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1 y (or exclusion of it in cases of collapsing glomerulopathy).
2 complex-mediated or complement-mediated (C3 glomerulopathy).
3 change/FSGS, membranous nephropathy, and C3 glomerulopathies).
4 al-change-type lesions to FSGS or collapsing glomerulopathy.
5 ased serum C3 levels in a murine model of C3 glomerulopathy.
6 ther it restores complement regulation in C3 glomerulopathy.
7 s erythematosus (SLE) -associated collapsing glomerulopathy.
8 (C3GN) are widely recognized subtypes of C3 glomerulopathy.
9 n at 81 days and developed chronic xenograft glomerulopathy.
10 walls, albeit at lower intensity than in C3 glomerulopathy.
11 and clinical biopsies that had no transplant glomerulopathy.
12 diabetic kidney disease and is a hallmark of glomerulopathy.
13 effect on renal endothelial dysfunction and glomerulopathy.
14 IV-1 transgenic mouse, a model of collapsing glomerulopathy.
15 ty to experimental doxorubicin hydrochloride glomerulopathy.
16 rocess effacement, proteinuria and FSGS-like glomerulopathy.
17 orts of patients with and without transplant glomerulopathy.
18 indicative of fibrosis/atrophy or transplant glomerulopathy.
19 ntibodies common to patients with transplant glomerulopathy.
20 lant and strongly associated with transplant glomerulopathy.
21 cts graft loss when combined with transplant glomerulopathy.
22 nail-patella syndrome and collagen type III glomerulopathy.
23 F-A/VEGF receptor (VEGFR) system in diabetic glomerulopathy.
24 e development of thrombotic microangiopathic glomerulopathy.
25 reverses the established lesions of diabetic glomerulopathy.
26 is, fibrointimal hyperplasia, and transplant glomerulopathy.
27 rastructure similar to that of immunotactoid glomerulopathy.
28 lipidemia, type II diabetes, proteinuria and glomerulopathy.
29 ix protein accumulation are seen in diabetic glomerulopathy.
30 c markers and the development of sickle cell glomerulopathy.
31 ts; one of them developed de novo collapsing glomerulopathy.
32 lonephritis and 33 to 45 nm in immunotactoid glomerulopathy.
33 ted association of HCV with acute transplant glomerulopathy.
34 ant form of glomerular injury was transplant glomerulopathy.
35 pared with 51 human biopsies with transplant glomerulopathy.
36 There is no effective treatment for C3 glomerulopathy.
37 sement membrane GN, monoclonal Ig GN, and C3 glomerulopathy.
38 and of a special subset of human transplant glomerulopathy.
39 te that this approach should be tested in C3 glomerulopathy.
40 ction with glomerular thrombi and transplant glomerulopathy.
41 ody-mediated rejection, and early transplant glomerulopathy.
42 ld proteinuria at 18-24 wk due to membranous glomerulopathy.
43 ed with more rapid progression to transplant glomerulopathy.
44 GN but is absent or minimally detected in C3 glomerulopathy.
45 odocyte depletion associated with transplant glomerulopathy.
46 glomerulopathies such as FSGS or collapsing glomerulopathy.
47 ameliorate manifestations of early diabetic glomerulopathy.
48 reventing ABMR and development of transplant glomerulopathy.
49 eculizumab patients had almost no transplant glomerulopathy.
50 ed rejection (AMR) and subsequent transplant glomerulopathy.
51 a useful biomarker for the treatment of some glomerulopathies.
52 hat these are general features of collapsing glomerulopathies.
53 hemolytic uremic syndrome (aHUS) and related glomerulopathies.
54 gulated in hyperglycemic and immune-mediated glomerulopathies.
55 ular injury in diabetes and other sclerosing glomerulopathies.
56 ot observed in a variety of non-Alport human glomerulopathies.
57 gial matrix deposition of diabetic and other glomerulopathies.
58 ell (MC) proliferation is a hallmark of many glomerulopathies.
59 d complement-activation disorders, including glomerulopathies.
60 n, the primary treatment of choice for these glomerulopathies.
61 ion, in particular, cancer and proliferative glomerulopathies.
62 , atypical hemolytic uremic syndrome, and C3 glomerulopathies.
