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1 ltered cleavage profile for the peptide beta-endorphin.
2 a-neoendorphin, but not endomorphins or beta-endorphin.
3 cyte-stimulating hormone (beta-MSH) and beta-endorphin.
4 ulating hormone, and the opioid peptide beta-endorphin.
5 beta-lipotropin to gamma-lipotropin and beta-endorphin.
6 in the level of C-terminally processed beta-endorphin.
7 sed for dual immunocytochemistry of Fos/beta-endorphin.
8 gh the post-translational processing of beta-endorphin.
9 MC), or PVN levels of Met-Enkephalin or beta-Endorphin.
10 beta-lipotropic hormone (beta LPH), and beta endorphin.
11 de Y, vasoactive intestinal peptide, or beta-endorphin.
12 acid decarboxylase 67 (GAD67), NPY, and beta-endorphin.
13 duced increases in nitrite, nitrate and beta-endorphin.
14 ate an NO-dependent neuronal release of beta-endorphin.
15 abolites nitrite and nitrate as well as beta-endorphin.
16 for their content of NO metabolites and beta-endorphin.
17 a against the endogenous opioid peptide beta-endorphin.
18 or lacking either pre-pro-enkephalin or beta-endorphin.
19 as methadone and endogenous opioids such as endorphins.
20 imulating hormone, beta-lipotrophin, and the endorphins.
21 s well as to endogenous peptide ligands like endorphins.
23 tidase which converts beta-endorphin to beta-endorphin 1-17 (gamma-endorphin), beta-endorphin 1-18, a
24 beta-endorphin 1-17 (gamma-endorphin), beta-endorphin 1-18, and their corresponding C-terminal fragm
25 ministration of morphine (1 microg) and beta-endorphin (1 microg) into either the amygdala alone or t
27 rphine (1 microg) into the amygdala and beta-endorphin (1 microg) into the PAG failed to produce inte
28 milar effects of intra-DVC injection of beta-endorphin (1 pmol) are inhibited by naloxone and not by
29 n (epsilon)-opioid-receptor antagonist, beta-endorphin(1-27) prevents these effects of etorphine.
30 one (LAAM), morphine, meperidine, DADL, beta-endorphin(1-31), enkephalins, and dynorphin A(1-17) prod
31 o the suppressive actions of Gly-Gln or beta-endorphin-(1-27) injections that modulate voluntary etha
32 y was shown to be comparable to central beta-endorphin-(1-27) or intraperitoneal (i.p.) naltrexone-in
33 ontrast, the opioid peptidergic agonist beta-endorphin (10 microgram/kg, i.p.) administered after the
34 Following intrathecal administration, beta-endorphin (10-100 nmol) and GRP (1-10 nmol) dose-depende
35 is of fluorogenic peptides based on the beta-endorphin 12-24 sequence, Abz-T-P-L-V-T-L-X(1)-X(2)-N-A-
36 he rostral ventromedial medulla altered beta-endorphin (15 microg) analgesia elicited from the ventro
37 Both morphine (2.5-5 micrograms) and beta-endorphin (2.5-5 micrograms) microinjected into either t
39 investigated whether glycyl-glutamine (beta-endorphin(30-31)), an inhibitory dipeptide synthesized f
40 ffective in reducing morphine (60%) and beta-endorphin (79%) analgesia in the amygdala on the jump te
41 pro-opiomelanocortin, the precursor of beta-endorphin (a known EOP), and constituted the majority of
42 the DVC, whereas the similar effects of beta-endorphin, a peptide derived from the same precursor, ar
48 t as well as more rapid dissociation of beta-endorphin amyloid fibrils at lower pH indicate the contr
51 exercise increases blood levels of both beta-endorphin (an opioid) and anandamide (an endocannabinoid
52 wever, the A118G variant receptor binds beta-endorphin, an endogenous opioid that activates the mu op
55 significantly reduced morphine, but not beta-endorphin analgesia in the amygdala on the tail-flick te
56 ultiple modulatory mechanisms mediating beta-endorphin analgesia in the PAG, and in terms of whether
58 Whereas mecamylamine failed to reduce beta-endorphin analgesia on either measure, scopolamine produ
59 %) and transient (30 min) reductions in beta-endorphin analgesia on the jump test, MK-801 produced mi
62 es with mice confirm that these glycosylated endorphin analogues are potential drug candidates that p
65 es in the helical address region of the beta-endorphin analogues without destroying mu-, delta-, or k
66 gy states are suggested for the glycosylated endorphin analogues, a flexible aqueous state and a rest
67 owed colocalization of cathepsin L with beta-endorphin and alpha-MSH in the intermediate pituitary an
68 tion, mediated by the hedonic action of beta-endorphin and anhedonic effects of withdrawal, may theor
71 measurement of instrumental behavior of beta-endorphin and enkephalin knock-out mice that both opioid
73 nules yet expresses endogenous opioids (beta-endorphin and Met-enkephalin) and uroguanylin in apical
76 try and immunoelectron microscopy using beta-endorphin and mu-opiate receptor specific antibodies.
