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Authors | Year | Cell source | Scaffold | Biophysical stimulus | Apparatus | Biological effects |
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Vandenburgh et al. [38] | 1996 | Neonatal rat cardiomyocytes | Collagen-coated silicon membranes | Unidirectional stretch | Mechanical cell stimulator | Increased foetal - and adult -MHC isoforms |
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Carrier et al. [40] | 1999 | Neonatal rat and embryonic chick cardiomyocytes | PGA | Perfusion by medium mixing | Rotating vessel microgravity bioreactor | Expression of cardiac-specific proteins and better ultrastructural organization |
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Fink et al. [41] | 2000 | Neonatal rat and embryonic chick cardiomyocytes | Collagen I | Unidirectional stretch | Custom stretching device | Improved organization of cardiomyocytes; hypertrophy |
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Akhyari et al. [42] | 2002 | Human heart cells (ventricular biopsy) | Gelfoam gelatine | Cyclic stretch | Biostretch | Enhancement of collagen matrix formation and organization |
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Zimmermann et al. [43] | 2002 | Neonatal rat cardiomyocytes | Collagen | Unidirectional cyclic stretch | Custom stretching device | Highly organized sarcomeres; adherens junctions, gap junctions, and desmosomes; well-developed T-tubular network; contractile characteristics of native myocardium |
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Iijima et al. [44] | 2003 | Rat cardiomyocytes and skeletal myocytes | Collagen-coated silicon membranes | Cyclic stretch | Mechanical cell stimulator | Expression of cardiac-specific proteins: cardiac troponin T, cadherin, and connexin 43 |
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Radisic et al. [45] | 2004 | Neonatal rat cardiomyocytes | Ultrafoam collagen | Perfusion | Custom device | Thick, compact, and contractile cardiac constructs; higher cell viability |
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Boublik et al. [46] | 2005 | Rat heart cells | Hyaluronan | Cyclic stretch | Biostretch | Hybrid cardiac constructs with mechanical properties suitable for in vitro loading studies and in vivo implantation |
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Feng et al. [47] | 2005 | Neonatal rat cardiomyocytes | Silicon membranes | Mechanical stretch (+ electric field stimulation) | Custom stretching device | In vitro simulation of the electrical and mechanical responses of the myocardium in vivo |
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Figallo et al. [48] | 2007 | Neonatal rat cardiomyocytes and human ESCs | Collagen-coated glass | Perfusion | Custom microarray (MBA) | Increased smooth muscle actin and cell density |
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Brown et al. [49] | 2008 | Neonatal rat cardiomyocytes | Ultrafoam collagen | Perfusion | Custom device | Enhancement of contractile properties |
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Gwak et al. [50] | 2008 | Mouse ESC-derived cardiomyocytes | PLCL and PLGA | Cyclic stretch | Custom device | Enhancement of cardiac-specific gene expression: -MHC, -actin |
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Shimko and Claycomb [51] | 2008 | Mouse ESC-derived cardiomyocytes | Collagen I/fibronectin | Unidirectional cyclic stretch | Custom stretching device | Increased gene expression at 3 Hz cyclical stretch |
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Ge et al. [52] | 2009 | Rat BM-MSCs | Silicon membrane | Biaxial mechanical stretch | Custom stretching device | Expression of -actin, connexion 43, -MHC, and troponin I |
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Barash et al. [53] | 2010 | Neonatal rat cardiomyocytes | Alginate | Perfusion (+ electric field stimulation) | Custom device | Promotion of cell elongation and striation and enhancement of the expression level of connexin-43 |
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Hosseinkhani et al. [54] | 2010 | Rat CSCs | Collagen-PGA nanofibers | Perfusion | Custom device | Significant enhancement of cell proliferation |
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Salameh et al. [55] | 2010 | Neonatal rat cardiomyocytes | Gelatin-coated silicone membrane | Biaxial mechanical stretch | Flexcell Tension System FX-4000 | Self-organization of cardiomyocytes, enhanced connexin-43 expression and distribution at the cell poles |
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Galie and Stegemann [56] | 2011 | Rat cardiac fibroblasts | Collagen hydrogel | Mechanical stretch and interstitial flow | Custom device | Cell viability |
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Hollweck et al. [57] | 2011 | Human UCMSCs | PTFE | Biaxial mechanical stretch | Custom device | Confluent cellular coating without damage on the cell surface |
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Kenar et al. [58] | 2011 | Human MSCs (Wharton’s Jelly) | PHBV-PLLA and PGS | Perfusion | Custom device | Enhanced cell viability, uniform cell distribution and alignment |
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Kensah et al. [59] | 2011 | Neonatal rat cardiomyocytes | Collagen I/Matrigel | Cyclic stretch and perfusion (+ electric field stimulation) | Custom device | Cardiomyocyte hypertrophy, shift of myosin heavy chain expression from the alpha to beta isoform |
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Maul et al. [60] | 2011 | Rat MSCs | Collagen-coated silicon membranes | Biaxial mechanical stretch (∧) or laminar shear stress (*) or cyclic hydrostatic pressure (#) | (∧) Flexcell Tension System FX-4000 or (*) Streamer shear stress Flexcell device or (#) custom device | Systematic examination of the effects of mechanical stimulation on MSCs |
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Tulloch et al. [61] | 2011 | Human ESCs and human induced pluripotent stem cell-derived cardiomyocytes | Collagen I | Cyclic stress | Flexcell Tension System FX-4000 | Cardiomyocytes hypertrophy and proliferation |
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Govoni et al. [62] | 2012 | Rat MSCs | Hyaluronan | Unidirectional cyclic stretch | Custom device | Cell multilayer organization and invasion of the 3D mesh of the scaffold, muscle protein expression |
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Maidhof et al. [63] | 2012 | Rat heart cells | PGS | Perfusion (+ electric field stimulation) | Custom device | Improvement of DNA content, cell distribution throughout the scaffold thickness, cardiac protein expression, and cell morphology |
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Shachar et al. [64] | 2012 | Neonatal rat cardiomyocytes | RGD-attached alginate | Compression and shear stress | Custom device | Increased connexin-43, -actin, and N-cadherin |
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