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XB-IMG-76437

Xenbase Image ID: 76437


Fig. 5. Effects of Dlx3 or GATA2 gain or loss of function on non-neural ectodermal markers. (A-G′′) Neural plate stage embryos after unilateral injection (lower half; marked by light blue β-galactosidase or green mycGFP staining) of various constructs as indicated. Reductions (arrows) and broadening or ectopic expression domains (asterisks) in the neural (green) and non-neural (orange) ectoderm compared with the control side (arrowheads) are indicated. Insets depict additional embryos with ectopic expression of Six1 (A), Eya1 (B) and Dlx5 (D) in central neural plate.

Image published in: Pieper M et al. (2012)

Copyright © 2012. Image reproduced with permission of the publisher and the copyright holder. This is an Open Access article distributed under the terms of the Creative Commons Attribution License.

GeneSynonymsSpeciesStage(s)Tissue
six1.LXSix1X. laevisThroughout NF stage 18anterior placodal area
eya1.Leyes absent-1, XEya1X. laevisThroughout NF stage 18anterior placodal area
foxi2.Sfoxi2-a, foxi2-bX. laevisThroughout NF stage 18neural plate
anterior placodal area
dlx5.Ldll3, X-dll3X. laevisThroughout NF stage 18neural plate
non-neural ectoderm
neural plate border
cement gland primordium
anterior placodal area
gata2.LGATA-2, xGATA-2, xgata2X. laevisThroughout NF stage 20non-neural ectoderm
neural plate border
krt12.4.Lck81, cytok, cytokeratin, E-keratin, epi-keratin, epidermal keratin, Epidermis-specific keratin, EpiK, epiker, EpK, epK, K81, xK81, xk81a, xk81a1X. laevisThroughout NF stage 22non-neural ectoderm
epidermis

Image source: Published

Experiment + Assay Source Phenotypes and Disease
Xla Wt + dlx3 + NF16 (in situ hybridization) fig.5.a
Expression Phenotype
increased amount six1.L expression in neuroectoderm
mislocalised six1.L expression in neuroectoderm
Xla Wt + dlx3 + NF16 (in situ hybridization) fig.5.a
Expression Phenotype
decreased amount six1.L expression in non-neural ectoderm
Xla Wt + gata2 + NF16 (in situ hybridization) fig.5.a'
Expression Phenotype
decreased amount six1.L expression in non-neural ectoderm
Xla Wt + dlx3 MO + NF16 (in situ hybridization) fig.5.a^1
Expression Phenotype
decreased amount six1.L expression in non-neural ectoderm
Xla Wt + gata2 MO + NF16 (in situ hybridization) fig.5.a^3
Expression Phenotype
decreased amount six1.L expression in non-neural ectoderm
Xla Wt + dlx3 + NF16 (in situ hybridization) fig.5.b
Expression Phenotype
mislocalised eya1.L expression in neuroectoderm
increased amount eya1.L expression in neuroectoderm
Xla Wt + dlx3 + NF16 (in situ hybridization) fig.5.b
Expression Phenotype
decreased amount eya1.L expression in non-neural ectoderm
Xla Wt + gata2 + NF16 (in situ hybridization) fig.5.b'
Expression Phenotype
decreased amount eya1.L expression in non-neural ectoderm
Xla Wt + dlx3 MO + NF16 (in situ hybridization) fig.5.b^1
Expression Phenotype
decreased amount eya1.L expression in non-neural ectoderm
Xla Wt + gata2 MO + NF16 (in situ hybridization) fig.5.b^3
Expression Phenotype
decreased amount eya1.L expression in non-neural ectoderm
Xla Wt + dlx3 + NF16 (in situ hybridization) fig.5.c
Expression Phenotype
increased amount foxi1.L expression in neuroectoderm
mislocalised foxi1.L expression in neuroectoderm
Xla Wt + dlx3 + NF16 (in situ hybridization) fig.5.c
Expression Phenotype
decreased amount foxi1.L expression in non-neural ectoderm
Xla Wt + gata2 + NF16 (in situ hybridization) fig.5.c'
Expression Phenotype
decreased amount foxi1.L expression in non-neural ectoderm
Xla Wt + dlx3 MO + NF16 (in situ hybridization) fig.5.c^1
Expression Phenotype
decreased amount foxi1.L expression in non-neural ectoderm
Xla Wt + gata2 MO + NF16 (in situ hybridization) fig.5.c^3
Expression Phenotype
decreased amount foxi1.L expression in non-neural ectoderm
Xla Wt + dlx3 + NF16 (in situ hybridization) fig.5.d
Expression Phenotype
increased amount dlx5.L expression in neuroectoderm
mislocalised dlx5.L expression in neuroectoderm
Xla Wt + dlx3 + NF16 (in situ hybridization) fig.5.d
Expression Phenotype
decreased amount dlx5.L expression in non-neural ectoderm
Xla Wt + gata2 + NF16 (in situ hybridization) fig.5.d'
Expression Phenotype
decreased amount dlx5.L expression in non-neural ectoderm
Xla Wt + dlx3 MO + NF16 (in situ hybridization) fig.5.d^1
Expression Phenotype
decreased amount dlx5.L expression in non-neural ectoderm
Xla Wt + gata2 MO + NF16 (in situ hybridization) fig.5.d^3
Expression Phenotype
decreased amount dlx5.L expression in non-neural ectoderm
Xla Wt + dlx3 + NF16 (in situ hybridization) fig.5.e
Expression Phenotype
decreased amount gata2.L expression in non-neural ectoderm
Xla Wt + dlx3 MO + NF16 (in situ hybridization) fig.5.e^1
Expression Phenotype
decreased amount gata2.L expression in non-neural ectoderm
Xla Wt + gata2 + NF16 (in situ hybridization) fig.5.f
Expression Phenotype
increased amount dlx3.L expression in neuroectoderm
mislocalised dlx3.L expression in neuroectoderm
Xla Wt + gata2 MO + NF16 (in situ hybridization) fig.5.f^1
Expression Phenotype
decreased amount dlx3.L expression in non-neural ectoderm
Xla Wt + dlx3 + NF16 (in situ hybridization) fig.5.g
Expression Phenotype
decreased amount krt70.S expression in non-neural ectoderm
Xla Wt + gata2 + NF16 (in situ hybridization) fig.5.g'
Expression Phenotype
decreased amount krt70.S expression in non-neural ectoderm
Xla Wt + dlx3 MO + NF16 (in situ hybridization) fig.5.g^1
Expression Phenotype
decreased amount krt70.S expression in non-neural ectoderm
Xla Wt + gata2 MO + NF16 (in situ hybridization) fig.5.g^3
Expression Phenotype
decreased amount krt70.S expression in non-neural ectoderm

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