1. Murphy, E. and B. Shelley, The right ventricle—structural and functional importance for anaesthesia and intensive care. BJA Education, 2018. 18(8): p. 239-245.
2. Ngwangwa, H.M., T. Pandelani, and F. Nemavhola, The Application of Standard Nonlinear Solid Material Models in Modelling the Tensile Behaviour of the Supraspinatus Tendon. Preprints, 2021. 2021080298.
3. Ngwangwa, H.M. and F. Nemavhola, Evaluating computational performances of hyperelastic models on supraspinatus tendon uniaxial tensile test data. Journal of Computational Applied Mechanics, 2021. 52(1): p. 27-43.
4. Nemavhola, F., Biaxial quantification of passive porcine myocardium elastic properties by region. Engineering Solid Mechanics, 2017. 5(3): p. 155-166.
5. Nemavhola, F., Study of biaxial mechanical properties of the passive pig heart: material characterisation and categorisation of regional differences. International Journal of Mechanical and Materials Engineering, 2021. 16(1): p. 1-14.
6. Guccione, J.M., K.D. Costa, and A.D. McCulloch, Finite element stress analysis of left ventricular mechanics in the beating dog heart. Journal of biomechanics, 1995. 28(10): p. 1167-1177.
7. Masithulela, F.J., Computational biomechanics in the remodelling rat heart post myocardial infarction. 2016.
8. Masithulela, F., Bi-ventricular finite element model of right ventricle overload in the healthy rat heart. Bio-medical materials and engineering, 2016. 27(5): p. 507-525.
9. Masithulela, F. The effect of over-loaded right ventricle during passive filling in rat heart: A biventricular finite element model. in ASME International Mechanical Engineering Congress and Exposition. 2015. American Society of Mechanical Engineers.
10. Masithulela, F. Analysis of passive filling with fibrotic myocardial infarction. in ASME international mechanical engineering congress and exposition. 2015. American Society of Mechanical Engineers.
11. Masithulela, F. The Effect of Over-Loaded Right Ventricle During Passive Filling in Rat Heart: A Biventricular Finite Element Model. in ASME 2015 International Mechanical Engineering Congress and Exposition. 2015.
12. Nemavhola, F., Detailed structural assessment of healthy interventricular septum in the presence of remodeling infarct in the free wall–A finite element model. Heliyon, 2019. 5(6): p. e01841.
13. Nemavhola, F., Fibrotic infarction on the LV free wall may alter the mechanics of healthy septal wall during passive filling. Bio-medical materials and engineering, 2017. 28(6): p. 579-599.
14. Nemavhola, F., Mechanics of the septal wall may be affected by the presence of fibrotic infarct in the free wall at end-systole. International Journal of Medical Engineering and Informatics, 2019. 11(3): p. 205-225.
15. Yin, Z., et al., Cardiac wall mechanics analysis in hypertension-induced heart failure rats with preserved ejection fraction. Journal of Biomechanics, 2020. 98: p. 109428.
16. Sirry, M.S., et al., Characterisation of the mechanical properties of infarcted myocardium in the rat under biaxial tension and uniaxial compression. journal of the mechanical behavior of biomedical materials, 2016. 63: p. 252-264.
17. Chuong, C. and Y. Fung, Three-dimensional stress distribution in arteries. Journal of biomechanical engineering, 1983. 105(3): p. 268-274.
18. Choi, H.S. and R. Vito, Two-dimensional stress-strain relationship for canine pericardium. Journal of biomechanical engineering, 1990. 112(2): p. 153-159.
19. Holzapfel, G.A., T.C. Gasser, and R.W. Ogden, A new constitutive framework for arterial wall mechanics and a comparative study of material models. Journal of elasticity and the physical science of solids, 2000. 61(1): p. 1-48.
20. Holzapfel, G.A., et al., Determination of layer-specific mechanical properties of human coronary arteries with nonatherosclerotic intimal thickening and related constitutive modeling. American Journal of Physiology-Heart and Circulatory Physiology, 2005. 289(5): p. H2048-H2058.
21. Ferruzzi, J., D.A. Vorp, and J. Humphrey, On constitutive descriptors of the biaxial mechanical behaviour of human abdominal aorta and aneurysms. Journal of the Royal Society Interface, 2011. 8(56): p. 435-450.
