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1 ften associated with sensorineural deafness (Alport syndrome).
2 ults in a delayed onset renal disease called Alport syndrome.
3 OL4A3/A4/A5 genes, which are also mutated in Alport syndrome.
4 disease: Adriamycin-induced nephropathy and Alport Syndrome.
5 cell cycle indicator) of mice with X-linked Alport Syndrome.
6 clinical translation of chaperone therapy in Alport syndrome.
7 so non-diabetic glomerular disease including Alport syndrome.
8 ubular injury in the genetic murine model of Alport syndrome.
9 vestigation of its role in a murine model of Alport syndrome.
10 t baseline in mice with experimental DKD and Alport syndrome.
11 a mediator of disease progression in DKD and Alport syndrome.
12 titutions in X-linked and autosomal dominant Alport syndrome.
13 e useful for the early clinical treatment of Alport syndrome.
14 r vehicles in gene therapy for patients with Alport syndrome.
15 es to glomerular injury and renal decline in Alport Syndrome.
16 ds promise for progressive kidney disease in Alport syndrome.
17 ovision of appropriate genetic counseling in Alport syndrome.
18 the routine diagnosis of autosomal recessive Alport syndrome.
19 in this GBM architecture in a mouse model of Alport syndrome.
20 graft in transplanted patients with X-linked Alport syndrome.
21 support for testing cell-based therapies for Alport syndrome.
22 fibrosis in Col4A3-/- mice, a mouse model of Alport syndrome.
23 erring therapeutic benefit for patients with Alport syndrome.
24 failure in patients with autosomal recessive Alport syndrome.
25 ed in glomeruli of both humans and dogs with Alport syndrome.
26 the glomerular basement membrane (GBM) cause Alport syndrome.
27 omponent of two different diseases, PPCD and Alport syndrome.
28 ailure in Col4a3(-/-) mice, a model of human Alport syndrome.
29 y diseases, including disease progression of Alport syndrome.
30 alpha3, alpha4, alpha5, and alpha6 chains in Alport syndrome.
31 on of glomerulonephritis in a mouse model of Alport syndrome.
32 ne (GBM) at 2 weeks of age resemble those in Alport syndrome.
33 several features of the GBM abnormalities of Alport syndrome.
34 lpha4(IV) chains in the GBM of patients with Alport syndrome.
35 lomerular basement membrane of patients with Alport syndrome.
36 the basis for organ involvement in X-linked Alport syndrome, a disorder in which these genes are mut
38 n in the glomerular basement membrane causes Alport syndrome, a hereditary glomerulonephritis progres
41 L and fetal PregnAncy outcomes of women with AlpoRT syndrome), an international collaboration of 17 c
43 l4a3(-/-) mouse model of autosomal recessive Alport syndrome and increased proteinuria in Col4a5(+/-)
44 ssion of kidney disease in mice with DKD and Alport syndrome and increases lifespan in Alport syndrom
45 males; the treatment of males with X-linked Alport syndrome and individuals with autosomal recessive
47 s have been identified as critical causes of Alport syndrome and other genetic chronic kidney disease
48 ng as the gold standard for the diagnosis of Alport syndrome and the demonstration of its mode of inh
49 s of hearing loss include the COL4A5 gene in Alport syndrome and the PAX3 and MITF genes in Waardenbu
50 ts in this study had not been diagnosed with Alport syndrome, and consequently, many had not received
51 membrane diseases, Goodpasture's disease and Alport syndrome, and determined the long-awaited crystal
52 maly, Fechtner syndrome, Sebastian syndrome, Alport syndrome, and Epstein syndrome are commonly chara
53 hropathy, Denys-Drash, diabetic nephropathy, Alport syndrome, and other diseases related to the inter
54 ly high, and the autosomal dominant forms of Alport syndrome appear more frequently than reported pre
55 s from a patient who had autosomal recessive Alport syndrome (ARAS) and developed posttransplantation
56 ch, we show that men and women with X-linked Alport syndrome are at higher risk of related phenotypic
58 c disorders, such as retinitis pigmentosa or Alport syndrome, are caused by the co-inheritance of DNA
59 5 and COL4A6 on chromosome Xq22 give rise to Alport syndrome (AS) and associated diffuse leiomyomatos
60 hin-basement-membrane nephropathy (TBMN) and Alport syndrome (AS) are progressive collagen IV nephrop
63 , variants in COL4A3, COL4A4 or COL4A5 cause Alport syndrome (AS), a disorder of variable severity th
64 s in the COL4A5 gene, located at Xq22, cause Alport syndrome (AS), a nephritis characterized by progr
66 ane diseases, Goodpasture's disease (GP) and Alport syndrome (AS), and phenocopies of AS in knock-in
68 tion in women with COL4A3-5 related disease (Alport Syndrome, (AS)) in a large multicenter cohort.
70 models of triple-negative breast cancer and Alport Syndrome, both caused by miR-21 overexpression.
