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Neuroendocrinology

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electrical stimulation. In 1974, Walters and Hatton investigated the effect of water dehydration by electrically stimulating the supraoptic nucleus—the hypothalamic center responsible for the release of vasopressin. Glenn Hatton dedicated his career to studying the physiology of the Neurohypophyseal system, which involved studying the electrical properties of hypothalamic neurons. Doing so enabled investigation into the behavior of these neurons and the resulting physiological effects. Studying the electrical activity of neuroendocrine cells enabled the eventual distinction between central nervous neurons, neuroendocrine neurons, and endocrine cells.
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hypothalamus releases tropic hormones into the hypophyseal portal system to the anterior pituitary (right). The anterior pituitary then secretes trophic hormones into the circulation which elicit different responses from various target tissues. These responses then signal back to the hypothalamus and anterior pituitary to either stop producing or continue to produce their precursor signals.
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where multiple populations of cells interact, using several sets quickly becomes overcomplicated. This model has been used to describe several systems, especially involving the reproductive cycle (menstrual cycles, luteinizing hormone, prolactin surges). Functional models also exist to represent cortisol secretion, and growth hormone secretion.
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the peripheral actions. So understanding these central actions also became the province of neuroendocrinologists, sometimes even when these peptides cropped up in quite different parts of the brain that appeared to serve functions unrelated to endocrine regulation. Neuroendocrine neurons were discovered in the
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aims for mathematic simplicity in describing biological systems by focusing on, and only on, the threshold activity of a neuron. By doing so, the model successfully reduces the complexity of a complicated system; however it ignores the actual mechanisms of action and replaces them with functions that
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for producing secretory products; their nerve terminals are large and organised in coherent terminal fields; their output can often be measured easily in the blood; and what these neurons do and what stimuli they respond to are readily open to hypothesis and experiment. Hence, neuroendocrine neurons
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relies on the premise "simpler is better". It strives to reduce the complexity of modelling multi-faceted systems by using a single variable to describe an entire population of cells. The alternative would be to use a different set of variables for each population. When attempting to model a system
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under the influence of adrenocorticotrophic hormone. The study of these feedbacks became the province of neuroendocrinologists. The peptides secreted by hypothalamic neuroendocrine neurons into the blood proved to be released also into the brain, and the central actions often appeared to complement
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into portal blood vessels for transport to the anterior pituitary. Growth hormone is secreted in pulses, which arise from alternating episodes of GHRH release and somatostatin release, which may reflect neuronal interactions between the GHRH and somatostatin cells, and negative feedback from growth
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is commonly known as the relay center of the brain because of its role in integrating inputs from all areas of the brain and producing a specific response. In the neuroendocrine system, the hypothalamus receives electrical signals from different parts of the brain and translates those electrical
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Electrophysiology experiments were used in the early days of neuroendocrinology to identify the physiological happenings in the hypothalamus and the posterior pituitary especially. In 1950, Geoffrey Harris and Barry Cross outlined the oxytocin pathway by studying oxytocin release in response to
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Hypothalamic interaction with the posterior and anterior pituitary glands. The hypothalamus produces the hormones oxytocin and vasopressin in its endocrine cells (left). These are released at nerve endings in the posterior pituitary gland and then secreted into the systemic circulation. The
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investigating the communication of the hypothalamus with the pituitary gland, much has been learned about the mechanistic details of this interaction. Various experimental techniques have been employed. Early experiments relied heavily on the electrophysiology techniques used by
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are good "model systems" for studying general questions, like "how does a neuron regulate the synthesis, packaging, and secretion of its product?" and "how is information encoded in electrical activity?"
291:. These vessels, the hypothalamo-hypophysial portal vessels, carry the hypothalamic factors to the anterior pituitary, where they bind to specific receptors on the surface of the hormone-producing cells. 894:
Knigge, K. M.; Joseph, S. A.; Sladek, J. R.; Notter, M. F.; Morris, M.; Sundberg, D. K.; Holzwarth, M. A.; Hoffman, G. E.; O'Brien, L. (1976-01-01), Bourne, G. H.; Danielli, J. F.; Jeon, K. W. (eds.),
351:, influencing eating and drinking behaviour, and influence how energy intake is utilised, that is, how fat is metabolised. They influence and regulate mood, body fluid and electrolyte homeostasis, and 654:
define how the output of a system depends on its input. This model has been used to describe the release of hormones to the posterior pituitary gland, specifically oxytocin and vasopressin.
