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Comparative analysis of monoaminergic cerebrospinal fluid-contacting cells in Osteichthyes (bony vertebrates). , Xavier AL., J Comp Neurol. June 15, 2017; 525 (9): 2265-2283.
Gene expression analysis of developing cell groups in the pretectal region of Xenopus laevis. , Morona R., J Comp Neurol. March 1, 2017; 525 (4): 715-752.
Deep- brain photoreception links luminance detection to motor output in Xenopus frog tadpoles. , Currie SP., Proc Natl Acad Sci U S A. May 24, 2016; 113 (21): 6053-8.
ACT-PRESTO: Rapid and consistent tissue clearing and labeling method for 3-dimensional (3D) imaging. , Lee E ., Sci Rep. January 11, 2016; 6 18631.
Spatiotemporal Development of the Orexinergic (Hypocretinergic) System in the Central Nervous System of Xenopus laevis. , López JM., Brain Behav Evol. January 1, 2016; 88 (2): 127-146.
Ascl1 phospho-status regulates neuronal differentiation in a Xenopus developmental model of neuroblastoma. , Wylie LA., Dis Model Mech. May 1, 2015; 8 (5): 429-41.
Dopamine: a parallel pathway for the modulation of spinal locomotor networks. , Sharples SA., Front Neural Circuits. June 16, 2014; 8 55.
Ascl1 as a novel player in the Ptf1a transcriptional network for GABAergic cell specification in the retina. , Mazurier N., PLoS One. March 18, 2014; 9 (3): e92113.
Wiring the retinal circuits activated by light during early development. , Bertolesi GE ., Neural Dev. February 13, 2014; 9 3.
Angiogenesis in the intermediate lobe of the pituitary gland alters its structure and function. , Tanaka S., Gen Comp Endocrinol. May 1, 2013; 185 10-8.
Pax3 and Zic1 drive induction and differentiation of multipotent, migratory, and functional neural crest in Xenopus embryos. , Milet C., Proc Natl Acad Sci U S A. April 2, 2013; 110 (14): 5528-33.
Pattern of calbindin-D28k and calretinin immunoreactivity in the brain of Xenopus laevis during embryonic and larval development. , Morona R., J Comp Neurol. January 1, 2013; 521 (1): 79-108.
Contexts for dopamine specification by calcium spike activity in the CNS. , Velázquez-Ulloa NA., J Neurosci. January 5, 2011; 31 (1): 78-88.
Immunohistochemical localization of DARPP-32 in the brain and spinal cord of anuran amphibians and its relation with the catecholaminergic system. , López JM., J Chem Neuroanat. December 1, 2010; 40 (4): 325-38.
Sonic hedgehog expression during Xenopus laevis forebrain development. , Domínguez L., Dev Biol. August 6, 2010; 1347 19-32.
Spatio-temporal expression of Pax6 in Xenopus forebrain. , Moreno N ., Brain Res. November 6, 2008; 1239 92-9.
Islet1 as a marker of subdivisions and cell types in the developing forebrain of Xenopus. , Moreno N ., Neuroscience. July 17, 2008; 154 (4): 1423-39.
Ptf1a triggers GABAergic neuronal cell fates in the retina. , Dullin JP., BMC Dev Biol. May 31, 2007; 7 110.
Colocalization of nitric oxide synthase and monoamines in neurons of the amphibian brain. , López JM., Brain Res Bull. September 15, 2005; 66 (4-6): 555-9.
Tyrosine hydroxylase-immunoreactive interneurons in the olfactory bulb of the frogs Rana pipiens and Xenopus laevis. , Boyd JD., J Comp Neurol. December 2, 2002; 454 (1): 42-57.
Identification of suprachiasmatic melanotrope-inhibiting neurons in Xenopus laevis: a confocal laser-scanning microscopy study. , Ubink R., J Comp Neurol. July 20, 1998; 397 (1): 60-8.
Basal ganglia organization in amphibians: chemoarchitecture. , Marín O., J Comp Neurol. March 16, 1998; 392 (3): 285-312.
Brain-derived neurotrophic factor/ neurotrophin-4 receptor TrkB is localized on ganglion cells and dopaminergic amacrine cells in the vertebrate retina. , Cellerino A., J Comp Neurol. September 15, 1997; 386 (1): 149-60.
Development of catecholamine systems in the central nervous system of the newt Pleurodeles waltlii as revealed by tyrosine hydroxylase immunohistochemistry. , González A ., J Comp Neurol. September 11, 1995; 360 (1): 33-48.
Ontogeny of catecholamine systems in the central nervous system of anuran amphibians: an immunohistochemical study with antibodies against tyrosine hydroxylase and dopamine. , González A ., J Comp Neurol. August 1, 1994; 346 (1): 63-79.
Distribution of tyrosine hydroxylase and dopamine immunoreactivities in the brain of the South African clawed frog Xenopus laevis. , González A ., Anat Embryol (Berl). February 1, 1993; 187 (2): 193-201.
Does lineage determine the dopamine phenotype in the tadpole hypothalamus?: A quantitative analysis. , Huang S., J Neurosci. April 1, 1992; 12 (4): 1351-62.
Phosphorylation of human recombinant tyrosine hydroxylase isoforms 1 and 2: an additional phosphorylated residue in isoform 2, generated through alternative splicing. , Le Bourdellès B., J Biol Chem. September 15, 1991; 266 (26): 17124-30.
Development of the Xenopus laevis hatching gland and its relationship to surface ectoderm patterning. , Drysdale TA ., Development. February 1, 1991; 111 (2): 469-78.
Morphology and retinal distribution of tyrosine hydroxylase-like immunoreactive amacrine cells in the retina of developing Xenopus laevis. , Zhu BS., Anat Embryol (Berl). January 1, 1991; 184 (1): 33-45.
Multiple human tyrosine hydroxylase enzymes, generated through alternative splicing, have different specific activities in Xenopus oocytes. , Horellou P., J Neurochem. August 1, 1988; 51 (2): 652-5.