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1 uscle cells and endothelial cells but not in myocardial cells.
2 lpha-actin (alphaCA) transcripts and nascent myocardial cells.
3 ionally modified by other factors present in myocardial cells.
4 s that regulate transcriptional responses in myocardial cells.
5 s to cytokines and acute hypoxia in cultured myocardial cells.
6  and stage 5 cells producing endothelial and myocardial cells.
7 be involved in ischemia/reperfusion death of myocardial cells.
8 acellular calcium handling and shortening in myocardial cells.
9 can cause reversible loss of excitability in myocardial cells.
10 ing is actively repressed in differentiating myocardial cells.
11 interplay of transmembrane ionic currents in myocardial cells.
12  compensate for the absence of BMPRII in the myocardial cells.
13 d calcineurin in endothelial, epicardial and myocardial cells.
14 rdially derived smooth muscle and underlying myocardial cells.
15 role in the differentiation of ES cells into myocardial cells.
16 tivators in differentiation of ES cells into myocardial cells.
17 d away from the plasma membrane in embryonic myocardial cells.
18 ession pattern, including in all contractile myocardial cells.
19 ymphoblastic leukemia (ALL) but also injures myocardial cells.
20 I/R) is associated with an extensive loss of myocardial cells.
21 nd that these factors do not act directly on myocardial cells.
22                                       In the myocardial cell, a series of enzyme-catalyzed reactions
23 capillary density, a higher proliferation of myocardial cells, a lower cardiomyocyte apoptosis, and r
24 laminin receptors are likely responsible for myocardial cell adhesion to the basement membrane, DG ha
25  we conclude that in addition to its role in myocardial cell adhesion, N-cadherin is required for neu
26 protective effect of ERK5 in endothelial and myocardial cells after ischemia.
27                               IL-6 protected myocardial cells against apoptosis.
28 that mABC1 plays a key role in protection of myocardial cells against oxidant stress.
29     Growth of the heart requires addition of myocardial cells along the endocardial-to-myocardial axi
30   We have found no mutation that deletes the myocardial cells altogether, but one, pandora, appears t
31 rvation of connexin 40 and 43 in contracting myocardial cells and connexin 30.2 in the AV node.
32 isruption of fibronectin assembly around the myocardial cells and consequent disorganization of the m
33 ta5 mutants exhibit a much-reduced number of myocardial cells and defects in myocardial gene expressi
34                            Here we show that myocardial cells and dorsal vessels can form even though
35 c factor (ANF) inhibits proliferation in non-myocardial cells and is thought to be anti-hypertrophic
36 activated channels (SACs) have been found in myocardial cells and may promote AF in dilated atria.
37          The erbB receptors are expressed in myocardial cells and presumably mediate the neuregulin s
38 nditions are thought to emanate from injured myocardial cells and, in most circumstances, have been a
39 uptions in the normal diversification of the myocardial cells, and adults exhibit severe defects in c
40 inuing elucidation of the secondarily adding myocardial cells, and how the different populations iden
41  as vascular smooth muscle, skeletal muscle, myocardial cells, and neurons also express both proteins
42 In the heart, CT-1 is primarily expressed in myocardial cells, and not in endocardial cushion or outf
43 ed cytotoxicity on L929 cells and exert anti-myocardial cell apoptosis effects.
44 d that calcineurin signaling would stimulate myocardial cell apoptosis.
45 lear but are thought to involve p53-mediated myocardial cell apoptosis.
46 echanism of this protection is mitigation of myocardial cell apoptosis.
47 t ventricular wall preparations in which the myocardial cells are electrically well coupled.
48 nels characterized electrophysiologically in myocardial cells are explored.
49 nchymal cells at embryonic day 10.5, whereas myocardial cells are unaffected.