64 ight microscopy (transplant arteriopathy and glomerulopathy); (3) widespread C4d deposits in PTC by i
66 gical reasons and one failed from transplant glomerulopathy after 5.8 yr with no histological evidenc
67 nd in 8 of 51 human biopsies with transplant glomerulopathy after rigorous exclusion of immune comple
68 In minimal change disease and membranous glomerulopathy, all mature podocyte markers were retaine
69 recognized to be distinct from immunotactoid glomerulopathy, an entity characterized by glomerular de
70 elp identify patients at risk for collapsing glomerulopathy, an entity with a poor prognosis that is
71 ng the end point was higher in children with glomerulopathies and increased with age, blood pressure,
72 146a(-/-)) showed accelerated development of glomerulopathy and albuminuria upon streptozotocin (STZ)
73 ogic normoglycemia in diabetic patients with glomerulopathy and avoid or delay the onset of diabetic
74 ost half of the surviving grafts do not have glomerulopathy and avoiding antibodies against donor cla
75 ve changes and matrix remodeling (transplant glomerulopathy and capillaropathy); (b) EC procoagulant
78 er allograft injury with increased allograft glomerulopathy and interstitial fibrosis/tubular atrophy
83 n renal allograft recipients with transplant glomerulopathy and seem to be under the regulation of fu
85 ng atypical hemolytic uremic syndrome and C3 glomerulopathies, and age-related macular degeneration.
87 females with gonadal dysgenesis, progressive glomerulopathy, and a significant risk of gonadoblastoma
89 ibrosis, tubular atrophy, chronic transplant glomerulopathy, and chronic vascular rejection changes a
92 expression, decreased albuminuria, decreased glomerulopathy, and inhibition of expression of markers
93 y negative in 24 (80%) of 30 specimens of C3 glomerulopathy, and only trace/1+ C4d staining was detec
94 bined presence of C4d positivity, transplant glomerulopathy, and serum creatinine of >2.3 mg/dl at bi
96 orts the underlying hypothesis that these C3 glomerulopathies are diseases of fluid-phase complement
98 lled microcysts with hallmarks of collapsing glomerulopathy, as well as extensive effacement of podoc
99 ared with minimal change disease, membranous glomerulopathy, as well as normal adult and fetal human
100 essive effect in acute phases or relapses of glomerulopathies associated with MC proliferations.
101 ays an important role in the pathogenesis of glomerulopathy associated with type 2 diabetes and could
103 sgenesis, whereas her sister has progressive glomerulopathy but a 46,XX karyotype and normal female d
104 es associates with HIV-associated collapsing glomerulopathy, but it is unknown whether these risk all
105 genase levels between those with and without glomerulopathy, but the mean arterial pressure was highe
107 r DSA by C1q is more specific for transplant glomerulopathy (C1q: 81%, 95% CI 0.57-0.94; IgG: 67%, 95
109 The complement-mediated renal diseases C3 glomerulopathy (C3G) and atypical hemolytic uremic syndr
110 s alternative pathway complement-mediated C3 glomerulopathy (C3G) and immune complex-mediated membran
111 oclonal gammopathy in adult patients with C3 glomerulopathy (C3G) emphasizes the role of monoclonal i
117 e thrombotic microangiopathies (TMAs) and C3 glomerulopathies (C3Gs) include a spectrum of rare disea
123 ), and a trends toward a higher mean chronic glomerulopathy (cg) score (1.65 +/- 0.93 vs 1.11 +/- 0.9
124 Chronic allograft injury (transplant chronic glomerulopathy [cg] or chronic lesion score CLS]) were a
127 nt in apoJ/clusterin developed a progressive glomerulopathy characterized by the deposition of immune
128 D developed a severe mesangial proliferative glomerulopathy, characterized by enlarged glomeruli and
129 progressive renal insufficiency in SSA is a glomerulopathy, clinically detected by the presence of m
130 rom crescents of patients with proliferative glomerulopathies confirmed the translational relevance o
131 cantly higher prevalence of acute transplant glomerulopathy (Ctrl, 6%; R-HCV, 55%, P<.0001; D-HCV 40%
132 ents with proliferative and nonproliferative glomerulopathies, dysregulated CD133(+)CD24(+) progenito
136 contrast, patients who developed transplant glomerulopathy had 10- to 20-fold increased levels of po
137 te antigens type II (DSA II+) and transplant glomerulopathy has been clearly established, its role in
138 rillary glomerulonephritis and immunotactoid glomerulopathy have features that overlap with cryoglobu
139 3-1; C1q: 88%, 95% CI 0.62-0.98), transplant glomerulopathy (IgG: 100%, 95% CI 0.73-1; C1q: 100%, 95%
140 se cytokines were associated with transplant glomerulopathy (IL-1beta, P=0.019; IL-6, P=0.015; and TN
143 ion scanning microscopy (HIM) to examine the glomerulopathy in a Col4a3 mutant/Alport syndrome mouse
148 trastructural characteristics of proteinuric glomerulopathy in mice with CD2-associated protein (CD2A
150 r Myh9 podocyte deletion predisposed mice to glomerulopathy in response to injury by doxorubicin hydr
155 deficiency occurs in multiple human primary glomerulopathies including sporadic FSGS, minimal change
156 of mouse develops proteinuria and a distinct glomerulopathy including mesangiolysis but little inters
157 have implicated Nox1, -2, and -4 in several glomerulopathies, including diabetic nephropathy, little
158 n has been implicated in certain unexplained glomerulopathies, including minimal change nephrosis, me
160 -4 production, transforming a mild mesangial glomerulopathy into a severe systemic immune complex dis
167 These findings indicate that obesity-induced glomerulopathy is associated with upregulation of key in
168 egree of anemia, suggesting that sickle cell glomerulopathy is not solely related to hemodynamic adap
170 19, recurrent anemia, and de novo collapsing glomerulopathy leading to allograft failure developed in
171 ted with accelerated development of diabetic glomerulopathy lesions in type 1 diabetic patients.
