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1                                              GnRH also increased H3S28p and H3K27ac levels and also t
2                                              GnRH excitability is upregulated during positive feedbac
3                                              GnRH neuron deficiency in male mice was accompanied by i
4                                              GnRH neurons do not express the estrogen receptor needed
5                                              GnRH receptor subtypes GnRHR1 and GnRHR2 were expressed
6                                              GnRH regulates the pituitary gonadotropin's follicle-sti
7                                              GnRH secreted by cholangiocytes promotes biliary prolife
8                                              GnRH stimulation increases gonadotrope GLUT1 expression
9                                              GnRH-induced biliary proliferation was evaluated by chan
10 y drive to gonadotropin-releasing hormone 1 (GnRH) neurons, the synaptic mechanisms of which are unkn
11 ofluorescence expression patterns and RFRP-3/GnRH cross-talk are largely conserved in the NMR brain,
12 njugated to the targeting peptide [d-Lys(6)]-GnRH, generating SAN1GSC.
13                         We have identified a GnRH-like neuropeptide (pQIHYKNPGWGPG-NH2) that specific
14 dministration of 18 or 36mg of leuprolide, a GnRH agonist and a larger MW peptide, via a novel ethyle
15 e observed in vivo after administration of a GnRH agonist.
16 global deletion of Kiss1r (Kiss1r(-/-)) or a GnRH neuron-specific deletion of Kiss1r (Kiss1r(d/d)) di
17                   To address this, we used a GnRH peptide-modified dendrimer platform with and withou
18 n syndrome (KS) is characterized by abnormal GnRH-1ns migration, we examined whole-exome sequencing d
19                        Little is known about GnRH release during sexual maturation, but it is assumed
20 that estradiol and time of day signals alter GnRH neuron responsiveness to stimuli, GFP-identified Gn
21 ported by GLUT1 expression and activity, and GnRH-induced glycolysis is recapitulated in primary gona
22 nocopied the full spectrum of nasal axon and GnRH neuron defects of SEMA3A knockout mice.
23 logy (COST) programmes - DSDnet (BM1303) and GnRH Network (BM1105) - provided the framework for groun
24 he SGK-1 promoter in the presence of Dex and GnRH, GR levels remain unchanged compared with Dex treat
25 s the success of the COST Actions DSDnet and GnRH Network and the European Reference Network for Rare
26  phosphorylation, c-Fos mRNA expression, and GnRH release.
27 ic links between craniofacial patterning and GnRH dysfunction and begin to assemble the functional ne
28 pression profile of gonadotropin subunit and GnRH receptor genes in rat pituitary in vitro and in viv
29 cally reduced H3S28p levels in untreated and GnRH-treated cells and also affected H3K27ac levels.
30 educed neurogenesis for both vomeronasal and GnRH-1ns but less severe defects in OEC development.
31 endrites, and the density of fibers apposing GnRH neurons was even greater in PNA mice (56%).
32 prostate cancer than the currently available GnRH agonists.
33 enes responded only to variations in average GnRH concentration, Fshb levels were sensitive to both a
34 actually resulted from variations in average GnRH concentration.
35                    However, the link between GnRH neuron activity and their morphology remains unknow
36 arities with neuropeptides of the bilaterian GnRH, adipokinetic hormone (AKH) and corazonin family.
37  issue with the first identification of both GnRH-type and CRZ-type signalling systems in a deuterost
38  innervation of the adult median eminence by GnRH-positive neurites.
39 ted that the long-lasting effects induced by GnRH were most likely caused by rebinding since over 70%
40 dotroph secretory function during continuous GnRH treatment.
