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1 nts had dose-limiting toxicities in cycle 1 (phase I).
2 l limbic/paralimbic and neocortical regions (phase I).
3 ntal and parietal regions, as early as acute phase I.
4 ate that water dynamics in the normal gyroid phase is 1 order of magnitude slower than that in bulk w
6 olling structure and properties of the C-S-H phase is a challenge, due to the complexity of this hydr
7 olated and cold molecular complex in the gas-phase is a fundamental measure of the strength of the in
9 phization of dc-Si via an intermediate dh-Si phase is a previously unknown pathway of solid-state amo
11 d hcp high-entropy alloy reveal that the fcc phase is a stable polymorph at high temperatures, while
17 of polyphosphate observed at the stationary phase is added to cells at mid-log, proliferation is hal
18 The compositional range of the icosahedral phase is Al68-73Fe11-16Cu10-12Cr1-4Ni1-2 and extends tow
23 organic-in-water emulsion, where the organic phase is an ionic liquid [P6,6,6,14][FAP]/toluene mixtur
24 uggest that stacking disorder and mixture of phases is an effective mechanism to modify the anisotrop
31 ly, while application of oxidative stress to phase I and II iron-limited cells similarly oxidized the
33 g from preclinical studies to the designs of phase I and IIa clinical trials involving direct intrasp
35 onmental Protection Agency's (EPA's) ToxCast Phase I and Phase II libraries, which contain 292 and 67
36 Flavonoids are extensively metabolized by phase I and phase II metabolism (which occur predominant
38 tory criteria, suggesting that comparison of phase I and phase II titers could be reexamined as a sur
39 metry we identified 33 AMI metabolites (both Phase I and Phase II), occurring mostly in bile, liver a
41 Patients were examined at 2 to 3 days (acute phase I) and 8 to 10 days (acute phase II), and some of
42 fined two distinct phases: short-term (<3 d, phase I) and chronic (>5 d, phase II) iron limitation.
43 ry end points were maximum-tolerated dosage (phase I) and complete remission rate within the first tw
47 ural characterization of proteins in the gas phase is becoming increasingly popular, highlighting the
48 phase II and III trials citing the original phase I biomarker studies to determine the impact on dru
49 t has been proposed that the superconducting phase is body-centered cubic H3 S (Im3 m, a=3.089 A) res
51 3/KHCO3 in the lower phase, HEP in the upper phase is capable of being regenerated from its sulfite/s
52 activate from latency and re-enter the lytic phase is challenging to investigate and control, it is k
53 scattering studies reveal that this complex phase is characterized by a gigantic tetragonal unit cel
55 pen-label, parallel-cohort, dose-escalation, phase I CheckMate 016 study evaluated the efficacy and s
56 en C. elegans and one zebrafish assay across Phase I chemicals (79%) than with a second zebrafish ass
63 , which is currently being investigated in a phase I clinical trial (NCT02237638), can potentially ou
66 s Administration (TGA) prior to conducting a Phase I clinical trial evaluating the safety and tolerab
68 vivo in preclinical animal models, and in a phase I clinical trial in patients with advanced cancers
73 ions in vivo supported the initiation of two phase I clinical trials at the NCI to evaluate clofarabi
74 Patients with advanced sarcoma treated on phase I clinical trials had a clinical benefit rate of 3
75 as a clinical candidate for advancement into phase I clinical trials to assess safety and tolerabilit
76 cleotide-based therapies have been tested in phase I clinical trials, a quarter of which have reached
84 the sigma phase grows directly when the BCC phase is cooled below TOOT and vice versa upon heating.
