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1 odels of ATN and acute GN (NZM2410 mice with lupus nephritis).
2 he age of 29 weeks (after the development of lupus nephritis).
3 re, we translate these observations to human lupus nephritis.
4 titative renal biomarker of kidney injury in lupus nephritis.
5 the aspects of disease progression in human lupus nephritis.
6 ent of immune-mediated nephropathies like in lupus nephritis.
7 ers of specific histologic manifestations of lupus nephritis.
8 patients with class IV-S and those with IV-G lupus nephritis.
9 flammation, and thereby hastens the onset of lupus nephritis.
10 urther examine the potential of abatacept in lupus nephritis.
11 r conducting further studies of abatacept in lupus nephritis.
12 IgM in these mice confer protection against lupus nephritis.
13 nti-glomerular basement membrane disease and lupus nephritis.
14 ne level, renal flare, or rescue therapy for lupus nephritis.
15 -dsDNA resulted in a dramatic improvement in lupus nephritis.
16 as combined membranous and focal or diffuse lupus nephritis.
17 oduction and significantly delays death from lupus nephritis.
18 ng the protection and treatment of mice with lupus nephritis.
19 ing their recruitment into the kidney during lupus nephritis.
20 prevent relapse after the initial control of lupus nephritis.
21 phamide (IVC) for the induction treatment of lupus nephritis.
22 d with increased disease activity and active lupus nephritis.
23 orine, may be beneficial in the treatment of lupus nephritis.
24 therapy of both proliferative and membranous lupus nephritis.
25 hages in aggressive proliferative lesions of lupus nephritis.
26 icensed for use in induction of remission in lupus nephritis.
27 st a role for tacrolimus in the treatment of lupus nephritis.
28 m of immune complexes in the pathogenesis of lupus nephritis.
29 s well as in mice with spontaneously arising lupus nephritis.
30 rane [anti-GBM antibodies]), and spontaneous lupus nephritis.
31 hosphamide for the induction of remission in lupus nephritis.
32 ronic transplant rejection and recurrence of lupus nephritis.
33 to anti-GBM antibody-induced and spontaneous lupus nephritis.
34 CSF-1 is a potential therapeutic target for lupus nephritis.
35 s superior to IVC as induction treatment for lupus nephritis.
36 prominent in a mouse model (MRL-Fas(lpr)) of lupus nephritis.
37 was independently associated with recurrent lupus nephritis.
38 ission induction and maintenance therapy for lupus nephritis.
39 ive to cyclophosphamide for the treatment of lupus nephritis.
40 ed with the histopathology activity index of lupus nephritis.
41 SF-1-dependent systemic mechanism central to lupus nephritis.
42 anifestations in patients with biopsy-proven lupus nephritis.
43 ted by renal biopsy and 26 with a history of lupus nephritis.
44 een shown to be effective in treating murine lupus nephritis.
45 ity and therapeutic targets in proliferative lupus nephritis.
46 re found in kidney biopsies of patients with lupus nephritis.
47 weeks, most (NZB x NZW)F1 mice had developed lupus nephritis.
48 renal disease and treats established murine lupus nephritis.
49 infiltrating in the kidneys of patients with lupus nephritis.
50 ay have potential diagnostic significance in lupus nephritis.
51 d that certain PON1 SNPs are associated with lupus nephritis.
52 the onset of proteinuria and worsened SNF(1) lupus nephritis.
53 n no previous studies of the epidemiology of lupus nephritis.
54 ulonephritis and in a mouse chronic model of lupus nephritis.
55 glomerulonephritis closely resembling human lupus nephritis.
56 eatment, and outcome of patients with severe lupus nephritis.
57 we show that BAFF promotes events leading to lupus nephritis.
58 ficant B cell expansion, BAFF secretion, and lupus nephritis.
59 ajor unmet need for successful management of lupus nephritis.
60 acerbate underlying pathogenic mechanisms in lupus nephritis.
61 l cells associates with viral infections and lupus nephritis.
62 10 wk of age and steadily increases prior to lupus nephritis.
63 ong been thought to promote inflammation and lupus nephritis.
64 rrelate with the occurrence of proliferative lupus nephritis.
65 een developed to explain the pathogenesis of lupus nephritis.
66 n this pathway may serve as early markers in lupus nephritis.
67 at1 and Stat3 has been reported in lupus and lupus nephritis.
68 cesses involved in tissue injury relating to lupus nephritis.
69 n identified as playing an important role in lupus nephritis.
70 t is still being used in refractory cases of lupus nephritis.
71 he pathogenesis, diagnosis, and treatment of lupus nephritis.
72 tissues, but also in the inflamed kidney in lupus nephritis.
73 il prior to pregnancy in patients with quiet lupus nephritis.
74 compartments in both human and experimental lupus nephritis.
