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1 iffered from the expression profile in renal oncocytoma.
2 is up-regulated in RCC and down-regulated in oncocytoma.
3 highly similar but benign counterpart, renal oncocytoma.
4 pe 2 papillary, chromophobe, TFE3, TFEB, and oncocytoma.
5 ignant renal cell carcinoma (RCC) and benign oncocytoma.
6 ing diversion of tumor progression to benign oncocytomas.
7 y be a molecular basis for the occurrence of oncocytomas.
8 rentiation between clear cell carcinomas and oncocytomas.
9 f 12 (25%) clear cell RCCs, but 0 of 4 renal oncocytomas.
10 in was detected primarily in chromophobe RCC/oncocytomas.
11 mples, including nonpapillary, papillary and oncocytomas.
12 multiple chromosomal arms in CDCs and renal oncocytomas.
13 , concordantly with the persistence of human oncocytomas.
14 %) sporadic renal tumors: 2 of 7 (29%) renal oncocytomas, 1 of 9 (11%) chromophobe RCCs, 4 of 11 (36%
15 x10(-3) mm(2)/s; p<0.05 and in patients with oncocytoma - 2.75+/-0.27x10(-3) mm(2)/s vs. 2.11+/-0.25x
19 enal tumors of different cell types: 7 renal oncocytomas, 9 chromophobe renal cell carcinomas (RCCs),
20 of the renal cell carcinoma, 5 patients with oncocytoma and 5 patients with angiomyolipoma (AML).
21 er excluding benign renal neoplasia (such as oncocytoma and angiomyolipoma), alterations of BAP1, FLC
24 of mtDNA variation has been demonstrated in oncocytoma and prostate cancer, while mtDNA variation ha
25 echanisms of OXPHOS exist in chRCC and renal oncocytoma and that expression levels of ETC complex sub
26 itary kidney cancer syndromes, like familial oncocytoma and the Birt-Hogg-Dube syndrome, have been id
27 can be used to differentiate solid RCCs from oncocytomas and characterize the histologic subtypes of
28 167 primary human tumors that included renal oncocytomas and non-clear cell renal cell carcinomas (nc
30 ondria with negative charge potential (e.g., oncocytomas and other benign/indolent lesion) and do not
31 he five false-positive masses included three oncocytomas and two Bosniak category 3 cystic lesions.
32 04 to April 2019 were searched for keywords "oncocytoma" and "oncocytic neoplasm" and compared with s
33 in BHD(d/+) mice including oncocytic hybrid, oncocytoma, and clear cell with concomitant loss of hete
36 f 170 clear cell RCCs, 57 papillary RCCs, 49 oncocytomas, and 22 chromophobe RCCs were evaluated for
37 uding pyelonephritis, renal cysts, adenomas, oncocytomas, and normal kidney, did not express the MN/C
40 group of nonconcerning lesions (15/36), with oncocytoma as the predominant histologic type (n = 6).
41 To assess the reliability of a diagnosis of oncocytoma based on image-guided percutaneous renal mass
42 RCCs were distinguished from chromophobe RCC/oncocytomas based on large-scale gene expression pattern
44 y chromophobe renal cell carcinoma and renal oncocytoma but not by clear cell renal cell carcinoma or
45 ive phosphorylation (OXPHOS) system in renal oncocytoma, but are less frequently observed in chRCC.
46 e further distinguished from chromophobe RCC/oncocytomas by overexpression of vimentin and class II m
47 athological subtypes of renal tumors (benign oncocytoma, clear cell, papillary, and chromophobe RCC)
50 ilies (chromophobe: amylases 1A, 1B, and 1C; oncocytoma: general transcription factors 2H2, 2B, 2C, a
53 iomyoma renal cell carcinoma, familial renal oncocytoma, hereditary nonpolyposis colon cancer, and me
56 ized as oncocytoma or likely oncocytoma were oncocytomas in 16 of 17 masses (94%) based on surgical p
57 RCCs including papillary, nonpapillary, and oncocytomas in order to determine whether allelic loss c
58 of clear cell RCCs was greater than that of oncocytomas in the corticomedullary (125 HU vs 106 HU, P
60 th the most common benign renal tumor, renal oncocytomas, may be overtreated with surgical resection
61 139 patients; 149 masses were categorized as oncocytoma (n = 107), likely oncocytoma (n = 12), oncocy
62 categorized as oncocytoma (n = 107), likely oncocytoma (n = 12), oncocytic neoplasm (n = 28), and in
63 even segments), clear cell (three segments), oncocytoma (nine segments), and papillary type 2 (two se
66 ients with RCC but is nearly undetectable in oncocytoma, other tumors, and urinary tract inflammation
67 t helped to discriminate clear cell RCC from oncocytoma, papillary RCC, and chromophobe RCC with accu
69 ma (RCC) specimens (chromophobe, clear cell, oncocytoma, papillary type 1, and papillary type 2) usin
71 d tumor fate from adenomas and carcinomas to oncocytomas-rare, predominantly benign tumors characteri
72 l chromophobe renal cell carcinoma and renal oncocytoma seem to originate from the A-type intercalate
73 e 26 benign small renal masses (including 18 oncocytomas, seven lipid-poor angiomyolipomas, and one h
74 ns; 24 (12%), chromophobe adenomas; 14 (7%), oncocytomas; six (3%), lipid-poor angiomyolipomas; and 1
78 e chromophobe RCC, five sarcomatoid RCC, two oncocytomas, three transitional cell carcinomas (TCC) of
80 family of neoplasms ranging from the benign oncocytoma, to the indolent papillary and chromophobe ca
87 hree families classified with familial renal oncocytoma were identified with BHD mutations, which rep
88 d masses categorized as oncocytoma or likely oncocytoma were oncocytomas in 16 of 17 masses (94%) bas
89 ations, chromophobes, clear-cell tumors, and oncocytomas were composed exclusively of noncoding DNA.
92 llecting duct carcinomas (CDCs) and 13 renal oncocytomas were studied using highly informative micros
94 d to derive a cohort of 298 cases of RCC and oncocytoma with preoperative multiphasic multidetector C