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1 neuropeptides from tissue in situ (i.e., rat pituitary gland).
2 atasets (brain; blood; thyroid, adrenal, and pituitary glands).
3 vate the promoters of genes expressed in the pituitary gland.
4 ifferentiate into the endocrine cells of the pituitary gland.
5 cell specification and in the adult anterior pituitary gland.
6 e's pouch to ensure the proper growth of the pituitary gland.
7 n that extends to and activates hGH-N in the pituitary gland.
8 ls, resulting in a greatly enlarged anterior pituitary gland.
9 ted to Rathke's pouch, the primordium of the pituitary gland.
10 tes the synthesis and release of GH from the pituitary gland.
11 thke's pouch, the progenitor of the anterior pituitary gland.
12 al for development of the mammalian anterior pituitary gland.
13 ulate the release of growth hormone from the pituitary gland.
14 and functional patterning of the vertebrate pituitary gland.
15 res via the median eminence to the posterior pituitary gland.
16 ction in IL-6-like material in the posterior pituitary gland.
17 ses through communication with the endocrine pituitary gland.
18 ithelial cells in the adenohypophysis of the pituitary gland.
19 cluding brain, skeletal muscle, and anterior pituitary gland.
20 sively expressed in the developing mammalian pituitary gland.
21 n in the liver, pancreas, heart, joints, and pituitary gland.
22 begin to differentiate within the developing pituitary gland.
23 the hormone-producing cells of the anterior pituitary gland.
24 hat SHH is required for proliferation of the pituitary gland.
25 ximity to the optic chiasm, hypothalamus and pituitary gland.
26 found to induce the production of GH by the pituitary gland.
27 eatic neuroendocrine cells, and the anterior pituitary gland.
28 beta subunit (LHbeta) gene expression in the pituitary gland.
29 y infiltration of T and B lymphocytes in the pituitary gland.
30 vere defects of the limbs, lung and anterior pituitary gland.
31 data suggest that the tumors arise from the pituitary gland.
32 same cells that contained DARPP-32-IR in the pituitary gland.
33 ng a loxP-modified SF1 locus in the anterior pituitary gland.
34 udy is to identify proton sensors in the rat pituitary gland.
35 ncludes the thyrotrope cells of the anterior pituitary gland.
36 ion of autoreactive T and B cells within the pituitary gland.
37 salivary gland, mammary gland, stomach, and pituitary gland.
38 thke's pouch, the primordium of the anterior pituitary gland.
39 ss elevated levels of CRH-BP in the anterior pituitary gland.
40 moderate levels in spinal cord, stomach, and pituitary gland.
41 growth hormone release from the rat anterior pituitary gland.
42 s to be present specifically in the anterior pituitary gland.
43 endocrine regulation since it innervates the pituitary gland.
44 ther T lymphocytes undergo activation in the pituitary gland.
45 ited to the thyrotrope cells of the anterior pituitary gland.
46 eloping and mature nervous system and in the pituitary gland.
47 a G-protein-coupled receptor, GnRHR, in the pituitary gland.
48 nce of ultradian oscillations in an isolated pituitary gland.
49 secretion through activation of GHSR in the pituitary gland.
50 stic mass involving the anterior lobe of the pituitary gland.
51 sequenced from the posterior lobe of the rat pituitary gland.
52 red for angiogenesis in the developing mouse pituitary gland.
53 including development of the brain, eyes and pituitary gland.
54 A axis, with the requirement of a functional pituitary gland.
55 ed its exclusive expression in the brain and pituitary gland.
56 marily centrally rather than at the anterior pituitary gland.
57 ge in the number of gonadotrope cells in the pituitary gland.
58 ted whether kisspeptins are expressed in the pituitary gland.
59 rgeted ablation of Jnk genes in the anterior pituitary gland.
60 f the anterior and intermediate lobes of the pituitary gland.
61 ing gonadotropin secretion from the anterior pituitary gland.
62 y differentiated endocrine cell types of the pituitary gland.
63 lipid rafts was also observed in whole mouse pituitary glands.
64 No OFQ was observed in the pineal or pituitary glands.
65 ells, and the pancreas and submandibular and pituitary glands.
66 37 surgical pituitary adenomas and 11 normal pituitary glands.
67 oteins (TDP-43, FUS, and ubiquilin) in human pituitary glands.
