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1 hages with clodronate abolished CDC-mediated cardioprotection.
2 n nitric oxide (NO) production to potentiate cardioprotection.
3 This is a revolutionary new approach to cardioprotection.
4 ophagy induction might underlie the observed cardioprotection.
5 ed pluripotent stem cells is associated with cardioprotection.
6 on how the citric acid cycle is involved in cardioprotection.
7 se 2beta as the primary molecular target for cardioprotection.
8 nism of endothelial lipase function improves cardioprotection.
9 dation markers and autophagic mechanisms for cardioprotection.
10 onist can restore this aging-related loss of cardioprotection.
11 s also required for autophagy activation and cardioprotection.
12 simultaneously study antitumor activity and cardioprotection.
13 that PI3K is necessary for exercise-induced cardioprotection.
14 acilitate the development of pharmacological cardioprotection.
15 g may be a mechanism for nitroalkene-induced cardioprotection.
16 genes by HDL might link innate immunity and cardioprotection.
17 or understanding the underlying mechanism of cardioprotection.
18 ocardial I/R injury with betaARKct imparting cardioprotection.
19 gesting a novel pharmacological strategy for cardioprotection.
20 ation of proteins plays an important role in cardioprotection.
21 andling and play an important role in female cardioprotection.
22 phagy may provide a novel strategy to confer cardioprotection.
23 application of topical capsaicin, to elicit cardioprotection.
24 ll (RBC) to mediate hypoxic vasodilation and cardioprotection.
25 -sensitive conductance and may contribute to cardioprotection.
26 e show involvement of the K(ATP) channels in cardioprotection.
27 et for sustainable prophylactic induction of cardioprotection.
28 cancer, although these drugs do not provide cardioprotection.
29 vascular nitric oxide species accounting for cardioprotection.
30 gulation of heme oxygenase (HO-1) to provide cardioprotection.
31 osphorylation at its Ser16 site enhances its cardioprotection.
32 ricted expression of iNOS provides sustained cardioprotection.
33 nts an endogenously recruitable mechanism of cardioprotection.
34 essential role of PKG in sildenafil-induced cardioprotection.
35 ther sex differences exist in TNFR2-mediated cardioprotection.
36 ng eNOS activation, which ultimately lead to cardioprotection.
37 properties that contribute to their role in cardioprotection.
38 plays critical roles in atheroprevention and cardioprotection.
39 icits similar effects on S-nitrosylation and cardioprotection.
40 athway, the putative mechanism for aspirin's cardioprotection.
41 n pore is emerging as a central mechanism in cardioprotection.
42 ealing gene expression profile, and mediated cardioprotection.
43 examining mechanisms of volatile anesthetic cardioprotection.
44 cogen synthase kinase-3beta (GSK-3beta), and cardioprotection.
45 ibition of both may achieve further enhanced cardioprotection.
46 ucidating the signaling pathways involved in cardioprotection.
47 the beta2-adrenergic receptor (beta2-AR) in cardioprotection.
48 strate Akt but had no effect on EPO-mediated cardioprotection.
49 re act as humoral transfer factors of RIPC s cardioprotection.
50 ricular myocardium is associated with RIPC s cardioprotection.
51 y partially account for the nitrite-mediated cardioprotection.
52 have truly a chance to benefit from adjunct cardioprotection.
53 s a potential therapeutic target for post-MI cardioprotection.
54 f transcription 5 was associated with RIPC's cardioprotection.
55 an important role in energy homeostasis and cardioprotection.
56 uce greater amounts of NO, thereby affording cardioprotection.
57 caveolae have been found to be critical for cardioprotection.
58 ng ribosome biosynthesis, cell survival, and cardioprotection.
59 t hypercholesterolemia abolishes HDL-related cardioprotection.
60 of PKCdelta-suppressed Mvarphi recapitulates cardioprotection.
61 t might translate into long-term nephro- and cardioprotection.
62 tion, and the development of hypertrophy and cardioprotection.
63 important but previously undescribed role in cardioprotection.
64 tion of both molecular pathways that trigger cardioprotection.
65 ct size, it would be premature to give up on cardioprotection.
66 e IAE was more effective than that of MVT in cardioprotection.
67 nnels play crucial roles in excitability and cardioprotection.
68 SM, yet there are no reports that it confers cardioprotection.
69 ve stimulation (VNS) has been shown to exert cardioprotection.
70 xplored role of S-nitrosylated hemoglobin in cardioprotection.
71 tribution of adenosine in ticagrelor-related cardioprotection.
