Review Article
Polymer Composites Reinforced by Nanotubes as Scaffolds for Tissue Engineering
Table 2
Property improvements of polymer composites reinforced by nanotubes.
| Reinforcement |
Biocompatibility | Mechanical properties | References | Type | Content (%) | Matrix | Method | Improvement | Property | Percentage |
| MWNT | >95 wt | PLGA | BMSCs cells culture Human fetal osteoblasts cells | Improve cell adhesion and proliferation Improve cell compatibility | Tensile stress | 54 | [34] | MWCNT | — | PLLA | Elastic modulus | 67 | [35] | MWNT | — | CHI-HA | CCK-8 | Improve cells attachment and cell proliferation | Elastic modulus | 53 | [36] | BNNT | 2 wt | PLC | Osteoblast cell | Accelerated osteoblast differentiation and growth | Tensile strength | 87 | [37] | BNNT | 5 wt | PLC | Osteoblast cell
| Accelerated osteoblast differentiation and growth | Tensile strength | 109 | [37] | BNNT | 4 wt | HA | HA-BNNT to osteoblasts | Improve osteoblast proliferation and viability | Elastic modulus | 120 | [38] | WSNT | 0.5 wt | Epoxy | — | — | Peel strength | 85 | [39] | WSNT | 2 wt | PMMA | — | — | Elastic modulus | 30 | [40] | WSNT | 0.01–0.2 wt | PPF | — | — | Compressive modulus | 60 | [41] |
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