68 I 0.4-1.6]; mean dose 0.53 Gy [SD 1.40]) and pituitary gland (17 [3%] of 510, 1.1 [0.5-2.4] for more
70 ioma, Rathke's cleft cyst, ectopic posterior pituitary gland), 5.melanin (metastatic melanoma), 6.les
71 ich are functional analogs to the vertebrate pituitary gland.(8-10) After mating, females steadfastly
72 g from the pars tuberalis (PT) region of the pituitary gland, a well-defined melatonin target site, c
73 ation that hormones produced in the anterior pituitary gland act as positive regulators of primary B
75 e regulators of prolactin secretion from the pituitary gland, also release GABA within the hypothalam
76 Imprinted genes are highly expressed in the pituitary gland, among them, Dlk1, a paternally expresse
77 with a pronounced hypoplasia of the anterior pituitary gland and a marked decrease in pituitary and s
78 n radiation doses to the gonads, uterus, and pituitary gland and administered chemotherapy were quant
80 n the control of developmental events in the pituitary gland and assign a critical role for hypothala
81 adrenomedullin (AM), is present in brain and pituitary gland and binds to the same receptors as AM an
82 one secretagogue receptor (GHS-R) from human pituitary gland and brain identified a third G protein-c
83 well as real data obtained from mouse liver, pituitary gland and data from NIH3T3, U2OS cell lines.
84 s to modify levels of Dlk1 expression in the pituitary gland and demonstrate that the dosage of DLK1
85 beta locus is readily detectable only in the pituitary gland and derived cell sources such as GH3 som
86 rms of transcript expression in the MBH, and pituitary gland and discovered the patterns were not syn
89 n (PRL)-producing lactotroph of the anterior pituitary gland and induce development of PRL-producing
90 denosine has been identified in the anterior pituitary gland and is secreted from cultured folliculos
92 tribution throughout the mammalian brain and pituitary gland and mediates a number of physiological f
93 ium is usually due to tumors in the anterior pituitary gland and occurs occasionally in hereditary mu
94 polypeptide hormone produced by the anterior pituitary gland and other sites that acts both systemica
96 e (eLH/CGbeta) that (1) is expressed in both pituitary gland and placenta, (2) encodes a characterist
99 acterized neurosecretory structures, the rat pituitary gland and single cultured Aplysia bag cell neu
101 namic contrast-enhanced MRI of the sella and pituitary gland and subsequent CT of the anterior skull
102 nRH include the gonadotropes of the anterior pituitary gland and the cells of various hormone-depende
103 is activity through negative feedback to the pituitary gland and the central nervous system (CNS).
105 owth hormone secretagogues (GHSs) act on the pituitary gland and the hypothalamus to stimulate and am
107 actin from lactotropic cells in the anterior pituitary gland and thus play a central role in prolacti
109 (AH) is a rare inflammatory condition of the pituitary gland and usually affects women of childbearin
111 , GHRH-R mRNA was analyzed in 2 normal human pituitary glands and 16 human pituitary adenomas using i
112 n (MALDI) MSI six nonpathological (NP) human pituitary glands and 45 hormone secreting and nonsecreti
113 and castrated rats without anterior or whole pituitary glands and were processed for histology and im
114 delta is highly expressed in salivary gland, pituitary gland, and adrenal gland, whereas p38alpha is
116 genitourinary tracts, developing cartilage, pituitary gland, and discrete regions of the central and
117 adult brain with a high concentration in the pituitary gland, and expression of Wnt10b was highest in
118 in target tissues e.g.: uterus, breast, and pituitary gland, and hormone-responsive tumors occur at
119 expresses in certain tissues, including the pituitary gland, and negatively regulates the LHbeta gen
120 on doses to the testes, ovaries, uterus, and pituitary gland, and related these to the risk of stillb
121 signaling in the formation of the vertebrate pituitary gland, and suggest that Hh signaling from neur
122 d in the ventral diencephalon and developing pituitary gland, and that Nxn deficient mice have pituit
123 1)C-dihydroergotamine in the choroid plexus, pituitary gland, and venous sinuses as expected from the
124 imilarity in the formation of the pineal and pituitary glands, and suggests that all CNS neuroendocri
125 d by a 50% threshold for all lesions and the pituitary gland; and for (18)F-FDG (C)-RD of SUVs of the
128 ylamide gels, the soluble enzyme from bovine pituitary glands appears as two bands of 170 and 135 kDa
129 The intermediate and anterior lobes of the pituitary gland are derived from an invagination of oral
131 lts suggest that the actions of ANXA1 in the pituitary gland are independent of Fpr1 but may involve
132 otrophs and other cell types of the anterior pituitary gland are not well understood at present.
