Miniaturization of impeller pump as minimal invasive implanted mechanical heart assist for children & teenagers - KIDmicroBLOODpump

Project summary

• Rationale / Needs to be addressed: Effective heart insufficiency treatment of kids & teenagers is pressing medical need to significantly decrease mortality during heart recovery or transplantation. Main demand is a miniaturised “artificial heart” (i.e. implantable blood pump, “ventricle assist device”) for minimal invasive paediatric surgery. A simple miniaturisation of current “adult designs” strongly increases thrombogeneity risks. • Objectives:R&D on advanced manufacturing for (i) smallest possible, blood-flow optimised design (by metal 3D printing), (ii) surface modification (mirror polish, fullerene & oligoproline films), (iii) implementation of on-device sensors (to monitor clotting) & (iv) removability (“de-flatability” of fixation stent) • Potential applications: safest possible treatment for kids with heart insufficiency by extremely miniaturised VAD. • Impact and potential benefits: Market introduction by FRK planned for 2032 after clinical trials & certification (MDR)

Project Details

Call

Call 2023


Call Topic

Innovative surfaces, coatings and interfaces


Project start

01.07.2024


Project end

01.07.2027


Total project costs

1.251.343 €


Total project funding

1.105.104 €


TRL

3 - 4


Coordinator

Dr. Roman Major

Polish Academy of Sciences, UL. REYMONTA 25, 30-059 KRAKOW, Poland


Partners and Funders Details

Consortium Partner   Country Funder
Polish Academy of Sciences
https://www.imim.pl
Research org. Poland PL-NCBR
prof. Zbigniew Religa Foundation of Cardiac Surgery Development
https://www.frk.pl
Research org. Poland PL-NCBR
JOANNEUM RESEARCH Forschungsges.m.b.H.
https://www.joanneum.at/en/
Research org. Austria AT-FFG-PdZ
DISTECH
https://www.distech-group.com
SME Austria AT-FFG-PdZ
Kocaeli University
https://metalurji.kocaeli.edu.tr
University Turkey TR-TUBITAK
Fabryka Narzędzi Medycznych CHIRMED Marcin Dyner
https://www.CHIRMED.pl
SME Poland PL-NCBR

Keywords

biomaterial interfaces, laser powder bed fusion, low friction materials, nano-engineered coatings, surface finishing, hemocompatibility, fullerene-like coatings