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1 ld standard for the measurement of effective renal plasma flow.
2 ld standard for the measurement of effective renal plasma flow.
3 ld standard for the measurement of effective renal plasma flow.
4 lomerular hyperfiltration and an increase in renal plasma flow.
5 61) without significant changes to effective renal plasma flow.
6 AH), is used clinically to measure effective renal plasma flow.
7 d that has historically been used to measure renal plasma flow.
8                                              Renal plasma flow (4.83+/-0.65 versus 2.37+/-0.62 ml/min
9 anied by declines in plasma NO and effective renal plasma flow and an increase in renal vascular resi
10 ng patients with SCD have elevated effective renal plasma flow and glomerular filtration rates, which
11                                              Renal plasma flow and plasma aldosterone were measured b
12                                              Renal plasma flow and plasma renin activity were measure
13 h chronic heart failure, serelaxin increased renal plasma flow and reduced the increase in filtration
14                       Glomerular filtration, renal plasma flow, and clearance of the stable metabolit
15 ession, greater body mass index, lower basal renal plasma flow, and higher diastolic blood pressure t
16 s associated with lower GFR, lower effective renal plasma flow, and higher filtration fraction, even
17          Functional renal reserve, change in renal plasma flow, and percentage change in nitrate and
18 rate; GFR) and paraaminohippurate (effective renal plasma flow) clearances were measured in individua
19 lin (GFR) and para-aminohippurate (effective renal plasma flow) clearances, tubular sodium handling,
20  tracer with a capacity to measure effective renal plasma flow comparable to that of the clinical gol
21 8 +/- 6% greater GFR, and a 61 +/- 7% higher renal plasma flow, compared with lean dogs.
22 still substantial and sustained increases in renal plasma flow, cortical blood flow (20 +/- 4% increa
23                                              Renal plasma flow decreased similarly with Ang II infusi
24 partmental analysis for estimating effective renal plasma flow (ERPF in units of milliliters per minu
25 nstrumented rats increases GFR and effective renal plasma flow (ERPF) and decreases effective renal v
26 r recombinant human RLX 2 (rhRLX), effective renal plasma flow (ERPF) and glomerular filtration rate
27 ronic inhibition of NO synthase on effective renal plasma flow (ERPF) and glomerular filtration rate
28 n 3 d) that includes estimation of effective renal plasma flow (ERPF) from a single plasma sample in
29 dy, we retrospectively review 1626 effective renal plasma flow (ERPF) measurements in 197 patients wi
30                                    Effective renal plasma flow (ERPF) response to angiotensin II (Ang
31 n cortical blood flow (34 +/- 12% increase), renal plasma flow, GFR, and sodium excretion; however, t
32 iltration rate (I-iothalamate) and effective renal plasma flow (I-hippuran) measured 4 months before
33           Fenoldopam significantly increased renal plasma flow in a dose-dependent manner compared wi
34 n was used to independently assess effective renal plasma flow in each subject.
35 ficant changes in mean arterial pressure and renal plasma flow in either C or D rats but reduced glom
36 renin inhibition led to a larger increase in renal plasma flow in healthy human volunteers studied on
37 perfiltrating and showed the largest rise in renal plasma flow in response to irbesartan, whereas ren
38                                              Renal plasma flow increased by 29% with serelaxin and 14
39                                    Effective renal plasma flow increased in both groups after surgery
40                                              Renal plasma flow increased modestly between baseline an
41 llagen I in UUO-treated kidneys and enhanced renal plasma flow measured by Technetium-99m mercaptoace
42  on GFR (measured by iothalamate clearance), renal plasma flow (measured by para-amino hippurate clea
43  glomerular filtration rate (GFR), effective renal plasma flow, natriuresis, and diuresis.
44 creased plasma renin activity (P < 0.01) and renal plasma flow (P < 0.01); the latter effect plateaue
45                                              Renal plasma flow (para-aminohippurate clearance) and gl
46             In the second part of the study, renal plasma flow (para-aminohippurate clearance) and gl
47                 PUA, GFR (inulin), effective renal plasma flow (para-aminohippurate), BP, and hemodyn
48  difference between serelaxin and placebo on renal plasma flow (para-aminohippuric acid clearance) an
49 hanges from baseline mean arterial pressure, renal plasma flow, plasma renin activity, aldosterone, u
50                                              Renal plasma flow, prevalence of acute kidney injury, in
51 ced the glomerular filtration rate (GFR) and renal plasma flow rate in diabetic rats, despite variabl
52                  Arterial pressure, GFR, and renal plasma flow remained constant, but CsA restored th
53 -aminohippurate were used to measure GFR and renal plasma flow, respectively.
54 asma flow in response to irbesartan, whereas renal plasma flow rose less and GFR fell in patients wit
55 mide on glomerular filtration rate (GFR) and renal plasma flow (RPF) in heart failure patients are co
56  intrarenal renin activity, we have examined renal plasma flow (RPF) responses in a standardized prot
57                In all three groups, baseline renal plasma flow (RPF) was positively correlated with t
58                                      GFR and renal plasma flow (RPF) were measured as the clearance o
59 easured glomerular filtration rate (GFR) and renal plasma flow (RPF), and analysed renal structural i
60            Glomerular filtration rate (GFR), renal plasma flow (RPF), and filtration fraction (FF) (a
61 ong the three centers, but systolic BP, GFR, renal plasma flow (RPF), and filtration fraction were lo
62                               Bilateral GFR, renal plasma flow (RPF), and para-aminohippurate (PAH) e
63                               Bilateral GFR, renal plasma flow (RPF), and para-aminohippurate extract
64 mable from glomerular filtration rate (GFR), renal plasma flow (RPF), blood pressure, hematocrit, and
65 s (T1D) and relate the ratio to albuminuria, renal plasma flow (RPF), fat mass, and insulin sensitivi
66 s showed parallel increases in single-kidney renal plasma flow (RPF), renocortical volume, and glomer
67              The glomerular filtration rate, renal plasma flow, urinary albumin excretion, and blood
68  There were no differences in GFR, effective renal plasma flow, urine output, or sodium excretion for
69 y [GC]/mass spectrometry [MS] analysis), and renal plasma flow was determined with paraaminohippurate
70                      Irrespective of gender, renal plasma flow was increased by 47% compared with bas
71                                              Renal plasma flow was measured by para-aminohippurate cl
72 sured with infusion of [6-(2)H2]glucose, and renal plasma flow was measured by para-aminohippurate cl
73                                              Renal plasma flow was measured by using paraaminohippura
74                    In male MRL-lpr/lpr mice, renal plasma flow was significantly reduced in the 5lo-/
75                   In contrast, corresponding renal plasma flow was the same in the two groups, such t
76                                              Renal plasma flow was unchanged at 293 +/- 124 ml/min/1.
77               Glomerular filtration rate and renal plasma flow were measured with iothalamate and par