The Influence of LepR Tyrosine Site Mutations on Mouse Ovary Development and Related Gene Expression Changes

Leptin exerts many biological functions, such as in metabolism and reproduction, through binding to and activating the leptin receptor, LepRb, which is expressed in many regions of the brain. To better understand the roles of LepR downstream signaling pathways, Y123F mice, which expressed mutant lep...

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Veröffentlicht in:PloS one 2015-11, Vol.10 (11), p.e0141800-e0141800
Hauptverfasser: Tu, Xiaoyu, Kuang, Zhichao, Gong, Xia, Shi, Yan, Yu, Lin, Shi, Huijuan, Wang, Jian, Sun, Zhaogui
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Kuang, Zhichao
Gong, Xia
Shi, Yan
Yu, Lin
Shi, Huijuan
Wang, Jian
Sun, Zhaogui
description Leptin exerts many biological functions, such as in metabolism and reproduction, through binding to and activating the leptin receptor, LepRb, which is expressed in many regions of the brain. To better understand the roles of LepR downstream signaling pathways, Y123F mice, which expressed mutant leptin receptors with phenylalanine (F) substituted for three tyrosines (Y) (Tyr985, Tyr1077 and Tyr1138), were generated. The body weight and abdominal fat deposits of Y123F homozygous mice (HOM) were higher than those of wild-type mice (WT). HOM ovaries were atrophic and the follicles developed abnormally; however, the HOM ovaries did not exhibit polycystic phenotypes. Moreover, Y123F HOM adults had no estrous cycle and the blood estrogen concentration remained stable at a low level below detection limit of 5 pg/ml. LepR expression in HOM ovaries was higher than in WT ovaries. Using cDNA Microarrays, the mRNA expressions of 41 genes were increased, and 100 were decreased in HOM vs. WT ovaries, and many signaling pathways were evaluated to be involved significantly. The expressions of 19 genes were validated by real-time quantitative PCR, most of which were consistent with the microarray results. Thus, Y123F HOM mice were suggested as a new animal model of PCOS for research that mainly emphasizes metabolic disorders and anovulation, but not the polycystic phenotype. Meanwhile, using the model, we found that JAK-STAT and hormone biosynthesis pathways were involved in the follicular development and ovulation disorders caused by LepR deficiency in ovaries, although we could not exclude indirect actions from the brain.
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The expressions of 19 genes were validated by real-time quantitative PCR, most of which were consistent with the microarray results. Thus, Y123F HOM mice were suggested as a new animal model of PCOS for research that mainly emphasizes metabolic disorders and anovulation, but not the polycystic phenotype. 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To better understand the roles of LepR downstream signaling pathways, Y123F mice, which expressed mutant leptin receptors with phenylalanine (F) substituted for three tyrosines (Y) (Tyr985, Tyr1077 and Tyr1138), were generated. The body weight and abdominal fat deposits of Y123F homozygous mice (HOM) were higher than those of wild-type mice (WT). HOM ovaries were atrophic and the follicles developed abnormally; however, the HOM ovaries did not exhibit polycystic phenotypes. Moreover, Y123F HOM adults had no estrous cycle and the blood estrogen concentration remained stable at a low level below detection limit of 5 pg/ml. LepR expression in HOM ovaries was higher than in WT ovaries. Using cDNA Microarrays, the mRNA expressions of 41 genes were increased, and 100 were decreased in HOM vs. WT ovaries, and many signaling pathways were evaluated to be involved significantly. The expressions of 19 genes were validated by real-time quantitative PCR, most of which were consistent with the microarray results. Thus, Y123F HOM mice were suggested as a new animal model of PCOS for research that mainly emphasizes metabolic disorders and anovulation, but not the polycystic phenotype. Meanwhile, using the model, we found that JAK-STAT and hormone biosynthesis pathways were involved in the follicular development and ovulation disorders caused by LepR deficiency in ovaries, although we could not exclude indirect actions from the brain.</abstract><cop>United States</cop><pub>Public Library of Science</pub><pmid>26529315</pmid><doi>10.1371/journal.pone.0141800</doi><oa>free_for_read</oa></addata></record>
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subjects Adults
Amino Acid Substitution
Analysis
Animal models
Animals
Binding sites
Biosynthesis
Blood levels
Body weight
Brain
Care and treatment
Cytokines
Dehydrogenases
Development and progression
Disorders
DNA microarrays
Drugs
Estrogens
Estrous Cycle
Estrus cycle
Family planning
Female
Follicles
Gene expression
Gene Expression Regulation
Genes
Genetic aspects
Glucose
Homeostasis
Infertility
Kinases
Laboratory animals
Leptin receptors
Low level
Metabolic disorders
Metabolism
Mice
Mice, Mutant Strains
Mutation
Mutation, Missense
Obesity
Ovarian cancer
Ovarian Follicle - growth & development
Ovaries
Ovulation
Patient outcomes
Phenylalanine
Physiology
Polycystic ovary syndrome
Population
Receptors
Receptors, Leptin - genetics
Receptors, Leptin - metabolism
Reproduction (biology)
Rodents
Signal Transduction
Signaling
Tyrosine
title The Influence of LepR Tyrosine Site Mutations on Mouse Ovary Development and Related Gene Expression Changes
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