Restoring the structural collagen network in the regeneration of cartilage

Re-COLL aims to develop durable implants for damaged joints by engineering anisotropic collagen networks through biofabrication and in vitro models, enhancing tissue regeneration and stability.

Subsidie
€ 2.500.000
2024

Projectdetails

Introduction

How can we durably regenerate damaged tissues in our body? At present, the answer to this question is largely unknown. Cell-based tissue engineering approaches can be used to produce living implants in the laboratory with a composition that is not unlike real tissues.

Challenges in Tissue Engineering

However, the collagen-based matrix within such structures often lacks the specific intricate organisation that is imperative for the required biomechanical properties, functionality, and mechanical stability. This is the cause of our inability to provide a durable cure for damaged tissues that are mechanically challenged, such as articular cartilage.

Project Goals

In Re-COLL, I aim to unravel the triggers that underlie the formation, guidance, and integration of the structural anisotropic collagen networks in articular cartilage. I will leverage biofabrication technologies and biointerface engineering to generate durable implants for the restoration of damaged joints.

Research Approach

With my multidisciplinary team, I will identify the (bio)chemical, physical, and mechanical factors that can influence the formation and integration of the engineered collagen network. For this purpose, I will create unique in vitro and ex vivo models specifically designed for studying the organisation of anisotropic collagen networks in cartilage tissue.

Expected Outcomes

With the generated new insights, I will engineer larger tissue grafts that allow the guidance of the structural collagen organisation, as well as its integration within the recipient. To delineate the interplay between the anisotropic collagen networks and tissue function, I will extensively evaluate the performance of cartilage grafts at the tissue and organ level.

Conclusion

Through Re-COLL, I will advance the scientific field of orthopaedic regeneration by tackling major gaps in knowledge and technology to set the fundamentals for engineering more functional and stable biosimilars that can restore tissue anisotropy in patients.

Financiële details & Tijdlijn

Financiële details

Subsidiebedrag€ 2.500.000
Totale projectbegroting€ 2.500.000

Tijdlijn

Startdatum1-9-2024
Einddatum31-8-2029
Subsidiejaar2024

Partners & Locaties

Projectpartners

  • UNIVERSITAIR MEDISCH CENTRUM UTRECHTpenvoerder
  • UNIVERSITEIT UTRECHT

Land(en)

Netherlands

Vergelijkbare projecten binnen European Research Council

ERC Advanced...

ENGINEERING CELLULAR SELF‐ORGANISATION BY CONTROLLING THE IMMUNO-MECHANICAL INTERPLAY

This project aims to reduce scarring in bone regeneration by engineering synthetic immune-mechanical niches to enhance cell self-organization and matrix formation, improving healing outcomes.

€ 2.490.725
ERC Consolid...

Regulation of Articular Cartilage Zonal Emergence: Harnessing Developmental Pathways to Enhance Regeneration

ReZone aims to uncover the mechanisms of zonal emergence in articular cartilage using a goat model to enhance regeneration and improve treatment for cartilage injuries.

€ 2.265.746
ERC Advanced...

Restoring anisotropy in living tissues 'in situ'

This project aims to enhance cardiac tissue regeneration by restoring structural anisotropy using ultrasound, improving therapy outcomes through a multidisciplinary and technology-driven approach.

€ 3.056.887
ERC Consolid...

Engineering nanoparticle-polymer interactions to create instructive, tough nanocomposite hydrogels without negatively impacting self-healing behavior for bone tissue regeneration

Nano4Bone aims to engineer self-healing hydrogels with enhanced mechanical properties and bioactive nanoparticles for effective bone tissue regeneration in osteosarcoma treatment.

€ 2.000.000
ERC Advanced...

Engineered viscoelasticity in regenerative microenvironments

This project aims to develop viscoelastic hydrogels to enhance mesenchymal stem cell differentiation and promote bone regeneration, while utilizing Brillouin microscopy to monitor their properties in vivo.

€ 2.497.246

Vergelijkbare projecten uit andere regelingen

Mkb-innovati...

Haalbaarheid R&D DME collageenpleisters en scaffolds

HCM Medical onderzoekt de haalbaarheid van het ontwikkelen van kosteneffectieve collageenpleisters en scaffolds via DME-extractie voor regeneratieve geneeskunde.

€ 20.000
EIC Accelerator

Rebuilding Joint Surface to Prevent Pain and Immobility

Askel's COPLA® implant promotes cartilage regeneration and quick rehabilitation to prevent osteoarthritis, aiming to establish a gold standard for pain-free joint movement and improved quality of life.

€ 2.499.000
EIC Pathfinder

Smart 4D biodegradable metallic shape-shifting implants for dynamic tissue restoration

BIOMET4D aims to revolutionize reconstructive surgery with shape-morphing implants for dynamic tissue restoration, enhancing regeneration while reducing costs and invasiveness.

€ 4.039.541
EIC Pathfinder

building vascular networks and Blood-Brain-Barriers through a Biomimetic manufacturing Technology for the fabrication of Human tissues and ORgans

THOR aims to revolutionize tissue engineering by creating patient-specific, fully functional human tissues using bioinspired mini-robots, eliminating the need for organ transplants.

€ 3.994.150
EIC Accelerator

Articular Cartilage Treatment with Injectable hydrogel is Valuable and long-term Effective

Hy2Care develops a regenerative injectable hydrogel for cartilage repair, promoting natural healing and long-lasting joint health while preventing osteoarthritis.

€ 2.500.000