posted on 2020-11-09, 07:05authored byTamer Abdalrahman, Nicolas Mandel, Kevin L. Sack, Nicola
M. Pugno, Deon Bezuidenhout, Georges Limbert, Francesco Moscato, Thomas FranzThomas Franz, Neil Hamer Davies
<div>Finite element models of electrospun fibrous scaffold and human cardiac left ventricle with infarct</div><div><br></div><div>1) Scaffold<br><br>ScaffHydr-Hyperel-1.cae: Abaqus CAE model file for fibrous scaffold with hydrogel filling<br><br><br>2) Cardiac models<br></div><div><br></div><div>Abaqus ODB output files with the following naming convention.<br><br>VA3: Healthy heart<br><br>VA3_MI2: Heart with MI without patch<br><br>VA3_MI2_patched2_E0.5: Heart with MI and treated with patch. Elastic modulus of patch E = 0.1435 MPa<br><br>VA3_MI2_patched2_E1.0: Heart with MI and treated with patch. Elastic modulus of patch E = 0.287 MPa<br><br>VA3_MI2_patched2_E2.0: Heart with MI and treated with patch. Elastic modulus of patch E = 0.574 MPa<br> </div><p></p>
Funding
National Research Foundation of South Africa, UID 92531, T Franz
National Research Foundation of South Africa, UID 93542, T Franz
South African Medical Research Council, SIR 328148, T Franz
European Commission Graphene Flagship Core 2 No 78521, NM Pugno
MIUR 232/2016, NM Pugno
ARS01-01384-PROSCAN, NM Pugno
Biofunctionalised Electroconducting Microfibres for the Treatment of Spinal Cord Injury
Biomedical Engineering Research Centre
Division of Biomedical Engineering
Department of Human Biology
Faculty of Health Sciences
University of Cape Town