TABLE 1.
Overview of bioinks used for dental alveolar tissue regeneration with their effects.
Tissue | Matrix | Cell source | Construct type | Printer and printing type | Effects | References |
---|---|---|---|---|---|---|
Dental pulp | Alginate/GelMA | hDPSCs (Cells seeded) | -Printed constructs | -Bioplotter Envision Tec | Printed constructs > hydrogel scaffolds. Higher cell attachment, and proliferation. Higher mineralization (Calcium up/ALP up) | Yu et al. (2019) |
Alginate/GelMA | -Hydrogel scaffolds | -Extrusion printing | ||||
Dental pulp | GelMA-MTA | hDPSCs (Cells seeded) | Printed construct | -Rokit Healthcare IN VIVO printer | GelMA-MTA increases mineralization ALP, DSPP, DMP-1 up | Choi et al. (2022) |
GelMA | -extrusion printing | |||||
Dental pulp | fibrinogen/gelatin/hyaluronic acid/glycerol with [fibrinogen] 5–20 mg/mL | hDPSCs (Cells encapsulated) | Bioprinted constructs | -ITOP system | Spatial differentiation (undifferentiated in central pulp area and dentin deposition in outer area) | Han et al. (2018) |
-extrusion bioprinting | ||||||
Dental pulp | −0.2% Collagen type I/0.5% agarose | hDPSCs/HUVECs (Cells encapsulated) | Bioprinted constructs in bovine root canal (hand-held bioprinter) | -DropGun Black Drop Biodrucker | Vascularized dental pulp with the three bioinks. (Collagen/agarose bioink has better mechanical properties) | Duarte Campos et al. (2020) |
−0.5% fibrin −0.3% Collagen type I | -inkjet bioprinting | |||||
Dentin | PCL/45S5 bioglass | hDPSCs (Cells seeded) | Printed constructs | -3DPL bioprinter N2 | PCL/bioglass induced dentin formation DSPP, OCN, DMP-1 up | Mousavi Nejad et al. (2021) |
PCL/Hyaluronic acid | -extrusion printing | PCL/Hyaluronic acid induced dental pulp formation | ||||
Dentin | Collagen type I/hydroxyapatite/alginate | hMSCs (Cells seeded) | Printed constructs | -CELLINK bioprinter Biox | Constructs mimic natural dentin. Pores size 2–4 μm. Good cell attachment and proliferation | Naseri et al. (2021) |
-extrusion printing | ||||||
Dentin | Fibrinogen/gelatin/10% DDM particles | hDPSCs (Cells encapsulated) | Bioprinted constructs | -ITOP system | Mineralization increases with increase [DDM] DSPP, DMP-1 up | Han et al. (2021) |
-extrusion bioprinting | ||||||
Dentin | Alginate/dentin matrix extract (10 and 100 mg/mL) | SCAPs (Cells encapsulated) | Bioprinted constructs | -Hyrel 3D printer | Optimized printing parameters. Good cell viability. ALP, RUNX2 up | Athirasala et al. (2018) |
-extrusion bioprinting | ||||||
Periodontal ligament | PCL/Hydroxyapatite (+ PLGA microspheres with amelogenin or CTGF or BMP2) | hDPSCs (Cells seeded) | Multi-phasic scaffolds (with A, B, C areas) | -Bioplotter Envision Tec | Spatial cell differentiation. Formation of dentin-cementum, PDL, and alveolar bone | Lee et al. (2014) |
-Extrusion printing | ||||||
Periodontal ligament | PCL/PGA | hGFs, hPDLSCs (Cells seeded in A, B areas, respectively) | Multi-phasic scaffolds (with A, B areas) | -SolidScape printer Model Maker II | Spatial cell differentiation. Formation of cementum, ligament (with oriented fibers), and bone | Park et al. (2010) |
-Extrusion printing | ||||||
Periodontal ligament | PCL/4% hydroxyapatite | No cells, but PDGF | Printed scaffold implanted in human | -Formiga P100 | No inflammation, no problem for 1 year. At 13 months, dehiscence and wound failure. Scaffold was removed | Rasperini et al. (2015) |
-selective laser sintering | ||||||
Periodontal ligament | GelMA 12.5% | hPDLSCs (Cells encapsulated) | Bioprinted constructs | -Gesim Bioscaffolder 3.1 | Optimized printing parameters. Good cell viability and proliferation | Raveendran et al. (2019) |
-inkjet bioprinting | ||||||
Gingiva | 4% alginate/8% gelatin/(10, 30, 50%) platelet rich fibrin | hGFs | Bioprinted constructs | -Medprin bioprinter 2.0 | Optimized printing parameters. Good cell viability and proliferation | Yi et al. (2022) |
(Cells encapsulated) | Implanted 4, 8 Wks in nude mice subcutaneously | -Extrusion bioprinting | Host cell infiltration Neovascularization | |||
Alveolar bone | Agarose/Collagen type I (with low, medium, high stiffness) | hMSCs (Cells encapsulated) | Bioprinted constructs | -custom-made bioprinter | Higher osteogenic differentiation in low stiffness bioink Alizarin red staining, ALP, COL1, RUNX2 up | Duarte Campos et al. (2016) |
-Inkjet bioprinting | ||||||
Alveolar bone | BMP2 peptide-conjugated GelMA | hDPSCs (Cells encapsulated) | Bioprinted constructs | -ITOP system | Good cell viability and proliferation. High calcifi-cation. DSPP, OCN up | Park et al. (2020) |
-extrusion bioprinting | ||||||
Alveolar bone | Collagen type I 5%/bone dECM 5%/β-TCP 20% | hDPSCs (Cells encapsulated) | Bioprinted constructs | -three axis DASA Robot system | Osteogenic and odontogenic differentiation. ALP, OCN, OPN up DSPP, DMP-1 up | Kim et al. (2022) |
-Extrusion bioprinting | ||||||
Alveolar bone | GelMA/HAMA | IDG-SW3 (Cells encapsulated) | Bioprinted constructs | -Bioplotter Envision Tec | After 28 days culture, high DMP-1 and calcium deposition. Cx43, Sost, Phex up, high dendrite density | Yang et al. (2020) |
GelMA/HAMA/Collagen type I | -Extrusion printing | |||||
Alveolar bone | SrCS (strontium calcium silicate) | hMSCs (Cells seeded) | Printed constructs | -Gesim Bioscasffolder 3.1 | Higher cell attachment, proliferation, differentiation with Sr. ALP, BSP, OPG, OC up | Chiu et al. (2019) |
-inkjet bioprinting | ||||||
Alveolar bone | Collagen/SrCS (bilayers) | hGFs (Cells encapsulated) | Bioprinted constructs Implanted 12 Wks in rabbit subcutaneously | -Gesim Bioscasffolder 3.1 | Promotes FGF2, BMP2, VEGF secretion. Bone formation around and in the construct (bilayers), around only (single layer) | Chen-Ying Wang et al. (2021) |
SrCS (single layer) | -inkjet bioprinting | |||||
Alveolar bone | Octapeptide/amorphous Mg phosphate | hDPSCs (Cells encapsulated) | Bioprinted constructs | -RegenHU printer | Promotes osteogenic differentiation. High mineralization. Increases bone formation and bone density | Dubey et al. (2020) |
Implanted 4, 8 Wks in rats calvarial defects | -inkjet bioprinting |