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.
Projectdetails
Introduction
Tenths of millions of people with organ failures or suffering from degenerative diseases are waiting for a novel cellular therapy or for a transplant of a donor-compatible organ. The immense majority of these patients will die before receiving the tissue or organ they need.
Current State of Tissue Engineering
Despite the significant advances in tissue engineering, not a single artificial tissue has been used to replace a part of an organ, with the exception of simple or avascular tissues like skin or cartilage.
THOR Project Overview
THOR proposes the development of a revolutionary tissue engineering technology, capable of producing any type of human tissue for organ repair or replacement in case of illness, trauma, or degenerative diseases.
Patient-Tailored Tissues
Patient-tailored tissues will be fabricated by pools of bioinspired mini-robots in fully automated production plants, using the breakthrough incremental technologies of the THOR project:
- Self-assembling molecules inspired by the extracellular matrix
- Self-assembling solid and hollow polymeric fibers
- Materials functionalization using photoactivable crosslinkers
- Cutting-edge mini robots to wave 3D self-assembling structures with factors and cells with micrometric precision
Tissue Production Process
THOR tissue arises from high-resolution 3D spatial positioning of self-assembling structures, angiogenic factors, and relevant cell lineages, reprogrammed and expanded in a dedicated bioreactor under controlled conditions.
Long-Term Vision
Our long-term vision encompasses:
- The establishment of a Tissue Engineering industry for personalized organ repair, producing any type of well-vascularized and fully functioning tissues
- The maintenance of such tissues alive for long periods of time, for easy transportation to hospitals and clinics, even far from the big cities
Conclusion
THOR will foster the rise of a new industry and a new biomedical field, while cadaveric donors' transplants will not be necessary.
Financiële details & Tijdlijn
Financiële details
Subsidiebedrag | € 3.994.150 |
Totale projectbegroting | € 3.994.150 |
Tijdlijn
Startdatum | 1-1-2023 |
Einddatum | 31-12-2026 |
Subsidiejaar | 2023 |
Partners & Locaties
Projectpartners
- UNIVERSIDAD POLITECNICA DE MADRIDpenvoerder
- UNIVERSITAETSKLINIKUM FREIBURG
- ELVESYS
- UNIVERSITA DEGLI STUDI DELLA CAMPANIA LUIGI VANVITELLI
- BIOACTIVE SURFACES SL
- INDEEP ARTIFICIAL INTELLIGENCE SL
Land(en)
Vergelijkbare projecten binnen EIC Pathfinder
Project | Regeling | Bedrag | Jaar | Actie |
---|---|---|---|---|
Next Generation 3D Tissue Models: Bio-Hybrid Hierarchical Organoid-Synthetic Tissues (Bio-HhOST) Comprised of Live and Artificial Cells.Bio-HhOST aims to create bio-hybrid materials with living and artificial cells for dynamic communication, enhancing tissue modeling and reducing animal use in drug research. | EIC Pathfinder | € 1.225.468 | 2024 | Details |
Engineering a living human Mini-heart and a swimming Bio-robotThe project aims to develop advanced in vitro human cardiac models, including a vascularized mini-heart and a bio-robot, to better assess cardiotoxicity and improve understanding of cardiovascular disease. | EIC Pathfinder | € 4.475.946 | 2022 | Details |
Smart 4D biodegradable metallic shape-shifting implants for dynamic tissue restorationBIOMET4D aims to revolutionize reconstructive surgery with shape-morphing implants for dynamic tissue restoration, enhancing regeneration while reducing costs and invasiveness. | EIC Pathfinder | € 4.039.541 | 2022 | Details |
Blood as energy source to power smart cardiac devicesThe BLOOD2POWER project aims to develop energy-harvesting vascular grafts using triboelectric nanogenerators to monitor performance and prevent failure through wireless data transmission. | EIC Pathfinder | € 2.885.525 | 2023 | Details |
High-throughput ultrasound-based volumetric 3D printing for tissue engineeringSONOCRAFT aims to revolutionize myocardial cell construct bioprinting by combining rapid volumetric printing with ultrasonic manipulation to create functional cardiac models for drug testing and disease research. | EIC Pathfinder | € 2.999.625 | 2025 | Details |
Next Generation 3D Tissue Models: Bio-Hybrid Hierarchical Organoid-Synthetic Tissues (Bio-HhOST) Comprised of Live and Artificial Cells.