73 diabetic db/db mice, mice with experimental Alport syndrome, C57BL/6 mice, and STING knockout mice t
74 including defects in molecular filtration in Alport syndrome, cell differentiation in hereditary leio
75 glomerular disease, we used a mouse model of Alport syndrome (Col4a5 G5X) which were treated with met
79 rotein in podocytes in G1, in a patient with Alport Syndrome, confirming our proteomics data in the h
80 nes have been identified for Usher syndrome, Alport syndrome, deafness with fixation of the stapes an
81 tor of proteinuria and podocyte integrity in Alport Syndrome, decoupling proteinuria from kidney fail
82 play a renal phenotype strikingly similar to Alport syndrome: decreased glomerular filtration (leadin
83 ing a therapeutic strategy for patients with Alport syndrome depends on understanding these mechanism
84 of a 24-year-old male patient with X-linked Alport syndrome diagnosis due to a COL4A5 pathogenic mut
85 females that exhibit a mild form of X-linked Alport syndrome due to mosaic deposition of collagen alp
87 rogression of renal fibrosis in animals with Alport Syndrome, enhancing kidney function and improving
88 hogenesis of kidney injuries associated with Alport syndrome, especially in glomeruli, and suggested
89 onset and severity observed in patients with Alport syndrome, even for family members who share the s
92 the affected mothers of males with X-linked Alport syndrome from renal donation because of their own
93 ry) binding site for TCF8 in the promoter of Alport syndrome gene COL4A3, which encodes collagen type
94 ffolds and to develop therapies for managing Alport syndrome, Goodpasture's disease, and cancerous tu
95 nd developing therapies for diseases such as Alport syndrome, Gould syndrome, psoriasis, eye abnormal
97 ons in collagen genes and the development of Alport Syndrome has been clearly established and a numbe
102 ssion of glomerular diseases such as DKD and Alport syndrome, immortalized human and murine podocytes
104 y nephropathy (XLHN) are an animal model for Alport syndrome in humans and progressive chronic kidney
106 examined the phenotypic spectrum of X-linked Alport syndrome in men and women with a genotype-based a
108 ation of genetic testing to exclude X-linked Alport syndrome in some individuals with thin basement m
109 49R mutation is a relatively common cause of Alport syndrome in the western United States, in part be
110 t with skin and glomerulus of a patient with Alport syndrome in which the basement membranes are devo
111 l affected members of a family with X-linked Alport syndrome, including most mothers of affected male
134 te that the irregular GBM that characterizes Alport syndrome may be mediated, in part, by focal degra
135 ggesting that mutations in the NC1 domain in Alport syndrome may disrupt the assembly of the alpha3.a
136 ssociation with autophagic podocyte death in Alport syndrome mice and with apoptotic podocyte death i
144 r studies of a gene knockout mouse model for Alport syndrome noted thickening of strial capillary bas
145 finding could help explain the wide range of Alport syndrome onset and severity observed in patients
147 he diagnosis and management of patients with Alport syndrome or thin basement membrane nephropathy.
150 as diabetic nephropathy, chronic rejection, Alport syndrome, polycystic kidney disease, and inherite
151 3(-/-) mice, a model for autosomal recessive Alport syndrome, progress to renal failure significantly
153 t collagen type 4 alpha3-deficient mice with Alport syndrome-related progressive CKD displayed system
157 -scanning electron microscopy to investigate Alport syndrome, the commonest monogenic glomerular dise
158 dney phenotypes found in human patients with Alport Syndrome through albuminuria and GFR measurements
159 e were bred with Col4a3-/- mice, a model for Alport syndrome, to determine whether gelB influences th
160 collagen (Col4A3 knockout mice), a model for Alport syndrome, transplantation of wild-type bone marro
161 alpha 5(IV), which is not made in autosomal Alport syndrome (two pathogenic variants in trans or bia
164 bodies from renal transplant recipients with Alport syndrome was decreased, whereas epitope binding t
166 en Variation Database in males with X-linked Alport syndrome were correlated with age at kidney failu
167 ffecting Gly (n = 304) in autosomal dominant Alport syndrome were correlated with the risk of haematu
168 th X-linked and autosomal-recessive forms of Alport syndrome were examined by immunofluorescence for
169 h as steroid-resistant nephrotic syndrome or Alport syndrome were often the primary clinical diagnosi
171 merular basement membrane lesions typical of Alport syndrome were significantly more frequent in homo
172 a range of hereditary human diseases such as Alport syndrome, which is caused by defects in the genes
173 Variants in COL4A3, COL4A4, and COL4A5 cause Alport syndrome, which is characterized by abnormal asse
175 col4a4 depleted zebrafish larvae (a model of Alport syndrome) with captopril reduced proteinuria in t
176 ciated with the typical features of X-linked Alport syndrome, with a median age at kidney failure of
177 e pathogenesis of end-stage renal disease in Alport syndrome, with potentially important implications