78 ) neurons release the endogenous opioid beta-endorphin and POMC neuron activity is inhibited by opioi
79 infiltration of immunocytes containing beta-endorphin and the consequent decrease of the beta-endorp
81 ver, neurons triple-labeled with c-Fos, beta-endorphin and VGLUT3 were noted in this region following
83 pletely prevented carboxy-shortening of beta-endorphins and greatly diminished conversion of beta-lip
84 n MRM transitions for alpha-endorphin, gamma-endorphin, and [D-Ala(2)]-gamma-endorphin were m/z 873.6
85 euroendocrine peptides (dynorphin A-17, beta-endorphin, and alpha- melanocyte-stimulating hormone) in
86 nes adrenocorticotropic hormone (ACTH), beta-endorphin, and alpha-melanocyte stimulating hormone (alp
87 cathepsin L in the production of ACTH, beta-endorphin, and alpha-MSH peptide hormones in the regulat
88 ut mice showed major decreases in ACTH, beta-endorphin, and alpha-MSH that were reduced to 23, 18, an
90 ropin-releasing hormone (GnRH), VP, OT, beta-endorphin, and dopamine neurons, are responsive to mu-re
91 iomelanocortin (POMC), the precursor to beta-endorphin, and endomorphin 1 and 2 on sectioned rat fore
92 ioid receptor agonists (e.g., morphine, beta-endorphin, and enkephalin) inhibit luteinizing hormone (
93 dotropin-releasing hormone-I, dopamine, beta-endorphin, and gonadotropin-releasing hormone-II neurons
94 gesic responses induced by morphine and beta-endorphin, and indicate that the latter response is medi
95 actin, corticotropin-releasing hormone, beta-endorphin, and somatotropin release-inhibiting factor.
96 as well as its derivatives beta LPH and beta-endorphin, and that this process is modulated by TPA, IL
98 ived feeding states but were reduced in beta-endorphin- and enkephalin-deficient mice only when they
99 nmol) dose-dependently attenuates both beta-endorphin- and GRP-elicited robust scratching without af
101 ted for three different receptors: anti-beta-endorphin anti-body, streptavidin, and thrombin, and the
102 n, growth hormone releasing factor, and beta-endorphin are nearly equivalent substrates for the enzym
105 ng a monoclonal antibody (3E-7) against beta-endorphin as a target, we selected a single peptide with
106 ntial affinity to the endogenous ligand beta-endorphin as well as alterations in pain sensitivity, dr
109 in pain modulation-metenkephalin (ME), beta-endorphin (BE), and substance P (SP)-in patients undergo
110 Within 36 h after TPA stimulation, beta-endorphin became undetectable in cell extracts, coincidi
114 leasing hormone (CRH), urocortin (Ucn), beta-endorphin (beta-END), ACTH, and corticosterone (CORT) or
116 The enzymatic cleavage products of beta-endorphin (beta-endorphin1-27 and Gly-Gln) reduce volunt
118 The mechanism by which ethanol induces beta-endorphin (beta-EP) neuronal death during the developmen
119 system is involved in ethanol-regulated beta-endorphin (beta-EP) release from rat hypothalamic neuron
120 beta-endorphin to beta-endorphin 1-17 (gamma-endorphin), beta-endorphin 1-18, and their corresponding
121 ced by the mu-sensitive opioid peptide, beta-endorphin (betaEND, 10 microg, i.c.v.) was significantly
122 CB1R activation selectively increases beta-endorphin but not alpha-melanocyte-stimulating hormone r
125 of cell bodies containing enkephalin or beta-endorphin, colchicine (90-100 microg/kg) was injected in
126 G) may have higher receptor binding for beta-endorphin compared with AA homozygotes that may contribu
127 of oxidation products of NO as well as beta-endorphin, compared to levels in fractions collected und
128 in arterial pressure elicited by i.c.v. beta-endorphin, consistent with evidence that cyclic dipeptid
130 y, CB(2) immunolabeling was detected on beta-endorphin-containing keratinocytes in stratum granulosum
132 peritoneally twice at 3 h intervals, and the endorphin content of microdialysates was analyzed by a s
133 though conversion of beta-lipotropin to beta-endorphin decreased, the lack of PC2 activity caused an
137 e aggressive conspecific several of the beta-endorphin deficient mice showed clear signs of counter a
141 in proenkephalin knockout (PENK KO) and beta-endorphin-deficient (BEND KO) mice, and how the body wei
142 Herein we demonstrate that morphine and beta-endorphin disrupt this long-range synchrony of gamma osc
