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1 sure to renal compensatory mechanisms (i.e., hyperfiltration).
2 erglycemia, polyuria, renal hypertrophy, and hyperfiltration.
3 as been suggested to play a role in diabetic hyperfiltration.
4 d to be essential for renal vasodilation and hyperfiltration.
5 Benfotiamine also inhibited diabetes-induced hyperfiltration.
6 es diabetic renal hypertrophy and glomerular hyperfiltration.
7 ccelerated by unilateral nephrectomy-induced hyperfiltration.
8 ikely contribute to the etiology of diabetic hyperfiltration.
9 uely responsible for the observed postpartum hyperfiltration.
10 filtration coefficient, and did not mitigate hyperfiltration.
11 ers is unlikely to be a result of glomerular hyperfiltration.
12 rictor responsiveness and promote glomerular hyperfiltration.
13 stained inhibition of renal vasodilation and hyperfiltration.
14  demographic characteristics including renal hyperfiltration.
15 two systems may account for diabetes-induced hyperfiltration; (3) the LNA-induced decrease in GFR in
16                                     Adaptive hyperfiltration after donor nephrectomy is attributable
17 elopment of ORG as a maladaptive response to hyperfiltration and albuminuria.
18 proved renal function, decreasing glomerular hyperfiltration and albuminuria.
19 abetic nephropathy exhibits renal glomerular hyperfiltration and an increase in renal plasma flow.
20  then contribute to hypertension, glomerular hyperfiltration and diabetic nephropathy.
21       It has been postulated that glomerular hyperfiltration and endothelial dysfunction are early fe
22     Microalbuminuria, a marker of glomerular hyperfiltration and endothelial dysfunction, has been de
23 protein in diabetes patients results in less hyperfiltration and glomerular hypertension and, therefo
24 otein intakes by diabetic individuals create hyperfiltration and glomerular hypertension eventuating
25 nd normalized by DFMO, which also attenuated hyperfiltration and hypertrophy.
26 a-tocopherol treatment to prevent glomerular hyperfiltration and increased albuminuria as well as PKC
27 rtant role for the development of glomerular hyperfiltration and increased albuminuria in diabetes an
28  possibly TGF, limits the degree of diabetic hyperfiltration and nephropathy.
29 ric oxide (NO)-dependent renal vasodilation, hyperfiltration and reduced myogenic reactivity of small
30 d glomerular endothelial cell proliferation; hyperfiltration and renal morphology were unchanged.
31 on hypertension on postdonation BP, adaptive hyperfiltration, and compensatory glomerular hypertrophy
32 reased in insulin-treated diabetic rats with hyperfiltration, and inhibition of kallikrein or blockad
33 emove metabolic waste products through renal hyperfiltration, and it could also link metabolic diseas
34  of the renin-angiotensin system, glomerular hyperfiltration, and structural changes in the kidney th
35 hat renal functional reserve is exhausted by hyperfiltration; and (2) ACEI restores the GFR response
36  and its exact role in states of TGF-induced hyperfiltration are still unclear.
37           The revived interest in glomerular hyperfiltration as a prognostic and pathophysiologic fac
38 eration and developed hypertension and renal hyperfiltration as well as renal injury with heightened
39 educed urinary albumin excretion, glomerular hyperfiltration, blood glucose levels, histological dete
40                                   Because of hyperfiltration, BNZ increased VLP and distal flow, but
41 ts manifest renal hypertrophy and glomerular hyperfiltration but not glomerular capillary hypertensio
42                                     Although hyperfiltration can cause glomerular injury, many studie
43  corresponding magnitude of postdonation BP, hyperfiltration capacity, or compensatory renocortical h
44         This phenomenon, known as glomerular hyperfiltration, classically has been hypothesized to pr
45 esis, nonimmunologic factors, in particular, hyperfiltration damage related to reduced renal mass, ha
46 nimizing recipient weight may prevent future hyperfiltration damage.
