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1 creased heart rate and peak left ventricular developed pressure.
2 displayed significantly enhanced recovery of developed pressure.
3 hosphates using 31P-NMR and left-ventricular developed pressure.
4 left and right ventricles for measurement of developed pressure.
5 4+/-1 versus 23+/-1.6 mm Hg; Langendorff LV developed pressure, 105+/-4 versus 62+/-9 mm Hg, P<.001
6 beats/min, p < 0.05) and a decrease in peak developed pressure (153 +/- 21 vs. 180 +/- 16 mm Hg, p <
7 ed indexes of functional recovery, including developed pressure (38 +/- 3 versus 69 +/- 7 mm Hg) and
9 ed significantly greater recovery of maximum developed pressure (70 +/- 4% in control versus 77 +/- 2
10 sure (450% vs. 33%, p < 0.01) and reduced LV developed pressure (9% vs. 33%, p < 0.01), LV positive (
11 ondrial reactive oxygen species, improved LV developed pressure (92+/-5 vs. 28+/-10 mmHg, P<0.001), a
12 had a 28% decrease in peak left ventricular developed pressure, a 30% decrease in +dP/ dt, and a 23%
17 icular recovery was demonstrated by improved developed pressure and aortic flow and reduced myocardia
18 IPC significantly increased left ventricular developed pressure and decreased infarct size in wild-ty
19 p 2 was found to have significantly impaired developed pressure and diastolic relaxation and an incre
23 nt, enhanced fetal LV developed pressure, RV developed pressure and HR responses to carbachol (P < 0.
24 , suppressed fetal LV developed pressure, RV developed pressure and HR responses to isoprenaline (P <
27 i.e., a marked reduction in left ventricular developed pressure and maximal rate of development of le
29 tion, consisting of a better preservation of developed pressure and positive and negative dP/dt after
30 ntricular function was assessed by measuring developed pressure and rate pressure product in Langendo
33 llowing measurement of left ventricular (LV) developed pressure and right ventricular (RV) developed
35 contraction and relaxation, left ventricular developed pressure, and cardiac output compared with non
36 ment in postischemic end-diastolic pressure, developed pressure, and rate-pressure product, which was
38 ed at the end of ischemia, and the return of developed pressure at reperfusion was greater (P<0.05).
41 ioning recovered 70+/-7% of left ventricular developed pressure compared with 43+/-8% recovery in non
45 (calculated as the product of heart rate and developed pressure), correlated with functional recovery
46 ylephrine-induced increase in heart rate and developed pressure could be blocked with an alpha-1 anta
50 ardial protection, as evidenced by increased developed pressure (DP) (53.3 +/- 4.3 versus 35.4 +/- 1.
51 30 and 90 minutes of reperfusion, LV maximum developed pressure (DP), dP/dt, CBF, and oxygen consumpt
52 and the first derivative of left ventricular developed pressure (dP/dt), slope of the end-systolic pr
53 TAT-AKAD also had a pronounced effect on developed pressure (-dP/dt), consistent with a delayed r
55 n the absence of eniporide, left ventricular developed pressure, end-diastolic pressure, and coronary
56 eveloped pressure and right ventricular (RV) developed pressure, heart rate (HR), coronary perfusion
57 y of left ventricular diastolic pressure and developed pressure, however, were improved significantly
58 eperfusion, the heart rate multiplied by the developed pressure (HRxDP) in the wild-type and SOD1(+/-
59 ecrosis, better recovery of left-ventricular developed pressure, improved phosphocreatine recovery, a
60 +/- 3% to 67 +/- 5%) and slightly increased developed pressure in hypoxic hearts (67 +/- 5% to 72 +/
61 s but did not alter postischemic recovery of developed pressure in isolated chronically hypoxic (FIO(
63 ed postischemic recovery of left ventricular developed pressure in isolated normoxic (FIO(2)=0.21) he
64 blocker, L-calchin reduced peak systolic and developed pressure in isolated rat heart Langendorff pre