144 u and kappa opioid receptors as well as beta-endorphin each produce analgesia elicited from the amygd
145 ies have demonstrated that morphine and beta-endorphin employ different anatomical and neurochemical
147 d neurons double-labeled with c-Fos and beta-endorphin, enkephalin or VGLUT3 in the ARC were signific
148 er, growth hormone releasing factor and beta-endorphin exhibit a 40-fold higher kcat, but a 10-fold d
149 nic mice with a selective deficiency of beta-endorphin exhibit normal analgesia in response to morphi
151 beta-endorphin), heterozygous mice (50% beta-endorphin expression) and sibling wildtype mice from the
152 eptor activation induces the release of beta-endorphin from keratinocytes and the activation of G-pro
154 sor-to-product ion MRM transitions for alpha-endorphin, gamma-endorphin, and [D-Ala(2)]-gamma-endorph
155 h the rank order of etorphine > DAMGO = beta-endorphin > morphine > butorphanol, and the affinity of
158 ting hormone; and the endogenous opioid beta-endorphin) have a diverse array of biological activities
159 ozygous knockout mice (entirely lacking beta-endorphin), heterozygous mice (50% beta-endorphin expres
162 beta-endorphin immunostaining, whereas beta-endorphin-immunoreactive neurons were absent in retinas
163 xtracts, coinciding with an increase of beta-endorphin-immunoreactive protein in the culture medium.
164 significant increases in POMC mRNA and beta-endorphin immunoreactivity in both ipsilateral and contr
165 ressing amacrine cells was positive for beta-endorphin immunostaining, whereas beta-endorphin-immunor
168 ed secretion of both chromogranin A and beta-endorphin in response to the usual secretagogue, cortico
170 nalgesia elicited by either morphine or beta-endorphin in the amygdala could be altered by either the
171 omelanocortin (POMC) neurons to release beta-endorphin in the arcuate nucleus (ARC) of the hypothalam
173 hat enhancement of endogenous levels of beta-endorphin in the hypothalamus via beta-endorphin neuron
174 on of AAS also increased the content of beta-endorphin in the midline thalamus, suggesting a possible
175 but decreased the potency of the opioid beta-endorphin in the periaqueductal gray region of the midbr
177 adiation, to date a functional role for beta-endorphin in the regulation of human epidermal melanocyt
178 lanocyte-stimulating hormone (MSH), and beta-endorphin in the regulation of skin pigmentation, and a
179 he data do not support a major role for beta-endorphin in the regulation of sleep or social stress-in
180 ivates neurons containing enkephalin or beta-endorphin in the rVLM as well as in the periaqueductal g
181 rphin were used to study the release of beta-endorphin in the urethane anaesthetized rat following el
183 ation of epidermal ACTH, alpha-MSH, and beta-endorphin in vitiligo owing to oxidation of methionine r
186 ndogenous concentrations of alpha- and gamma-endorphins in rat brains were 13.8+/-0.57 (mean+/-SD; n=
187 eficient mice were used to study the role of endorphins in the acute physiological and behavioral res
188 transiently elevated extracellular levels of endorphins in the nucleus accumbens, whereas nicotine an
191 produced a dose-dependent inhibition of beta-endorphin-induced hypotension, but not bradycardia, with
194 administration of subthreshold doses of beta-endorphin into both structures also results in a profoun
195 doses of morphine into both structures, beta-endorphin into both structures, morphine into one struct
198 ctures, morphine into one structure and beta-endorphin into the other structure, or morphine and beta
203 l stimulus was applied, suggesting that beta-endorphin is necessary for CB(2) receptor-mediated antin
207 rodents, another POMC-derived peptide, beta-endorphin, is coordinately synthesized in skin, elevatin
208 e and behavioral effects were absent in beta-endorphin knockout mice and in mice lacking p53-mediated
209 An antibody that selectively recognized beta-endorphin labeled fibers and neurons in the ventral horn
210 used an increase in beta-lipotropin and beta-endorphin levels in the mutant animals, but no increases
213 reatening episodes implicates increased beta-endorphin levels resulting from acid-mediated esophageal
215 en, dyadic satisfaction correlated with beta-endorphin levels, depression, and perception of illness.