41 However, if Gli3 plays a role in controlling GnRH-1 neuronal development has not been addressed.
42  or NRP2 to position these axons for correct GnRH neuron migration, with an additional role for the N
43 RP2 and PLXNA1 have been linked to defective GnRH neuron development in mice and inherited GnRH defic
44 H-tac3a colabeled cells were observed, dense GnRH fibers surround and potentially synapse with tac3a
45 discuss the possibility that the PPE-derived GnRH neurons of Ciona resemble an ancestral cell type, a
46 monstrate that the vertebrate/deuterostomian GnRH-type and the protostomian AKH systems are orthologo
47                During embryonic development, GnRH neurons migrate along olfactory and vomeronasal axo
48 constant-release estradiol implants (OVX+E), GnRH neuron firing is suppressed in the morning (AM) by
49   Our results shed light on the long-elusive GnRH pulse generator offering new horizons for reproduct
50 relatively insensitive to loss of endogenous GnRH and continuous treatment with GnRH, probably reflec
51 in pituitary alphaT3-1 cells with endogenous GnRH receptor expression.
52 pes of the probands and resulted in enhanced GnRH neuron death during development.
53 , providing homeostatic feedback on episodic GnRH/LH release as well as positive feedback to control
54 Aergic transmission, which typically excites GnRH neurons, are independently sufficient for increasin
55 ants indicate that Ascl-1, while crucial for GnRH-1 neurogenesis, is not required for normal OEC deve
56 function of AMH as a pro-motility factor for GnRH neurons.
57 lts identify SEMA3E as an essential gene for GnRH neuron development, uncover a neurotrophic function
58 , we discovered that Ascl-1 is necessary for GnRH-1 ontogeny.
59 ent with LH pulses in the blood; a proxy for GnRH pulses.
60  release of luteinizing hormone, a proxy for GnRH, emerges abruptly as we increase the basal activity
61 induction has a preference for low-frequency GnRH pulses.
62 ctly on the pituitary cells independent from GnRH or kisspeptin and could play multiple roles in repr
63 tropin-releasing hormone (GnRH) release from GnRH neurons to control the reproductive axis.
64 ) is a potent trigger of GnRH secretion from GnRH neurons.
65  analogue of gonadotropin-releasing hormone (GnRH or LHRH), is the active pharmaceutical ingredient u
66              Gonadotropin-releasing hormone (GnRH) agonists (e.g., triptorelin) are used for androgen
67 f the use of gonadotropin-releasing hormone (GnRH) agonists to protect ovarian function have shown mi
68 ,959 were on gonadotropin-releasing hormone (GnRH) agonists, and 3,747 underwent surgical orchiectomy
69 vertebrates, gonadotropin-releasing hormone (GnRH) and gonadotropin-inhibitory hormone (GnIH), respec
70 r release of gonadotropin-releasing hormone (GnRH) and gonadotropins.
71 g release of gonadotropin releasing hormone (GnRH) and luteinizing hormone (LH) are pivotal events in
72  nonpeptide, gonadotropin-releasing hormone (GnRH) antagonist, produced partial to nearly full estrog
73 ction of the gonadotropin-releasing hormone (GnRH) axis causes a range of reproductive phenotypes res
74 ility due to gonadotropin releasing hormone (GnRH) deficiency, which is often associated with anosmia
75 eficiency in gonadotropin-releasing hormone (GnRH) have impaired sexual reproduction.
76              Gonadotropin-releasing hormone (GnRH) is a key regulator of reproductive maturation in h
77              Gonadotropin-releasing hormone (GnRH) is a trophic peptide hormone synthesized by hypoth
78              Gonadotropin-releasing hormone (GnRH) is a trophic peptide hormone that modulates reprod
79          The gonadotropin-releasing hormone (GnRH) is the master regulator of fertility and kisspepti
80          The gonadotropin-releasing hormone (GnRH) is the master regulator of fertility.
81 hypothalamic gonadotropin-releasing hormone (GnRH) leads to a marked decrease in secretion of pituita
82 e control of gonadotropin releasing hormone (GnRH) neuronal development is unknown.
83 ivity of the gonadotropin-releasing hormone (GnRH) neuronal network controlling fertility.
84 hypothalamic gonadotropin-releasing hormone (GnRH) neurons and is essential for reproductive health.
