戻る
「早戻しボタン」を押すと検索画面に戻ります。 [閉じる]

コーパス検索結果 (1語後でソート)

通し番号をクリックするとPubMedの該当ページを表示します
1 the opioids released by veratridine were not endomorphins.
2 ost selective endogenous MOR ligands are the endomorphins.
3                                              Endomorphin 1 (10, 30, 100 nmol/kg) administered intrave
4 endogenous mu-opioid receptor (MOR) agonists endomorphin 1 (EM1) and 2 (EM2) were tested for their ca
5 n, the endogenous kappa receptor agonist) or endomorphin 1 (EM1, the endogenous mu receptor agonist)
6                         The distributions of endomorphin 1 (Tyr-Pro-Trp-Phe-NH2; EM1) and endomorphin
7 (POMC), the precursor to beta-endorphin, and endomorphin 1 and 2 on sectioned rat forebrain revealed
8                                              Endomorphin 1 and 2 were below the detection limit of th
9 dia and attenuated the hypotensive effect of endomorphin 1.
10 ed the bradycardia and hypotension caused by endomorphin 1.
11 tment, whereas a few agonists, in particular endomorphins 1 and 2, display apparent bias toward arres
12                The endogenous opioid peptide endomorphin-1 (1) was modified by attachment of lactose
13  affinity mu opioid receptor (MOR) agonists, endomorphin-1 (E-1) and -2 (E-2), modulate ASIC currents
14    Light microscopic studies have shown that endomorphin-1 (EM-1) -containing fibers are distributed
15 tracerebroventricular (i.c.v.) injections of endomorphin-1 (EM-1) and endomorphin-2 (EM-2) in the rat
16 morphine and the endogenous opioid peptides, endomorphin-1 (EM-1) and endomorphin-2 (EM-2), on mu opi
17                                              Endomorphin-1 (EM-1) is a recently isolated endogenous p
18 zation of the mu-selective endogenous opioid endomorphin-1 (EM-1) via an array of nuclear magnetic re
19     The present study examined the effect of endomorphin-1 (EM1), an endogenous opioid with a high af
20                                              Endomorphin-1 (EM1), in contrast to several other mu opi
21              A series of diastereoisomers of endomorphin-1 (EM1, Tyr(1)-Pro(2)-Trp(3)-Phe(4)-NH(2)) h
22                                              Endomorphin-1 (Tyr-Pro-Trp-Phe-NH(2); EM1) and endomorph
23  and isolation from brain of such a peptide, endomorphin-1 (Tyr-Pro-Trp-Phe-NH2), which has a high af
24                                              Endomorphin-1 and -2 (EM1, EM2) are endogenous opioids w
25 neurons were enhanced by naturally occurring endomorphin-1 and -2 opioid peptides, indicating a role
26          We suggested that the endomorphins (endomorphin-1 and -2) might be biased toward arrestin re
27          Therefore, because the potencies of endomorphin-1 and endomorphin-2 to elicit internalizatio
28 (3)S)Tyr and -Trp were incorporated into the endomorphin-1 chain (EM-1) and into model tripeptides by
29 inuous exposure of the cloned mu receptor to endomorphin-1 did not diminish the subsequent ability of
30 g-Phe, and the putatively endogenous peptide endomorphin-1 displayed particularly distinct bias profi
31 g the 60 min of observation, indicating that endomorphin-1 does not induce rapid desensitization of t
32                  Bilateral administration of endomorphin-1 in the globus pallidus of rats induced oro
33 u-opioid receptors, the behavioral effect of endomorphin-1 in the globus pallidus was blocked by the
34  have investigated the behavioral effects of endomorphin-1 in the globus pallidus, a brain region tha
