MSCA programme in HE

Marie Skłodowska-Curie Actions

The Marie Skłodowska-Curie Actions fund excellent research and innovation and equip researchers at all stages of their career with new knowledge and skills, through mobility across borders and exposure to different sectors and disciplines. The MSCA help build Europe’s capacity for research and innovation by investing in the long-term careers of excellent researchers.

The MSCA also fund the development of excellent doctoral and postdoctoral training programmes and collaborative research projects worldwide. By doing so, they achieve a structuring impact on higher education institutions, research centres and non-academic organisations.

The MSCA promote excellence and set standards for high-quality researcher education and training in line with the European Charter for Researchers and the Code of Conduct for the recruitment of researchers.

There are 5 types of MSCA targeting different objectives.

  • Doctoral Networks (DN)
    Supporting programmes to train doctoral candidates in academic and non-academic organisations.
  • Postdoctoral Fellowships (PF)
    Supporting career perspectives and excellence of postdoctoral researchers.
  • Staff Exchanges (SE)
    Encouraging collaborations between organisations through staff exchanges.
  • COFUND
    Co-funding of regional, national and international programmes.
  • MSCA and Citizens
    Bringing research and researchers closer to the public at large.

More information on the Marie Skłodowska-Curie Actions is available here.

MSCA Doctoral Networks (DN) Projects

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MSCA Postdoctoral Fellowships (PF) projects

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MSCA COFUND projects

4D BIOGEL: 3D and 4D Bioprinting - Additive Manufacturing of Smart Biodegradable Hydrogels

Specific programme: Marie Sklodowska-Curie Individual Fellowships (IF)
UPV/EHU Partner Status: Coordinator
UPV/EHU PI: Haritz Sardon
Project start: 01/06/2019
Project end: 31/05/2022

Brief description: The controlled behaviour of biological systems in response to external stimuli is ubiquitous in nature and perceived as a key requirement for the development of advanced functional materials. A good example found in nature is the so-called “sensitive plant” (Mimosa) that responds to touch by rapidly closing its leaves, as a defense mechanisms against herbivores. This quick response to touch is due to rapid water release from specialized cells located at the leaves. In attempt to mimic nature, 4D-BIOGEL project aims to combine new fully biodegradable water-filled hydrogels with additive manufacturing or 3D printing to design smart materials that can undergo a temporal change in their shape under the influence of an external stimulus, giving a 4th dimension to the previously designed 3D object. Light-sensitive structures activated by near-infrared (NIR) are especially appealing, since light can be conveniently pinpointed to the location of interest with the maximum depth of penetration and the minimum damage of tissues. To obtain NIR-sensitive hydrogels, nanoparticles capable of converting light into heat will be incorporated into the hydrogel matrix to afford small volume contraction-expansion changes on demand. This advanced technology offers great potential for the creation of sophisticated dynamic structures with high resolution that could find application not only in regenerative medicine or drug-delivery, but also in robotics or bioelectronics.