Papers associated with melanotrope

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	Brain-derived neurotrophic factor in the hypothalamo-hypophyseal system of Xenopus laevis., Wang L., Ann N Y Acad Sci. April 1, 2005; 1040 512-4.
	Calcium influx through voltage-operated calcium channels is required for proopiomelanocortin protein expression in Xenopus melanotropes., van den Hurk MJ., Ann N Y Acad Sci. April 1, 2005; 1040 494-7.
	Analysis of Xenopus melanotrope cell size and POMC-gene expression., Corstens GJ., Ann N Y Acad Sci. April 1, 2005; 1040 269-72.
	Neuronal, neurohormonal, and autocrine control of Xenopus melanotrope cell activity., Roubos EW., Ann N Y Acad Sci. April 1, 2005; 1040 172-83.
	In situ hybridization localization of TRH precursor and TRH receptor mRNAs in the brain and pituitary of Xenopus laevis., Galas L., Ann N Y Acad Sci. April 1, 2005; 1040 95-105.
	A fast method to study the secretory activity of neuroendocrine cells at the ultrastructural level., Van Herp F., J Microsc. April 1, 2005; 218 (Pt 1): 79-83.
	The extracellular calcium-sensing receptor increases the number of calcium steps and action currents in pituitary melanotrope cells., van den Hurk MJ., Neurosci Lett. March 29, 2005; 377 (2): 125-9.
	Comparative analysis and expression of neuroserpin in Xenopus laevis., de Groot DM., Neuroendocrinology. January 1, 2005; 82 (1): 11-20.
	Melanotrope cells of Xenopus laevis express multiple types of high-voltage-activated Ca2+ channels., Zhang HY., J Neuroendocrinol. January 1, 2005; 17 (1): 1-9.
	Low temperature stimulates alpha-melanophore-stimulating hormone secretion and inhibits background adaptation in Xenopus laevis., Tonosaki Y., J Neuroendocrinol. November 1, 2004; 16 (11): 894-905.
	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.
	Dopamine D2-receptor activation differentially inhibits N- and R-type Ca2+ channels in Xenopus melanotrope cells., Zhang H., Neuroendocrinology. January 1, 2004; 80 (6): 368-78.
	Differential distribution and regulation of expression of synaptosomal-associated protein of 25 kDa isoforms in the Xenopus pituitary gland and brain., Kolk SM., Neuroscience. January 1, 2004; 128 (3): 531-43.
	Activity-dependent dynamics of coexisting brain-derived neurotrophic factor, pro-opiomelanocortin and alpha-melanophore-stimulating hormone in melanotrope cells of Xenopus laevis., Wang LC., J Neuroendocrinol. January 1, 2004; 16 (1): 19-25.
	Role of cortical filamentous actin in the melanotrope cell of Xenopus laevis., Corstens GJ., Gen Comp Endocrinol. November 1, 2003; 134 (2): 95-102.
	Expression and characterization of the extracellular Ca(2+)-sensing receptor in melanotrope cells of Xenopus laevis., van den Hurk MJ., Endocrinology. June 1, 2003; 144 (6): 2524-33.
	Ca2+ oscillations in melanotropes of Xenopus laevis: their generation, propagation, and function., Jenks BG., Gen Comp Endocrinol. May 1, 2003; 131 (3): 209-19.
	Electrical membrane activity and intracellular calcium buffering control exocytosis efficiency in Xenopus melanotrope cells., Scheenen WJ., Neuroendocrinology. March 1, 2003; 77 (3): 153-61.
	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.
	Demonstration of postsynaptic receptor plasticity in an amphibian neuroendocrine interface., Jenks BG., J Neuroendocrinol. November 1, 2002; 14 (11): 843-5.
	Sauvagine regulates Ca2+ oscillations and electrical membrane activity of melanotrope cells of Xenopus laevis., Cornelisse LN., J Neuroendocrinol. October 1, 2002; 14 (10): 778-87.
	TRH signal transduction in melanotrope cells of Xenopus laevis., Lieste JR., Gen Comp Endocrinol. June 1, 2002; 127 (1): 80-8.
	New aspects of signal transduction in the Xenopus laevis melanotrope cell., Roubos EW., Gen Comp Endocrinol. May 1, 2002; 126 (3): 255-60.
	Regulation of neurons in the suprachiasmatic nucleus of Xenopus laevis., Kramer BM., Comp Biochem Physiol B Biochem Mol Biol. May 1, 2002; 132 (1): 269-74.
