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1 s in nearly 40% of tumors, most of which are hyperdiploid.
2 showed that more than 95% of the cells were hyperdiploid.
3 lonal proteins and is much less likely to be hyperdiploid.
4 NA content, whereas the remaining cases were hyperdiploid.
5 an intervening mitosis) and the cells become hyperdiploid.
6 %], TCF3-PBX1 [6.9%], PAX5 P80R [4.1%], high-hyperdiploid [6.9%]); 50.2% had high-risk genotypes with
8 enetic risk factors among patients with high hyperdiploid acute lymphoblastic leukaemia treated on UK
9 basis for the excellent clinical outcome of hyperdiploid acute lymphoblastic leukemia (ALL), defined
10 cer and revealed minimal residual disease in hyperdiploid acute lymphocytic leukemia, providing "proo
11 When stratified by subtype characteristics, hyperdiploid ALL (74 cases) was associated with 6.26 tim
12 reatest effect on MTXPG(1-7) accumulation in hyperdiploid ALL (median: 3,919 v 2,417 pmol/10(9) cells
15 cumulation of MTX polyglutamates (MTX-PG) in hyperdiploid ALL and lower accumulation in T-lineage ALL
16 31 (rs76925697, P = 2.11 x 10(-8)), for high-hyperdiploid ALL at 5q31.1 (rs886285, P = 1.56 x 10(-8))
17 r (P =.0013), with the highest expression in hyperdiploid ALL blasts with 4 copies of chromosome 21.
20 10(-9), OR = 1.62) but also distinguished B-hyperdiploid ALL from other subtypes (rs10821936, P = 1.
23 ith monosomy 7/5q- were associated with high hyperdiploid ALL karyotypes, whereas 11q23/MLL-rearrange
25 ata show that approximately 25% (6 of 25) of hyperdiploid ALL samples possess FLT3 mutations, whereas
29 was shown to be specifically associated with hyperdiploid ALL, whereas the rs3824662-associated risk
35 gnificant expression differences between the hyperdiploid and diploid groups on other chromosomes (mo
37 d by subtype, with a lower frequency in high-hyperdiploid and higher frequency in ETV6-RUNX1 fusion A
39 ically, MM is categorized into two subtypes: hyperdiploid and non-hyperdiploid tumors, with distinct
42 onging to the BCR::ABL1+, ETV6::RUNX1+, high hyperdiploid, and recently discovered DUX4-rearranged (D
44 found depletion of transplanted E2A-PBX1 and hyperdiploid B-ALL cells in wild-type recipients and in
45 ents, 93% with ETV6::RUNX1 and 54% with high-hyperdiploid B-ALL experienced excellent outcomes with a
47 lent outcomes, except for NCI high-risk high-hyperdiploid B-ALL patients with slow MRD response, who
48 high-risk patients with ETV6::RUNX1 or high-hyperdiploid B-ALL who received SJ low-risk therapy had
53 ren, with significantly higher expression in hyperdiploid B-lineage ALL (median, 11.3) compared with
54 a mechanism for greater MTX accumulation in hyperdiploid B-lineage ALL and indicate that lineage dif
55 er LDMTX, MTX-PG accumulation was highest in hyperdiploid B-lineage ALL with 4 copies of chromosome 2
56 .2 deletions are highly enriched in the high-hyperdiploid BCP ALL subtype (frequency 3.9% vs 0.5% in
57 2A-PBX1 fusion, and were less likely to have hyperdiploid blast cells, a favorable prognostic factor
59 strikingly, patients were less likely to be hyperdiploid by DNA content analysis (n = 251, 14% vs 62
63 Furthermore, Hi-C of a limited number of hyperdiploid childhood ALL cases revealed that 2/4 cases
64 potential explanation for the prevalence of hyperdiploid chromosome number and centrosome amplificat
66 78% of IgL-MYC translocations co-occur with hyperdiploid disease, a marker of standard risk, suggest
67 .6); United Kingdom ALL study group low-risk hyperdiploid, either trisomy of chromosomes 17 and 18 or
69 he validation cohort, patients with the high hyperdiploid good risk profile had an improved response
76 , TEL-AML1, MLL rearrangements, BCR-ABL, and hyperdiploid karyotypes with more than 50 chromosomes.
77 condensation chromosomes frequently display hyperdiploid karyotypes, indicating that delay in replic
78 ciated with age over 10 years (p=0.003), non-hyperdiploid leukaemia (p=0.031), and T-cell immunopheno
82 distinguish patients with low- and high-risk hyperdiploid MM and identify patients with prolongation
83 reported in the literature, suggesting that hyperdiploid MM may originate early during disease evolu
84 ) is remarkably similar to the percentage of hyperdiploid MM reported in the literature, suggesting t
86 e trisomies from a 3-chromosome combination, hyperdiploid myeloma can be detected with high specifici
87 Patients with ETV6::RUNX1 (n = 222) or high-hyperdiploid (n = 296) B-ALL had 5-year event-free survi
89 c leukemia (ALL) histology (P = 0.008), high hyperdiploid (P < 0.0001), and translocation-negative (P
90 high prevalence of IgH translocations and a hyperdiploid pathway associated with multiple trisomies
96 cantly higher for patients whose tumors were hyperdiploid rather than diploid (EFS, 82% +/- 20% v 37%
101 nger than 547 days with favorable histology, hyperdiploid stage 4, or unfavorable histology stage 3 t
103 ur hyperdiploid HMCLs correlated better with hyperdiploid than non-hyperdiploid patient samples.
104 th a balanced t(1;19) were less likely to be hyperdiploid than patients with an unbalanced der(19)t(1
105 uroblastoma Pathology Classification (INPC), hyperdiploid tumors (12-18mo/Stage4/FavBiology), and 365
106 ses in the 12- to 18-month-old subgroup with hyperdiploid tumors (4-year EFS, 92.9% +/- 7.2%) compare
107 d 87% +/- 9%, respectively for patients with hyperdiploid tumors and 25% +/- 11% and 38% +/- 12% for
108 with stage D NB (P <.001); and patients with hyperdiploid tumors had better outcome than those with d
111 ied neuroblastoma, outcomes of patients with hyperdiploid tumors were statistically, significantly be
112 an SE of 10%; patients with MYCN-amplified, hyperdiploid tumors, 46% with an SE of 15%; and patients
113 arm B were patients with MYCN nonamplified, hyperdiploid tumors, 86% with an SE of 3%; patients with
114 ized into two subtypes: hyperdiploid and non-hyperdiploid tumors, with distinct chromosomal character