Melanophilin Polymorphism in Ferrets of Different Color

In mammals, the main contribution to the variability of pigmentation is made by two groups of genes directly related to the metabolic pathways of pigment synthesis and controlling the transport of melanosomes in melanocytes to keratinocytes. In order to identify the genetic basis of pigmentation var...

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Veröffentlicht in:Doklady. Biochemistry and biophysics 2023-12, Vol.513 (Suppl 1), p.S12-S17
Hauptverfasser: Kosovsky, G. Yu, Glazko, V. I., Abramov, O. I., Glazko, T. T.
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container_end_page S17
container_issue Suppl 1
container_start_page S12
container_title Doklady. Biochemistry and biophysics
container_volume 513
creator Kosovsky, G. Yu
Glazko, V. I.
Abramov, O. I.
Glazko, T. T.
description In mammals, the main contribution to the variability of pigmentation is made by two groups of genes directly related to the metabolic pathways of pigment synthesis and controlling the transport of melanosomes in melanocytes to keratinocytes. In order to identify the genetic basis of pigmentation variants, the nucleotide sequences of the melanophilin gene were compared in two groups of ferrets—silver-colored and wild-type animals—using sequencing of 16 exons. In carriers of silver color, a single nucleotide deletion was detected in the 9th exon, leading to a shift in the reading frame and the formation of a stop codon downstream. The protein encoded by the mutant allele is almost completely devoid of the C terminal domain of the protein responsible for the contact of melanosomes with actin during their moving to the periphery of melanocytes, but it retains the leading domain involved in the formation of melanosomes. The combination of the preservation of the N domain and the defect of the C domain of the mutant protein for the first time makes it possible to explain the incomplete dominance of the wild-type protein in heterozygotes.
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The protein encoded by the mutant allele is almost completely devoid of the C terminal domain of the protein responsible for the contact of melanosomes with actin during their moving to the periphery of melanocytes, but it retains the leading domain involved in the formation of melanosomes. 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The protein encoded by the mutant allele is almost completely devoid of the C terminal domain of the protein responsible for the contact of melanosomes with actin during their moving to the periphery of melanocytes, but it retains the leading domain involved in the formation of melanosomes. 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source MEDLINE; SpringerNature Journals
subjects Actin
Animals
Biochemistry
Biological and Medical Physics
Biomedical and Life Sciences
Biophysics
Exons
Ferrets - genetics
Gene deletion
Heterozygotes
Keratinocytes
Life Sciences
Melanocytes
Melanocytes - metabolism
Melanosomes
Melanosomes - genetics
Melanosomes - metabolism
Metabolic pathways
Mutants
Pigmentation
Proteins
Silver - metabolism
Stop codon
title Melanophilin Polymorphism in Ferrets of Different Color
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