35                                  Infusion of endomorphin-1 internalized MOR.
36  provides no support for the hypothesis that endomorphin-1 modulates the consolidation of conditioned
37 hat the highly selective mu receptor agonist endomorphin-1 modulates the expression of conditioned de
38 vation induced by the endogenous MOR agonist endomorphin-1, and a cross-antagonism, by which a MOR an
39  in the rat VTA induced by local infusion of endomorphin-1, demonstrating a key role of MOR-Gal1R het
40 Gly-N-Met-Phe-glycinol-enkephalin (DAMGO) or endomorphin-1, into the medial preoptic nucleus attenuat
41 riene E4, Lysopc(20:4), 5-methoxytryptamine, Endomorphin-1, Lysopc(20:3)) were good prediction for th
42         We find that the magnitude of spinal endomorphin 2 (EM2) antinociception not only varies with
43 endomorphin 1 (Tyr-Pro-Trp-Phe-NH2; EM1) and endomorphin 2 (Tyr-Pro-Phe-Phe-NH2; EM2) in the rat cent
44 ously showed that intrathecal application of endomorphin 2 [EM2; the highly specific endogenous mu-op
45                               The effects of endomorphin 2 were qualitatively similar.
46  maximally effective concentration), but not endomorphin-2 (0.6 mM; an endogenous ligand for micro -o
47 austively stereodiversified library based on endomorphin-2 (1) to discover mu opioid receptor (MOR) l
48  previously reported that microinjections of endomorphin-2 (E-2; an endogenous mu-receptor agonist) i
49                                       d-Pro2-endomorphin-2 (ED50=0.05 microg) was more potent than en
50 in-2 (ED50=0.05 microg) was more potent than endomorphin-2 (ED50=30 microg) in significantly increasi
51  functional domains of the endogenous opioid endomorphin-2 (EM-2) and the tachykinin SP, respectively
52 c.v.) injections of endomorphin-1 (EM-1) and endomorphin-2 (EM-2) in the rat brain to determine the s
53 us opioid peptides, endomorphin-1 (EM-1) and endomorphin-2 (EM-2), on mu opioid receptor (MOR) intern
54 activity of a constrained cyclic analogue of endomorphin-2 (EM-2: Tyr-Pro-Phe-Phe-NH(2)) and related
55                                              Endomorphin-2 (EM-2: Tyr-Pro-Phe-Phe-NH(2)) is an endoge
56                                 We show that endomorphin-2 (EM2), an arrestin-biased ligand for micro
57 re and after systemic administration of EM1, endomorphin-2 (EM2), DAMGO, and morphine in the consciou
58 domorphin-1 (Tyr-Pro-Trp-Phe-NH(2); EM1) and endomorphin-2 (Tyr-Pro-Phe-Phe-NH(2); EM2) have been loc
59 immunoreactive for the endogenous MOR ligand endomorphin-2 (Tyr-Pro-Phe-Phe-NH2) (EM-2) have been rep
60                            A second peptide, endomorphin-2 (Tyr-Pro-Phe-Phe-NH2), which differs by on
61                            The tetrapeptide, endomorphin-2 (Tyr-Pro-Phe-PheNH2) possesses high affini
62 -Me-Phe(4),Gly(5)-ol]-enkephalin (DAMGO) and endomorphin-2 activated inwardly rectifying K(+) current
63 or l-Pro, a more metabolically-stable d-Pro2-endomorphin-2 analog should produce longer analgesic act
64 lates, including enalaprilat, perindoprilat, endomorphin-2 and isoniazid, and subjected to biological
65 e exists for functional interactions between endomorphin-2 and MOR1.
66 ercising muscle and evoke a pressor reflex), endomorphin-2 and naloxone resulted in a significantly g
67                  A small proportion of these endomorphin-2 axons contained MOR1, but many of the dend
68 ts by [N-Phe(1)]-nociceptin-(1-13)-NH(2) and endomorphin-2 by naloxone, was not due to some nonspecif
69                                          The endomorphin-2 derivative displayed increased activity at
70 el of pharmacological agonism confirmed that endomorphin-2 had a much lower operational efficacy for
71 idase IV plays a role in the inactivation of endomorphin-2 in vivo, and thereby modulates its central
72                                     However, endomorphin-2 induced faster desensitization of the K(+)
73  anatomical data support the hypothesis that endomorphin-2 is a ligand for MORs in the trigeminal dor
74        Together, these results indicate that endomorphin-2 is an arrestin-biased agonist at MOPr and
75                                              Endomorphin-2 is present in high density in the spinal a
76 sia elicited by either endomorphin-2, d-Pro2-endomorphin-2 or Ala-Pyrrolidonyl-2-nitrile returned aft
77 d MOR1, but many of the dendritic targets of endomorphin-2 terminals contained MOR1.