50                           Using the ischemic myocardial cell as a paradigm, competitive coronary reva
51 activation, and dedifferentiation of compact myocardial cells as causative for the regenerative failu
52 but not ischemia alone, induced apoptosis in myocardial cells as demonstrated by DNA electrophoresis
53 SERCA2a also enhanced the contraction of the myocardial cells as detected by shortening measurements.
54       The present study utilized an in vitro myocardial cell assay to examine the role of various hum
55 audally extended tube consisting entirely of myocardial cells (at both the larval and adult stages);
56          These findings reveal a ventricular myocardial cell-autonomous function for Hrt2 in the supp
57  and E8.0, HGF receptor mRNA was detected in myocardial cells before fusion at the ventral midline.
58  1 (MEK1) dominant negative mutant cDNA into myocardial cells blocked the antiapoptotic effects of CT
59                                   Before any myocardial cell bodies have entered the trabecular layer
60 intermediate mesoderm, and in differentiated myocardial cells, but not in the streak.
61 tures of hypertrophy are induced in cultured myocardial cells by alpha1- adrenergic receptor agonists
62  in the initiation of apoptosis induction in myocardial cells by in vitro and in vivo ischemia and re
63 dditionally, while NF-kappaB is activated in myocardial cells by p38, this does not appear to be the
64                  We showed that apoptosis of myocardial cells can occur after ischemic myocardial cel
65 l for addressing how embryonic regulators of myocardial cell commitment can contribute to the establi
66                   We propose a model whereby myocardial cell compartmentalization also defines the en
67 t (wingless)-mediated events may function in myocardial cell compartmentalization during early verteb
68 TNF-alpha and IL-1beta induced depression of myocardial cell contractility at substantially lower con
69 t TNF-alpha and IL-1beta cause depression of myocardial cell contraction in vitro and suggest that th
70 ve been shown to regulate iNOS expression in myocardial cells, cultured neonatal cardiac myocytes wer
71 gap junction content along with induction of myocardial cell cycle activity.
72 ed for their potential in causing additional myocardial cell damage during the course of therapeutic
73 nd necrosis have been shown to contribute to myocardial cell death after myocardial ischemia and repe
74 njury, (ii) complete inhibition of apoptotic myocardial cell death as identified by terminal deoxynuc
75  time of coronary occlusion suppressed acute myocardial cell death by >50%.
76 ate the genetics of DCC further, we produced myocardial cell death by freeze-thaw injury to induce DC
77  GLO1-diabetic mice and corresponded to less myocardial cell death compared with the WT-diabetic grou
78 cal and interventional techniques to prevent myocardial cell death during the time of ischemia and su
79                                              Myocardial cell death is initiated by excessive mitochon
80 d serum concentrations of cTnI indicate that myocardial cell death is occurring in meningococcal sept
81 ver, clinical studies have demonstrated that myocardial cell death is rare and that cardiac function
82      We were interested to determine whether myocardial cell death was occurring in the presence of m
83  mechanism for mitochondrial Ca(2+) entry in myocardial cell death, and indicate that mitochondrial-t
84 I (cTnI), a sensitive and specific marker of myocardial cell death, and related this to the severity
85   Commonly used blood markers of AMI reflect myocardial cell death, but do not reflect the earlier pa
86 fferent cAMP-Epac1 microdomains that control myocardial cell death.
87 XCR2-mediated chemotaxis may be important in myocardial cell death.
88 he cells can thrive, enabling an insult-free myocardial cell delivery to normalize myocardial biomech
89            Second, SHH mediates signaling to myocardial cells derived from the AHF to complete septat
90 myocardin in Xenopus embryos interferes with myocardial cell differentiation.
91 irst is driven by an asymmetric migration of myocardial cells during cardiac jogging, resulting in th
92                 LIX is expressed by resident myocardial cells during ischemia-reperfusion and is indu
93 f-beta signaling via Alk5 is not required in myocardial cells during mammalian cardiac development, b
94  effects of antibody action, thus preventing myocardial cell dysfunction and death.
