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The melanocyte photosensory system in the human skin. , Iyengar B., Springerplus. April 12, 2013; 2 (1): 158.
Pituitary melanotrope cells of Xenopus laevis are of neural ridge origin and do not require induction by the infundibulum. , Eagleson GW ., Gen Comp Endocrinol. August 1, 2012; 178 (1): 116-22.
The role of brain-derived neurotrophic factor in the regulation of cell growth and gene expression in melanotrope cells of Xenopus laevis. , Jenks BG ., Gen Comp Endocrinol. July 1, 2012; 177 (3): 315-21.
The origins and evolution of vertebrate metamorphosis. , Laudet V ., Curr Biol. September 27, 2011; 21 (18): R726-37.
ERK-regulated double cortin-like kinase (DCLK)-short phosphorylation and nuclear translocation stimulate POMC gene expression in endocrine melanotrope cells. , Kuribara M., Endocrinology. June 1, 2011; 152 (6): 2321-9.
Plasticity of melanotrope cell regulations in Xenopus laevis. , Roubos EW ., Eur J Neurosci. December 1, 2010; 32 (12): 2082-6.
BDNF stimulates Ca2+ oscillation frequency in melanotrope cells of Xenopus laevis: contribution of IP3-receptor-mediated release of intracellular Ca2+ to gene expression. , Kuribara M., Gen Comp Endocrinol. November 1, 2010; 169 (2): 123-9.
Ultrastructural and neurochemical architecture of the pituitary neural lobe of Xenopus laevis. , van Wijk DC., Gen Comp Endocrinol. September 1, 2010; 168 (2): 293-301.
Pituitary adenylate cyclase-activating polypeptide regulates brain-derived neurotrophic factor exon IV expression through the VPAC1 receptor in the amphibian melanotrope cell. , Kidane AH., Endocrinology. August 1, 2008; 149 (8): 4177-82.
Actions of PACAP and VIP on melanotrope cells of Xenopus laevis. , Kidane AH., Peptides. September 1, 2007; 28 (9): 1790-6.
Plasticity in the melanotrope neuroendocrine interface of Xenopus laevis. , Jenks BG ., Neuroendocrinology. January 1, 2007; 85 (3): 177-85.
Studies of pigment transfer between Xenopus laevis melanophores and fibroblasts in vitro and in vivo. , Aspengren S., Pigment Cell Res. April 1, 2006; 19 (2): 136-45.
Urocortins of the South African clawed frog, Xenopus laevis: conservation of structure and function in tetrapod evolution. , Boorse GC., Endocrinology. November 1, 2005; 146 (11): 4851-60.
Frog melanophores cultured on fluorescent microbeads: biomimic-based biosensing. , Andersson TP., Biosens Bioelectron. July 15, 2005; 21 (1): 111-20.
A cell-specific transgenic approach in Xenopus reveals the importance of a functional p24 system for a secretory cell. , Bouw G., Mol Biol Cell. March 1, 2004; 15 (3): 1244-53.
Alpha- melanophore-stimulating hormone in the brain, cranial placode derivatives, and retina of Xenopus laevis during development in relation to background adaptation. , Kramer BM., J Comp Neurol. January 27, 2003; 456 (1): 73-83.
Characterization and functional expression of cDNAs encoding thyrotropin-releasing hormone receptor from Xenopus laevis. , Bidaud I., Eur J Biochem. September 1, 2002; 269 (18): 4566-76.
Multiple control and dynamic response of the Xenopus melanotrope cell. , Kolk SM., Comp Biochem Physiol B Biochem Mol Biol. May 1, 2002; 132 (1): 257-68.
Evidence that brain-derived neurotrophic factor acts as an autocrine factor on pituitary melanotrope cells of Xenopus laevis. , Kramer BM., Endocrinology. April 1, 2002; 143 (4): 1337-45.
Dynamics of proopiomelanocortin and prohormone convertase 2 gene expression in Xenopus melanotrope cells during long-term background adaptation. , Dotman CH., J Endocrinol. November 1, 1998; 159 (2): 281-6.
Background adaptation by Xenopus laevis: a model for studying neuronal information processing in the pituitary pars intermedia. , Roubos EW ., Comp Biochem Physiol A Physiol. November 1, 1997; 118 (3): 533-50.
Sauvagine and TRH differentially stimulate proopiomelanocortin biosynthesis in the Xenopus laevis intermediate pituitary. , Dotman CH., Neuroendocrinology. August 1, 1997; 66 (2): 106-13.
Physiologically induced Fos expression in the hypothalamo-hypophyseal system of Xenopus laevis. , Ubink R., Neuroendocrinology. June 1, 1997; 65 (6): 413-22.
The thyroid hormone-induced tail resorption program during Xenopus laevis metamorphosis. , Brown DD ., Proc Natl Acad Sci U S A. March 5, 1996; 93 (5): 1924-9.
Involvement of retinohypothalamic input, suprachiasmatic nucleus, magnocellular nucleus and locus coeruleus in control of melanotrope cells of Xenopus laevis: a retrograde and anterograde tracing study. , Tuinhof R., Neuroscience. July 1, 1994; 61 (2): 411-20.
Characterization of the genomic corticotropin-releasing factor ( CRF) gene from Xenopus laevis: two members of the CRF family exist in amphibians. , Stenzel-Poore MP., Mol Endocrinol. October 1, 1992; 6 (10): 1716-24.
Structure and expression of Xenopus prohormone convertase PC2. , Braks JA., FEBS Lett. June 22, 1992; 305 (1): 45-50.
Comparative structural analysis of the transcriptionally active proopiomelanocortin genes A and B of Xenopus laevis. , Deen PM., Mol Biol Evol. May 1, 1992; 9 (3): 483-94.
Immunohistochemical localization of beta-endorphin-like material in the urodele and anuran amphibian tissues. , Vethamany-Globus S., Gen Comp Endocrinol. August 1, 1989; 75 (2): 271-9.
Control of melanoblast differentiation in amphibia by alpha- melanocyte stimulating hormone, a serum melanization factor, and a melanization inhibiting factor. , Fukuzawa T ., Pigment Cell Res. January 1, 1989; 2 (3): 171-81.
The pituitary adrenocorticotropes originate from neural ridge tissue in Xenopus laevis. , Eagleson GW ., J Embryol Exp Morphol. June 1, 1986; 95 1-14.
Further studies on the melanophores of periodic albino mutant of Xenopus laevis. , Fukuzawa T ., J Embryol Exp Morphol. February 1, 1986; 91 65-78.
[Nle4, D-Phe7]- alpha-MSH: a superpotent melanotropin with prolonged action on vertebrate chromatophores. , Hadley ME., Comp Biochem Physiol A Comp Physiol. January 1, 1985; 81 (1): 1-6.
Biosynthesis, processing, and control of release of melanotropic peptides in the neurointermediate lobe of Xenopus laevis. , Loh YP., J Gen Physiol. July 1, 1977; 70 (1): 37-58.