Topographical and mechanical cues |
Uniaxially aligned nanofibers16,17,27
|
Adipose derived MSCs iPSCs derived MSCs |
Tenogenic differentiation |
Human fetal osteoblasts |
Osteogenic differentiation |
Bone marrow derived MSCs |
Neural differentiation |
Uniaxially aligned yarns28
|
Adipose derived MSCs |
Anisotropic soft tissue differentiation |
Orthogonal layers29
|
Bone marrow derived MSCs |
Osteoblastic differentiation |
Coiled nanofibers30
|
Bone marrow derived MSCs |
Mild myofibroblastic differentiation |
Honeycomb-compartmented monolayer31
|
iPSCs |
Cardiac differentiation |
Netslike nanofibrous mesh32
|
Bone mesenchymal stromal cells |
Osteogenic differentiation |
Zonal organized nanofibers6
|
Mesenchymal stromal cells |
Chondrogenic differentiation |
Higher degree of roughness |
Mesenchymal stromal cells |
Osteogenic differentiation |
Lower degree of roughness33,34
|
Chondrogenic differentiation |
Lower stiffness18
|
Smooth muscle cells |
Contractile phenotype |
Dynamic mechanical stimulation19
|
Adipose derived MSCs |
Tenogenic differentiation |
Electrochemical cues |
Electrical pulse application20
|
Cardiovascular disease specific iPSCs |
Cardiomyocytes |
Piezoelectric scaffold21
|
Bone marrow derived MSCs |
Osteogenic differentiation (high voltage) |
Chondrogenic differentiation (low voltage) |
Biological cues |
Hemin doping22
|
iPSCs derived neural stem cells |
Neural differentiation |
Retinoic acid induction23
|
Chorion derived MSCs |
Neural differentiation |
Peptide decoration24
|
Human PSCs |
Osteogenic differentiation |
BMP-2 peptide25
|
Adipose derived MSCs |
Osteogenic differentiation |
Co-culture with chondrocytes26
|
Bone marrow derived MSCs |
Chondrogenic differentiation |