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signals into chemical signals in the form of hormones or releasing factors. These chemicals are then transported to the pituitary gland and from there to the systemic circulation.
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Ratka A, Sutanto W, Bloemers M, de Kloet ER (August 1989). "On the role of brain mineralocorticoid (type I) and glucocorticoid (type II) receptors in neuroendocrine regulation".
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Today, neuroendocrinology embraces a wide range of topics that arose directly or indirectly from the core concept of neuroendocrine neurons. Neuroendocrine neurons control the
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proved to have properties between endocrine cells and neurons, and proved to be outstanding model systems for instance for the study of the molecular mechanisms of
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noted the activity of the pituitary in the lactation of cows in 1915. He also noted that anaesthesia could block lactation and response to the suckling reflex.
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Davidson RJ, Lewis DA, Alloy LB, Amaral DG, Bush G, Cohen JD, et al. (September 2002). "Neural and behavioral substrates of mood and mood regulation".
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are synthesized by neuroendocrine cells in the hypothalamus and stored at the nerve endings in the posterior pituitary. They are secreted directly into
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Blázquez M, Bosma PT, Fraser EJ, Van Look KJ, Trudeau VL (June 1998). "Fish as models for the neuroendocrine regulation of reproduction and growth".
1077: 1969: 1795: 603: 401: 107:. Collectively, hormones regulate many physiological processes. The neuroendocrine system is the mechanism by which the hypothalamus maintains 822:
Malenka RC, Nestler EJ, Hyman SE (2009). "Chapter 10: Neural and Neuroendocrine Control of the Internal Milieu.". In Sydor A, Brown RY (ed.).
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isolated these factors from the hypothalamus of sheep and pigs, and then identified their structures. Guillemin and Schally were awarded the
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Antunes-Rodrigues J, de Castro M, Elias LL, Valença MM, McCann SM (January 2004). "Neuroendocrine control of body fluid metabolism".
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are credited as co-founders the field of neuroendocrinology with their initial observations and proposals in 1945 concerning
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in Physiology and Medicine in 1977 for their contributions to understanding "the peptide hormone production of the brain".
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hormones, and has subsequently expanded to investigate numerous interconnections of the endocrine and nervous systems.
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wrote the world's first research paper showing how neural control of immunity takes place through the hypothalamus.
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The neuroendocrine systems control reproduction in all its aspects, from bonding to sexual behaviour. They control
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McMinn JE, Baskin DG, Schwartz MW (May 2000). "Neuroendocrine mechanisms regulating food intake and body weight".
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is considered by many to be the "father" of neuroendocrinology. Harris, the Dr. Lee's Professor of Anatomy at
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translates data about the current of a system at a specific voltage into time-dependent data describing the
311: 287:; these are substances released by hypothalamic neurons into blood vessels at the base of the brain, at the 279:) remains under the control of the hypothalamus. The hypothalamus controls the anterior pituitary gland via 249: 194:. The hypothalamus controls the anterior pituitary's hormone secretion by sending releasing factors, called 2278: 2268: 2178: 2059: 2014: 1931: 1875: 1177: 682: 435:
directly from the nerve endings of hypothalamic neurons. This seminal work was done in collaboration with
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processes of the human body. Neuroendocrinology arose from the recognition that the brain, especially the
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of the hypothalamus, whereas the somatostatin cells involved in growth hormone regulation are in the
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into the systemic circulation. The cell bodies of the oxytocin and vasopressin neurons are in the
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of the hypothalamus, respectively, and the electrical activity of these neurons is regulated by
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activity in the body. The nervous and endocrine systems often act together in a process called
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For example, the secretion of growth hormone is controlled by two neuroendocrine systems: the
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Dreifuss, Jean Jacques (1981). "WL Gaines, précurseur du concept de réflexe neuroendocrine".