85 ck regulates gonadotropin-releasing hormone (GnRH) neurons and subsequent luteinizing hormone (LH) re
86 roperties of gonadotropin-releasing hormone (GnRH) neurons and synaptic inputs to these cells coincid
87              Gonadotropin-releasing hormone (GnRH) neurons are the final common pathway for central n
88 al output of gonadotropin-releasing hormone (GnRH) neurons controls fertility and is sculpted by sex-
89 depends upon gonadotropin-releasing hormone (GnRH) neurons generating a pulsatile pattern of gonadotr
90              Gonadotropin-releasing hormone (GnRH) neurons produce the central output controlling fer
91              Gonadotropin-releasing hormone (GnRH) neurons regulate puberty onset and sexual reproduc
92 ontrolled in gonadotropin-releasing hormone (GnRH) neurons via action potentials and neuromodulators.
93  activity of gonadotropin-releasing hormone (GnRH) neurons.
94 lity through gonadotropin-releasing hormone (GnRH) neurons.
95 dotropes and gonadotropin-releasing hormone (GnRH) neurons.
96  feedback to gonadotropin-releasing hormone (GnRH) neurons.
97 lity through gonadotropin-releasing hormone (GnRH) neurons.
98 TATEMENT The gonadotropin-releasing hormone (GnRH) pulse generator controls the pulsatile secretion o
99 pends on the gonadotropin-releasing hormone (GnRH) pulse generator, a neural construct comprised of h
100          The gonadotropin-releasing hormone (GnRH) receptor is a drug target for certain hormone-depe
101 transfer via gonadotropin-releasing hormone (GnRH) receptors (GnRHR) to extracellular signal-regulate
102 ling through gonadotropin-releasing hormone (GnRH) related receptors.
103 with reduced gonadotropin-releasing hormone (GnRH) release and infertility.
104 ch modulates gonadotropin-releasing hormone (GnRH) release from GnRH neurons to control the reproduct
105 ic pulsatile gonadotropin-releasing hormone (GnRH) release.
106 ed pulses of gonadotropin-releasing hormone (GnRH) represents a longstanding puzzle about extracellul
107 s a brake on gonadotropin-releasing hormone (GnRH) secretion during childhood.
108 mentation of gonadotropin-releasing hormone (GnRH) secretion from a few thousand hypothalamic neurons
109 egulators of gonadotropin-releasing hormone (GnRH) secretion.
110 z belongs to gonadotropin-releasing hormone (GnRH) superfamily, implying an analogous role in growth
111 ptors of the gonadotropin-releasing hormone (GnRH) superfamily.
112 eficiency of gonadotropin-releasing hormone (GnRH) that is characterized by hypogonadism with delayed
113 regulated by gonadotropin-releasing hormone (GnRH) via MAPK signaling pathways that stimulate gene tr
114 ss genes for gonadotropin-releasing hormone (GnRH), a G-protein-coupled receptor for relaxin-3 (RXFP3
115 y that binds gonadotropin-releasing hormone (GnRH), a master regulator of reproduction in vertebrates
116 by secreting gonadotropin-releasing hormone (GnRH).
117 er molecule' gonadotropin-releasing hormone (GnRH).
118 on responsiveness to stimuli, GFP-identified GnRH neurons in brain slices from OVX+E or OVX female mi
119 thing cells in the nasal mucosa, and impairs GnRH-1 neuronal migration to the brain.
120  spiroindoline system significantly improved GnRH-R antagonist potencies across several species, mand
121  hypothesized that ablation of Galphaq/11 in GnRH neurons would diminish but not completely block KP-
122 ommon inhibitory mechanism of GnIH action in GnRH neurons and gonadotropes.
123              Culturing of pituitary cells in GnRH-free conditions downregulated Fshb, Cga, and Gnrhr
124                  Timely postnatal changes in GnRH expression are essential for puberty and adult fert
125                  Timely postnatal changes in GnRH secretion are essential for pubertal onset.
126 ce but they displayed significant defects in GnRH-1 neuronal migration.