65 In contrast, at 4 months after MI, peak LV developed pressure in KO mice was higher than in WT mice
66 ) increased the recovery of left ventricular developed pressure in normoxic hearts to values not diff
67 cium transient amplitude, concomitant with a developed pressure increase; however, there was no incre
68 urs of reperfusion, maximum left ventricular developed pressure increased from 87.0+/-6.8 mm Hg (mean
70 eristics and on recovery of left ventricular developed pressure (LVDP) after 20 minutes of global isc
71 ) led to a 61% reduction in left ventricular developed pressure (LVDP) and a 57% reduction in the pre
72 d by measuring the index of left-ventricular developed pressure (LVDP) and contractility (dP/dt) befo
73 howed increased recovery of left ventricular developed pressure (LVDP) and decreased infarct size aft
74 coronary flow and preserved left ventricular developed pressure (LVDP) and dP/dtmax, indexes of cardi
76 ed postischemic recovery of left ventricular developed pressure (LVDP) and reduced infarct size compa
78 decreased the amplitude of left-ventricular developed pressure (LVDP) at baseline and accelerated th
79 s have improved recovery of left ventricular developed pressure (LVDP) compared with wild-type (WT) h
81 he postischemic recovery of left ventricular developed pressure (LVDP) was 15+/-2% in controls and wa
82 mbinant EPO treatment while left-ventricular-developed pressure (LVDP) was measured continuously to a
83 Optical APs were mapped when measuring LV developed pressure (LVDP), coronary flow rate and oxygen
84 easured during reperfusion; left ventricular developed pressure (LVDP), end diastolic pressure (EDP),
85 reduction in coronary flow, left ventricular developed pressure (LVDP), or the first derivative of LV
88 a under the curve, AUC, for left ventricular developed pressure, LVDP: 1767.3 +/- 929.5 vs. 492.7 +/-
91 mals in groups 3 and 4 demonstrated improved developed pressure, normal relaxation and diastolic stif
92 ter 16 minutes; P<0.05) and in LV dP/dt at a developed pressure of 40 mm Hg (LV dP/dt(40)) (-179+/-54
94 opy in isolated hearts (14% decrease in peak developed pressure), papillary muscles (53% decrease in
96 oped an impaired heart-rate-left-ventricular-developed pressure product in response to high workload
99 st injury resulting from zero-flow ischemia (developed pressure recovered to 67+/-6% versus 31+/-12%
100 in HSP than in CON hearts: left ventricular developed pressure recovery was 72.4+/-6.4% versus 59.7+
101 greater in HSP versus CON: Left ventricular developed pressure recovery was 76.7+/-3.9% versus 60.5+
105 ut not cortisol treatment, enhanced fetal LV developed pressure, RV developed pressure and HR respons
106 not cortisol treatment, suppressed fetal LV developed pressure, RV developed pressure and HR respons
107 increased postischemic left ventricular (LV) developed pressure to 79.5 + or - 9.47 mmHg compared to
108 n), the hazard ratio for new pressure ulcers developed (pressure ulcer prevention care bundle relativ
109 with a sharper slope of the left ventricular developed pressure-volume curve and a reduced slope of t
110 esulting from low-flow ischemia (recovery of developed pressure was 40+/-8% versus 37+/-7% in C and D
112 l and energetic compromise: left ventricular developed pressure was depressed by 20%, and cardiac pho
114 control hearts, recovery of left ventricular developed pressure was increased in rhEPO-perfused heart
116 complete recovery of diastolic pressure and developed pressure was seen irrespective of when Ucn was
117 Systolic function (percentage recovery of developed pressure) was measured over a range of volumes
119 and positive pressure derivatives as well as developed pressures were significantly higher in both hs
120 AC recovered 53% of initial left ventricular developed pressure, whereas hearts treated with NAC alon
124 s were made of rate-pressure product (RPP=LV developed pressure x heart rate), phosphorus-containing