Graphene nanogrids (crossed graphene nanoribbons synthesized by the oxidative
unzipping of multi-walled carbon nanotubes) on a SiO2 matrix containing TiO2 …

An effective and self-organized differentiation of human neural stem cells (hNSCs) into
neurons was developed by the pulsed laser stimulation of the cells on graphene films …

Although graphene/stem cell-based tissue engineering has recently emerged and has
promisingly and progressively been utilized for developing one of the most effective …

The development of an efficient platform for the growth and neuronal differentiation of stem
cells is crucial for autologous cell therapy and tissue engineering to treat various neuronal …

Reduced graphene oxide nanomeshes (rGONMs), as p-type semiconductors with band-gap
energy of∼ 1 eV, were developed and applied in near infrared (NIR) laser stimulation of …

Graphene nanogrids (fabricated by graphene nanoribbons obtained through oxidative
unzipping of multi-walled carbon nanotubes) were used as two-dimensional selective …

Graphene has shown great potential for biomedical engineering applications due to its
electrical conductivity, mechanical strength, flexibility, and biocompatibility. Topographical …

Graphene oxide foam (GOF) layers with thicknesses of∼ 15–50 μm and density of∼ 10
graphene oxide (GO) sheets/μm were fabricated by precipitation of chemically exfoliated GO …

To use human neural stem cells (hNSCs) for brain repair and neural regeneration, it is
critical to induce hNSC differentiation that is directed more towards neurons than glial …

Graphene oxides with different surface charges were fabricated from carboxylated graphene
oxide by chemical modification with amino-(–NH2), poly-m-aminobenzene sulfonic acid …