72 as a critical component in exosome-mediated cardioprotection.
73 n lieu of postconditioning caused equivalent cardioprotection (15.0+/-2.6% infarction), whereas 1 min
74 on and reperfusion has been shown to produce cardioprotection, a phenomenon termed anesthetic-induced
75 ineered mice to test the hypothesis that the cardioprotection afforded by iNOS gene transfer is media
79 on into the signaling mechanisms involved in cardioprotection after IPC was performed in both uremic
81 t and necessary for the resulting late phase cardioprotection against a subsequent ischemia/reperfusi
82 spholipase C-delta1 in TNF receptor-mediated cardioprotection against adriamycin-induced injury was e
84 on a panel of human cancer cell lines, their cardioprotection against doxorubicin-induced apoptosis i
85 ng sufficient endothelial BH4 is crucial for cardioprotection against hypoxia/reoxygenation injury.
86 Thus, Sestrin2 plays an important role in cardioprotection against I/R injury, serving as an LKB1-
89 il, a phosphodiesterase-5 inhibitor, induces cardioprotection against ischemia/reperfusion injury via
90 treatment leads to increased protein SNO and cardioprotection against ischemia/reperfusion injury, su
91 e ischemic stimuli have been shown to elicit cardioprotection against ischemia/reperfusion injury, th
96 odulation of Ca(2)(+) handling provides some cardioprotection against the paradoxical effects of rest
97 This review focuses on mechanisms by which cardioprotection alters mitochondrial proteins and chann
98 ivation of mTOR while Gfat1 deficiency shows cardioprotection and a concomitant decrease in mTOR acti
99 nt bioactive molecule, capable of conferring cardioprotection and a variety of other benefits in the
100 p110alpha) is essential for exercise-induced cardioprotection and delivery of caPI3K vector can impro
101 idate possible mechanisms of nitrite-induced cardioprotection and have implications for nitrite dosin
102 antisense PGC-1alpha prevented DPN-mediated cardioprotection and increase in ATP levels and Tfam but
103 heightened sympathetic activity to aberrant cardioprotection and increased ischemic vulnerability in
105 The importance of the PKCepsilon isozyme in cardioprotection and its relationship to cardioprotectio
106 ects at mitochondria have been implicated in cardioprotection and mitochondria/cytosol fractionation
107 tion occurs in vivo and on its mechanisms of cardioprotection and modulation of energy metabolism.
108 her show that meclizine pretreatment confers cardioprotection and neuroprotection against ischemia-re
109 consistently reduced infarct size indicating cardioprotection and PDE5Is also promote reverse remodel
110 bition of Arg1 in wild-type mice had similar cardioprotection and reduced inflammation after MI as Fo
111 vivo from cardiac biopsies; they confer both cardioprotection and regeneration in acute myocardial in
112 data show an important role for beta2-AR in cardioprotection and support the novel hypothesis that p
113 gatory downstream effector of iNOS-dependent cardioprotection and that NF-kappaB is a critical link b
114 ct relationship of PKG in sildenafil-induced cardioprotection and the downstream targets of PKG remai
115 ion puncture to assess hemodynamic efficacy, cardioprotection, and biomechanics under acute or contin
116 injection (10 mg/kg), hemodynamic efficacy, cardioprotection, and biomechanics were assessed under I
117 is essential for mediating exercise-induced cardioprotection, and if so, whether its activation inde
119 , generates reproducible results, can detect cardioprotection, and provides a mechanism for assessing
120 cal and pharmacological approaches to induce cardioprotection, and their signal transduction pathways
122 1 as well as 8 paracrine factors involved in cardioprotection, angiogenesis, and stem cell function.