218 ypothesize that this drug-induced release of endorphins may contribute to the positive reinforcing an
220 itary chemosensory cells that coexpress beta-endorphin, Met-enkephalin, uroguanylin, and Trpm5 exist
221 In conclusion, the results suggest that beta-endorphin modulates the acute endocrine, thermoregulator
223 sal links for itch-eliciting effects by beta-endorphin-MOP receptor and GRP-BB2 receptor systems and
224 roM concentrations of etorphine, DAMGO, beta-endorphin, morphine, and butorphanol, DAMGO-stimulated G
225 igned to examine the involvement of the beta-endorphin/mu-opiate receptor system in human epidermal m
226 cortin-1 receptor, we conclude that the beta-endorphin/mu-opiate receptor system participates in the
228 beta-endorphin in the hypothalamus via beta-endorphin neuron transplantation suppresses stress respo
229 2.6%, depending on neuronal location), beta-endorphin neurons (68.3.0 +/- 4.4%), and VP neurons (41-
231 to traditional mu and kappa opioids and beta-endorphin, none of the OFQ/N fragments in the amygdala e
236 D can improve the sequence coverage for beta-endorphin over performing ECD alone (i.e., from 72 to 97
237 orks) to show that three neuropeptides (beta-endorphin, oxytocin, and dopamine) play particularly imp
242 n inhibitory dipeptide synthesized from beta-endorphin post-translationally, inhibits IL-1beta and PG
243 V8 expressing the analgesic gene prepro-beta-endorphin (ppbetaEP) led to significant (P < 0.0001) rev
244 for insulin-degrading enzyme as both a beta-endorphin-processing and -inactivating enzyme is implica
245 experiments tested the hypothesis that beta-endorphin-producing neurons, that is, proopiomelanocorti
246 c acid (GABA), neuropeptide Y (NPY), or beta-endorphin receptor blockade in the ipsilateral hypothala
247 ascular reflexes through enkephalin- or beta-endorphin-related opioid receptors in the rostral ventro
248 ature, at least in part, by stimulating beta-endorphin release from pro-opiomelanocortin neurons that
252 , sensation, plasma levels of cortisol, beta-endorphin, selected gut neuropeptides, norepinephrine, e
253 keratinocytes, subsequently increasing beta-endorphin signaling at opioid receptors, and produces an
255 (tail-flick: 70-75%; jump: 60-81%) and beta-endorphin (tail-flick: 100%; jump: 93%) analgesia elicit
256 lpha-melanocyte-stimulating hormone and beta-endorphin, the glucocorticoids; and the catecholamines n
257 hormone (alpha-Msh) and carboxy-cleaved beta-endorphin, the products of Cpe-dependent processing of P
258 shown the distribution of dynorphin and beta-endorphin throughout social behavior circuits within the
259 ine contains a peptidase which converts beta-endorphin to beta-endorphin 1-17 (gamma-endorphin), beta
260 attachment, binding of the neuropeptide beta-endorphin to mu-opioid receptors in the central nervous
261 ne regulating feeding behavior, whereas beta-endorphin underlies orosensory reward in high need state
262 geting mu-receptors, such as enkephalins and endorphins, underlying the regulation of feeding and bod
267 d in rats when naloxone or antiserum to beta-endorphin was injected in the hindpaw where the noxious
269 mity to fibers containing enkephalin or beta-endorphin, was observed in the rVLM and ventrolateral PA
270 ate an NO-dependent neuronal release of beta-endorphin, we conducted a ventricular-cisternal perfusio
271 en the powerful analgesic properties of beta-endorphin, we tested this hypothesis using pain toleranc
272 tern blot analysis, POMC, beta LPH, and beta-endorphin were detected in cell extracts under baseline
274 rphin, gamma-endorphin, and [D-Ala(2)]-gamma-endorphin were m/z 873.6-->429.6; 929.6-->542.3; 936.6--
276 d antibodies to the carboxy-terminus of beta-endorphin were used to study the release of beta-endorph
277 chanism allows for the local release of beta-endorphin, where CB(2) receptors are present, leading to
278 y to inflamed sites, where they release beta-endorphin which activates peripheral opioid receptors to
279 timulates release from keratinocytes of beta-endorphin, which acts at local neuronal mu-opioid recept
280 and exercise both induce the release of beta-endorphin, which plays an important role in the modulati
282 keratinocytes of the endogenous opioid beta-endorphin, which then acts at opioid receptors on primar
283 There was no correlation of IL-1 or beta-endorphin with any psychosocial or behavioral compliance
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