95                    During these periods, the myocardial cells exhibited different stage-dependent mig
96                                              Myocardial cells express the specific marker MF-20 and a
97 e, but not in LPL-/--->C57BL/6 mice, whereas myocardial cells expressed LPL in all groups.
98 s to cardia bifida, a phenotype in which the myocardial cells fail to migrate to the midline.
99 genitors of asymmetric cell lineages adopt a myocardial cell fate as opposed to a pericardial fate wh
100  Reprogramming of mouse fibroblasts toward a myocardial cell fate by forced expression of cardiac tra
101 cus here upon regulation by the notochord of myocardial cell fate in zebrafish.
102 injury through phenotypic reprogramming to a myocardial cell fate.
103  correct specification of myocardial and non-myocardial cell fates.
104 ad-induced HF mice and isolated hypertrophic myocardial cells, fatty acid beta-oxidation and heart fu
105 n of fibroblast proliferation in cultures of myocardial cells from 8-day embryonic chicks was achieve
106                                              Myocardial cells from failing human hearts are character
107 outflow tract to lengthen by the addition of myocardial cells from the secondary heart field.
108 ression of V12Ras in transgenic mice induces myocardial cell growth and expression of genes that are
109 ase other than Ras is involved in regulating myocardial cell growth and gene expression in response t
110 etion of calcineurin in either epicardial or myocardial cells had no effect on coronary vasculature d
111 used by an increase in the overall number of myocardial cells (hyperplasia).
112 te that CT-1 can activate a distinct form of myocardial cell hypertrophy, characterized by the promot
113  roles for MKK6 and p38 in the regulation of myocardial cell hypertrophy.
114 only of one cell type, either endocardial or myocardial cells; i.e., 95.1% of the mesoderm-derived cl
115  protein (BMP)-2 is known to be expressed in myocardial cells in a manner consistent with the segment
116                                              Myocardial cells in newborn SAN tissue exhibited clear h
117 ion of cardiac neural crest, endothelial and myocardial cells in the conotruncal cushions.
118 yos have large aggregates of N-cadherin(-/-) myocardial cells in the heart lumen, indicating that the
119 on expression of the inducible NOS (iNOS) in myocardial cells in vivo and in vitro.
120 olved, and in the young woman, there were no myocardial cells in which these pathways normally exist.
121 revascularization causes the least amount of myocardial cell injury and is associated with superior l
122                                      Whereas myocardial cell injury can occur during electrical defib
123          Immunologic mechanisms that mediate myocardial cell injury during rejection are not fully un
124                         Although substantial myocardial cell injury has been reported after high-ener
125 activation contributes to the progression of myocardial cell injury, cardiac fibrosis, and left ventr
126 I (cTnI), a sensitive and specific marker of myocardial cell injury, is useful in diagnosing and asse
127 been identified as an important mechanism of myocardial cell injury.
128 of myocardial cells can occur after ischemic myocardial cell injury.
129 nts have been used to identify perioperative myocardial cell injury.
130 w tract and in the maintenance of epicardial-myocardial cell interactions.
131              FGF signaling also promoted OFT myocardial cell invasion to the cushion.
132                                       If the myocardial cell is placed at the center of the model, al
133   As a result, the number of differentiating myocardial cells is severely reduced whereas pericardial
134                                              Myocardial cells isolated from 9 patients with end-stage
135  these functions have now been identified in myocardial cells isolated from different species, as wel
136     We find that while sox9b is expressed in myocardial cells, it is not normally expressed in the af
137  viability and induced apoptosis in the H9c2 myocardial cell line measured by flow cytometry and fluo
138 rsist in pig myocardium and can infect human myocardial cells make it an important infectious agent t
139 rmal convergence affected all three modes of myocardial cell migration, probably due to the disruptio
140 urthermore, metformin significantly improved myocardial cell mitochondrial respiration and ATP synthe
141 on and function through active adjustment of myocardial cell morphology.