127 hat conveys the inhibitory action of GnIH in GnRH neurons by using the GnRH neuronal cell line, GT1-7
128 tin and vasoactive intestinal polypeptide in GnRH neuronal cell line, GT1-7.
129 ts antiangiogenic or cytotoxic properties in GnRH-R-expressing prostate and breast tumor cells.
130 evelopment, however, if Gli3 plays a role in GnRH-1 neuronal development is unclear.
131 netic restoration of kisspeptin signaling in GnRH neurons in Kiss1r(-/-) mice, functional adenogenesi
132 not directly inhibit kisspeptin signaling in GnRH neurons.
133 C6 to modulate cell movement and survival in GnRH neurons.
134 ion and that impairing microRNA synthesis in GnRH neurons leads to hypogonadotropic hypogonadism and
135 that acts both directly and through Zeb1, in GnRH neurons.
136  primates, puberty is unleashed by increased GnRH release from the hypothalamus following an interval
137 d with normal rats, accompanied by increased GnRH secretion.
138 tch with built-in feedback governs increased GnRH expression during the infantile-to-juvenile transit
139                         Kisspeptin increased GnRH excitability and was essential for estradiol regula
140                         Kisspeptin increased GnRH neuron response in cells from OVX and OVX+E mice in
141  are independently sufficient for increasing GnRH neuron firing rate during positive feedback or whet
142 gonadotropins reflect Galphaq/11-independent GnRH secretion and activation of the neuroendocrine-repr
143 RH secretion and that Galphaq/11-independent GnRH secretion would be sufficient to maintain fertility
144 tion values <1 bit, implying that individual GnRH-responsive cells cannot unambiguously differentiate
145 sive effects of HCD on the estradiol-induced GnRH/LH surge were overcome by neuron-specific SOCS3 kno
146 rogesterone can block the oestradiol-induced GnRH/LH surge and inhibit LH pulse frequency.
147 nRH neuron development in mice and inherited GnRH deficiency in humans.
148 llmann syndrome (KS), which causes inherited GnRH deficiency.
149 vestigated as a candidate gene for inherited GnRH deficiency.
150 entified mutations associated with inherited GnRH deficiency, but the small number of affected famili
151 roduction in birds and mammals by inhibiting GnRH and gonadotropin secretion.
152     These findings provide new insights into GnRH-1 and OECs development and demonstrate that human G
153 eedback states of the daily surge model into GnRH neurons from OVX, OVX+E AM, and OVX+E PM mice.
154 etic interrogation of families with isolated GnRH deficiency (IGD).
155 ctivation profiles of the endogenous ligand, GnRH and a well-known marketed analog, buserelin using a
156 ) transgenic mouse lines revealed that, like GnRH neurons, most hypothalamic nNOS neurons have a glut
157 m these mice, suggesting a mechanism for low GnRH/luteinizing hormone (LH) secretion.
158 s that can potentially benefit from lowering GnRH pulsatility with consequent diminished levels of pl
159 ombinant wild-type SEMA3E protected maturing GnRH neurons from cell death by triggering a plexin D1-d
160 riectomized, estradiol-treated (OVX+E) mice; GnRH neurons are suppressed in the morning and activated
161        In experiment 2, using microdialysis, GnRH and kisspeptin surges induced by E2 benzoate were s
162 c development, AMH is expressed in migratory GnRH neurons in both mouse and human fetuses and unconve
163                   In silico studies of model GnRH neurons in which >1000 PSg trains were tested exhib
164                   In this daily surge model, GnRH neuron intrinsic properties are shifted to favor in
165  native GnRH (1, 2, and 5) or lipid-modified GnRH (3 and 4).
166                   Finally, we find that most GnRH neurons express the kisspeptin receptor GPR54 upon
167  on a polylysine core and bore either native GnRH (1, 2, and 5) or lipid-modified GnRH (3 and 4).