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Comparative Biochemistry and Physiology. Part C, Pharmacology, Toxicology & Endocrinology
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Neuroendocrine systems have been important to our understanding of many basic principles in
314:. These two neuronal systems project axons to the median eminence, where they release their 53: 2552: 2547: 2542: 2537: 2431: 2371: 2308: 2223: 2183: 2168: 2119: 2109: 2064: 545: 528: 477: 440: 328: 307: 288: 187: 177: 81: 1338: 2517: 2487: 2416: 2391: 2381: 2228: 2208: 2198: 2084: 2004: 1936: 1761: 1704: 1679: 1650: 1623: 1622:
Huang JT, Leweke FM, Oxley D, Wang L, Harris N, Koethe D, et al. (November 2006).
1576: 1551: 794: 687: 466:; GnRH (also called luteinizing hormone-releasing hormone) stimulates the secretion of 436: 383: 352: 276: 195: 132: 65: 49: 1191: 1005: 905: 2609: 2441: 2436: 2401: 2298: 2288: 2248: 2094: 2029: 2024: 1780: 1695: 1273: 1138: 954: 587: 553: 532: 340: 69: 17: 1207: 1154: 978: 900:, International Review of Cytology, vol. 45, Academic Press, pp. 383–408, 880: 2527: 2522: 2406: 2238: 2163: 2114: 2104: 2079: 2074: 2044: 1978: 1468: 1396: 707: 568: 395: 299: 164: 158: 112: 73: 1624:"Disease biomarkers in cerebrospinal fluid of patients with first-onset psychosis" 1354: 582:
Neuroendocrinology is also used as an integral part of understanding and treating
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The posterior pituitary is directly innervated by the hypothalamus; the hormones
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released by the hypothalamus in to the portal system stimulates the secretion of
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Branch of biology studying interactions between the nervous and endocrine systems
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system consists of numerous glands throughout the body that produce and secrete
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Guillemin R, Schally AV, Lipscomb HS, Andersen RN, Long JM (April 1962).
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Uptake and Transport Activity of the Median Eminence of the Hypothalamus
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Molecular Neuropharmacology: A Foundation for Clinical Neuroscience
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The neurons of the neuroendocrine system are large; they are mini
104: 57: 939:"Modelling the Hypothalamic Control of Growth Hormone Secretion" 1951: 1947: 1784: 198:, down the hypothalamo-hypophysial portal system. For example, 847:
Honda, Kazumasa; Zhang, William; Tomiyama, Keita (June 2014).
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secretion, respectively. The GHRH neurons are located in the
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Leng, G.; Moos, F. C.; Armstrong, W. E. (2010-05-01).
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The pituitary gland is divided into three lobes: the
2465: 2327: 2267: 2142: 2003: 1920: 1889: 1868: 1822: 416:is regulated by hormones secreted by hypothalamic 343:. They control the body's response to stress and 446:The first of these factors to be identified are 594:of some patients diagnosed with schizophrenia. 1963: 1796: 560:. And these, too, have become, by extension, 236:(also called anti-diuretic hormone), the two 8: 2498:Intraoperative neurophysiological monitoring 1076:Webster JI, Tonelli L, Sternberg EM (2002). 937:MacGregor, D. J.; Leng, G. (December 2005). 48:) which studies the interaction between the 1970: 1956: 1948: 1912:Reproductive endocrinology and infertility 1803: 1789: 1781: 1760: 1703: 1649: 1639: 1575: 1506: 1432:Breathnach CS, Moynihan JB (March 2013). 1337:Scharrer E, Scharrer B (1 January 1945). 