Table 1.
Model | Phenotype Underlying MOWS-Like Defects | Publication |
---|---|---|
SIP1
fl ox(ex7) SIP1 fl ox(ex7) EIIa-Cre; Zeb2 Δex7/Δex7 |
Early post-gastrulation embryonic lethality, failure of neural tube closure, cranial NCC delamination and migration, and vagal NCC generation, defected somite boundary positioning | Higashi et al., 2002, van de Putte et al., 2003, Maruhashi et al., 2005 [48,53,57] |
Zp3-Cre; Zeb2+/Δex7; ΔEF1+/− | Defect in somite production and developmental arrest at E8.5, severe defected dorsal neural tube | Miyoshi et al., 2006 [58] |
Emx1-Cre+/−; Zeb2KO/ Δex7 | Lack of hippocampus and corpus callosum | Miquelajauregui et al., 2007 [61] |
Wnt1-Cre+/−; Zeb2KO/ Δex7 | Abnormal craniofacial, hearth and melanocyte development and defects in the PNS of the gastrointestinal tract and sympatho-adrenal lineage | van de Putte et al., 2007 [8] |
Nestin-Cre+/−; Zeb2KO/ Δex7 | Defects in cortical layering and in interneuron migration | Seuntjens et al., 2009 [47] |
Nex-Cre+/−; Zeb2KO/ Δex7 | Defects in cortical layering | Seuntjens et al., 2009 [47] |
Nex-Cre+/−; Zeb2KO/Δex7; Ntf3−/− | Defects in cortical layering | Seuntjens et al., 2009 [47] |
Olig1-Cre+/−; Zeb2Δex7/Δex7 | Defects in the maturation of precursor cells to oligodendrocytes and impaired myelin formation | Weng et al., 2012 [62] |
Nkx2.1-Cre+/−; Zeb2KO/ Δex7 | Defects in GABAergic interneuron migration | McKinsey et al., 2013, van den Berghe et al., 2013 [63,64] |
Gsh2-Cre+/−; Zeb2KO/ Δex7 | Defects in GABAergic interneuron migration and seizures | van den Berghe et al., 2013 [64] |
Dlx5/6-Cre+/−; Zeb2KO/ Δex7 | Defects in GABAergic interneuron migration | van den Berghe et al., 2013 [64] |
Zeb2Δex7/+; pure C57BL/6N | Craniofacial abnormalities, defective corpus callosum formation, decreased numbers of parvalbumin interneurons in the cortex, reduced motor activity, increased anxiety, and impaired sociability | Takagi et al., 2015 [65] |
Nex-Cre+/−; Zeb2+/Δex7 | Defects in axonal growth and ipsilateral intracortical collateral formation | Srivatsa et al., 2015 [66] |
Dhh-Cre+/−; Zeb2 Δex7/Δex7 | Arrest of Schwann Cell differentiation during peripheral nerve development and inhibition of remyelination after injury | Wu et al., 2016, Quintes et al., 2016 [67,68] |
Dhh-Cre; Zeb2Δex7/Δex7; EdnrbΔ/Δ Dhh-Cre; Zeb2Δex7/Δex7; Hey2Δ/Δ |
More mature axon-Schwann Cell units | Quintes et al., 2016 [67] |
Nestin-Cre+/−; Zeb2KO/ Δex7 | Increased BMP/Smad dependent axon growth and dopaminergic hyperinnervation in the striatum | Hegarty et al., 2017 [69] |
Gsh2-Cre+/−; Zeb2KO/ Δex7 | Defects in differentiation and maturation of olfactory bulb interneurons | Deryckere et al., 2020 [30] |
Gfap-CreERT2; Zeb2Δex7/Δex7 | Larger lesions, and delays recovery of motor function after spinal cord injury or ischemic stroke | Vivinetto et al., 2020 [70] |
Nex-Cre; Zeb2 Δex7/Δex7 | Decreased expression of excitatory receptors and an impaired Ca2+ signaling | Turovskaya et al., 2020 [71] |
Zeb2+/−; Sox10+/− | Defects in ENS | Stanchina et al., 2010 [59] |
Zeb2KO/+; Ednrbs
Zeb2KO/+; Edn3ls |
Severe enteric anomalies and increased neuronal differentiation | Watanabe et al., 2017 [72] |
Zeb2+/KO | Reduced pain response, defects in nociceptive transduction signals | Jeub et al., 2011 [73] |
Zeb2+/KO | Reduced pain response, defects in DRG neuron development | Pradier et al., 2013 [74] |
Brn4-Cre+/−; Zeb2KO/ Δex7 | Defects in visceral motor neurons | Roy et al., 2012 [75] |
Tyr-Cre; Zeb2 Δex7/Δex7 | Defects in melanoblast migration and melanocyte differentiation | Denecker et al., 2014 [76] |
Pax6(Lens)-Cre; Ze Δex7/Δex7 Pax6(LP)-Cre; Zeb2 Δex7/Δex7 | Defects in vesicle lens closure and defects in lens fiber maturation | Yoshimoto et al., 2005 [77] |
MLR10-Cre; Zeb2 Δex7/Δex7 | Defects in coordinated cell migration, cataract formation and abnormalities in fiber cell organization in the lens | Manthey et al., 2014 [78] |
α-Cre; Zeb2Δex7/Δex7 | Defects in cell numbers of various neuronal and glial cell types in the retina | Menuchin-Lasowski et al., 2016 [79] |
Six3-Cre; Zeb2 Δex7/Δex7 | Loss of non-photoreceptor cells, switch in cell fate to photoreceptor cells by retinal progenitors and increased apoptosis | Wei et al., 2019 [80] |
Nrc1iCre; Zeb2 Δex7/Δex7 | Impaired NK cell maturation, survival and bone marrow exit | Van Helden et al., 2015 |
Nrc1iCre; R26-Zeb2Tg | Decreased NK cells in the bone marrow and an increase in mature NK cells in the spleen and bone marrow | Van Helden et al., 2015 [39] |
αMHC-Cre; Zeb2 Δex7/Δex7 | Impaired cardiac contractility and infarct healing post-myocardial infarction | Gladka et al., 2021 [81] |
αMHC-Cre-R26Zeb2OE | Improved cardiomyocyte survival and cardiac function | Gladka et al., 2021 [81] |
Cdh5-CreERT2; Zeb2Δex7/Δex7 | Expanded liver vasculature and irregularities in the angioarchitecture | De Haan et al., 2021 [82] |
Cdh5-CreERT2; R26-Zeb2OE | Reduced vascularity and attenuated CCl4-induced liver fibrosis | De Haan et al., 2021 [82] |
Tyr-CreERT2; Zeb2 Δex7/Δex and Tyr-NRAS p53 | Decreased outgrowth of primary melanomas | Bruneel et al., 2020 [83] |
R26-Zeb2OE/OEiresGFP | Increased proliferation and growth of primary and secondary melanomas | Bruneel et al., 2020 [83] |