168 mproved stability as compared to the natural GnRH, yet they suffer from a poor pharmacokinetic profil
169 ve embryonic migration of the neuroendocrine GnRH cells to the basal forebrain, which results in redu
170 t, gonadotropin-releasing-hormone-1 neurons (GnRH-1ns) migrate from the developing vomeronasal organ
171 espiration, by the reproductive neuropeptide GnRH.
172                                  Although no GnRH-tac3a colabeled cells were observed, dense GnRH fib
173 eathing cells (OEC) is imperative for normal GnRH-1 neuronal migration.
174 ve and repressive signals induces the normal GnRH-fuelled run-up to correct puberty initiation, and i
175 ) stalls at this well positioned nucleosome, GnRH-induced H3S28p, possibly in association with H3K27a
176 , we show that a male-specific activation of GnRH neurons occurs 0-2 h following birth and that this
177       In vivo and in vitro administration of GnRH increased the expression of miR-200b and fibrosis m
178 usly, we demonstrated that administration of GnRH to normal rats increased intrahepatic biliary mass
179 ptor alpha (ERalpha)-expressing afferents of GnRH neurons, including kisspeptin neurons in the antero
180 ther SEMA3E or PLXND1 increased apoptosis of GnRH neurons in the developing brain, reducing innervati
181 bconnectin-3alpha, determine the capacity of GnRH neurons to be activated by kisspeptin and estradiol
182 q/11-coupled signaling as a major conduit of GnRH secretion, it also uncovers a significant role for
183                                Disruption of GnRH/GnRHR signaling may be important for the management
184 ed IP1 accumulation and a longer duration of GnRH neuron firing than KP54 (115 vs. 55 minutes; P = 0.
185                                The effect of GnRH administration was evaluated in normal rats and in
186 he behavioral and neurobiological effects of GnRH agonists in mice will be important to better guide
187                      However, the effects of GnRH agonists on brain function and mental health are no
188 hronous activity caused robust excitation of GnRH neurons by a synaptic mechanism that also involved
189 L cholangiocytes had increased expression of GnRH compared with normal rats, accompanied by increased
190                            The expression of GnRH receptors was assessed in a normal mouse cholangioc
191 cell lines and on action potential firing of GnRH neurons in brain slices.RESULTSIn healthy women, th
192 good correspondence between the frequency of GnRH release detected by FSCV in the median eminence of
193                             The frequency of GnRH release in the late embryonic stage was surprisingl
194 e for AMH in the development and function of GnRH neurons and indicate that AMH signaling insufficien
195  specification, migration and/or function of GnRH neurons.
196                                  Homologs of GnRH and its cognate receptor have been identified in in
197                                   Imaging of GnRH neurons revealed greater dendritic spine density th
198 e gene 2 knockout), the hepatic knockdown of GnRH decreased IBDM and liver fibrosis.
199            In vivo and in vitro knockdown of GnRH decreased intrahepatic bile duct mass/cholangiocyte
200 for a vesicular protein in the maturation of GnRH neuronal network.
201 ans are associated with altered migration of GnRH neurons, resulting in congenital hypogonadotropic h
202 th an HR of CVD during the first 6 months of GnRH agonist therapy of 1.91 (95% CI, 1.66 to 2.20), an
203 ienced symptom remission after 2-3 months of GnRH agonist-induced ovarian suppression (leuprolide) th
204 e synaptically connected neuronal network of GnRH neurons could account for this pathology.
205   Ovarian estradiol regulates the pattern of GnRH (negative feedback) and initiates a surge of releas
206 f GDF9 shifted the characteristic pattern of GnRH pulse frequency sensitivity.
207 es in the absence and continuous presence of GnRH.
208 output, but that the intrinsic properties of GnRH neurons during positive feedback further poise thes
209 xl2 expression levels control the pruning of GnRH dendrites, highlighting an unexpected role for a ve
210 al polypeptide (VIP), positive regulators of GnRH neurons.
