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Completed H2020 European Commission

Biomechanical Stimulation based on 4D Printed Magneto-Active Polymers

€1.5M EUR

Funder European Commission
Recipient Organization Universidad Carlos Iii de Madrid
Country Spain
Start Date Jan 01, 2021
End Date Dec 31, 2025
Duration 1,825 days
Number of Grantees 1
Roles Coordinator
Data Source European Commission
Grant ID 947723
Grant Description

MAPs are polymer-based composites that respond to magnetic fields with large deformation or tuneable mechanical properties.

I aim to apply heterogeneous 3D printed MAPs as modifiable substrates to support biological structures which can have their deformation state and stiffness controlled by the external application of magnetic stimuli.

Such mechanical stimulation has an important role on biological structures leading to alterations in functional responses, morphological changes and activation of growth or healing processes.

Current bottlenecks preventing progress in this field are a lack of: a) appropriate experimental methodologies to enable characterisation of the behaviour of these materials; b) fundamental theoretical underpinnings to support the design and application of these new materials.

The first step is to undertake in depth characterisation and assessment of 4D printed MAPs to create a detailed understanding of the underlying physics controlling the interactions between the polymeric matrices and embedded magnetic particles during application of mechanical and/or magnetic loadings.

I will then culture biological structures on the novel 4D printed MAPs to create a designed biostructure with specified and controllable responses to a given magnetic stimulus.

These novel biostructures will be assessed using three applications: a) astrocyte cellular networks, b) neuronal circuits and c) astrocyte-neuronal networks.

The evaluation of cellular damage, morphological and physiological alterations will validate the performance of the new biostructures and also contribute new understanding to the effects of deformation and stiffness gradients during glial scarring on physiological functions of central nervous system cells.

The resulting deep understanding of magneto-mechanics of MAPs and their further development for controllable stimulation devices, will enable the international consolidation of my research group within the mechanics and bioengineering fields.

All Grantees

Universidad Carlos Iii de Madrid

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