75 role for the NLRP3 inflammasome in mediating lupus nephritis.
76 els, proteinuria, and histologic features of lupus nephritis.
77 idney promote renal disease in patients with lupus nephritis.
78 isease in both the murine and human forms of lupus nephritis.
79 We identified 208 cases of biopsy-proven lupus nephritis (176 women, 32 men): the overall prevale
80 tasis have been identified as biomarkers for lupus nephritis, a serious complication of systemic lupu
81 European descent with SLE (588 patients with lupus nephritis and 1412 patients with lupus without nep
84 TNIP1 gene are associated with the risk for lupus nephritis and could be mechanistically involved in
86 at EBV-immortalized cells from patients with lupus nephritis and healthy individuals did not produce
87 XCR4/CXCL12 in lymphoproliferative lupus and lupus nephritis and highlight this axis as a promising t
88 what we know about processes that may cause lupus nephritis and how such basic processes may be affe
89 ession in kidney biopsies from patients with lupus nephritis and identified miR-150 as the most diffe
90 RIIA and FcgammaRIIIB on neutrophils induces lupus nephritis and in some cases arthritis only when th
93 ment of drugs to prevent, and perhaps treat, lupus nephritis and other autoinflammatory diseases caus
94 e type IV as a valuable treatment target for lupus nephritis and point out the importance of local ki
95 of MRL/lpr mice with dipyridamole alleviated lupus nephritis and prevented the appearance of skin ulc
96 te on the pathogenic mechanisms that lead to lupus nephritis and provide the rationale for the latest
97 e loss of CfH accelerates the development of lupus nephritis and recapitulates the functional and str
98 ere we report that clinical and pathological lupus nephritis and serum anti-nuclear Ab levels are gre
99 nee arthritis in a patient with class III-IV lupus nephritis and speculate on the association between
100 the kidneys of lupus mice and patients with lupus nephritis and suggest that molecules in this pathw
101 ls play an important role in protection from lupus nephritis and suggest that the NAA B cells may hav
102 hesis that the PD-1/PD-L1 pathway suppresses lupus nephritis and the systemic illness in MRL-Fas(lpr)
103 NZW) mouse model of interferon-alpha-induced lupus nephritis and treated mice with TNF receptor type
104 23R-mediated signaling in the development of lupus nephritis and urge the consideration of proper bio
105 re pronounced association with proliferative lupus nephritis and with longitudinal response to lupus
107 tive syndrome, production of anti-dsDNA Abs, lupus nephritis, and accumulation of CD3(+)B220(+)CD4(-)
108 r disease entities, such as IgA nephropathy, lupus nephritis, and ANCA GN; and additional features as
109 patients with refractory disease, including lupus nephritis, and antibody-mediated cytopenias, possi
110 oved survival in patients with proliferative lupus nephritis, and combined administration of these ag
112 he kidney, serum, and urine of patients with lupus nephritis, and eliminating CSF-1 suppresses lupus
113 T cells infiltrate kidneys of patients with lupus nephritis, and IL-23-treated lymph node cells from
114 mplify autoantibody production that leads to lupus nephritis, and in individuals with SLE IgE autoant
117 of complement activation in dermatomyositis, lupus nephritis, and necrotic muscle fibres in Duchenne
118 among men, African Americans, patients with lupus nephritis, and patients with anti-double-stranded
119 a, as well as disease susceptibility to HIV, lupus nephritis, and psoriasis among many other clinical
120 anous nephropathy, membranoproliferative GN, lupus nephritis, and vasculitis associated with HRs (95%
121 yzed in relation to PON1 activity, SLE risk, lupus nephritis, antiphospholipid antibody (aPL) positiv
124 , all vehicle-injected mice developed severe lupus nephritis, as evidenced by increased proteinuria (
125 tients with SLE may reduce the occurrence of lupus nephritis, as well as diminish the risk of acceler
126 ALMS) trial of mycophenolate mofetil, 3) the Lupus Nephritis Assessment with Rituximab (LUNAR) trial
128 netic factors underlying the pathogenesis of lupus nephritis associated with systemic lupus erythemat
129 Children ages 5-18 years with new-onset lupus nephritis-associated ESRD were identified in the U
132 nephritis revealed strong associations with lupus nephritis at rs7708392 in European Americans and r
133 ate that in more than half of a cohort of 68 lupus nephritis biopsies, the tubulointerstitial infiltr
135 e discuss current therapeutic strategies for lupus nephritis, briefly review recent advances in under
136 emistry of renal biopsies from patients with lupus nephritis, but not anti-neutrophil cytoplasmic Ab-
137 cyclophosphamide (IVC) for the treatment of lupus nephritis, but these therapies have not been compa
138 icient MRL-lpr mice developed severe diffuse lupus nephritis by 12 weeks (glomerulonephritis scores o
139 ce elevated autoantibody levels and promoted lupus nephritis by inducing BAFF production in the kidne
140 AFF plays a previously unappreciated role in lupus nephritis by inducing renal TLSs and regulating th
