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1 PTCL was not pathognomonic for any specific disease.
2 PTCL-C/C3 was found in acute (C, 20%; C3, 7%) and chroni
3 PTCL-C/C3 was rare in native kidneys (C, 6%; C3, 1%), as
4 PTCL-C3 was more predominant in cases with antibody-medi
5 PTCL-unclassifiable was molecularly heterogeneous, but w
6 PTCLs showed phenotypic features of activated NKT cells,
7 The vast majority of LEF-1+ and/or TCF-1+ PTCL (34 of 39 or 87%) exhibit a composite Th1 T-cell-li
13 rearrangements were seen in 11 (5.8%) of 190 PTCLs and were associated with inferior overall survival
20 t clones could be identified in 65 out of 76 PTCL cases (86%) with adequate TCR transcript expression
22 ration of duvelisib to mice engrafted with a PTCL patient-derived xenograft resulted in a shift among
30 ecular comparison of mouse and human CLL and PTCL reveals significant overlaps and identifies putativ
31 eviously unsuspected link between Lin28b and PTCL, and provide a unique animal model for the study of
34 ymphomas [TCRBCLs] have been misdiagnosed as PTCLs in the past) and because its correlation with othe
35 This study is the largest population-based PTCL cohort reported so far and provides important infor
36 ypes of PTCL and the prognostication of both PTCL-not otherwise specified (PTCL-NOS; n = 26) and angi
45 ents with AITL (n = 72) or other TFH-derived PTCL (n = 13) by targeted deep sequencing of a gene pane
46 y-seven percent of morphologically diagnosed PTCL-NOS cases were reclassified into other specific sub
51 than 2 (poor prognosis), the 5-year FFS for PTCL and BCLCL is 11% and 35%, respectively (P = .044),
52 ater than 2 (poor prognosis), 5-year FFS for PTCL and BCLCL is 26% and 38%, respectively (P = .03), a
53 than 3 (good prognosis), the 5-year FFS for PTCL and BCLCL is 49% and 64%, respectively (P = .001),
54 than 3 (good prognosis), the 5-year FFS for PTCL and BCLCL is 56% and 69%, respectively (P = .01), a
55 a diagnostic and prognostic significance for PTCL, offering new tools for patient care and follow-up.
56 e of AHCT as early consolidation therapy for PTCL patients who are chemosensitive after induction che
57 The 5-year failure-free survival (FFS) for PTCLs and B-cell large-cell lymphomas (BCLCLs) is 38% an
59 ed the distinction of ALK-negative ALCL from PTCL NOS, especially from some CD30+ PTCL NOS with uncer
61 nest peripheral T-cell lymphomas (PTCLs; ie, PTCL not otherwise specified [NOS], angioimmunoblastic T
65 tologous stem-cell transplantation (ASCT) in PTCL, the Nordic Lymphoma Group (NLG) conducted a large
66 smal outcome of conventional chemotherapy in PTCL patients, these data suggest the hypothesis that th
68 pathway is highly vulnerable to THZ1 even in PTCL cells that carry the activating STAT3 mutation Y640
70 ddition, LIN28B is overexpressed 7.5-fold in PTCL patient samples compared with activated CD4(+) cell
73 s not associated with an improved outcome in PTCL-NOS or angioimmunoblastic type, but was associated
75 ion of genes in the TCR signaling pathway in PTCL, a common feature of chronically activated T cells.
79 e present study indicate that CNS relapse in PTCL occurs at a frequency similar to what is seen in ag
84 s, the histologic subtypes enrolled included PTCL not otherwise specified (n = 13), angioimmunoblasti
85 ents with PTCL of various subtypes including PTCL NOS, angioimmunoblastic, ALK-negative anaplastic la
86 ions made by the collaborative International PTCL Project, discusses prognostic issues and gene expre
88 rprisingly, none of the 21 cases of Th2-like PTCL studied, all cases of anaplastic large cell lymphom
91 to an aggressive peripheral T-cell lymphoma (PTCL) characterized by widespread infiltration of parenc
97 ell clonality of peripheral T-cell lymphoma (PTCL) is routinely evaluated with a PCR-based method usi
98 veloped model of peripheral T cell lymphoma (PTCL) using the ITK-SYK fusion gene should serve as a po
99 bset of cases of peripheral T cell lymphoma (PTCL), 39 of 81 cases (48%), are immunoreactive for LEF-
112 nd CD8-positive peripheral T cell lymphomas (PTCL) in EmuSRalpha-tTA;Teto-Cre;Dnmt3a(fl/fl); Rosa26LO
113 ne treatment of peripheral T-cell lymphomas (PTCL) involves regimens such as cyclophosphamide, doxoru
125 e proportion of peripheral T-cell lymphomas (PTCLs) with poorly understood pathogenesis and unfavorab
129 g the commonest peripheral T-cell lymphomas (PTCLs; ie, PTCL not otherwise specified [NOS], angioimmu
130 d patients with peripheral T-cell lymphomas (PTCLs; n = 35), specifically angioimmunoblastic T-cell l
131 r peripheral T-cell non-Hodgkin's lymphomas (PTCLs) has been inconsistently reported in part because
132 relapsed or refractory PTCL across all major PTCL subtypes, regardless of the number or type of prior
133 r microenvironment were identified for major PTCL-entities, including 114 angioimmunoblastic T-cell l
