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1 n were enrolled onto this single-institution phase I study.
2 antitumor activity were demonstrated in this phase I study.
3 nd gemcitabine has been evaluated in a prior phase I study.
4 therapy enrolled in this 28-day, open-label, phase I study.
5 /IV NSCLC were enrolled to this multicenter, phase I study.
6 previously entered at least one child into a phase I study.
7 d granulocyte-colony-stimulating factor in a phase I study.
8 Twenty-four patients were treated in the phase I study.
9 refractory solid tumors were enrolled onto a phase I study.
10 bstantial clinical activity was seen in this phase I study.
11 ified the process of dose escalation in this phase I study.
12 stinal graft-versus-host disease (GVHD) in a phase I study.
13 in a patient with ACC who was enrolled in a phase I study.
14 Eighteen patients are assessable on this phase I study.
15 an cancer patients that was noted during the phase I study.
16 ouble-blinded, placebo-controlled, crossover phase I study.
17 nitourinary (GU) tumors in a dose-escalation phase I study.
18 ion with pembrolizumab was investigated in a phase I study.
19 afe, well tolerated, and immunogenic in this phase I study.
20 center, randomized, double-blind, controlled phase I study.
21 maximum-tolerated dose derived in a previous phase I study.
22 ent glioblastoma multiforme (GBM) in a prior phase I study.
23 double-blind, randomised, placebo-controlled phase I studies.
24 or activity in taxane-refractory patients in phase I studies.
25 ncer treated in two ongoing, dose-escalating phase I studies.
26 ( P =.01 and.004, respectively) was seen in phase I studies.
27 UC, SUV, and Cmax were observed in tumors in phase I studies.
28 riguing clinical safety and efficacy data in phase I studies.
29 urther evidence for its poor efficacy in two phase I studies.
30 vanced non-small-cell lung cancer (NSCLC) in phase I studies.
31 l development, with the majority still being phase I studies.
32 and inflexible study designs of traditional Phase I studies.
33 mising candidate for evaluation in pediatric phase I studies.
34 e margin assessment, but data are limited to phase-I studies.
35 of FAPbI3 between the alpha-phase and delta-phase is studied.
37 ulticenter, double-blind, placebo-controlled phase I study, 13 subjects were randomized to single-dos
45 citabine has shown some promising results in phase I studies and is being investigated in phase II tr
46 PH-797804 has met safety criteria in human phase I studies and is under clinical development for se
48 clinical toxicology, human pharmacokinetics, phase I studies, and activity against gastric carcinoma
49 lete and partial responses were seen in this phase I study, and clinical response appears related to
55 ring for 15 years in patients from the START phase I study at Nationwide Children's Hospital in Colum
57 e or a lot of pressure to participate in the phase I study because their cancer was growing, whereas
61 he Children's Cancer Group (CCG) undertook a phase I study (CCG-0922) to determine a tolerable dose o
74 sed therapy, three of whom were treated in a phase I study designed to establish the maximum tolerate
79 made one of three decisions (enrollment on a phase I study, do not resuscitate status, or terminal ca
80 XPLORE (iExoKras(G12D) in Pancreatic Cancer) Phase I study employed a non-randomized single-arm class
100 linositol 3-kinase-delta, was evaluated in a phase I study in 64 patients with relapsed indolent non-
103 controlled, sequential, rising multiple-dose phase I study in patients with moderate-to-severe psoria
105 m an open-label, dose-finding, seven-cohort, phase I study in which patients with symptomatic, multic
106 lticenter, double-blind, placebo-controlled, phase I study included adults who had been maintained on
113 e initiated a multi-institutional single-arm phase I study (NCT02599454) enrolling twenty patients wi
114 n-human, open-label, multicenter, three-part phase I study (NCT02783300) in patients with solid tumor
121 ly by an overall reduction in recruitment to phase I studies of 20%, more than half of whom would in
123 A criteria have routinely been enrolled onto phase I studies of antineoplastics without clinically me
124 monstrated efficacy and acceptable safety in phase I studies of heavily pretreated patients with HER2
125 dynamic biomarkers in cancer patients in two phase I studies of MLN8054, a small-molecule inhibitor o
128 sistent with previously reported values from phase I studies of the drug given as a 24-hour IV infusi
130 aneously) on mast cells and melanocytes in a phase I study of 10 patients with advanced breast carcin
131 uccessful preclinical imaging, a prospective phase I study of 10 patients with multiple myeloma was p
133 d radiation dose estimates of this tracer, a Phase I study of 62Cu-PTSM was performed using whole-bod
138 ising results have been reported in an adult phase I study of ABT-510, a peptide derivative of the na
141 Early observations of clinical benefit in a phase I study of cabozantinib, which included patients w
142 siency for this upregulation, we performed a phase I study of capecitabine in combination with weekly
147 mporary chemotherapy regimen, we conducted a phase I study of docetaxel and samarium-153 ((153)Sm) le
148 patients with advanced melanoma treated in a phase I study of dose escalation of vemurafenib (PLX06-0
152 n, showed promising efficacy and safety in a phase I study of heavily pretreated patients with KMT2A-
158 titumor activity in preclinical models and a phase I study of patients with dedifferentiated liposarc
164 ies that required RT were enrolled onto this phase I study of standard chest radiation (30 daily 2-Gy
167 ation therapy (PATRIOT) was a first-in-human phase I study of the oral ATR (ataxia telangiectasia and
171 edly with prolonged exposure, we performed a phase I study of weekly XR5000 by 120-hour continuous in
174 We report results from a first-in-human phase-I study of fianlimab and cemiplimab safety and eff
175 or currently under investigation in multiple phase I studies on various malignancies, and its clincal
176 ated clinically relevant improvement in this phase I study on this small group of patients with activ
180 1.46 L x min(-1) x m(-2) in pre-phase I and phase I studies, respectively) with the production of se
186 erable than twice-weekly dosages used in the phase I study, so 3 ug/kg every 2 weeks was the phase II
189 bial activity, and clinical response in this Phase I study suggest that this tetracycline-containing
200 itide 3-kinase-delta,-gamma, in RR iNHL in a phase I study, the safety and efficacy of duvelisib mono
201 cademia often partner for the performance of phase I studies, their administrative processes are gene
203 conducted a first-in-man (to our knowledge) phase I study to determine the dose-limiting toxicities
209 These studies support the initiation of a phase I study to evaluate the safety and potential effic
217 A multicenter, open-label, repeated-dose, phase I study was conducted to assess the safety, tolera
239 (collected through gastric aspiration in the phase I study) was quantified using R5 and G12 monoclona
241 afenib was observed in sarcoma patients in a phase I study, we performed a multicenter phase II study
243 Serum levels of flavopiridol obtained during phase I studies were sufficient to inhibit in vitro canc
247 inal illnesses who enroll as participants in phase I studies, which assess the toxicity and dosing of
250 teria may be good candidates for solid tumor phase I studies with single-agent molecular or cytotoxic
255 in vitro and in healthy participants in the phase I study, with and without pretreatment with a prot
256 ificantly decrease the duration of pediatric phase I studies without increasing the risk of toxicity.