134 required for the development of the anterior pituitary gland, are the predominant cause of MPHD (mult
136 cuate nucleus of the hypothalamus and in the pituitary gland as a model, we established a unique prot
137 s in up-regulation of both p53 and GH in the pituitary gland, as well as increased GH expression in n
138 r mechanisms underlying the formation of the pituitary gland, as well as the initial development of o
141 ts reveals that the dorsoventral axis of the pituitary gland becomes ventralized, with dorsal extensi
142 ated by the pars tuberalis (PT) of the fetal pituitary gland, before the fetal circadian system and a
144 ressing tissues, that is, the uterus and the pituitary gland, both SUV and TBR showed high (18)F-FES
145 ne with mild lymphocytic infiltration in the pituitary gland but no clinical signs of hypophysitis, a
146 is expressed in the developing forebrain and pituitary gland, but its role during hypothalamo-pituita
147 low levels in several brain regions and the pituitary gland, but not in several peripheral tissues e
148 d1, is not expressed in the developing mouse pituitary gland, but rather in the mesenchyme surroundin
150 at adenosine, formed locally in the anterior pituitary gland can stimulate gap junction communication
152 pituitary development, we screened an adult pituitary gland cDNA library for homeobox sequences.
153 eus (SCN) and the pars tuberalis (PT) of the pituitary gland, collected every 4 h throughout 24 h, fr
154 only in the rostral ventral diencephalon and pituitary gland, commencing on e11.5, marks pituitary ce
155 , is essential for normal development of the pituitary gland, craniofacial region, eyes, heart, abdom
157 tein SC35 controls cell proliferation during pituitary gland development but is completely dispensabl
162 hine on the levels of dynorphin(1-13) in the pituitary gland, different brain regions, spinal cord an
163 uitarism (HR, 19.8; 95% CI, 5.4-72.9), other pituitary gland disorders (HR, 6.0; 95% CI, 1.2-30.2), d
165 box gene Six3 is expressed in the developing pituitary gland during mouse development but its functio
166 al ectoderm exhibit craniofacial defects and pituitary gland dysmorphology, but normal pituitary cell
167 n the rat, prolactin (PRL) from the anterior pituitary gland exerts its luteotropic function on the o
169 racterize FSH glycosylation, FSH isoforms in pituitary gland extracts and a variety of physiological
170 x2 is expressed in both developing and adult pituitary gland, eye and brain tissues, suggesting an im
171 levels of thyroid-stimulating hormone in the pituitary gland), features found in Hashimoto's thyroidi
172 namic contrast-enhanced MRI of the sella and pituitary gland (Figs 1-3) and subsequent CT of the ante
173 odomain transcription factor is critical for pituitary gland formation and specification of the anter
175 our FPR family members in the mouse anterior pituitary gland, Fpr-rs1, Fpr-rs2, Fpr-rs6, and Fpr-rs7.
178 nucleus of the hypothalamus (PVH) regulates pituitary gland function and feeding, and innervates aut
180 In response to physiological demand, the pituitary gland generates new hormone-secreting cells fr
185 while the circulating concentrations of the pituitary gland hormones vasopressin and adrenocorticotr
187 nt decrease in dynorphin(1-13) levels in the pituitary gland, hypothalamus, hippocampus, striatum, ce
188 protein and localized a specific area of the pituitary gland (i.e., adenohypophysis) known to secrete
189 ous syt isoforms are highly expressed in the pituitary gland in a lobe, and sex-specific manner.
191 yonic development of the hypothalamus and/or pituitary gland in humans results in congenital hypopitu
193 uterotonic agent known, is released from the pituitary gland in large amounts during parturition in a
195 rise from the intermediate lobe cells of the pituitary gland in p27-/- mice, as well as in Rb+/- mice
197 sent an expression profile of the developing pituitary gland including 83 transcripts, 40% of which a
201 ocin (OT) originates from secretion from the pituitary gland into the circulation and from absorption
207 dural AV fistula in the cavernous sinus, the pituitary gland is enlarged, which should not be misdiag
208 nt understanding of the role of PROP1 in the pituitary gland is limited to the repression and activat
211 tin (PRL) from the anterior lobe (AL) of the pituitary gland is tonically inhibited by dopamine (DA)
214 y, the broad physiological importance of the pituitary gland, its intriguing organogenesis, and the c
217 in effective imaging of the adrenal glands, pituitary gland, lymph nodes, pancreas, and thyroid and
218 t melatonin-receptor-containing cells in the pituitary gland may operate as key calendar cells, trans
219 on of these factors to tanycytes but not the pituitary gland, may explain the heterogeneous response
220 s obtained in vitro (binding affinity to rat pituitary gland membranes) and in vivo (rat antiovulator
221 by various immune cells and by the anterior pituitary gland, MIF plays a critical role in the system
222 n, expression of p8 mRNA in developing mouse pituitary glands mirrored its expression in the gonadotr
223 been shown to be secreted from the anterior pituitary gland, monocytes/macrophages, and T cells acti
224 rve sheath, optic disc, posterior globe, and pituitary gland morphology was performed and correlated
225 he endocrine system via the hypothalamus and pituitary gland, neuroendocrinology has evolved into a s
227 ian eminence (ME) and various regions of the pituitary gland of OVX and OVX+NIL-D rats were measured
228 minergic neurons in the hypothalamus and the pituitary gland of the domestic pig, Sus scrofa, an anim
230 ory granules were significantly decreased in pituitary glands of 4.1N(-/-) compared to 4.1N(+/+).
