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1 on combinatorial cell approaches to support myocardial regeneration.
2 l non-coding RNAs called microRNAs (miRs) in myocardial regeneration.
3 is feasible, safe or can provide sufficient myocardial regeneration.
4 cover molecular mechanisms that will promote myocardial regeneration.
5 novel off-the-shelf microtissue product for myocardial regeneration.
6 in neonatal mice, which, in turn, decreased myocardial regeneration.
7 d have been unthinkable only a few years ago-myocardial regeneration.
8 would represent the most powerful cells for myocardial regeneration.
9 ulate cardiomyocyte expansion in therapeutic myocardial regeneration.
10 ecovery was due to the cytokines rather than myocardial regeneration.
11 may provide a molecular strategy to promote myocardial regeneration.
12 cally to stimulate resident CPCs and promote myocardial regeneration.
13 egy is to stimulate endogenous mechanisms of myocardial regeneration.
14 protein appears to have no obvious effect on myocardial regeneration.
15 Here we review efforts to induce myocardial regeneration.
16 from mechanisms that are distinct from true myocardial regeneration.
17 rdiomyocyte dysfunction, and even to promote myocardial regeneration.
18 sses hold enormous potential for therapeutic myocardial regeneration.
19 he use of BM-derived cardiac progenitors for myocardial regeneration.
20 sample to develop new insights for achieving myocardial regeneration.
21 rdiac stem/progenitor cells (CSCs) and adult myocardial regeneration.
22 disease and conceptual strategies to promote myocardial regeneration.
23 defects and conceptual strategies to promote myocardial regeneration.
24 e validated and were important in explaining myocardial regeneration.
25 rdium provides a path to realize sustainable myocardial regeneration.
26 c growth factors has been shown to result in myocardial regeneration after acute myocardial infarctio
27 SF) and stem cell factor (SCF) could promote myocardial regeneration after coronary artery occlusion
32 nd 6) explore the potential of stem cells in myocardial regeneration and repair in hearts damaged by
33 dings shed new light on our understanding of myocardial regeneration and suggest potential novel ther
34 duce pathological cardiac remodeling, induce myocardial regeneration, and improve ventricular functio
35 lial cell transplantation into the heart for myocardial regeneration, and induction of angiogenesis f
36 ed cardiomyocyte, its antagonistic effect on myocardial regeneration, and its potential contribution
39 recently shown to play an essential role in myocardial regeneration by regulating different processe
40 the lack of unequivocal evidence in favor of myocardial regeneration by the injection of BMCs in the
46 cardiac progenitor cells (hCPCs) may promote myocardial regeneration in adult ischemic myocardium.
47 scRNAseq datasets generated from studies of myocardial regeneration in mice and pigs, our AI-based t
50 ings define a mechanistic basis for enhanced myocardial regeneration in transgenic mice overexpressin
54 he mechanism of benefit is unclear, although myocardial regeneration is not a significant factor.
58 rdiomyocyte cell-cycle activity and promotes myocardial regeneration, leading to improved function af
60 ll-mediated regeneration to promote enhanced myocardial regeneration, persistence of donated cells, a
61 hanged since our survey of the landscape for myocardial regeneration powered by adult stem cells 4 ye
62 f cellular adoptive transfer for therapeutic myocardial regeneration, problems remain for donated cel
65 ell reprogramming represents a promising new myocardial regeneration strategy involving in situ trans
66 In seven acute infarcts, foci of spontaneous myocardial regeneration that did not involve cell fusion
67 rstand the role of fusion in stem cell-based myocardial regeneration, the present study was designed
69 blast reprogramming offers the potential for myocardial regeneration via in situ cell transdifferenti
72 peutic strategy, the induction of endogenous myocardial regeneration was investigated by initiating c
73 ion of miR-133 levels after injury inhibited myocardial regeneration, while transgenic miR-133 deplet