211 mechanism underlying the episodic release of GnRH is not known, although recent studies have suggeste
212 ently decreased the impedance as a result of GnRH receptor activation with potencies of 9.3 +/- 0.1 (
213           We evaluated the autocrine role of GnRH in the regulation of cholangiocyte proliferation.
214 ness to kisspeptin, the main secretagogue of GnRH.
215              The expression and secretion of GnRH in NMC and isolated cholangiocytes was assessed.
216 a dual role of driving episodic secretion of GnRH through the differential release of peptide and ami
217 t individual cells are unreliable sensors of GnRH concentration and that this reliability is maximal
218 olog of human PROKR2) during early stages of GnRH neuronal migration.
219             As the most potent stimulator of GnRH/LH release, kisspeptin is believed to mediate the p
220 f human KISS1 and TAC3, 2 key stimulators of GnRH secretion.
221 ons important for generation of the surge of GnRH and LH that induces ovulation.
222 ve to positive feedback initiates a surge of GnRH release, culminating in ovulation.
223 SS1 receptor, KISS1R, is a potent trigger of GnRH secretion and inactivation of KISS1R on the GnRH ne
224 y and kisspeptin (KP) is a potent trigger of GnRH secretion from GnRH neurons.
225 f transcriptional factors acting upstream of GnRH.
226 ssed the stimulatory effect of kisspeptin on GnRH release in hypothalamic culture, GnIH had no inhibi
227             CVD risk was increased in men on GnRH agonists compared with the comparison cohort (hazar
228  by augmenting signaling via these pathways, GnRH secretion can be enhanced to treat some forms of in
229                  During the juvenile period, GnRH neurons undergo morphological remodeling, concomita
230 t loss of tcf12 in zebrafish larvae perturbs GnRH neuronal patterning with concomitant attenuation of
231  experiments with varying near-physiological GnRH concentrations and pulse patterns.
232 nd positive feedback generating preovulatory GnRH/LH surges.
233 k mechanism responsible for the preovulatory GnRH surge.
234 ncrease firing rates during the preovulatory GnRH surge.
235 ed by blocking protein synthesis (to prevent GnRH from increasing DUSP expression) but did not differ
236 /PI3K signaling as a mechanism that prevents GnRH neuron deficiency.
237 g the KS-associated mutation did not protect GnRH neurons from death.
238 adiol induces negative feedback on pulsatile GnRH/luteinizing hormone (LH) release and positive feedb
239 the gonadotropin-releasing hormone receptor (GnRH-R).
240  the first EAP1 mutations leading to reduced GnRH transcriptional activity resulting in a phenotype o
241  act indirectly via KNDy neurons to regulate GnRH, the identity of upstream neurons that provide syna
242  We studied how estradiol feedback regulates GnRH excitability, a key determinant of neural firing ra
243 ey project to the median eminence to release GnRH.
244 mata of the neuroendocrine neurons releasing GnRH and controlling reproduction are located.
245  Cga expression, MSK1/2 inhibition repressed GnRH activation of Cga expression.
246                       Current-clamp revealed GnRH neurons fired more action potentials in response to
247 H2) that specifically activates an A. rubens GnRH-type receptor and a novel neuropeptide (HNTFTMGGQNR
248 y onset and sexual reproduction by secreting GnRH to activate and maintain the hypothalamic-pituitary
249 tribution of solutions accounted for similar GnRH neuron excitability in all groups other than positi
250 velopment in the nasal mucosa and subsequent GnRH-1 neuronal migration.
251                                Subsequently, GnRH receptor activation was completely abolished with a
252                                Surprisingly, GnRH-1 neurogenesis was intact in Gli3(Xt/Xt) mice but t
253 ells coincident with production of sustained GnRH release that ultimately triggers ovulation.
