Summary
After exiting the bone marrow, reticulocytes mature to form red blood cells (RBCs) which are highly adapted cells Red blood cells (RBCs) travel through our circulation during their entire lifetime of in average 120 days. This means they are in constant move and adapt to their surrounding by shape changes, e.g., when in high speed flow or with even more severe volume adaptations, when they squeeze through small capillaries or the slits of the spleen having less than half their own size. While on the move, RBCs have to deal with continuous changes in oxygen tension and pH, have to scavenge reactive oxygen species, and need to balance their responses towards the chemical and mechanical challenges. In contrast, most of the knowledge we gained about RBCs as well as diagnostic methods rely on RBCs in relative stasis, such as flux measurements, conventional patch-clamp, calorimetric assays, density centrifugation, atomic force microscopy, just to name a few. In the most extreme conditions the cells of investigation are even dead like in blood smears, electron microscopy or cyto-spins. Even if cells are on the move like in flow cytometers, they may rest in a drop of liquid. Furthermore, when taken from the circulation, the flow of the RBCs is suddenly terminated and (together with the application of anticoagulants) they experience a completely different environment that is likely to impair their properties.
The objective of EVIDENCE is the exploration of the properties and behaviour of RBCs under flow conditions and in vivo to understand pathophysiology and to design novel diagnostic devices. Theoretical models will help to understand these RBC properties and will enable the transfer of the gained knowledge into diagnostic devises in general and into the development of a spleen-on-the-chip in particular. Furthermore we aim to understand the effect of the flow in bioreactors, allowing the efficient production of RBCs in vitro with the goal to produce RBC for transfusion.
The objective of EVIDENCE is the exploration of the properties and behaviour of RBCs under flow conditions and in vivo to understand pathophysiology and to design novel diagnostic devices. Theoretical models will help to understand these RBC properties and will enable the transfer of the gained knowledge into diagnostic devises in general and into the development of a spleen-on-the-chip in particular. Furthermore we aim to understand the effect of the flow in bioreactors, allowing the efficient production of RBCs in vitro with the goal to produce RBC for transfusion.
Unfold all
/
Fold all
More information & hyperlinks
| Web resources: | https://cordis.europa.eu/project/id/860436 |
| Start date: | 01-01-2020 |
| End date: | 31-12-2023 |
| Total budget - Public funding: | 3 993 480,36 Euro - 3 993 480,00 Euro |
Cordis data
Original description
After exiting the bone marrow, reticulocytes mature to form red blood cells (RBCs) which are highly adapted cells Red blood cells (RBCs) travel through our circulation during their entire lifetime of in average 120 days. This means they are in constant move and adapt to their surrounding by shape changes, e.g., when in high speed flow or with even more severe volume adaptations, when they squeeze through small capillaries or the slits of the spleen having less than half their own size. While on the move, RBCs have to deal with continuous changes in oxygen tension and pH, have to scavenge reactive oxygen species, and need to balance their responses towards the chemical and mechanical challenges. In contrast, most of the knowledge we gained about RBCs as well as diagnostic methods rely on RBCs in relative stasis, such as flux measurements, conventional patch-clamp, calorimetric assays, density centrifugation, atomic force microscopy, just to name a few. In the most extreme conditions the cells of investigation are even dead like in blood smears, electron microscopy or cyto-spins. Even if cells are on the move like in flow cytometers, they may rest in a drop of liquid. Furthermore, when taken from the circulation, the flow of the RBCs is suddenly terminated and (together with the application of anticoagulants) they experience a completely different environment that is likely to impair their properties.The objective of EVIDENCE is the exploration of the properties and behaviour of RBCs under flow conditions and in vivo to understand pathophysiology and to design novel diagnostic devices. Theoretical models will help to understand these RBC properties and will enable the transfer of the gained knowledge into diagnostic devises in general and into the development of a spleen-on-the-chip in particular. Furthermore we aim to understand the effect of the flow in bioreactors, allowing the efficient production of RBCs in vitro with the goal to produce RBC for transfusion.
Status
SIGNEDCall topic
MSCA-ITN-2019Update Date
28-04-2024
Images
No images available.
Geographical location(s)
Search
Organisations
-
| UNIVERSITAT DES SAARLANDES (UDS) (Coördinator)
-
| CENTRE NATIONAL DE LA RECHERCHE SCIENTIFIQUE (CNRS)
-
| CYSMIC GMBH
-
| ETABLISSEMENT FRANCAIS DU SANG
-
| FUNDACIO HOSPITAL UNIVERSITARI VALL D'HEBRON - INSTITUT DE RECERCA
-
| FUNDACIO INSTITUT DE BIOENGINYERIA DE CATALUNYA (IBEC)
-
| INSTITUT NATIONAL DE LA SANTE ET DE LA RECHERCHE MEDICALE
-
| NANION TECHNOLOGIES GMBH
-
| PHAXIAM THERAPEUTICS
-
| R&R MECHATRONICS INTERNATIONAL BV
-
| Stichting Sanquin Bloedvoorziening
-
| UNIVERSITAT ZURICH
-
| UNIVERSITY OF BRISTOL (UOB)