RGD-GO-PLGA |
Nanofibers |
Muscle cells |
Regeneration of vascular smooth muscle |
[14] |
Functionalization of chitosan, gelatin, β-glycerphosphate with RGD peptide |
Hydrogel |
Myocardial tissue |
Vascularization and tissue regeneration |
[76] |
Chitosan/biphasic calcium phosphate scaffolds functionalized-RGD |
Hydrogel |
Bone tissue |
Bone regeneration |
[77] |
RGD |
Hydrogels |
Bone tissue |
Growth-factor-free microenvironment |
[49] |
c-RGDfK |
Hydrogel |
Bone tissue |
Bone regeneration |
[50] |
Functionalized RGD |
Hydrogels |
Bone tissue |
Bone sialoprotein |
[55] |
RGD-conjugated PEG-diacrylate (PEODA) |
Hydrogel |
Bone tissue |
Osteogenesis of bone marrow derived stromal cells |
[78] |
RGD-peptide-coupled alginates |
Gel |
Bone tissue |
Chemoenzymatic |
[15] |
RGD peptides |
Gel |
Bone tissue |
Mesenchymal stem cell |
[79] |
RGD-modified three-dimensional porous PCL scaffolds |
Gel |
Bone tissue |
Interaction between bone marrow stromal cells |
[80] |
RGD-modified silk |
Fiber |
Bone tissue |
Ligament fibroblast responses |
[81] |
Lysine-cyclic RGD peptide |
NA |
Bone tissue |
Cell retention technology |
[21] |
Laser groove/RGD-functionalized Ti-6Al-4V |
NA |
Bone tissue |
Pins in rabbit femurs |
[60] |
RGD-decorated PLGA |
Fiber |
Skeletal tissue |
Skeletal tissue regeneration |
[30] |
Hyaluronic acid/RGD-functionalized |
Hydrogel |
Cartilage tissue |
Enhancement in chondrogenesis |
[82] |
Cyclic RGD-peptides |
NA |
Cartilage tissue |
Articular cartilage |
[16] |
RGD |
Fiber |
Cardiac tissue |
Cardiac tissue engineering |
[22] |
RGD motifs |
Myofibers |
Heart/cardiac tissue |
Myocardial repair |
[23] |
RGDfK-Peptide |
Gel |
Cardiac tissue |
Cell transplantation and cardiac neovascularization |
[24] |
Immobilized RGD peptide |
Gel |
Cardiac tissue |
Cardiac tissue engineering |
[25] |
RGD-modified acellular bovine pericardium |
Fiber |
Acellular tissues |
Scaffold for tissue engineered heart valves |
[83] |
RGD dimer peptides |
Fiber |
Aortic arch tissue |
Imaging of high-risk atherosclerotic plaques |
[84] |
Cyclic RGD peptide |
Hydrogels |
Vascular grafts tissue |
Enhancement in graft performance |
[64] |
RGD-modified poly(ester-urethane) urea |
Fiber |
Vascular tissue |
Potential application for vascular tissue engineering |
[67] |
Functionalized RGD |
Fiber |
Endothelial tissue |
Rabbit carotid artery model |
[65] |
RGD-functionalized polymer |
Fibers |
Endothelial cells |
Adhesion of human umbilical vein endothelial cells |
[20] |
GRGDSP |
NA |
Blood tissue |
Endothelization of small-diameter vascular grafts and tissue engineering of blood vessels |
[32] |
Recombinant RGD-Silk |
Fiber |
Human corneal cells |
Substrates for human corneal cells |
[70] |
ECM peptide RGD |
Fiber |
Human corneal epithelial tissue |
Corneal epithelial contact guidance |
[85] |
RGD-alginate |
Hydrogel |
Retinal tissue |
Improvement in retinal tissue development |
[74] |
Helicoidal multi-lamellar features of RGD-functionalized |
NA |
Corneal tissue |
Corneal tissue engineering |
[86] |
Bicyclic RGD peptides |
Fiber |
Neurites |
Nerve growth |
[48] |
RGD-modified peptide |
Hydrogel |
Gland tissue |
Gland tissue growth and morphology in vitro |
[29] |
RGD-modified polymers |
Fiber |
CNS tissue replacement |
Stimulated cell adhesion |
[17] |
Functionalized RGD |
Hydrogel |
Neural tissue |
Neural tissue repair |
[45] |
Phospholipid bilayers functionalized RGD peptides |
3D Gel |
Scaffold-based tissue |
Neural stem cell adhesion and proliferation |
[87] |
Bicyclic RGD peptides |
NA |
NA |
Integrin αvβ3 receptor |
[19] |
RGD |
NA |
Fibroactin tissue |
Cell adhesion |
[88] |
RGD-modified recombinant spider silk proteins |
Fiber |
Fibroblasts |
Cell adhesion and proliferation |
[89] |