Bio-HhOST aims to create bio-hybrid materials with living and artificial cells for dynamic communication, enhancing tissue modeling and reducing animal use in drug research.
Engineering a living human Mini-heart and a swimming Bio-robot
The project aims to develop advanced in vitro human cardiac models, including a vascularized mini-heart and a bio-robot, to better assess cardiotoxicity and improve understanding of cardiovascular disease.
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.
Blood as energy source to power smart cardiac devices
The BLOOD2POWER project aims to develop energy-harvesting vascular grafts using triboelectric nanogenerators to monitor performance and prevent failure through wireless data transmission.
High-throughput ultrasound-based volumetric 3D printing for tissue engineering
SONOCRAFT aims to revolutionize myocardial cell construct bioprinting by combining rapid volumetric printing with ultrasonic manipulation to create functional cardiac models for drug testing and disease research.
Vergelijkbare projecten uit andere regelingen
Project | Regeling | Bedrag | Jaar | Actie |
---|---|---|---|---|
3D-assembly of interactive microgels to grow in vitro vascularized, structured, and beating human cardiac tissues in high-throughputHEARTBEAT aims to create personalized, vascularized millimeter-scale heart tissues using innovative microgel assemblies to enhance stem cell interactions and mimic native environments. | ERC Consolid... | € 2.969.219 | 2022 | Details |
Laser biofabrication of 3D multicellular tissue with perfusible vascular networkThis project aims to revolutionize organ regeneration by developing a 3D vascular system using advanced bioprinting techniques to enable effective perfusion in tissue constructs. | ERC Advanced... | € 2.499.539 | 2022 | Details |
Engineering soft microdevices for the mechanical characterization and stimulation of microtissuesThis project aims to advance mechanobiology by developing soft robotic micro-devices to study and manipulate 3D tissue responses, enhancing understanding of cell behavior and potential cancer treatments. | ERC Advanced... | € 3.475.660 | 2025 | Details |
Surgical optogenetic bioprinting of engineered cardiac muscleLIGHTHEART aims to revolutionize heart failure treatment by developing a surgical bioprinting tool that uses optogenetics to create engineered cardiac muscle directly at the patient's heart. | ERC Starting... | € 1.499.705 | 2023 | Details |
Precision tissue biobanking made easyThe project aims to develop and validate an automated tissue harvesting system, ARTS, to enhance biobanking efficiency, quality, and sustainability for improved disease research and diagnostics. | ERC Proof of... | € 150.000 | 2023 | Details |
3D-assembly of interactive microgels to grow in vitro vascularized, structured, and beating human cardiac tissues in high-throughput
HEARTBEAT aims to create personalized, vascularized millimeter-scale heart tissues using innovative microgel assemblies to enhance stem cell interactions and mimic native environments.
Laser biofabrication of 3D multicellular tissue with perfusible vascular network
This project aims to revolutionize organ regeneration by developing a 3D vascular system using advanced bioprinting techniques to enable effective perfusion in tissue constructs.
Engineering soft microdevices for the mechanical characterization and stimulation of microtissues
This project aims to advance mechanobiology by developing soft robotic micro-devices to study and manipulate 3D tissue responses, enhancing understanding of cell behavior and potential cancer treatments.
Surgical optogenetic bioprinting of engineered cardiac muscle
LIGHTHEART aims to revolutionize heart failure treatment by developing a surgical bioprinting tool that uses optogenetics to create engineered cardiac muscle directly at the patient's heart.
Precision tissue biobanking made easy
The project aims to develop and validate an automated tissue harvesting system, ARTS, to enhance biobanking efficiency, quality, and sustainability for improved disease research and diagnostics.