22. Baek, S., et al., Theory of small on large: potential utility in computations of fluid–solid interactions in arteries. Computer methods in applied mechanics and engineering, 2007. 196(31-32): p. 3070-3078.
23. Bursa, J., et al. Implementation of hyperelastic models for soft tissues in FE program and identification of their parameters. in Proceedings of the Sixth IASTED International Conference on Biomedical Engineering. 2008.
24. Javani, S., M. Gordon, and A.N. Azadani, Biomechanical properties and microstructure of heart chambers: A paired comparison study in an ovine model. Annals of biomedical engineering, 2016. 44(11): p. 3266-3283.
25. Humphrey, J., R. Strumpf, and F. Yin, Biaxial mechanical behavior of excised ventricular epicardium. American Journal of Physiology-Heart and Circulatory Physiology, 1990. 259(1): p. H101-H108.
26. Fatemifar, F., et al., Comparison of biomechanical properties and microstructure of trabeculae carneae, papillary muscles, and myocardium in the human heart. Journal of biomechanical engineering, 2019. 141(2).
27. Ghaemi, H., K. Behdinan, and A. Spence, In vitro technique in estimation of passive mechanical properties of bovine heart: Part I. Experimental techniques and data. Medical engineering & physics, 2009. 31(1): p. 76-82.
28. Sommer, G., et al., Biomechanical properties and microstructure of human ventricular myocardium. Acta biomaterialia, 2015. 24: p. 172-192.
29. Ateshian, G.A. and K.D. Costa, A frame-invariant formulation of Fung elasticity. Journal of biomechanics, 2009. 42(6): p. 781-785.
30. Chagnon, G., M. Rebouah, and D. Favier, Hyperelastic energy densities for soft biological tissues: a review. Journal of Elasticity, 2015. 120(2): p. 129-160.
31. Wang, Z., M.J. Golob, and N.C. Chesler, Viscoelastic properties of cardiovascular tissues. Viscoelastic and viscoplastic materials, 2016. 2: p. 64.
32. Granzier, H.L. and S. Labeit, The giant protein titin: a major player in myocardial mechanics, signaling, and disease. Circulation research, 2004. 94(3): p. 284-295.
33. Helmes, M., et al., Mechanically driven contour-length adjustment in rat cardiac titin’s unique N2B sequence: titin is an adjustable spring. Circulation research, 1999. 84(11): p. 1339-1352.
34. Grignola, J.C., et al., Improved right ventricular–vascular coupling during active pulmonary hypertension. International journal of cardiology, 2007. 115(2): p. 171-182.
35. Bellofiore, A. and N.C. Chesler, Methods for measuring right ventricular function and hemodynamic coupling with the pulmonary vasculature. Annals of biomedical engineering, 2013. 41(7): p. 1384-1398.
36. Sacks, M. and C. Chuong, Biaxial mechanical properties of passive right ventricular free wall myocardium. 1993.
37. Nemavhola, F., et al., Passive Biaxial Tensile Dataset of Three Main Rat Heart Myocardia: Left Ventricle, Mid-Wall and Right Ventricle. Preprints, 2021. 2021080153(Version 1).
38. Ngwangwa, H., et al., Determination of Cross-directional and Cross-Wall Variations of Passive Biaxial Mechanical Properties of Rat Myocardium. Preprints, 2021.2021090244.
39. Anssari-Benam, A., et al., Rate-dependency of the mechanical behaviour of semilunar heart valves under biaxial deformation. Acta biomaterialia, 2019. 88: p. 120-130.
40. van Disseldorp, E.M., et al., Reproducibility assessment of ultrasound-based aortic stiffness quantification and verification using Bi-axial tensile testing. Journal of the mechanical behavior of biomedical materials, 2020. 103: p. 103571.
41. D'Amore, A., et al., Bi-layered polyurethane–extracellular matrix cardiac patch improves ischemic ventricular wall remodeling in a rat model. Biomaterials, 2016. 107: p. 1-14.
42. Caulk, A.W., et al., Quantification of the passive and active biaxial mechanical behaviour and microstructural organization of rat thoracic ducts. Journal of The Royal Society Interface, 2015. 12(108): p. 20150280.
43. Robertson, D. and D. Cook, Unrealistic statistics: how average constitutive coefficients can produce non-physical results. Journal of the mechanical behavior of biomedical materials, 2014. 40: p. 234-239.