コーパス検索結果 (1語後でソート)
通し番号をクリックするとPubMedの該当ページを表示します
1 while others result in a high risk (type 2B VHL disease).
2 he complex genotype-phenotype correlation in VHL disease.
3 plastic nature and integral association with VHL disease.
4 pVHL to the elongins plays a causal role in VHL disease.
5 o and is frequently mutated in families with VHL disease.
6 er exploration of this strategy for treating VHL disease.
7 ablishes NET as an independent tumor type of VHL disease.
8 d clear cell renal carcinoma associated with VHL disease.
9 re are no effective treatments available for VHL disease.
10 surveillance and early treatment for ocular VHL disease.
11 most common VHL point mutation in hereditary VHL disease.
12 nal cell carcinoma neoplasms associated with VHL disease.
13 orts therapeutic targeting of HIF2A early in VHL disease.
14 r those manifesting sporadic counterparts of VHL disease.
15 ts with renal cell carcinoma associated with VHL disease.
16 nly variants in VHL have been shown to cause VHL disease.
17 leading cause of morbidity and mortality in VHL disease.
18 tudinally to determine progression of ocular VHL disease.
19 onary abnormalities were detected in classic VHL disease.
20 t a family history or additional features of VHL disease.
21 art, explain organ-specific tumorigenesis in VHL disease.
22 preferentially and multifocally targeted in VHL disease.
23 than the general population of patients with VHL disease.
24 ochromocytoma pathogenesis in the setting of VHL disease.
25 not phaeochromocytoma (PHE) occur in type 1 VHL disease.
26 eochromocytoma without the other stigmata of VHL disease.
27 r deletion of this domain is associated with VHL disease.
28 evelopment of pancreatic cystic neoplasia in VHL disease.
29 eutic approaches targeting VHL deficiency in VHL diseases.
30 radically or as a part of von Hippel-Lindau (VHL) disease.
31 study them in a model of von Hippel Lindau (VHL) disease.
32 oma (RH) in families with von Hippel-Lindau (VHL) disease.
33 ne inactivation occurs in von Hippel-Lindau (VHL) disease.
34 inherited tumor syndrome, von Hippel-Lindau (VHL) disease.
36 issue-specificity of malignant conversion in VHL disease, a problem not easily explained by strict ge
37 are a cardinal feature of von Hippel-Lindau (VHL) disease, a dominantly inherited multisystem familia
38 o occurs in patients with von Hippel-Lindau (VHL) disease, a syndrome consisting of tumors caused by
40 may not be at risk for developing classical VHL disease and a further group may be mosaic for a germ
41 of 120 mg once daily for certain adults with VHL disease and adults with advanced renal cell carcinom
42 ith classic, heterozygous VHL mutations have VHL disease and are at high risk of multiple tumors (e.g
43 duce a mouse model that closely mimics human VHL disease and avoids embryonic lethality, we used Cre/
44 otype-phenotype correlations are emerging in VHL disease and can be rationalized if pVHL has function
45 reatment of ccRCCs arising in the setting of VHL disease and has advanced to phase III testing for sp
46 e of two other HIF pathway diseases: classic VHL disease and HIF-2alpha gain-of-function mutation.
47 might be implicated in tumorigenesis in both VHL disease and in other cancers with HIF upregulation.