47  diabetic mice, COMT(-/-) mice had decreased hyperfiltration, decreased macula densa cyclooxygenase-2
48 recruited to maintain renal vasodilation and hyperfiltration during chronic NO synthase blockade in c
49 rto proposed mechanisms involved in diabetic hyperfiltration, focusing on ultrastructural, vascular,
50 inephrectomy alone demonstrated compensatory hyperfiltration following reduction in renal mass.
51                        The 153 patients with hyperfiltration (GFR >130 ml x min(-1) x 1.73 m(-2)) had
52 mpanied by marked albuminuria, nephromegaly, hyperfiltration, glomerular ultrastructural alterations,
53 ent in renal function, whereas patients with hyperfiltration (>120 mL . min(-1) . 1.73 m(-2); n = 12)
54                                 The study of hyperfiltration has focused on microvascular abnormaliti
55 nditions, including glomerular hypertension, hyperfiltration, hypertrophy, and outflow of filtrate fr
56 ration of RLX elicits renal vasodilation and hyperfiltration in conscious adult, intact female rats.
57 ble evidence on the clinical significance of hyperfiltration in diabetes and discuss currently availa
58 ed to investigate the contribution of TGF to hyperfiltration in diabetic Ins2(+/-) Akita mice.
59      Rats demonstrate renal vasodilation and hyperfiltration in pregnancy.
60 , completely reversed renal vasodilation and hyperfiltration in relaxin-treated rats.
61 r 2 inhibitor empagliflozin attenuated renal hyperfiltration in subjects with T1D, likely by affectin
62 ibition with empagliflozin 25 mg QD on renal hyperfiltration in subjects with type 1 diabetes mellitu
63 w 50% may induce glomerular hypertension and hyperfiltration in surviving units, which in turn lead t
64  indicates that TGF is not required to cause hyperfiltration in the Akita model of diabetes.
65          Their results suggest that adaptive hyperfiltration in the remaining kidney occurs without g
66 they experience compensatory hypertrophy and hyperfiltration in their remaining kidney.
67                      This raises concern for hyperfiltration injury.
68 abdominal obesity, CR ameliorates glomerular hyperfiltration, insulin sensitivity, and other cardiova
69                                          The hyperfiltration is a dysfunctional state that may arise
70 with type 2 diabetes with abdominal obesity, hyperfiltration is a risk factor for accelerated glomeru
71 ephrogenesis, systolic blood pressure, renal hyperfiltration, kidney injury, and reactive oxygen spec
72  Intraglomerular hypertension and glomerular hyperfiltration likely contribute to the pathogenesis of
73  focused on microvascular abnormalities, but hyperfiltration may actually result from a prior increas
74  male recipient functional demand results in hyperfiltration-mediated glomerular injury and that this
75  inhibitors abrogates renal vasodilation and hyperfiltration, NO most likely mediates the renal circu
76 nal hypertrophy, glomerular enlargement, and hyperfiltration observed in diabetic wild-type mice and
77 r angiotensin II (AngII) are involved in the hyperfiltration observed in rats with streptozotocin-ind
78 ons of AngII, alone, are responsible for the hyperfiltration observed in streptozotocin-induced diabe
79 tudy was to determine whether the glomerular hyperfiltration of pregnancy is maintained even after Ca
80 GFR in either virgin or pregnant rats; thus, hyperfiltration persisted in the latter despite chronic
81 consistent with the hypothesis that diabetic hyperfiltration results from normal physiologic actions
82 ering blood pressure and diabetic glomerular hyperfiltration, SGLT2 inhibitors may induce protective
83 t arteriolar dilation that occurs during the hyperfiltration stage of insulin-dependent diabetes mell
84 ed in individuals stratified based on having hyperfiltration (T1D-H, GFR >/= 135 mL/min/1.73m(2), n=2
85            Comparable renal vasodilation and hyperfiltration was also observed in ovariectomized rats
86                                   Glomerular hyperfiltration was also significantly reduced in diabet
87                   During clamped euglycemia, hyperfiltration was attenuated by -33 mL/min/1.73m(2) wi
88 namate, 10 mg/kg IV), renal vasodilation and hyperfiltration were abolished; ie, the combined treatme
89                        BNZ caused glomerular hyperfiltration, which was prevented with inhibitors of

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