126 active transdifferentiation, resulting into cardioprotection as indicated by diminished scar formati
127 r activation with apelin peptides results in cardioprotection as noted through positive ionotropy, an
128 s which have previously been associated with cardioprotection, before (baseline)/after RIPC or placeb
129 a qualitatively different genomic profile of cardioprotection between ischemic preconditioning induce
130 dies addressing long-term effects of adjunct cardioprotection beyond infarct size reduction, that is,
131 om numerous successful animal experiments on cardioprotection beyond that by reperfusion to clinical
135 ivates cell signaling pathways and generates cardioprotection but has not been linked to LMP-2 functi
136 nly provide a potential new target for acute cardioprotection but it may also act as an anti-diabetic
137 ssential downstream effector of AKT-mediated cardioprotection but the mechanistic basis for maintenan
138 PCR (A1AR) is a major therapeutic target for cardioprotection, but current agents acting on the recep
140 These results suggest that MnSOD provides cardioprotection by attenuating IR-induced oxidation and
141 cise-induced increase in MnSOD would provide cardioprotection by attenuating IR-induced oxidative mod
142 ardiac muscle survival, substantiating human cardioprotection by cMSCs, and suggesting the cMSC secre
147 carbon metabolism, which could contribute to cardioprotection by generating reduced nicotinamide aden
149 potassium channel (mK(ATP)) is implicated in cardioprotection by ischemic preconditioning (IPC), but
152 ly at intercalated discs (IDs) and conferred cardioprotection by maintaining normal ID structure and
154 mechanism of DOX-induced cardiomyopathy and cardioprotection by mitoquinone (Mito-Q), a triphenylpho
155 duration of ischemia can be so that adjunct cardioprotection by postconditioning at reperfusion stil
156 diac mast cells, contributing to IPC-induced cardioprotection by preventing mast cell renin release a
159 l is suggested to be an inhibiting factor of cardioprotection by RIPC, but the underlying mechanism i
162 thesis that IPC-induced protein SNO provides cardioprotection by shielding cysteine residues from rea
164 ompound C (AMPK inhibitor) partially blocked cardioprotection by TP, suggesting that both PKC and AMP
166 Cx43 C-terminal binding peptide RRNYRRNY for cardioprotection, circumventing further upstream pathway
167 studies showed that they conferred enhanced cardioprotection compared to adenine or 4-hydroxythioben
169 on (p < .05), NO increase (p < .05), and the cardioprotection conferred by hypercarbic reperfusion (i
170 s compared to wild-type mice and loss of the cardioprotection conferred by ischemic preconditioning.
171 nce has indicated that it provides long-term cardioprotection; continuous infusions should be elimina
172 f the discussions of the European Union (EU)-CARDIOPROTECTION Cooperation in Science and Technology (
173 dence showing PostC-induced infarct-limiting cardioprotection could be triggered by activation of mul
174 a novel therapeutic strategy for neuro- and cardioprotection, disorders of smooth muscle hyperactivi
177 The METOCARD-CNIC (Effect of Metoprolol in Cardioprotection During an Acute Myocardial Infarction)
178 f the METOCARD-CNIC (effect of METOprolol of CARDioproteCtioN during an acute myocardial InfarCtion)
179 epsilon (PKCepsilon) plays a pivotal role in cardioprotection during cardiac ischemia and reperfusion
183 yloidogenic protein and the first conferring cardioprotection even in the unfavourable context of ren
187 medications are becoming essential tools for cardioprotection for patients with diabetes and CVD.
188 We evaluated metallothionein (MT)-mediated cardioprotection from angiotensin II (Ang II)-induced pa
189 e discuss the difficulties in translation of cardioprotection from animal experiments and proof-of-co
191 Thus, TP508 may offer a novel approach in cardioprotection from ischemia-reperfusion injury in dia
193 igh-density lipoprotein (HDL) cholesterol in cardioprotection has been questioned by genetic and rand
194 he effect of fluoxetine on mK(ATP)-dependent cardioprotection has implications for the growing use of
197 t contribute to ischemic preconditioning and cardioprotection, high levels of ROS induce structural m
198 us wave was ameliorated only in pigs showing cardioprotection (ie, those undergoing short-duration is
200 investigated the use of sildenafil-mediated cardioprotection in a rat model of heterotopic cardiac t
201 Cardiosphere-derived cells (CDCs) confer cardioprotection in acute myocardial infarction by disti
202 n of CRP is thus a promising new approach to cardioprotection in acute myocardial infarction, and may
203 echanisms responsible for SF-PreCon mediated cardioprotection in DM mice, cell survival molecules wer
204 ents have been identified that confer robust cardioprotection in experimental animal models of acute
208 heart by ischemia/reperfusion confers robust cardioprotection in part through induction of the HBP.
209 the safety of one glass of wine per day for cardioprotection in patients at risk for both coronary h
210 rsus NRG, NN has translational potential for cardioprotection in patients with cancer receiving anthr
214 ressing an elusive clinical goal: meaningful cardioprotection in the postreperfusion time period.
215 tion and survival; however, it also imparted cardioprotection in the presence of PKCalpha/beta inhibi
216 unique capacity of (-)-epicatechin to confer cardioprotection in the setting of a severe form of myoc
218 A and EPA omega-3 PUFA that provides maximal cardioprotection in those at risk of CV disease as well
220 yocardial IPC, and SNO is thought to provide cardioprotection, in part, by reducing cysteine oxidatio
221 e of glycogen synthase kinase (GSK)-3beta in cardioprotection, including pre- and postconditioning.
