Research in this area focuses on materials for hard tissue replacement and generally engaged in an eminently structural function. These tasks include both mechanical characterization, microstructural and chemical fabrics and materials and the development of new materials and bioactive surfaces.
Development of biomaterials for tissue and organs regeneration/functional repair. It requires the design of materials able to modulate the response of the desired tissue leading, in some cases, to the regeneration and formation of the degraded tissues, or to the perfect integration of the biomaterial and the recovery of the lost functionality.
- Injectable calcium phosphates for bone replacement and regeneration
- Metallurgy and coatings
- Shape memory alloys (low elastic modulus alloys for the manufacture of implants and prostheses)
- New biomaterials from biodegradable compounds for bone regeneration
- Bioactive surfaces on titanium and its alloys
- Cell bioengineering
- Cell cultures
- Biodegradable scaffolds
- Surface characterization
RELATED PROJECTS
- The Biological Treatment of Gaseous Pollutants and Odours Group (BIOGAP) at UPC is participating in the BIOMETCRI project, which aims to implement an innovative biotechnological process to recycle batteries from electric and hybrid vehicles, recovering valuable metals such as cobalt, lithium, nickel, and manganese.
- The Biomaterials, Biomechanics, and Tissue Engineering (BBT) Research Group at the Institute for Health Research and Innovation (IRIS) of the Universitat Politècnica de Catalunya – BarcelonaTech (UPC) is leading DYNAMIC, a project aimed at creating multifunctional, stimuli-responsive biomaterials that not only promote bone regeneration but also intelligently and effectively combat bacterial infections.
- The Group of Environmental Engineering and Microbiology (GEMMA) at UPC is leading the PROALGAE project, aimed at producing new alternative proteins from biomass derived from microalgae and cyanobacteria cultivated using by-products from the agri-food industry. These alternative proteins aim to provide a sustainable ingredient to meet the growing global demand for protein, applicable in the development of food and feed.
- The technology of the CP4C project, based on hydrogels treated with plasma gas, is being developed by the team of researchers at the PlasmaMedLab and the Biomaterials, Biomechanics and Tissue Engineering Group (BBT) of CREB at the UPC. CP4C is one of the University projects that has obtained a grant from Barcelona Deep Tech Node to accelerate its launch on the market.
