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    Effects of Nonylphenol on the Secretion of Catecholamines and Adrenocortical Hormones from Short- Term Incubated Rat Adrenal Glands

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    https://www.riss.kr/link?id=A108907934

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    Previously, we showed that a chronic-low-dose nonylphenol (NP) exposure resulted in histological changes with sexually dimorphic pattern in rat adrenal glands. We hypothesized that such structural changes are closely related to the hormonal secretory patterns. To test this hypothesis, we developed the short-term adrenal incubation method, and measured the levels of catecholamines and cortical steroids using the high-performance liquid chromatography with electrochemical detection (HPLC-ECD) and specific enzyme-linked immunosorbent assay, respectively. The norepinephrine (NE) levels in media from NPtreated female adrenal, except 100 pM NP, were significantly increased [control (CTL) vs 1 nM NP, p<0.001; vs 10 nM NP, p<0.05; vs 100 nM NP, p<0.001; vs 1 µM NP, p<0.01]. The NE secretion from male adrenal was higher when treated with 100 nM and 1 µM NP (CTL vs 100 nM NP, p<0.05; vs 1 µM NP, p<0.05, respectively). The aldosterone level in the female adrenal media treated with 100 pM NP was significantly decreased, on the other hand, that of media treated with 10 nM NP was significantly increased (CTL vs 100 pM NP, p<0.05; vs 10 nM NP, p<0.01). In male adrenal media, the aldosterone levels of 10 nM, 100 nM and 1 µM NP-treated media were significantly declined (CTL vs 10 nM NP, p<0.001; vs 100 nM NP, p<0.001; vs 1 µM NP, p<0.001). These results showed the NP treatment altered secretory pattern of aldosterone from adrenals of both sexes, showing sexual dimorphism. It may be helpful for understanding possible adrenal pathophysiology, and endocrine disrupting chemicals-related sexually dimorphic phenomena in adrenals.
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    Previously, we showed that a chronic-low-dose nonylphenol (NP) exposure resulted in histological changes with sexually dimorphic pattern in rat adrenal glands. We hypothesized that such structural changes are closely related to the hormonal secretory ...

    Previously, we showed that a chronic-low-dose nonylphenol (NP) exposure resulted in histological changes with sexually dimorphic pattern in rat adrenal glands. We hypothesized that such structural changes are closely related to the hormonal secretory patterns. To test this hypothesis, we developed the short-term adrenal incubation method, and measured the levels of catecholamines and cortical steroids using the high-performance liquid chromatography with electrochemical detection (HPLC-ECD) and specific enzyme-linked immunosorbent assay, respectively. The norepinephrine (NE) levels in media from NPtreated female adrenal, except 100 pM NP, were significantly increased [control (CTL) vs 1 nM NP, p<0.001; vs 10 nM NP, p<0.05; vs 100 nM NP, p<0.001; vs 1 µM NP, p<0.01]. The NE secretion from male adrenal was higher when treated with 100 nM and 1 µM NP (CTL vs 100 nM NP, p<0.05; vs 1 µM NP, p<0.05, respectively). The aldosterone level in the female adrenal media treated with 100 pM NP was significantly decreased, on the other hand, that of media treated with 10 nM NP was significantly increased (CTL vs 100 pM NP, p<0.05; vs 10 nM NP, p<0.01). In male adrenal media, the aldosterone levels of 10 nM, 100 nM and 1 µM NP-treated media were significantly declined (CTL vs 10 nM NP, p<0.001; vs 100 nM NP, p<0.001; vs 1 µM NP, p<0.001). These results showed the NP treatment altered secretory pattern of aldosterone from adrenals of both sexes, showing sexual dimorphism. It may be helpful for understanding possible adrenal pathophysiology, and endocrine disrupting chemicals-related sexually dimorphic phenomena in adrenals.

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    참고문헌 (Reference)

    1 Li X, "Triphenyltin chloride reduces the development of rat adrenal cortex during puberty" 143 : 111479-, 2020

    2 Lyraki R, "The sexually dimorphic adrenal cortex: Implications for adrenal disease" 22 : 4889-, 2021

    3 Czarnywojtek A, "The influence of various endocrine disruptors on the reproductive system" 74 : 221-233, 2023

    4 Yanagihara N, "Stimulation of catecholamine synthesis by environmental estrogenic pollutants" 146 : 265-272, 2005

    5 Levasseur A, "Sexual dimorphism in adrenal gland development and tumorigenesis" 8 : 60-65, 2019

    6 Wood AT, "Reversed-phase high-performance liquid chromatography of catecholamines and indoleamines using a simple gradient solvent system and native fluorescence detection" 744 : 221-225, 2000

    7 Lagunas N, "Organizational effects of estrogens and androgens on estrogen and androgen receptor expression in pituitary and adrenal glands in adult male and female rats" 16 : 902218-, 2022