48 mor suppressor gene, the gene inactivated in VHL disease and in sporadic clear-cell renal carcinomas,
49 suppressor gene is mutated in patients with VHL disease and in the majority of patients with sporadi
50 suppressor gene is mutated in patients with VHL disease and in the majority of patients with sporadi
52 tial mechanism for renal cyst development in VHL disease and may help in the understanding of how VHL
53 ngle haemangioblastoma, no family history of VHL disease and no evidence of retinal or abdominal mani
54 suppressor gene is linked to the hereditary VHL disease and sporadic clear cell renal cell carcinoma
55 ogenic ELOC variants being a novel cause for VHL disease and suggest that genetic testing for ELOC va
56 nal progression of ocular von Hippel-Lindau (VHL) disease and analysis of patient factors influencing
57 osomal dominant condition von Hippel-Lindau (VHL) disease and is implicated in most sporadic clear ce
58 e, involvement of the fellow eye with ocular VHL disease, and missense or protein-truncating germline
59 pe 2C VHL disease), in contrast to classical VHL disease, appear to be normal with respect to HIF reg
60 ing inherited missense mutations detected in VHL disease are within the elongin-binding domain of VHL
61 majority of patients with Von Hippel-Lindau (VHL) disease are affected by a VHL germline mutation inv
67 fan showed meaningful antitumour activity in VHL disease-associated CNS haemangioblastomas that was s
68 comparison of genomic profiles revealed that VHL disease-associated tumors are similar to a subgroup
69 es in 90 tumors, including both sporadic and VHL disease-associated tumors, in hopes of identifying n
70 ul antitumour activity in von Hippel-Lindau (VHL) disease-associated neoplasms in the ongoing, single
71 the cell responsible for von Hippel-Lindau (VHL) disease-associated tumor formation has been controv
72 uarters (73%) of participants without ocular VHL disease at baseline remained disease free at the end
76 or gene causes the familial cancer syndrome, VHL disease, characterized by a predisposition to renal
77 familial cancer syndrome, von Hippel-Lindau (VHL) disease, characterized by a predisposition to renal
79 n Hippel-Lindau (VHL) gene are pathogenic in VHL disease, congenital polycythaemia and clear cell ren
80 cerous lesions in kidneys from patients with VHL disease correlates with marked down-regulation of th
84 hould undergo genetic testing for pathologic VHL disease gene variants as part of an appropriate medi
87 diagnosis and treatment of individuals with VHL disease have been established in Great Britain, Denm
90 ndocrine tumors (NETs) in von Hippel-Lindau (VHL) disease have been reported, their pathological feat
91 reditary cancer syndrome, von Hippel-Lindau (VHL) disease, have shed new light on the molecular patho
92 tigeneration kindred with von Hippel-Lindau (VHL) disease in whom clinical or genetic screening led t
93 inked to familial pheochromocyctoma (type 2C VHL disease), in contrast to classical VHL disease, appe
96 patients with well-established diagnosis of VHL disease including development of characteristic tumo
97 similar to histologies seen in patients with VHL disease, including areas of distorted tubular struct
98 e of consensus, 2A); (2) patients at risk of VHL disease, including first-degree relatives of patient
100 au (VHL) protein function is a key driver of VHL diseases, including sporadic and inherited clear cel
101 baseline age, younger age at onset of ocular VHL disease, involvement of the fellow eye with ocular V
121 idney disease (ADPKD) and von Hippel-Lindau (VHL) disease lead to large kidney cysts that share patho
124 three groups of patients with no evidence of VHL disease, MEN 2 or NF1: Group A, eight kindreds with
125 (MEN 2) (MIM No 171400), von Hippel-Lindau (VHL) disease (MIM No 199300), and neurofibromatosis type
128 subspecialty training, with experience with VHL disease or RHs, or with both and ideally within the
129 e complex genotype-phenotype relationship of VHL disease or whether the other lesser or yet character
130 irst-degree relatives of patients with known VHL disease, or any patient with single or multifocal re
131 crodissected archival renal lesions from two VHL disease patients were studied for loss of heterozygo
135 pseudohypoxic diseases and propose that the VHL disease-phenotypic spectrum could be explained solel
141 ded: (1) individuals with known or suspected VHL disease should undergo periodic ocular screening (ev
143 anatomic and functional stability in ocular VHL disease status over a mean follow-up of 8.2 +/- 4.0
144 ctions of pVHL impact the development of the VHL disease stigmata; the elucidation of which would hav
145 on Hippel-Lindau (VHL) gene are the cause of VHL disease that displays multiple benign and malignant
146 pVHL have been determined to be causative of VHL disease through the disruption of HIFalpha degradati
147 mas (RCH) associated with von Hippel-Lindau (VHL) disease treated with systemic sunitinib malate, an
149 errant methylation of the von Hippel-Lindau (VHL) disease tumor suppressor gene in a human clear cell
152 ain insights into the pathogenesis of RCC in VHL disease we compared gene expression microarray profi
153 with expertise in organ-specific features of VHL disease were tasked with development of evidence-bas
154 approved for ccRCCs arising in patients with VHL disease, which is caused by germline VHL mutations.
155 n Hippel-Lindau (VHL) gene function leads to VHL disease, which is characterized by vascular tumors o
156 indau (VHL) tumor suppressor mutations cause VHL disease, which predisposes individuals to kidney can
157 ortality in patients with von Hippel-Lindau (VHL) disease, which is caused by germ line mutations tha
158 sult in a low risk of kidney cancer (type 2A VHL disease) while others result in a high risk (type 2B
161 ealed that VHL missense mutations that cause VHL disease without renal cancer, such as Tyr98His and T