254                                We found that GnRH increases the levels of both modifications around t
255 ese observations support the hypothesis that GnRH neurons integrate fast-synaptic and intrinsic chang
256               We initially hypothesized that GnRH might induce phosphorylation of Ser-10 in histone 3
257             We have reported previously that GnRH-induced activities at these genes include various h
258        Moreover, ChIP analysis revealed that GnRH-activated MSK1 targets the first nucleosome just do
259                      These data suggest that GnRH neurons integrate fast-synaptic and intrinsic chang
260      These data show for the first time that GnRH agonist treatment after puberty onset exerts sex-sp
261                                          The GnRH/GnRHR1 axis and miR-200b were up-regulated in human
262 owed a reduced ability to trans-activate the GnRH promoter compared to wild-type EAP1, due to reduced
263  neuropeptides dose-dependently activate the GnRH/AKH-like receptors GNRR-3 and GNRR-6 in a cellular
264 LUT1 expression increases in vivo during the GnRH-induced ovulatory LH surge and correlates with GnRH
265  Galphaq) was selectively inactivated in the GnRH neurons of global Gna11 (encodes Galpha11)-null mic
266  negative to positive feedback initiates the GnRH surge, ultimately triggering ovulation.
267 etwork that regulates the development of the GnRH axis.
268 sion are critical for the functioning of the GnRH neuron network in the female mouse.
269 emale puberty through transactivation of the GnRH promoter.
270 ereby confirming the Galphaq-coupling of the GnRH receptor in pituitary alphaT3-1 cells.
271 f hepatic fibrosis; however, the role of the GnRH/GnRHR1/miR-200b axis in the development of hepatic
272  secretion and inactivation of KISS1R on the GnRH neuron results in infertility.
273 that progesterone's inhibitory effect on the GnRH/LH surge and pulsatile secretion is mediated by its
274 speptin neurons are thought to represent the GnRH pulse generator, since their oscillatory activity i
275                                Targeting the GnRH/GnRHR1/miR-200b axis may be key for the management
276  action of GnIH in GnRH neurons by using the GnRH neuronal cell line, GT1-7.
277 er to receive standard chemotherapy with the GnRH agonist goserelin (goserelin group) or standard che
278  multiple estrogen feedback loops within the GnRH neuronal network required for fertility in the fema
279          To resolve which components of this GnRH signal induce Fshb, we developed a high-throughput
280                                        Thus, GnRH nerve terminal function is controlled over disparat
281 3alpha in neurons or glial cells afferent to GnRH neurons.
282 cts that multiple combinations of changes to GnRH intrinsic conductances can produce the firing respo
283 ddress whether increased GABA innervation to GnRH neurons originates in the ARN, a viral-mediated Cre
284 alized tac3a-expressing cells in relation to GnRH and kisspeptin cells.
285 d from differential pituitary sensitivity to GnRH.
286 minish but not completely block KP-triggered GnRH secretion and that Galphaq/11-independent GnRH secr
287  lacking beta-arrestin-1 or -2, KP-triggered GnRH secretion is significantly diminished.
288           However, the mechanisms underlying GnRH pulse generation remain elusive.
289 tiated) compared with NLT (undifferentiated) GnRH neuronal cell lines.
290 e, buserelin) and 7.8 +/- 0.06 (pEC50 value, GnRH).
291 ary gonadotrope cells perifused with varying GnRH pulse frequencies.
292  status with input from the hypothalamus via GnRH receptor signaling to regulate reproductive hormone
293                                At 2-3 weeks, GnRH release is suppressed before attaining adult patter
294                              Moreover, while GnRH was expressed in both neuronal cell body and axons
295 rons heavily contacted and even bundled with GnRH neuron dendrites, and the density of fibers apposin
296 ammals via KNDy neurons and interaction with GnRH.
297 xpression, whereas continuous treatment with GnRH agonists upregulated Cga expression progressively a
298                               Treatment with GnRH increased intrahepatic bile duct mass as well as pr
299           However, continuous treatment with GnRH stimulated LH secretion in vitro and in vivo, leadi
300 ndogenous GnRH and continuous treatment with GnRH, probably reflecting the status of Egr1 and Nr5a1 e

 
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