Results 141 to 150 of about 869 (158)
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Journal of Ultrastructure Research, 1971
Structural changes in pterinosomes found in xanthophores were studied electron microscopically using 5, 6, 7, 8, and 9 mm-long stages of larvae of Oryzias latipes. Herein designated types G-1 to G-5 pterinosomes appeared most abundantly, corresponding to the respective stage in the above sequence. They were round or ellipsoidal.
I, Kamei-Takeuchi, T, Hama
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Structural changes in pterinosomes found in xanthophores were studied electron microscopically using 5, 6, 7, 8, and 9 mm-long stages of larvae of Oryzias latipes. Herein designated types G-1 to G-5 pterinosomes appeared most abundantly, corresponding to the respective stage in the above sequence. They were round or ellipsoidal.
I, Kamei-Takeuchi, T, Hama
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Cell Motility, 1988
AbstractIn goldfish xanthophores, the formation of pigment aggregate requires: (1) that a pigment organelle (carotenoid droplet) protein p57 be in the unphosphorylated state; (2) that selfâassociation of pigment organelles occur in a microtubuleâindependent manner; and (3) that pigment organelles via p57 associate with microtubules.
T T, Tchen +8 more
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AbstractIn goldfish xanthophores, the formation of pigment aggregate requires: (1) that a pigment organelle (carotenoid droplet) protein p57 be in the unphosphorylated state; (2) that selfâassociation of pigment organelles occur in a microtubuleâindependent manner; and (3) that pigment organelles via p57 associate with microtubules.
T T, Tchen +8 more
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Journal of Ultrastructure Research, 1972
Structural changes in pterinosomes and behavior of cytoplasmic inclusions in the process of xanthophore differentiation were studied electron microscopically using Xenopus laevis . At the early stage of xanthophore development, type I pterinosomes with clear limiting membranes, inner amorphous materials, and fine-fibrous structures, well developed ...
M, Yasutomi, T, Hama
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Structural changes in pterinosomes and behavior of cytoplasmic inclusions in the process of xanthophore differentiation were studied electron microscopically using Xenopus laevis . At the early stage of xanthophore development, type I pterinosomes with clear limiting membranes, inner amorphous materials, and fine-fibrous structures, well developed ...
M, Yasutomi, T, Hama
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Induction of xanthophores from non-pigmented dermal cells of xanthic goldfish in vitro
Cell Differentiation, 1987To identify precursor cells of xanthophores (xanthoblasts), non-pigmented cells without any phenotypic traits as pigment cells were isolated from the dermal tissue of xanthic goldfish with an adult color pattern and cultured in a medium containing 1 mM db-cAMP or 0.25 U/ml ACTH and 10% carp serum.
Y, Wakamatsu, M, Obika, K, Ozato
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The role of xanthophores in the stripe pattern formation of Zebrafish, Danio rerio
2017Animals have evolved a fascinating diversity in their color patterns, which serves as an essential component of their survival strategies. Color pattern formation in zebrafish (Danio rerio) is a great model system to study general pattern formation involving different cell types.
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Signal transduction of prolactin (PRL) in fish erythrophores and xanthophores
Comparative Biochemistry and Physiology Part A: Molecular & Integrative Physiology, 1999N Oshima, M Goto
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Fine structure of goldfish xanthophore.
Journal of anatomy, 1973I K, Takeuchi, T, Kajishima
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Light-Induced Pigment Aggregation in Xanthophores of the Medaka, Oryzias latipes
Pigment Cell & Melanoma Research, 1998Noriko Oshima
exaly