78 , because the potencies of endomorphin-1 and endomorphin-2 to elicit internalization were unaffected
79 ason for this is likely to be the ability of endomorphin-2 to induce greater phosphorylation of MOPr
80 cells stably expressing MOPr, the ability of endomorphin-2 to induce phosphorylation of Ser375 in the
81             We confirmed the localization of endomorphin-2 to unmyelinated axons and axon terminals i
82            Consistent with previous studies, endomorphin-2 was contained primarily in dense core vesi
83                 The present study found that endomorphin-2 was degraded approximately twice as fast t
84 , by dipeptidyl peptidase IV, whereas d-Pro2-endomorphin-2 was totally resistant to this enzyme's act
85                                           If endomorphin-2 were an endogenous ligand for the MOR1, we
86 f bilorphin and the strongly arrestin-biased endomorphin-2 with the MOPr indicate distinct receptor i
87 slices with a micro-opioid receptor agonist (endomorphin-2, 100 nM).
88 , N-MePhe(4), Gly-ol(5)]-enkephalin (DAMGO), endomorphin-2, and morphine in rat and mouse locus coeru
89 ail-flick test, analgesia elicited by either endomorphin-2, d-Pro2-endomorphin-2 or Ala-Pyrrolidonyl-
90 ia, and potentiated the analgesic actions of endomorphin-2, particularly on the tail-flick test.
91 estigated this phenomenon in more detail for endomorphin-2, using endogenous MOPr in rat brain as wel
92 , has been described which should potentiate endomorphin-2-induced analgesia.
93 ociceptin, while it did block the effects of endomorphin-2.
94                      The naturally occurring endomorphins are also released by primary afferents unde
95                                          The endomorphins are endogenous opioids with high affinity a
96                                              Endomorphins are endogenous peptides that have high affi
97                                              Endomorphins are opioid tetrapeptides that have high aff
98                                          The endomorphins are recently discovered endogenous agonists
99                    It was concluded that the endomorphins attenuated the HCVR only in large doses, we
100 (i) complexes, including beta-endorphin- and endomorphin-bound muOR, deltorphin-bound deltaOR, dynorp
101 hese findings have uncovered a novel role of endomorphins by which the opioids can enhance the lactic
102 odeled exposure to opiates (u-opioid agonist endomorphin), cannabinoids (WIN 55,212-2), alcohol (etha
103       The results support the idea that some endomorphin-containing neurons in the hypothalamus proje
104  study demonstrates that, like morphine, the endomorphins down-regulate mu opioid receptors in a dose
105                                              Endomorphins (EM-1 and EM-2) are selective, high affinit
106                        We suggested that the endomorphins (endomorphin-1 and -2) might be biased towa
107       These results suggest a novel role for endomorphins in modulating ASIC function to effect lacti
108  examined the modulation of ASIC currents by endomorphins in sensory neurons from rats with freely pe
109 was immunolocalized in cells that express an endomorphin-like peptide implicated in cell signaling an
110                                          The endomorphin-mediated potentiation was a result of a left
111 t-enkephalin and alpha-neoendorphin, but not endomorphins or beta-endorphin.
112     The neuroanatomical results suggest that endomorphins participate in modulating nociceptive and a
113                                              Endomorphins potentiated sustained ASIC currents in both
114                                              Endomorphins produce analgesia; however, their role in o
115 eflexively increases mean arterial pressure; endomorphin release is also increased under inflammatory
116                                          The endomorphins represent a novel group of endogenous opioi
117 ne, while administration of APETx2 inhibited endomorphin's enhancing effect in both groups.
118 summary, EA may induce release of endogenous endomorphins that activate mu opioid receptors in GABAne
119             Thus, endogenous enkephalins and endomorphins, thought to be released during noxious peri
120 morphin (DERM), deltorphin (DELT), TIPP, and endomorphin were conjugated to BODIPY TR or Alexa Fluor

 
Page Top