Responsabile Scientifico

• RIMONDINI Lia (DSS)

Titolo del progetto

• MULTIFUNCTIONAL SELF-HEALING INJECTABLE HYDROGEL FOR CHRONIC WOUND HEALING AND TISSUE REGENERATION

Ente finanziatore

• 
  European Commission

Programma di finanziamento

• HORIZON EUROPE

Bando di riferimento

• HORIZON-CL4-2024-RESILIENCE-01-two-stage

Anno di presentazione del progetto

• 2024

Anno di approvazione del progetto

• 2024

Acronimo del progetto

• INJECTHEAL

Durata del progetto

• 36 mesi

Inizio del progetto

• 05/01/2025

Ente capofila

• UNIUPO - Universita Degli Studi del Università del Piemonte Orientale "Amedeo Avogadro"

Progetto approvato - Contributo unità di ricerca del Dipartimento

• €1.392.224,99

Sustainable Development Goals - Agenda 2030

Keyword

• Materials engineering
• tissue regeneration
• health economics
• multifunctional biomaterials
• wound care management
• Chronic wounds
• medical device
• injectable biomaterials

Stato del progetto

• Approvato

Abstract

• Chronic wounds affect over 305 million people worldwide, significantly reducing quality of life, accounting for 2-4% of EU healthcare costs. Current treatments for deep cavity chronic wounds lack a comprehensive strategy to tackle issues including wound reachability, infection control, inflammation reduction, vascularization, tissue regeneration and scalability. INJECTHEAL introduces a ground-breaking multi-functional, green 4D injectable self-healing hydrogel, based on functionalized pectin and gelatin, serving both as a delivery vehicle for therapeutics and a matrix to promote healing through its biomimetic properties and controlled bioresorption. The hydrogel platform includes antibacterial (e.g., octenidine), anti-inflammatory and pro-angiogenic (e.g., Ac2-26 peptide and siRNAs) agents, to provide effective formulations viable for industrial exploitation. Hydrogel properties are tailored by biocompatible poly(epsilon-lysine) dendrons allowing (i) fine tuning of hydrogel crosslinking degree and (ii) versatile bulk functionalization with bioligands to support cell adhesion, migration and angiogenesis. Immune-stealth polymeric microcapsules, embedded in the hydrogel, protect cell-targeted dendrons, loaded with sensitive agents, from enzymatic degradation enabling their controlled, sustained and precise delivery. Preclinical safety and efficacy assessment according to GLP are set with progressive complexity to reproduce human-relevant pathophysiological features of chronic wounds, from ISO standard in-vitro 2D cell trials and antimicrobial assays to novel in-vitro tests in proprietary human-relevant 3D skin models, human wound exudates and in-vivo animal chronic wound models. Scale-up production, business planning, consultation with key notified regulatory agencies and early involvement of end-users (incl. patients) will provide a preclinically-validated industrial socio-economical sustainable hydrogel platform ready for post-project first-in-man clinical trials.