| 1 |
GO sheets |
G-NFs (stable
electrical conductivity, soft physical feature,
and good biocompatibility). |
(153) |
| 2 |
Rolled
GO foams |
hNSCs (human neural stem cells) proliferate
and differentiate
effectively throughout the pores and interfaces of the scaffold. |
(154) |
| 3 |
GO acrylate sheets–CNT–
poly(ethyleneglycol)
acrylate–oligo(polyethyleneglycol fumarate) hydrogel |
Cytotoxicity testing on PC12 cells demonstrated no significant
cytotoxicity, and the hydrogel gives an ideal surrounding for neural
outgrowth and cellular propagation. These findings imply that the
hydrogel might be used in neural tissue engineering. |
(155) |
| 4 |
GO-coated PLLA-aligned nanofibers |
The surface roughness and hydrophilicity of aligned PLLA nanofibers
were enhanced by GO coating. It improved cell orientation and SC growth
and stimulated PC12 neurite development and cell differentiation. |
(156) |
| 5 |
GO-based GPS having hierarchical structures |
Neuroprosthetics
and biosensors. |
(157) |
| 6 |
GO microfiber |
Effective neural development substrate for the CNS after injury. |
(18) |
| 7 |
GO–PLGA hybrid nanofiber |
Improves functional locomotor recovery, decreased the formation
of cavity, and increased the number of neurons at the injury site. |
(22) |
| 8 |
GO aerogel |
The development
of fibro glandular tissues and structures is
inhibited by GO in the neural canal. The multiplication and expansion
of neural stem cells. |
(158) |
| 9 |
GO
and electroactive rGO-based composite |
Enhances electrical
conductivity of the scaffold and enhances
metabolic activity and proliferation. |
(159) |
| 10 |
GO foam (GOF)-based 3D scaffold |
The
hNSCs were effectively proliferated and differentiated
throughout the scaffold because of the cross-section of the rolled
GOF. Increased cell proliferation and faster neuron development were
observed after electrical stimulation of hNSCs. |
(20) |
