you!
A worker operates a tablet while a robotic arm welds metal, emitting sparks in an industrial setting.
Research & Art Published:

Specialised AI models could be Finland's next global export

Specialised, resource-efficient AI models could be the next competitive edge of our country, and a way to stand out among the use of large language models.
#65 in the world in business & economics THE World University Rankings 2026 by Subject on a yellow background.
Research & Art Published:

Business & economics and computer science ranked in top 100 globally

The Times Higher Education ranking measures universities with 18 indicators, including international research and citations
Unite! Seed Fund 2026 announcement with a small plant sprouting from soil. Call now open for student activities, teaching, and research.
Cooperation, Research & Art, Studies, University Published:

Unite! Seed Fund 2026: Open for applications

The 2026 Unite! Seed Fund call is officially open, offering funding across three strategic lines: Student Activities, Teaching and Learning, and Research and PhD. Deadline for applications is 20 March 2026.