    8 Lan HC, "Low-dose bisphenol A activates Cyp11a1 gene expression and corticosterone secretion in adrenal gland via the JNK signaling pathway" 148 : 26-34, 2015

    9 Yong-Bin Kim ; 전용필 ; 최돈찬 ; 이성호, "Histological Analysis of Reproductive System in Low-Dose Nonylphenoltreated F1 Female Mice" 한국발생생물학회 24 (24): 159-165, 2020

    10 Ajdžanović V, "Genistein-induced histomorphometric and hormone secreting changes in the adrenal cortex in middle-aged rats" 234 : 148-156, 2009

    1 Li X, "Triphenyltin chloride reduces the development of rat adrenal cortex during puberty" 143 : 111479-, 2020

    2 Lyraki R, "The sexually dimorphic adrenal cortex: Implications for adrenal disease" 22 : 4889-, 2021

    3 Czarnywojtek A, "The influence of various endocrine disruptors on the reproductive system" 74 : 221-233, 2023

    4 Yanagihara N, "Stimulation of catecholamine synthesis by environmental estrogenic pollutants" 146 : 265-272, 2005

    5 Levasseur A, "Sexual dimorphism in adrenal gland development and tumorigenesis" 8 : 60-65, 2019

    6 Wood AT, "Reversed-phase high-performance liquid chromatography of catecholamines and indoleamines using a simple gradient solvent system and native fluorescence detection" 744 : 221-225, 2000

    7 Lagunas N, "Organizational effects of estrogens and androgens on estrogen and androgen receptor expression in pituitary and adrenal glands in adult male and female rats" 16 : 902218-, 2022

    8 Lan HC, "Low-dose bisphenol A activates Cyp11a1 gene expression and corticosterone secretion in adrenal gland via the JNK signaling pathway" 148 : 26-34, 2015

    9 Yong-Bin Kim ; 전용필 ; 최돈찬 ; 이성호, "Histological Analysis of Reproductive System in Low-Dose Nonylphenoltreated F1 Female Mice" 한국발생생물학회 24 (24): 159-165, 2020

    10 Ajdžanović V, "Genistein-induced histomorphometric and hormone secreting changes in the adrenal cortex in middle-aged rats" 234 : 148-156, 2009

    11 Trejter M, "Expression of estrogen, estrogen related and androgen receptors in adrenal cortex of intact adult male and female rats" 53 : 133-144, 2015

    12 Chen H, "Exposure to dipentyl phthalate in utero disrupts the adrenal cortex function of adult male rats by inhibiting SIRT1/PGC-1α and inducing AMPK phosphorylation" 38 : 997-1010, 2023

    13 Egalini F, "Endocrine disrupting chemicals: Effects on pituitary, thyroid and adrenal glands" 78 : 395-405, 2022

    14 Lauretta R, "Endocrine disrupting chemicals: Effects on endocrine glands" 10 : 178-, 2019

    15 Chang LL, "Effects of nonylphenol on aldosterone release from rat zona glomerulosa cells" 195 : 11-17, 2012

    16 Hinson JP, "Effects of endocrine-disrupting chemicals on adrenal function" 20 : 111-120, 2006

    17 Chang LL, "Effects and mechanisms of nonylphenol on corticosterone release in rat zona fasciculata-reticularis cells" 118 : 411-419, 2010

    18 이성호 ; 김희수, "Effect of Nonylphenol on the Structure of Adrenal Cortex in F1 Generation Rats" 한국발생생물학회 26 (26): 175-182, 2022

    19 Gore AC, "EDC-2: The Endocrine Society’s second scientific statement on endocrine-disrupting chemicals" 36 : E1-E150, 2015

    20 Chang LL, "An inhibitor of 11-β hydroxysteroid dehydrogenase type 1 (PF915275) alleviates nonylphenol-induced hyperadrenalism and adiposity in rat and human cells" 19 : 45-, 2018

    21 Pihlajoki M, "Adrenocortical zonation, renewal, and remodeling" 6 : 27-, 2015

    22 Harvey PW, "Adrenocortical endocrine disruption" 155 : 199-206, 2016

    23 Haeno S, "Adrenal steroidogenesis disruption caused by HDL/cholesterol suppression in diethylstilbestrol-treated adult male rat" 52 : 148-156, 2015

    24 Mandon EC, "ACTH depresses Δ6 and Δ5 desaturation activity in rat adrenal gland and liver" 28 : 1377-1383, 1987

    25 Kabir ER, "A review on endocrine disruptors and their possible impacts on human health" 40 : 241-258, 2015

    26 Bo Young Lee ; Jeong Bin Jo ; 최돈찬 ; 이성호 ; 전용필, "A Chronic-Low-Dose Exposing of DEHP with OECD TG 443 Altered the Histological Characteristics and Steroidogeic Gene Expression of Adrenal Gland in Female Mice" 한국발생생물학회 25 (25): 257-268, 2021

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