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Quantitative Mechanics of the Oviduct: Force, Flow, and the Physiological Operating Point

Cel

Successful conception requires timely embryo passage through the oviduct, yet the mechanical rules that govern this journey remain largely unmeasured. REPROMECH treats the oviduct as a deformable conduit and the embryo as viscoelastic cargo, and posits that transport succeeds only within a Physiological Operating Point (POP): a coordinated range of peristaltic frequency and amplitude, mucosal stiffness, viscosity and relaxation, and luminal rheology matched to embryo stiffness. Ageing and pathology displace the system toward an Aberrant Operating Point (AOP) that traps or prematurely releases embryos and undermines development. We will define the POP by quantifying oviduct mechanics in living mouse tissue and linking them to transport dynamics. Atomic force microscopy indentation and Brillouin microscopy, will map layer-resolved viscoelasticity in oviduct segments across stages. Video-imaging in an ex vivo oviduct culture that preserves contractility will measure deformation, residence time, and transport under controlled conditions. Embryo stiffness will be measured across stages and maternal age, and reproduced with mechanical analogues that isolate mechanics from biochemistry. Using these tools, we will test how mechanical mismatch between oviduct and cargo alters motion and whether pharmacological modulation can restore POP-like coordination. Outputs include: a cycle-resolved mechanical atlas of the oviduct, validated ex vivo testbeds for controlled perturbation, quantitative thresholds that predict failure points, and demonstration of mechanism-based rescue. By framing fertility as a mechanically balanced state that can be measured, displaced, and restored, REPROMECH will establish standards, datasets, and design rules for future translational studies. The framework may help identify patients at risk of tubal transport failure, guide when in vivo passage is unlikely, and suggest how to tune assisted reproduction and culture systems to emulate POP.

Dziedzina nauki (EuroSciVoc)

Projekt nie został jeszcze sklasyfikowany według klasyfikacji EuroSciVoc.
Wskaż dziedziny nauki, które twoim zdaniem są najbardziej istotne z punktu widzenia tego projektu i pomóż nam usprawnić naszą usługę klasyfikacji.

Program(-y)

Temat(-y)

System finansowania

HORIZON-ERC - HORIZON ERC Grants

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Zaproszenie do składania wniosków

(odnośnik otworzy się w nowym oknie) ERC-2026-STG

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Instytucja przyjmująca

MAX-PLANCK-GESELLSCHAFT ZUR FORDERUNG DER WISSENSCHAFTEN EV
Wkład UE netto
€ 1 500 000,00
Koszt całkowity
€ 1 500 000,00

Beneficjenci (1)