142 ing fibroblast cells (3T3), or proliferating myocardial cells (MOT).
143 ish ctr9 mutant with a dramatic reduction in myocardial cell number as well as later defects in primi
144                                 Apoptosis of myocardial cells occurs during cardiac allograft rejecti
145 , the Noggin gene is mainly expressed in the myocardial cells of the outflow tract, atrioventricular
146  through its earlier activity in neighboring myocardial cells or their progenitors.
147 ns form electrical conduits between adjacent myocardial cells, permitting rapid spatial passage of th
148                                              Myocardial cell proliferation, which has been shown prev
149  and epo signals work in parallel to support myocardial cell proliferation.
150                                      For the myocardial cells, PSpc averaged 3.7 +/- 3.1 ml min-1 g-1
151 he Gax protein was detected in the nuclei of myocardial cells relatively late in chicken heart develo
152                                           In myocardial cells, relaxation is governed primarily by th
153                                       Direct myocardial cell repopulation has been proposed as a pote
154                                   Developing myocardial cells respond to signals from the endocardial
155  conduction system is a specialized tract of myocardial cells responsible for maintaining normal card
156 rtrophic response characterized by increased myocardial cell size and activation of fetal cardiac gen
157 fects valve development due to its effect on myocardial cell size and shape, which changes the morpho
158 process characterized by regional changes in myocardial cell size and shape.
159 tion of cardiac-specific genes and increased myocardial cell size.
160  myocardium and explore reasons why multiple myocardial cell sources exist.
161 gly show a critical role for this pathway in myocardial cell specification and heart development.
162 o investigate tissue interactions regulating myocardial cell specification in birds.
163  Explantation studies provided evidence that myocardial cell specification is underway by stage 3, in
164 ct roles of Wg, particularly with respect to myocardial cell specification, have not been well define
165  establishes these developmental events upon myocardial cell specification.
166 a was relatively ineffective, IL-6 activated myocardial cell STAT3 by about 8-fold, indicating a prob
167 utocrine and/or paracrine fashion to augment myocardial cell survival during stresses that activate p
168 ern is novel and appears to mark specialized myocardial cells that induce underlying endocardial cell
169  conclude that tin has a crucial role within myocardial cells that is required for the proper diversi
170 t tube is an endocardial tube, ensheathed by myocardial cells, that develops from bilateral primary h
171 porter was expressed in neural crest but not myocardial cells to document the pattern of cardiac neur
172 ryos, the secondary heart field fails to add myocardial cells to the outflow tract and elongation of
173 nchnic mesenchyme, which provides additional myocardial cells to the outflow tract as the heart tube
174 lling that directs the spatial allocation of myocardial cells to their proper morphological positions
175              The current method of analyzing myocardial cell transplantation relies on postmortem his
176  K+ currents/channels expressed in different myocardial cell types are the focus of this review.
177  natural epicardial fates are limited to non-myocardial cell types in zebrafish.
178 ly shown that shortly after this activation, myocardial cells undergo epithelial maturation [1], sugg
179 t-elevation myocardial infarction found that myocardial cell uptake is determined by infarct size rat
180 s normal when the BMPRII gene was deleted in myocardial cells using Mox2-Cre, alphaMHC-Cre, or SM22al
181 e the mechanism whereby calcineurin affected myocardial cell viability.
182                                          Rat myocardial cells were incubated with pioglitazone plus a
183 er-stained fibres coursing amongst ventricle myocardial cells were most likely cardiac parasympatheti
184 idazole-treated myl7:nitroreductase embryos, myocardial cells were targeted for apoptosis, which resu
185                                              Myocardial cells, when plated at 80 cells/mm2 in Gln- me
186 s and centers it on the microvasculature and myocardial cell where the ischemia is taking place.
187     LIX expression was localized to resident myocardial cells, whereas KC and MIP-2 were expressed on

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