141 ation profile contribute to tissue damage in lupus nephritis by mediating both local inflammation and
142 latory T cells that delay the development of lupus nephritis by suppressing hypergammaglobulinemia an
143 xplore the potential for renal protection in lupus nephritis by targeting this pathway, we introduced
145 pidemiology, genetics, cardiovascular risks, lupus nephritis, CNS disease, the antiphospholipid syndr
146 New Zealand White) F1 (NZB/W) mouse model of lupus nephritis compared with healthy New Zealand White
147 the current approaches to the management of lupus nephritis continue to rely on high-dose corticoste
149 changes in renal iron homeostasis occurs in lupus nephritis, contributing to the development of kidn
150 also elevated in the urine of patients with lupus nephritis, correlating well with urine protein lev
151 rstanding of the immunology and phenotype of lupus nephritis current therapies have insufficient effi
152 A previous study of anti-C1q in experimental lupus nephritis demonstrated an important role for Fcgam
154 CD163 mRNA than did those from patients with lupus nephritis, diabetic nephropathy, or nephrotic synd
156 The SLE group included 23 patients with lupus nephritis documented by renal biopsy and 26 with a
159 te that the characteristics of patients with lupus nephritis ESRD and initial therapies have changed
162 ell depletion with rituximab in nonlupus and lupus nephritis (Explorer and Lunar, respectively) did n
163 has been the standard induction regimen for lupus nephritis, followed by a maintenance regimen of qu
164 reated mice were protected from the onset of lupus nephritis for 10 wk, with significantly improved s
165 d compared, 16 patients with newly diagnosed lupus nephritis from whom multiple samples were obtained
166 last year, complete and partial remission in lupus nephritis has been achieved in 60-89% of cases.
168 rapy, and treatment for all major classes of lupus nephritis has seen some shift in management during
169 chanism by which anti-DNA antibodies mediate lupus nephritis has yet to be conclusively determined.
172 d with a shorter time-to-event for recurrent lupus nephritis (hazard ratio [HR] 4.63, 95% confidence
173 in vivo prevented the formation of TLSs and lupus nephritis; however, it did not reduce immune cell
174 liferative GN (HR, 0.84; 95% CI, 0.76-0.92), lupus nephritis (HR, 0.69; 95% CI, 0.66-0.71), vasculiti
175 IgAN, for those with secondary GN subtypes: lupus nephritis [HR,0.91; 95% CI, 0.86-0.97], vasculitis
176 seases, with closest interconnection between lupus nephritis, IgA nephritis, and diabetic nephropathy
178 ide or tripdiolide significantly ameliorated lupus nephritis in (NZB x NZW)F1 mice, reduced cytokine
180 MF and IVC as induction treatment for active lupus nephritis in a multinational, two-phase (induction
185 s no hypoalbuminemia or apparent evidence of lupus nephritis in mice treated with either of the 2 dit
189 ular and humoral autoimmune responses during lupus nephritis in NZB/W F1 mice and emphasize the poten
190 polyinosinic: polycytidylic acid-accelerated lupus nephritis in NZB/W mice that is characterized by s
191 ving inflammation, and, in turn, early-onset lupus nephritis in preclinical MRL/MpJ-Faslpr/Fas(lpr) m
192 he prevalence and incidence of biopsy-proven lupus nephritis in the northwest of England in 2001 and
195 erion OR the patient must have biopsy-proven lupus nephritis in the presence of antinuclear antibodie
197 tant in the pathogenesis of murine and human lupus nephritis; in murine models, we had found that a s
198 of several strains of mice with spontaneous lupus nephritis, including the MRL/lpr, NZM2410, and B6.
199 he prevalence and incidence rates of SLE and lupus nephritis increased with age, were higher in girls
200 d the strongest evidence of association with lupus nephritis independent of HLA-DR2 and HLA-DR3 (P=8.
210 ession of certain miRs has been described in lupus nephritis, it is unknown whether miRs contribute t
211 f-reactive antibodies can target the kidney (lupus nephritis), leading to functional failure and poss
212 IgM anti-dsDNA protected MRL/lpr mice from lupus nephritis, likely by stopping the inflammatory cas
213 vels were significantly higher in those with lupus nephritis (LN) (median 17.1 ng/mg creatinine, inte
214 ells infiltrate the kidneys of patients with lupus nephritis (LN) and are critical for the pathogenes
216 means to predict the onset and recurrence of lupus nephritis (LN) before overt renal injury is needed
225 IgAN and systemic lupus erythematosus (SLE)/lupus nephritis (LN) shared many loci based on GWAS on C
226 Biopsy samples (n = 14) from patients with lupus nephritis (LN) were immunostained with anti-CXCL12
227 d-derived cells is a key pathogenic event in lupus nephritis (LN), but the process is poorly understo
229 al electrophoresis in 32 patients with FSGS, lupus nephritis, membranous nephropathy, or diabetic nep
230 ntly improves renal disease in a spontaneous lupus nephritis model through prevention of the direct i
232 owed significant enrichment in patients with lupus nephritis (n=32) compared with controls (n=15).