85 which the transition through mitosis and G1 phase is crucial for establishing a window of opportunit
90 of single-crystalline ReS2 in a distorted 1T phase is determined at room temperature for the in-plane
91 ndings do not support the concepts that this phase is devoid of markers of disease progression or tha
93 ntial, and the perspective of building novel phases is directly linked to the control of tuning param
94 rs old with relapsed/refractory BCP-ALL in a phase I dosage-escalation part and a phase II part, usin
96 Purpose The clinical activity observed in a phase I dose-escalation study of concurrent therapy with
101 is generally accompanied by formation of new phases (i.e. LnAlO3, Ln2O3), and therefore inclusion of
102 wer orientation were carried out to identify phases (i.e. the timing of peaks) by subdividing time se
103 sition between the two structurally distinct phases (i.e., brownmillerite and perovskite) is quantita
105 However, the fates of the diverse carbonate phases (i.e., mineral and amorphous forms of CaCO3) they
106 netics (IEK) performed on typical Ni bearing phases (i.e., two types of serpentines, chlorite, smecti
107 reversibly transit between the two distinct phases, i.e. the brownmillerite SrCoO2.5 that is a room-
109 irreversible transition from interphase to M phase is essential to separate DNA replication from chro
110 ent of DMS chemistry in both gas and aqueous phases is essential to improve the accuracy of model pre
116 how, unambiguously, that a smectic-A type of phase is formed by increasing the DNA's flexibility thro
121 uest for universal properties of topological phases is fundamentally important because these signatur
124 Distinguishing single-Q and multi-Q magnetic phases is however a notoriously difficult experimental p
126 e for new treatment development, where early phases (I, I/II) are designed to test safety and effecti
128 ive safety review on data from three trials (phase I, II, and III) included patients with advanced me
129 aride conjugate vaccines have been tested in phase I/II clinical studies, showing promise for further
130 d spinal cord embedded into state-of-the-art Phase I/II clinical trial design studies for human SCI.
131 SAFE-MILND (NCT01500304) is a multicenter, phase I/II clinical trial evaluating the safety and feas
133 vivo in preclinical animal models, and in a phase I/II clinical trial in patients with advanced canc
134 tic lymphoma kinase (ALK), and is undergoing Phase I/II clinical trial investigations for non-small c
137 b), a dual PI3K/mTOR inhibitor that is under phase I/II clinical trials for the treatment of some typ
138 the groundwork for its current evaluation in phase I/II clinical trials in patients harboring EGFR mu
139 high translational potential, given current phase I/II clinical trials with alpha-4-1BB against vari
141 ciple with the publication of a first-in-man phase I/II dose escalation clinical trial in patients wi
144 t the results of the phase II component of a phase I/II study that evaluated the sensitivity of (68)G
146 ples, yielded consistent results with recent phase I/II trials, suggesting that EMMA is a feasible pl
147 igenetic changes for cancer treatment are in Phase I/II trials; however, all of these target only nuc
153 pancreatic cancer mechanisms and conducted a phase I/IIa study to investigate pharmacokinetic interac
158 al superconductors and their superconducting phase is important for understanding the complex physics
160 response (HVR) is biphasic, consisting of a phase I increase in ventilation followed by a secondary
161 n acidification, GlcCer solubility in the lo phase is increased, leading to a larger lo/ld coexistenc
162 lls, suggesting that the preference for S/G2 phase is independent of the nature of the viral genome.
163 In rice (Oryza sativa), the reproductive phase is initiated by exposure to short days when expres
165 gest that the melting of the cubic rock-salt phases is initiated at the vacancies, which propagate to
167 on of shelterin component Ccq1 during late S phase is involved in telomerase recruitment through prom
168 tained below -10 degrees C, whereas the beta-phase is isolated when the substrate temperature is main
169 ly of the replication fork helicase during S phase is key to the initiation of DNA replication in euk
172 anonical H3.1 protein, incorporated during S-phase, is maintained at high levels in cells dividing at
173 file, the lead compound 10a was evaluated in phase I metabolic stability studies in mouse liver micro
174 rlier in TiO2 photocatalysis and in in vitro phase I metabolism assays performed using human liver mi
176 ity of the method was examined for mimicking phase I metabolism reactions of amodiaquine, buspirone a
177 ite, it has been reported that several major phase I metabolites of SCs remain biologically active, e
178 sks by correctly predicting elution order of Phase I metabolites, including isomeric monohydroxylated
181 s spectrometry to quantify methylone and its phase I metabolites: 3,4-methylenedioxycathinone (MDC),
183 K higher because the ferromagnetic metallic phase is more dominant at all temperatures below the Cur
184 e morphology suggests that the hydrogen-rich phase is more similar to a spherical cap on the hydrogen
185 ations also indicate that the small bcc CuZn phase is more stable against Cu adatom migration than th
186 e activation volume of the antiferromagnetic phase is more than two orders of magnitude larger than t
188 ed that virulent Coxiella burnetii Nine Mile phase I (NMI) is capable of infecting and replicating wi
190 Materials and Methods This was a prospective phase I nonrandomized study conducted between March 2013
195 H and cesium concentrations in the receiving phase is observed when receptor 2 is employed as a carri
199 etic separation to superconducting inorganic phases is of particular interest in combination with cer
200 an the mass transfer through respective bulk phases is of specific interest when tracking the transie
202 elopment through a comprehensive analysis of phase I oncology studies from 2003 to 2010 and subsequen
203 arch to identify and examine publications of phase I oncology studies including the use of biopsy-der
204 biopsy-derived pharmacodynamic biomarkers in phase I oncology studies on subsequent drug development
205 e science of packing columns with stationary phases is one of the most crucial steps to achieve consi
207 ical studies, but many have failed either in phase I or II and none has progressed beyond phase II.