222 opropionyl) glycine during TP also abolished cardioprotection, indicating an involvement of free radi
228 e tested the hypothesis that ERbeta-mediated cardioprotection is induced via up-regulation of PGC-1al
229 er women generally being protected, but this cardioprotection is lost later in life, suggesting a rol
230 uestion of whether post-conditioning-induced cardioprotection is maintained in aging cohorts is unkno
235 novel 5HT2R antagonists, with potential for cardioprotection, liver protection, or central nervous s
236 nd Col14a1, with concomitant upregulation of cardioprotection markers, including COX-2 itself, lipoca
237 s regard, emerging data suggest that optimal cardioprotection may require the combination of additive
239 ts reveal a novel gender-specific pathway of cardioprotection mediated by ERalpha and its regulation
240 optimization of tissue-level perfusion, and cardioprotection must be addressed to improve patient ou
241 ferences in the mechanisms of TNFR2-mediated cardioprotection occur by increasing STAT3, SOCS3, and v
242 ockout mice, indicating that the DPN-induced cardioprotection occurs through the activation of ER-bet
245 gulation of cyclooxygenase-2 (COX-2) and the cardioprotection of late preconditioning (PC), the role
246 c targets in cardiovascular diseases such as cardioprotection of murine hearts after myocardial infar
247 and XI), we investigated the role of PKB in cardioprotection of the rat and human myocardium, the lo
248 18BP genetically modified stem cells improve cardioprotection over that observed with unmodified stem
249 hol intake can actually provide a measure of cardioprotection, particularly against coronary heart di
250 ession is sufficient and necessary to induce cardioprotection post-MI, thereby highlighting the thera
251 y-ligated rat heart, suggests that AA-driven cardioprotection primarily arises from PPARalpha agonism
253 in cardioprotection and its relationship to cardioprotection produced by Ucn was assessed using PKCe
256 of the mechanistic basis for Pim-1 mediated cardioprotection provides important insights for designi
257 animal MI models, TG100-115 provided potent cardioprotection, reducing infarct development and prese
263 We conclude that IPC-induced miRNAs trigger cardioprotection similar to the delayed phase of IPC, po
265 of studies focused on infarct size, only few cardioprotection studies addressed MVO as a therapeutic
267 m of beta(2)ARs abolished betaARKct-mediated cardioprotection, suggesting that enhanced GRK2 activity
268 unique endogenously recruitable mechanism of cardioprotection that may involve direct modification of
269 st focus on patients who really need adjunct cardioprotection, that is, those with severe haemodynami
270 is review addresses the role of autophagy in cardioprotection, the balance of catabolism and anabolis
272 or mitochondrial STAT3 activation to mediate cardioprotection through better mitochondrial function.
275 iew will present an overview of the state of cardioprotection today and provide a roadmap for how we
278 uated potential mechanisms of H(2)S-mediated cardioprotection using an in vivo model of pharmacologic
280 ergic receptor (beta1AR) stimulation confers cardioprotection via beta-arrestin-de pend ent transacti
281 w the importance of L-arginine and BH(4) for cardioprotection via regulation of mitochondrial oxidati
282 )ATSM may provide a therapeutic strategy for cardioprotection via upregulation of antioxidant defense
283 as a Kcnma1 product because NS1619-mediated cardioprotection was absent in Kcnma1 knockout mice.
284 hways, demonstrating that fingolimod-induced cardioprotection was mediated by reperfusion injury salv
288 he potential mechanisms of O-GlcNAc-mediated cardioprotection, we discuss technical issues related to
289 n kinase (PKG) signaling plays a key role in cardioprotection, we hypothesized that PKG activation wi
290 four conditions, the following hallmarks of cardioprotection were recorded using electrophysiology o
291 ibition of RASSF1A in cardiomyocytes affords cardioprotection, whereas myeloid-specific deletion of R
292 H) and remarkably concordant nitrite-induced cardioprotection, which both followed a complex dose-res
293 lso post-I/R) still demonstrated significant cardioprotection, which suggested a potential protective
294 ting protein S-nitrosylation and its role in cardioprotection will provide us new therapeutic opportu
295 represents a novel therapeutic strategy for cardioprotection with great potential clinical utility.
296 R injury demonstrated significant functional cardioprotection with reduced myofibroblast transformati
300 emical changes in isolation, to suggest that cardioprotection would necessarily follow; rather, direc