233 Despite several large clinical trials in lupus nephritis, no second line drug is licensed for use
234 in the glomerular podocytes of patients with lupus nephritis or focal segmental GN but not in normal
235 Compared with samples from patients with lupus nephritis or healthy black controls, AASK-N sample
236 end-stage renal disease (ESRD) secondary to lupus nephritis, or in the characteristics, treatments,
237 on levels distinguished active from inactive lupus nephritis (P = 0.02) and were positively associate
238 ty loci, showed evidence of association with lupus nephritis (P=0.06 and P=3.7x10(-5), respectively).
239 he past decade, an improved understanding of lupus nephritis pathogenesis fueled several clinical tri
242 Compared with patients without nephritis, lupus nephritis patients had higher IFN scores (overall
247 within the kidney has the capacity to dampen lupus nephritis, possibly by modulating inflammation and
249 Although IL-6 is proinflammatory in murine lupus nephritis, protective effects have been observed f
250 his large-scale genome-wide investigation of lupus nephritis provide evidence of multiple biologicall
251 e, the disappointing results of rituximab in lupus nephritis provided a clinical and mechanistic coun
254 r, of the children with SLE, 1,106 (37%) had lupus nephritis, representing a prevalence of 3.64 (95%
255 MRL/lpr or BWF1 mice with established SLE or lupus nephritis, respectively, were treated orally with
258 nt role for FcgammaRs in the pathogenesis of lupus nephritis, suggesting a direct effect on phagocyte
259 ates systemic autoimmunity, but also impacts lupus nephritis, suggesting that IFN-I may be acting at
262 n increase in survival and an improvement in lupus nephritis that exceeded that of MRL/lpr mice lacki
263 t there are different pathogenic pathways in lupus nephritis, the emerging pathogenic mechanism(s) ma
265 nephritis and with longitudinal response to lupus nephritis therapy provides a rationale for the stu
267 en analyzing the subset of 143 subjects with lupus nephritis, there was also no evidence of associati
269 re increasing opportunities in patients with lupus nephritis to offer treatments tailored to the indi
270 gned 370 patients with classes III through V lupus nephritis to open-label MMF (target dosage 3 g/d)
271 m a large, multicenter trial of abatacept in lupus nephritis, to gain insight into which outcome meas
272 en to investigate whether recent advances in lupus nephritis treatment have led to changes in the inc
273 t survival improved, the goals for advancing lupus nephritis treatment shifted to identifying therapi
275 of complete response can determine whether a lupus nephritis trial is interpreted as a success or a f
277 cytoplasmic antibody-mediated crescentic GN, lupus nephritis, type I membranoproliferative GN), and n
279 n effort to identify potential biomarkers in lupus nephritis, urine from mice with spontaneous lupus
280 as 2.22 cases (95% CI 2.05-2.40) and that of lupus nephritis was 0.72 cases (95% CI 0.63-0.83) per 10
281 M antibody-induced nephritis and spontaneous lupus nephritis was achieved by breeding mice with a gen
285 nephritis, urine from mice with spontaneous lupus nephritis was screened for the presence of VCAM-1,
286 ate the distinct functions of Axl and Mer in lupus nephritis, we compared the severity of nephrotoxic
287 f immune complexes in the pathophysiology of lupus nephritis, we studied the role of CfH in the devel
288 ney in response to TWEAK are instrumental in Lupus nephritis; we therefore hypothesized that TWEAK/Fn
291 Finally, both human SLE and spontaneous lupus nephritis were found to be associated with kallikr
292 (age 18 years and older) with biopsy-proven lupus nephritis were identified from 5 sources: renal bi
293 atients (n = 144) with class III or class IV lupus nephritis were randomized 1:1 to receive rituximab
294 rom the medical records of 215 patients with lupus nephritis were sent to 8 nephrologists and 29 rheu
295 t and in preventing relapse in patients with lupus nephritis who had a response to induction therapy.
296 IL-23R(-/-)MRL.lpr mice displayed attenuated lupus nephritis with a striking decrease in the accumula
297 consider the challenges in the management of lupus nephritis with respect to diagnosis and optimal th
299 as novel biomarkers of anti-GBM disease and lupus nephritis, with stronger correlation to renal dise
300 ancestry protects against the development of lupus nephritis, with the aim of exploring the genetic a
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