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. Author manuscript; available in PMC: 2011 Aug 15.
Published in final edited form as: Dev Biol. 2010 Apr 23;344(2):543–554. doi: 10.1016/j.ydbio.2010.04.010

Table 1.

Phase of migration Cue Proposed Role Reference
Delamination Slug Involved in the epithelial to mesenchymal transition (Nieto et al., 1994)
Delamination RhoB Necessary for correct delamination of NCCs (Liu and Jessell, 1998)
Delamination Cadherins Cell-cell adhesion molecules that control the timing of emigration, delamination and migration (Borchers et al., 2001; Coles et al., 2007; Kashef et al., 2009; McCusker et al., 2009; Taneyhill, 2008)
Migration Hox genes Maintain segmental identity of cranial NCCs Reviewed by (Trainor and Krumlauf, 2000)
Migration Integrins Mediate NCC motility on fibronectin in avian, Xenopus and mouse (Alfandari et al., 2003; Strachan and Condic, 2003; Strachan and Condic, 2008)
Migration Chemokines Regulate cell migration and patterning in zebrafish (Olesnicky Killian et al., 2009)
Migration EphA4, EphB1 and ephrin-B2 Prevent intermingling of third and second arch Xenopus NCCs (Smith et al., 1997)
Migration Multiple Ephs and ephrins Restricts avian and murine NCCs into streams by Inhibiting migration into NCC- free zones (Adams et al., 2001; Davy et al., 2004; Mellott and Burke, 2008)
Migration Neuropilin-1 and Semaphorin- 3A, -3F Avian and murine cranial NCCs express neuropilin-1 and are repelled by semaphorin-3A (Eickholt et al., 1999; Gammill et al., 2007; Osborne et al., 2005; Schwarz et al., 2008)
Migration Neuropilin-1a,- 1b, -2a, -2b and Semaphorin- 3Fa, -3Ga Restricts zebrafish NCCs into streams by inhibiting migration into NCC-free zones (Yu and Moens, 2005)
Migration Wnt11r Promotes Xenopus cranial NCC migration (Matthews et al., 2008)
Migration Myosin-X Promotes migration and segregation of Xenopus cranial NCCs (Hwang et al., 2009; Nie et al., 2009)
Induction, Migration and Differentiation BMPs Multiple roles Reviewed by (Nie et al., 2006)
Migration Retinoic Acid Mediates the segmental migration of cranial NCCs (Dupe and Pellerin, 2009; Menegola et al., 2004); (Lee et al., 1995); (Pratt et al., 1987)
Migration RhoA Influences migration rate and filopodia dynamics (Rupp and Kulesa, 2007)
Migration and differentiation Laminin alpha5 Required for proper migration and timely differentiation of a subset of murine cranial NCCs (Coles et al., 2006)
Migration and differentiation Disc1 Represses transcription of foxd3 and sox10 (Drerup et al., 2009)
Migration ErbB4 Maintains the r3-adjacent NCC-free zone (Golding et al., 2004; Golding et al., 2000)
Migration Chokh/rx3 Mutant chokh/rx3 zebrafish lack eyes and have disorganized NCC dorsal anterior migration (Langenberg et al., 2008)
Target invasion Neuropilin-1 and VEGF VEGF attracts neuropilin-1 expressing NCCs into branchial arch 2 (McLennan and Kulesa, 2007; McLennan et al., 2010)
Trigeminal ganglion formation Neuropilin-2 and Semaphorin- 3F Mice with null mutations in either molecule display improperly formed ganglia (Gammill et al., 2007)
Trigeminal ganglion formation Robo2 and Slit1 Disruption of either molecule results in disorganized ganglia (Shiau et al., 2008)
Palatogenesis PDGF and MicroRNA Mirn140 PDGF is required for NCCs to contribute to cranial mesenchyme and attracts zebrafish NC-derived palatal precursors (Eberhart et al., 2008; Tallquist and Soriano, 2003)
Target invasion FGFR1 Provides a permissive environment for NCC migration into branchial arch 2 (Trokovic et al., 2005)
Target invasion Endothelin-1 and endothelin A receptor Required for proper migration into or within the arches (Abe et al., 2007; Clouthier et al., 2003; Pla and Larue, 2003); (Clouthier et al., 2000)
Survival and proliferation Msx1 and Msx2 Mouse mutants display impaired cranial NCC patterning, survival and proliferation (Han et al., 2003; Ishii et al., 2005)
Survival and/or differentiation B-catenin Conditional inactivation of B- catenin results in increased apoptosis in mouse cranial NCCs and craniofacial malformations (Brault et al., 2001)
Survival Sonic Hedgehog Reduction in sonic hedgehog signaling leads to increased neural tube and NCC death (Ahlgren and Bronner-Fraser, 1999; Jeong et al., 2004)
Survival and differentiation Dlx2 Involved in survival of zebrafish cranial NCCs and differentiation of sensory ganglia (Sperber et al., 2008)
Survival, proliferation and differentiation Pinch1 Required for multiple steps for the development of murine cranial NCC-derived structures (Liang et al., 2007)
Proliferation TGF-beta Mediates FGF signaling which is required for cranial NCC proliferation (Iwata et al., 1999; Oka et al., 2008; Sasaki et al., 2006)
Proliferation and differentiation FGF2 Depending on the concentration of FGF2, either proliferation is enhanced or cartilage differentiation is induced (Sarkar et al., 2001)
HHS Vulnerability Disclosure