134 ging high response rate across the two major PTCL subtypes, independent of age and prior treatment, w
135 hat p53-deficient mice also developed mature PTCLs that did not originate from conventional T cells b
136 capillary basement membrane multilamination (PTCL) is a hallmark of antibody-mediated chronic renal a
138 PTCL ex vivo culture and in two STAT3-mutant PTCL xenografts, delineating a potential targeted agent-
139 an intention-to-treat analysis in 252 nodal PTCL and enteropathy-associated T-cell lymphoma patients
142 cal characteristics of the most common nodal PTCLs by focusing on the contribution given by high-thro
147 sion profiling was performed on 144 cases of PTCL and natural killer cell lymphoma and robust molecul
150 y reported in part because the definition of PTCL has been imprecise (eg, T-cell-rich B-cell non-Hodg
152 nic whites, blacks had a higher incidence of PTCL not otherwise specified (PTCL-NOS), anaplastic larg
154 L, and lends support to a bipartite model of PTCL development, based on expression of activation mark
155 Based on synergy in preclinical models of PTCL, we initiated a phase 1 study of pralatrexate plus
156 f the genetics and molecular pathogenesis of PTCL, with a resulting paucity of molecular targets for
163 on, GATA-3 expression identified a subset of PTCL, NOS with distinct clinical features, including inf
167 ul in both the diagnosis of some subtypes of PTCL and the prognostication of both PTCL-not otherwise
168 g can serve to identify specific subtypes of PTCL, and lends support to a bipartite model of PTCL dev
169 rrently an exciting time in the treatment of PTCL due to the advent of recently approved drugs as wel
173 GATA-3 expression was observed in 45% of PTCLs, not otherwise specified (PTCL, NOS) and was assoc
174 , providing further evidence that a group of PTCLs NOS shares a Tfh derivation with but is distinct f
177 ied (PTCL-NOS), but were absent in all other PTCL entities, with the exception of 2 of 10 cases of en
178 naplastic large-cell lymphomas, 57% of other PTCL entities were CD30-positive at a 5% threshold.
181 limited number of Native American patients, PTCL subtype frequencies in this group were distinct but
184 mproves lymphoma growth control in a primary PTCL ex vivo culture and in two STAT3-mutant PTCL xenogr
185 isib in patients with relapsed or refractory PTCL (n = 16) and CTCL (n = 19), along with in vitro and
186 city in patients with relapsed or refractory PTCL across all major PTCL subtypes, regardless of the n
187 city in patients with relapsed or refractory PTCL across the major subtypes, irrespective of number o
188 durable responses in relapsed or refractory PTCL irrespective of age, histologic subtypes, amount of
191 ration for patients with relapsed/refractory PTCL, exhibiting response rates of 25% and 29% respectiv
194 subgroups can be identified in the remaining PTCL-NOS cases characterized by high expression of eithe
198 ron microscopy (terminology: PTCL-C, severe; PTCL subgroup C3, very severe multilamination; see Mater
199 ed in 45% of PTCLs, not otherwise specified (PTCL, NOS) and was associated with distinct molecular fe
201 r incidence of PTCL not otherwise specified (PTCL-NOS), anaplastic large-cell lymphoma, and adult T-c
202 al T-cell lymphoma, not otherwise specified (PTCL-NOS), but were absent in all other PTCL entities, w
203 cation of both PTCL-not otherwise specified (PTCL-NOS; n = 26) and angio-immunoblastic T-cell lymphom
205 Patients and Methods Patients with systemic PTCL newly diagnosed from 2000 to 2012 and treated with
207 ecimens by electron microscopy (terminology: PTCL-C, severe; PTCL subgroup C3, very severe multilamin
208 discriminated some T-follicular helper (Tfh) PTCL NOS from AITL, providing further evidence that a gr
209 ation, three times more frequent in CLL than PTCL and correlated better with gene expression than hyp
218 isting of patients with previously untreated PTCL or NKTCL who were diagnosed between 1990 and 2002.
220 f a total of 560 evaluable patients, 68 were PTCLs (12%) and the remaining 492 (88%) were B-cell non-
221 AITL, TET2 mutations were more frequent when PTCL-NOS expressed T(FH) markers and/or had features rem
222 ymphomagenesis and cell-of-origin from which PTCLs arise is crucial for the development of efficient
225 The overall response rates in patients with PTCL and CTCL were 50.0% and 31.6%, respectively (P = .3
226 patients despite the fact that patients with PTCL are known to have a worse outcome compared with B-c
228 owever, more than one third of patients with PTCL remain in remission 2 years after diagnosis with en
229 present study, a cohort of 122 patients with PTCL was collected from a multicentric T-cell lymphoma c
233 ture could be used to stratify patients with PTCL-not otherwise specified for novel and risk-adapted
241 ty-eight patients (48 men and 30 women) with PTCL seen at a single institution between 1985 and 1995
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