Page 197 - IJB-9-1
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International Journal of Bioprinting                          3D bioprinting of tissue with carbon nanomaterials




                            Ref.  [104]  [105]      [106]    [107]      [108]   [97]




                            Biological outcomes/ tissue engineering     application An increase in oxygen metabolism and neural  differentiation of the NSCs was observed at 25   ppm of GO or G-P.  Neural tissue engineering SGOB1 bioink demonstrated larger electrocon- ductive and mechanical behavior and significant  Neuro2a cell proliferation and cell viability com-  pared to SB.   Neural tissue engineering With GO in the gel, there was higher cell prolif- eration after 7
















                            Bioprinters, crosslinking mechanisms, and scaffold’s





                                 EBB (Regenovo 3D Bioprinter, China)  Sol-gel thermal transition near 37°C Printed construct: 15 mm × 15 mm × 5 mm (L × W × H) PBB (Digital Light Processing Bioprinter, NBRTech Co.,  Ltd., Chuncheon South Korea)  Methacrylation, carbodiimidation, and photoinitiation  3D square structure: 5 mm × 5 mm × 2 mm (L × W × H) EBB (IINVIVO, Rokit, Seoul, Korea)  Enzymatic reaction by HRP and glucose oxidase Lattice cuboid 3D model: 2 cm × 2 cm × 0.2
                         Table 2. List of CFNs-containing cell-laden bioinks for different tissue engineering applications






                              dimensions        by LAP     × H)  Photoinitiation by LAP  Canada)  0.2 cm)






                            Cell-laden bioink composites  PU, PU/GO 25 ppm, and PU/G-P   25 ppm  NSCs (4 × 10 6  cells/mL)  SB, 0.25% SGOB1, 2.5% SGOB1,  3.5% SGOB1, and 0.25% SGOB2  Neuro2a mouse neuroblastoma    (1 × 10 7  cells/ mL)  GHPA and GO-GHPA C2C12 skeletal myoblasts (1 or 5   × 10 5  cells/ mL)  GelMA, GelMA/GO (GO: 0.02, 0.40, and 1.40 mg/mL) PC-12 rat pheochromocytoma cell   line (5 × 10 4  cells/mL)  MeCol and CNT-MeCol HCAECs (0.8–1 × 10 6  cells/mL)  ABT,

















                            CFNs and dimensions  GO (Hummers’ method; LS = 4 µm) Multilayered pluronic-stabilized  graphene, G-P (physical exfoliation   method; LS = 2 µm)  GO (obtained from Antopaar, S. Ko- rea, hydrodynamic diameter = 2.711  µm; BET surface area = 10.426 m 2 /g)   GO (sheet diameter < 10 µm) (Sigma   Aldrich, USA)  GO (obtained from ANFF, Universi- ty of Wollongong, Australia; average  diameter = 1–2 µm, single layer sheet  with a thickness of 0.81 nm)










            Volume 9 Issue 1 (2023)                        189                      https://doi.org/10.18063/ijb.v9i1.635
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