1181: 793: 95:of diverse chemical structure, including 1845:Hypothalamic–pituitary–somatotropic axis 1534:. University of Manitoba. Archived from 1262:Brain Research. Molecular Brain Research 1097:10.1146/annurev.immunol.20.082401.104914 147: 1078:"Neuroendocrine regulation of immunity" 725: 527:, in turn, influence the brain, as do 1850:Hypothalamic–pituitary–prolactin axis 1673: 1671: 1669: 1540:(Warning: automatic background music) 817: 815: 813: 590:(thyroxine transport) problem in the 575:, for instance, our understanding of 302:neurons, which stimulate and inhibit 7: 2588: 1855:Hypothalamic–neurohypophyseal system 1071: 1069: 1067: 1065: 1029: 1027: 1025: 1023: 932: 930: 755: 753: 408:, is credited with showing that the 1840:Hypothalamic–pituitary–gonadal axis 1835:Hypothalamic–pituitary–adrenal axis 1830:Hypothalamic–pituitary–thyroid axis 427:. By contrast, the hormones of the 392:Albert Einstein College of Medicine 602:Since the original experiments by 246:magnocellular neurosecretory cells 25: 2478:Development of the nervous system 263:By contrast, the hormones of the 2587: 2576: 2575: 2133: 1696:10.1111/j.1365-2826.2010.01997.x 1556:Advances in Physiology Education 1441:Irish Journal of Medical Science 1139:10.1046/j.1467-789x.2000.00007.x 955:10.1111/j.1365-2826.2005.01370.x 296:growth hormone-releasing hormone 1532:"Dr Andor Szentivanyi Memorial" 664:functional or mean fields model 658:Functional or Mean Fields Model 584:neurobiological brain disorders 1397:10.1146/annurev.neuro.20.1.533 452:gonadotropin-releasing hormone 1: 2319:Social cognitive neuroscience 1733:Journal of General Physiology 1684:Journal of Neuroendocrinology 1385:Annual Review of Neuroscience 1355:10.1152/physrev.1945.25.1.171 1192:10.1016/S0006-3223(02)01458-0 1006:10.1016/S0742-8413(98)00023-1 943:Journal of Neuroendocrinology 906:10.1016/s0074-7696(08)60082-0 448:thyrotropin-releasing hormone 221:by the hypothalamic neurons. 200:thyrotropin-releasing hormone 2294:Molecular cellular cognition 1727:Kandel, E. R. (1964-03-01). 1641:10.1371/journal.pmed.0030428 1274:10.1016/0169-328X(94)00272-G 865:10.1016/j.neulet.2014.04.040 760:Watts, Alan G (2015-08-01). 540:, regulating, for instance, 472:follicle-stimulating hormone 269:adrenocorticotrophic hormone 32:Neuroendocrinology (journal) 2513:Neurodevelopmental disorder 2488:Neural network (biological) 2483:Neural network (artificial) 1550:Misler S (September 2009). 1324:10.1163/22977953-0380304004 1085:Annual Review of Immunology 577:stimulus-secretion coupling 505:University of South Florida 482:FacultĂ© de MĂ©decine of Lyon 464:thyroid-stimulating hormone 347:. They regulate the body's 206:by the anterior pituitary. 204:thyroid-stimulating hormone 188:intermediate pituitary lobe 2632: 2040:Computational neuroscience 1297:A History of Endocrinology 1235:10.1152/physrev.00017.2003 285:release-inhibiting factors 260:from other brain regions. 175: 156: 66:neuroendocrine integration 29: 2571: 2508:Neurodegenerative disease 2352:Evolutionary neuroscience 2131: 1985: 1453:10.1007/s11845-012-0830-9 538:peripheral nervous system 429:posterior pituitary gland 242:posterior pituitary gland 238:neurohypophysial hormones 225:Major neuroendocrine axes 2473:Brain–computer interface 2422:Neuromorphic engineering 2347:Educational neuroscience 2254:Nutritional neuroscience 2159:Clinical neurophysiology 2055:Integrative neuroscience 1907:Psychoneuroendocrinology 1860:Renin–angiotensin system 1568:10.1152/advan.90213.2008 1299:. Springer. p. 409. 