231 e (LH) beta subunit gene is expressed in the pituitary glands of all mammals, whereas the closely rel
232 L), but not growth hormone, was lower in the pituitary glands of mice with defective mammary gland de
237 wing to organic disease of the hypothalamus, pituitary gland or testes has been treated with testoste
238 he hormone arginine vasopressin (AVP) in the pituitary gland or the hypothalamus, whereas nephrogenic
241 tg(-/-)p21(-/-) relative to Rb(+/-)Pttg(-/-) pituitary glands, p21-dependent senescence provoked by P
242 zation of contrast agents in the adrenal and pituitary glands, pancreas, and lymph nodes with depende
244 ligands for a receptor found in abundance in pituitary gland, play a broader role in brain function a
245 s involved in AVP release from the posterior pituitary gland, plays a role in the hypertension in RA+
246 cal defect in which the anterior lobe of the pituitary gland protrudes through the cartilage plate th
248 (GH), a pleiotropic hormone secreted by the pituitary gland, regulates immune and inflammatory respo
249 Cushing disease is a condition in which the pituitary gland releases excessive adrenocorticotropic h
250 of the vertebrate neuroendocrine system, the pituitary gland relies on the progressive and coordinate
257 acellular compartment to the cell surface in pituitary gland somatotropes, concomitant with increasin
260 at staining was consistently observed in the pituitary glands, stomach, and intestines, and to a less
261 reatment (uterus: SUV -21.5% and TBR -37.9%; pituitary gland: SUV -14.2% and TBR -26.0%, compared wit
262 interim (uterus: SUV -50.6% and TBR -58.5%; pituitary gland: SUV -39.0% and TBR -48.3%), which tende
268 timulate the release of GH from the anterior pituitary gland through the activation of a novel G-prot
269 growth hormone secretagogue receptor in the pituitary gland, thus fulfilling criteria of a brain-gut
270 gulator of developmental angiogenesis in the pituitary gland, thus providing insight into the long-st
272 y is indicative of a failure of the anterior pituitary gland to stimulate the target endocrine organs
273 We report a catalog of the mouse embryonic pituitary gland transcriptome consisting of five cDNA li
274 A surge of luteinizing hormone (LH) from the pituitary gland triggers ovulation, oocyte maturation, a
279 SHH) in outgrowth and differentiation of the pituitary gland using loss- and gain-of-function studies
280 nctional pituitary adenomas and eight normal pituitary glands, using 33 oligonucleotide GeneChip micr
281 araventricular nucleus [PVN]) but not in the pituitary gland, ventromedial hypothalamus, dorsal hippo
283 We observed that a reduced volume in the pituitary gland was associated with the slope of neuroti
286 des, significant radioactivity uptake in the pituitary gland was observed (SUV of 0.7 at 30 min pi).
287 of ProDYN in both the anterior and posterior pituitary glands was much lower than that in the neural
288 ) release from the hypothalamus and anterior pituitary gland, we hypothesized that it also might rele
290 termediate (IL) and neural (NL) lobes of the pituitary gland were dissected and the concentration of
292 y unique, actions also occur in the anterior pituitary gland where both peptides inhibit adrenocortic
293 iating ANXA1 actions, we have focused on the pituitary gland, where ANXA1 has a well-defined role as
294 s including adrenal gland, kidney, brain and pituitary gland, where it acts to modify sodium homeosta
295 ly innervating different brain areas and the pituitary gland, which could represent an important fact
296 but rather in the mesenchyme surrounding the pituitary gland, which is an essential source of signali
298 of plasma growth hormone (GH) release by the pituitary gland, which shows significant sex differences
299 e head and orbits demonstrated an asymmetric pituitary gland without chiasm compression and discrete
300 mation and maturation of blood cells, in the pituitary gland (Wnt10a), and in the face, limbs and ski