212 raj et al demonstrated single individual SNV phasing is possible with proximity ligated (HiC) sequenc
214 tinization environments where a separate gas phase is present may be more favorable for abiotic synth
216 central black hole, and show that the prompt phase is produced via fast-cooling synchrotron radiation
226 iour of CrMnFeCoNi is unique in that the hcp phase is retained following decompression to ambient pre
230 ells of these mutants, likely because the G1 phase is shorter and a new bud site is established prior
231 ciples calculations, this exact model of QSH phase is shown to be realizable in an experimental syste
234 he behavior of the foldamers in the membrane phase is similar to that of analogous compounds in organ
235 macokinetic data (280 venous samples) from a phase I single (50 mg) dose study in healthy older peopl
236 onatomic and molecular systems if the liquid phase is slow enough to induce viscoelastic phase separa
237 ct UHS, which works in two phases: The first phase is solved optimally, and for the second we propose
238 tion between the A and B phases, where the A phase is stabilized by confinement and a spatially modul
239 latter, suggesting that a spin-density-wave phase is stabilized in zero field by Nd and Gd impuritie
240 te phase and its relation to the martensitic phase is still an unresolved issue, even though it is cr
241 Based on the observation that the segregated phase is strongly affected by temperature, we propose to
245 A criteria have routinely been enrolled onto phase I studies of antineoplastics without clinically me
246 or currently under investigation in multiple phase I studies on various malignancies, and its clincal
262 mber of photons emitted during the starburst phase is sufficient to ionize intergalactic medium mater
263 alues, the HO phase reenters after the LMAFM phase is suppressed by the magnetic field, similar to th
267 Strengthening by precipitation of second phase is the guiding principle for the development of a
268 e of viral Ag presentation into the effector phase is the key factor that determines the efficiency o
270 terconversion between the two distinct HS-LS phases is the result of subtle structural changes in the
272 eoretically explain its four life phases: In phase I, the spherical cap-shaped droplet remains transp
273 structure, which we designate as smectic-fA phase, is thermodynamically stabilized by both entropic
275 f polar contaminants with DOM in the aqueous phase is thus a disregarded pathway along which contamin
276 -induced transformations of linear OCS (R3m, Phase I) to bent OCS (Cm, Phase II) at 9 GPa; an amorpho
281 in the first 5 participants enrolled in this phase I trial of virus-based gene transfer in this mitoc
282 Receiving cytotoxic chemotherapy as part of phase I trial was also associated with shorter median OS
284 studies demonstrated that in an HIV vaccine phase I trial, the DP6-001 trial, a polyvalent Env DNA p
286 ral solid tumor types, and the initiation of phase I trials for A2AR antagonists in oncology, this ap
287 e clinical solution to challenges arising in phase I trials from the dose-dependent side effects of t
288 Approximately 36% of patients enrolled onto phase I trials had mild renal dysfunction by FDA criteri
289 including Roneparstat, a modified heparin in phase I trials in myeloma patients, significantly inhibi
291 initial assembly, or nucleation, of the new phase is typically a highly stochastic process and does
296 al phases termed "diapause development." The phasing is varied in the literature, and the whole conce
298 tion, in which a component of one of the two phases is vesicles rather than macromolecules, could und
299 g PPARgamma activators identified in ToxCast Phase I were genuine PPARgamma activators and inducers o
300 l of 11 transformation products (TP) (mainly phase-I) were quantified by liquid chromatography-tandem
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