766:Journal of Endocrinology 678:Behavioral endocrinology 651:integrate-and-fire model 645:Integrate-and-Fire Model 410:anterior pituitary gland 265:anterior pituitary gland 258:afferent synaptic inputs 123:and drinking behaviour, 2284:Behavioral neuroscience 1902:Pediatric endocrinology 598:Experimental techniques 480:, a medical student of 454:(GnRH). TRH is a small 331:and the ovarian cycle, 312:periventricular nucleus 298:(GHRH) neurons and the 250:paraventricular nucleus 2279:Affective neuroscience 2060:Molecular neuroscience 2015:Behavioral epigenetics 1876:Blood sugar regulation 1256:Lenkei, Z; Corvol, P; 683:Molecular neuroscience 431:are secreted into the 422:hypothalamohypophysial 154: 2342:Cultural neuroscience 2337:Consumer neuroscience 2179:Neurogastroenterology 2035:Cellular neuroscience 1928:Wolff–Chaikoff effect 1599:Geracioti TD (2006). 1508:10.1210/endo-70-4-471 1343:Physiological Reviews 1295:Medvei, V.C. (2012). 1223:Physiological Reviews 1170:Biological Psychiatry 151: 139:Neuroendocrine system 30:For the journal, see 18:Neuroendocrine System 2314:Sensory neuroscience 2154:Behavioral neurology 2125:Systems neuroscience 1745:10.1085/jgp.47.4.691 853:Neuroscience Letters 698:Neuroendocrine tumor 635:Hodgkin–Huxley model 629:Hodgkin-Huxley Model 458:that stimulates the 433:systemic circulation 388:University of Munich 219:systemic circulation 2457:Social neuroscience 2357:Global neurosurgery 2234:Neurorehabilitation 2204:Neuro-ophthalmology 2189:Neurointensive care 2020:Behavioral genetics 778:10.1530/JOE-15-0157 693:Neuroendocrine cell 624:Mathematical Models 592:cerebrospinal fluid 544:. The cells in the 468:luteinizing hormone 192:posterior pituitary 2616:Neuroendocrinology 2533:Neuroimmune system 2427:Neurophenomenology 2367:Neural engineering 2090:Neuroendocrinology 2070:Neural engineering 1932:Jod-Basedow effect 1897:Neuroendocrinology 1881:Calcium metabolism 1823:Regulatory systems 1605:Current Psychiatry 1376:Raisman G (1997). 1036:Neuroendocrinology 639:membrane potential 609:Hodgkin and Huxley 531:secreted from the 425:portal circulation 341:maternal behaviour 254:supraoptic nucleus 184:anterior pituitary 155: 125:energy utilization 68:, to regulate the 38:Neuroendocrinology 2603: 2602: 2452:Paleoneurobiology 2387:Neuroepistemology 2362:Neuroanthropology 2328:Interdisciplinary 2214:Neuropharmacology 2174:Neuroepidemiology 1945: 1944: 1530:Berczi I (2010). 1258:Llorens-Cortes, C 1048:10.1159/000125210 703:Neuropharmacology 615:Electrophysiology 501:Andor Szentivanyi 490:Tulane University 486:Andrew W. Schally 406:Oxford University 377:Walter Lee Gaines 281:releasing factors 44:(specifically of 40:is the branch of 16:(Redirected from 2623: 2591: 2590: 2579: 2578: 2493:Detection theory 2377:Neurocriminology 2304:Neurolinguistics 2219:Neuroprosthetics 2137: 2100:Neuroinformatics 2050:Imaging genetics 1972: 1965: 1958: 1949: 1816:endocrine system 1805: 1798: 1791: 1782: 1775: 1774: 1764: 1724: 1718: 1717: 1707: 1675: 1664: 1663: 1653: 1643: 1619: 1613: 1612: 1596: 1590: 1589: 1579: 1547: 1541: 1539: 1527: 1521: 1520: 1510: 1486: 1480: 1479: 1477: 1471:. Archived from 1438: 1429: 1423: 1422: 1420: 1419: 1413: 1407:. Archived from 1382: 1373: 1367: 1366: 1339:"Neurosecretion" 1334: 1328: 1327: 1318:(3–4): 331–338. 1307: 1301: 1300: 1292: 1286: 1285: 1253: 1247: 1246: 1218: 1212: 1211: 1185: 1165: 1159: 1158: 1122: 1116: 1115: 1113: 1107:. 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Index

Neuroendocrine System
Neuroendocrinology (journal)
biology
physiology
nervous system
endocrine system
brain
hormonal
neuroendocrine integration
physiological
hypothalamus
secretion
pituitary gland
endocrine
hormones
peptides
steroids
neuroamines
homeostasis
reproduction
metabolism
eating
energy utilization
osmolarity
blood pressure

Hypothalamus
hypothalamus
Pituitary gland
anterior pituitary

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