	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.
	Transgene-driven protein expression specific to the intermediate pituitary melanotrope cells of Xenopus laevis., Jansen EJ., FEBS Lett. April 10, 2002; 516 (1-3): 201-7.
	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.
	Cell-type-specific and selectively induced expression of members of the p24 family of putative cargo receptors., Rötter J., J Cell Sci. March 1, 2002; 115 (Pt 5): 1049-58.
	Localization of p24 putative cargo receptors in the early secretory pathway depends on the biosynthetic activity of the cell., Kuiper RP., Biochem J. December 1, 2001; 360 (Pt 2): 421-9.
	Intracellular calcium buffering shapes calcium oscillations in Xenopus melanotropes., Koopman WJ., Pflugers Arch. November 1, 2001; 443 (2): 250-6.
	Dynamics and plasticity of peptidergic control centres in the retino-brain-pituitary system of Xenopus laevis., Kramer BM., Microsc Res Tech. August 1, 2001; 54 (3): 188-99.
	Membrane-initiated Ca(2+) signals are reshaped during propagation to subcellular regions., Koopman WJ., Biophys J. July 1, 2001; 81 (1): 57-65.
	Physiological control of Xunc18 expression in neuroendocrine melanotrope cells of Xenopus laevis., Kolk SM., Endocrinology. May 1, 2001; 142 (5): 1950-7.
	Functional organization of the suprachiasmatic nucleus of Xenopus laevis in relation to background adaptation., Kramer BM., J Comp Neurol. April 9, 2001; 432 (3): 346-55.
	Minimal model for intracellular calcium oscillations and electrical bursting in melanotrope cells of Xenopus laevis., Cornelisse LN., Neural Comput. January 1, 2001; 13 (1): 113-37.
	Localization and physiological regulation of the exocytosis protein SNAP-25 in the brain and pituitary gland of Xenopus laevis., Kolk SM., J Neuroendocrinol. July 1, 2000; 12 (7): 694-706.
	Endogenous production of nitric oxide and effects of nitric oxide and superoxide on melanotrope functioning in the pituitary pars intermedia of Xenopus laevis., Allaerts W., Nitric Oxide. February 1, 2000; 4 (1): 15-28.
	Differential induction of two p24delta putative cargo receptors upon activation of a prohormone-producing cell., Kuiper RP., Mol Biol Cell. January 1, 2000; 11 (1): 131-40.
	Biosynthesis of the vacuolar H+-ATPase accessory subunit Ac45 in Xenopus pituitary., Holthuis JC., Eur J Biochem. June 1, 1999; 262 (2): 484-91.
	Serotonergic innervation of the pituitary pars intermedia of xenopus laevis., Ubink R., J Neuroendocrinol. March 1, 1999; 11 (3): 211-9.
	Evidence that Ca2+-waves in Xenopus melanotropes depend on calcium-induced calcium release: a fluorescence correlation microscopy and linescanning study., Koopman WJ., Cell Calcium. January 1, 1999; 26 (1-2): 59-67.
	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.
	Action currents generate stepwise intracellular Ca2+ patterns in a neuroendocrine cell., Lieste JR., J Biol Chem. October 2, 1998; 273 (40): 25686-94.
	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.
	The significance of multiple inhibitory mechanisms converging on the melanotrope cell of Xenopus laevis., Jenks B., Ann N Y Acad Sci. May 15, 1998; 839 229-34.
	Cholinergic regulation of the pituitary: autoexcitatory control by acetylcholine of melanotrope cell activity in Xenopus laevis., van Strien FJ., Ann N Y Acad Sci. May 15, 1998; 839 66-73.
	Distribution of pro-opiomelanocortin and its peptide end products in the brain and hypophysis of the aquatic toad, Xenopus laevis., Tuinhof R., Cell Tissue Res. May 1, 1998; 292 (2): 251-65.
	Forebrain differentiation and axonogenesis in amphibians: I. Differentiation of the suprachiasmatic nucleus in relation to background adaptation behavior., Eagleson GW., Brain Behav Evol. January 1, 1998; 52 (1): 23-36.
	Nitric oxide synthase and background adaptation in Xenopus laevis., Allaerts W., J Chem Neuroanat. December 1, 1997; 14 (1): 21-31.
	The secretory granule and pro-opiomelanocortin processing in Xenopus melanotrope cells during background adaptation., Berghs CA., J Histochem Cytochem. December 1, 1997; 45 (12): 1673-82.

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