172 layed increased proteinuria, more transplant glomerulopathy lesions, and lower glomerulitis, but simi
173 cations for podocyte dysfunction in diabetic glomerulopathy, manifesting as GBM thickening and altere
177 antation, mean arterial pressure, transplant glomerulopathy, microcirculation inflammation, and de no
179 interstitial nephropathies (n = 92 [10.2%]), glomerulopathies (n = 69 [7.7%]), postischemic CKD (n =
180 ), and HIV-negative patients with collapsing glomerulopathy (n = 8) were analyzed in this study.
181 assessed whether similar changes occur with glomerulopathy/nephrotic syndrome, in which high-circula
182 d G2 alleles and to better understand "APOL1 glomerulopathy," no data prove that these APOL1 sequence
184 ed in glomerular podocytes in the collapsing glomerulopathy of HIV-associated nephropathy (HIVAN).
186 Morphologic criteria for acute transplant glomerulopathy or proliferative glomerulonephritis were
188 tients who had no C4d deposition, transplant glomerulopathy, or microcirculation inflammation had a 1
189 ucose and/or fatty acids, in obesity-related glomerulopathy (ORG) and diabetic nephropathy (DN).
193 significantly higher in IF+i and transplant glomerulopathy patients compared with normal histology a
194 ction with reversible, mild microangiopathic glomerulopathy, probably associated with preformed antib
196 merular structure, resulting in a collapsing glomerulopathy resembling those in human disease, includ
198 ovo donor-specific antibodies and transplant glomerulopathy showed higher risk of graft loss compared
199 athogenesis of podocyte injury in sclerosing glomerulopathies such as focal segmental glomerulosclero
200 d how podocyte injury evolves to progressive glomerulopathies such as FSGS or collapsing glomerulopat
202 cyte injury is the inciting event in primary glomerulopathies, such as minimal change disease and pri
203 0-26 ng/ml (n=2) developed chronic allograft glomerulopathy, suggesting 35 ng/ml as the threshold blo
204 eyond diabetes, studies in other settings of glomerulopathies support a critical RAGE-dependent pathw
213 ephropathy is a unique pattern of sclerosing glomerulopathy that ranges in prevalence from 1 to 10% o
215 ition have been associated with a variety of glomerulopathies, the pathogenic mechanisms by which com
216 normoalbuminuric patients may have advanced glomerulopathy, the selection of slow-track patients bas
220 segmental glomerulosclerosis (not collapsing glomerulopathy variant), pauci-immune crescentic glomeru
225 .7% vs. 88.0%, p < 0.01) and chronic injury (glomerulopathy) was present in 54.5% of surviving grafts
226 on by mesangial cells are characteristics of glomerulopathies, we propose that SPARC is one of the fa
227 ologic mechanisms associated with transplant glomerulopathy, we examined the expression of acidic fib
229 erexpressing mice had a milder proliferative glomerulopathy, whereas the mice overexpressing PDGF-C a
230 Regardless of the histologic pattern, C3 glomerulopathy, which includes dense deposit disease and
231 c patients with proteinuria have established glomerulopathy, which is more advanced in those with nod
232 Ds) in a woman affected by Complement 3 (C3) glomerulopathy, which represents a spectrum of glomerula
233 s with SLE identified 26 cases of collapsing glomerulopathy, which we genotyped for APOL1 risk allele
234 ion, specifically avoidance of patients with glomerulopathies whose recurrence may obscure potential
236 r subtype) in 79% of patients and membranous glomerulopathy with atypical features in 21% (including
238 2 (CR2) and FH (CR2-FH) in two models of C3 glomerulopathy with either preexisting or triggered C3 d
239 merular lesions resembling a noninflammatory glomerulopathy with extensive extracapillary proliferati
240 ular disease in five cases, and a membranous glomerulopathy with mesangial proliferative features in
241 grafts exhibited thrombotic microangiopathic glomerulopathy with multiple platelet-fibrin microthromb
242 died before postnatal day 3 (P3) from severe glomerulopathy with podocyte effacement and segmental gl
243 with sickle cell anemia (SCA) may develop a glomerulopathy with proteinuria and progressive renal in
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