Smart nanogels of bio-based antimicrobials to prevent urinary tract infections by disrupting inter- and intra-species communication of pathogens - SMARTGEL

Project summary

Urinary catheters often lead to urinary tract infections (UTIs), which are responsible for increased mortality, and multi-billion euro public health economic burden. Most of the available at the market antibacterial coatings feature low durability and development of antimicrobial resistance. SMARTGEL will address the existing gaps to control catheter-associated UTIs by developing smart bio-based nanogels with antifouling, antibacterial and antibiofilm activities for coating of urinary catheters while maintaining the urinary tract physiological function in an inter- and transdisciplinary approach. SMARTGEL will adopt RRI principles to assess the impact of the materials on the society, considering the environmental, societal, cultural, ethical and the political dimension of the research. The dissemination and communication plan will ensure that SMARTGEL results reach the most relevant stakeholders. Automotive and construction sectors may also benefit from SMARTGEL outcomes.

Project Details

Call

Call 2023


Call Topic

Advanced materials and technologies for health applications


Project start

01.05.2024


Project end

01.05.2027


Total project costs

830.603 €


Total project funding

741.353 €


TRL

2 - 4


Coordinator

Dr. Kristina Ivanova

Universitat Politecnica de Catalunya, CALLE JORDI GIRONA 31, 08034 BARCELONA, Spain


Partners and Funders Details

Consortium Partner   Country Funder
Universitat Politecnica de Catalunya
https://www.upc.edu
University Spain ES-AEI
Dunarea de Jos University of Galati
https://www.en.ugal.ro
University Romania RO-UEFISCDI
Sofia University
https://www.uni-sofia.bg
University Bulgaria BG-BNSF
Medical University of Bialystok
https://www.umb.edu
University Poland PL-NCN
Azrieli College of Engineering in Jerusalem
https://www.jce.ac
University Israel IL-MOST IL

Keywords

antimicrobial resistance, medical device, nanostructured materials, stimuli responsive materials, drug delivery systems, in silico techniques, homesotatic renewal