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. 2017 Dec 1;8(6):792–811. doi: 10.14336/AD.2017.0428

Table 1.

Markers of stem cell proliferation and differentiation in different stages.

Marker Property Affected cell type Function Refs.
Hopx atypical homeodomain only protein NSCs regulates hippocampal neurogenesis by modulating Notch signaling [33]
Hes3 basic helix-loop- helix gene NSCs promote the proliferation of NSCs
maintain the undifferentiated state of NSCs
[34, 35]
TRIP6 zyxin family proteins NSCs promote the self-renewal and proliferation of NSCs [36]
CycE cyclin NSCs regulate neurogenesis in the adult hippocampus [37]
JAM-C surface protein NSCs maintain the pluripotency of NSCs [38]
PtdGlc lipid NSCs identify, isolate, and differentiate NSCs [39]
CD9 transmembrane protein NSPCs have an impact on the cell adhesion, migration, proliferation and differentiation [40, 41]
CD15 transmembrane protein NSPCs promote the survival of NSCs;
promote the differentiation of NSCs into oligodendroglia
[40, 42]
CD81 transmembrane protein NSPCs control the cell migration [40, 43]
S100β acid calcium binding protein NSPCs regulate the proliferation of NSCs [44]
CD133 transmembrane protein NPCs promote the expansion of NSCs in vitro and its degree of specialization [45, 46]
CD24 transmembrane protein NPCs play an important role in self-renewal;
maintain NSCs
[45, 47, 48]
Pax2 paired box gene NPCs regulate the migration and proliferation of nerve cells [49]
NG2 transmembrane proteoglycan NPCs regulate the migration of the oligodendrocyte precursor cells [50, 51]
Nestin intermediate filaments protein cytoskeletal protein NSCs and NSPCs be a marker for proliferating or migrating cells;
participate in cytoskeleton formation; remodel cells along with other structural proteins;
[52-55]
Musashi1 RNA- binding protein NSCs and NSPCs determine the fate of stem cells;
maintain the undifferentiated state of NSCs or NSPCs;
[56-61]
Tub-II cytoskeleton protein NSCs and NSPCs reflect the structural changes in the development of the brain [62, 63]
SOX2 high-mobility group proteins NSCs and NSPCs play a role in self-renewal and maintenance of NSCs;
prevent the apoptosis of NSCs.
[56, 64, 65]
SOX1 high-mobility group proteins NSCs and NSPCs promote the self-renewal of NSCs [66-68]
Sp8 zinc finger protein NSCs and NSPCs maintain the undifferentiated state of NSCs [69, 70]
S100A6i low-molecular-weight calcium-binding proteins NSCs and NPCs promote the neurogenesis in the hippocampus;
play an important role in the differentiation and maturation of astrocytes
[71]
Prox1 homeobox transcription factor neuroblasts play an important role in regulating the proliferation and differentiation of NSCs;
maintain the intermediate progenitor cells
[72, 73]
Cyc D1 cyclin neuroblasts promote the proliferation of NSCs;
inhibit their differentiation
[74, 75, 204]
DCX microtubule-associated protein neuroblasts regulate the migration of neural cells [76, 77]

The table lists the markers of NSCs proliferation and differentiation, the property of the markers, the cell type they affect, and their function in NSC proliferation and differentiation: Tub-II, tubulin beta II; SOX2, sex-determining region Y-box2; SOX1, sex-determining region Y-box1; Sp8, specificity protein 8; PAX2, paired box protein 2; Hopx, homeodomain only protein X; Hes3, hairy and enhancer of split 3; TRIP6, thyroid receptor-interacting protein 6; CycE, cyclinE;JAM-C, junctional adhesion molecule-C; PtdGlc, phosphatidylglucoside; S100β, S100 calcium-binding protein B; NG2, Neuron glia antigen 2; Cyc D1, Cyclin D1; Prox1, prospero homeobox protein 1; DCX, doublecortin; NSCs, neural stem cells; NSPCs, neural progenitor cells; NPCs, neural precursor cells.