UPV Leads Development of Smart Hydrogel for Faster Bone Fracture Treatment

The European project Hydroheal, coordinated by UPV's CBIT, aims to improve recovery from vertebral and alveolar fractures with less invasive solutions.

Generic image of an intelligent hydrogel with luminous particles for bone regeneration.
IA

Generic image of an intelligent hydrogel with luminous particles for bone regeneration.

A team from the Polytechnic University of Valencia (UPV), through its Centre for Biomaterials and Tissue Engineering (CBIT), is coordinating the European project Hydroheal, which is developing a novel smart hydrogel to accelerate bone fracture treatment.

The main objective of Hydroheal is to offer a faster, safer, and less invasive solution for treating bone fractures, reducing current complications such as rejection or infections and promoting bone tissue regeneration. The project brings together 13 partners from 7 European countries.
This new smart hydrogel will focus on treating vertebral and alveolar fractures, particularly those resulting from trauma, osteoporosis, or cancer. Its application will be simple: it will be injected directly into the affected area.

"Bone fractures today represent one of the biggest health challenges in Europe. They severely affect the quality of life for millions of people each year and test healthcare systems. Current treatments can lead to complications like rejection or infections and do not facilitate bone regeneration, which is precisely what we aim to avoid with our project: offering personalized and less invasive solutions that promote faster and safer recovery."

Piergiorgio Gentile · Researcher at CBIT UPV and leader of Hydroheal
The hydrogels will be loaded with smart particles containing drugs for bone regeneration and antibacterial agents to prevent infections. The project also incorporates artificial intelligence and digital modeling tools to test its efficacy before in vitro and in vivo trials.
Currently, the team is working on the first phase of hydrogel formulation, which will subsequently be evaluated to validate its safety and efficacy before moving to larger-scale production. The project, funded by the European Commission with nearly 6.5 million euros, began in June 2025 and will conclude in 2029. It involves universities and research centres from the United Kingdom, Italy, Ireland, Spain, Cyprus, and Portugal.