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1 tential in lead discovery, repositioning and drug safety.
2 e pharmaceutical industry in order to uphold drug safety.
3 d to ensure therapeutic efficacy and enhance drug safety.
4 aceutical strategy to limit DILI and improve drug safety.
5 drug formulation is one approach to improve drug safety.
6 heumatoid arthritis, gout, osteoporosis, and drug safety.
7 ts of CVD, perhaps because of concerns about drug safety.
8 ession, extrapyramidal symptoms, and overall drug safety.
9 tient genetic information to aid in assuring drug safety, a substantial effort is needed in both the
10 ture studies should examine other regulatory drug safety actions, such as the Risk Evaluation and Mit
13 within, or attached to, a polymer or lipid, drug safety and efficacy can be greatly improved and new
17 ation genetic structure in the evaluation of drug safety and efficacy, and how to relate this structu
18 of multifunctional NPs can lead to improved drug safety and efficacy, and may be complimentary to dr
19 tro to predict and validate patient-specific drug safety and efficacy, potentially enabling future cl
20 cations ranging from accelerating studies of drug safety and efficacy, to identifying pharmacological
23 f these transporters, which is important for drug safety and physiological studies, we developed a se
25 e of the black-box warning system to promote drug safety and to examine the droperidol black-box warn
27 dverse effects in experimental drugs, and in drug safety, applicable to the evaluation of ADE signals
28 entification (MetID) procedure, essential in drug safety applications and in translational studies.
31 sfy these needs through the development of a drug safety assurance information system (GeneScription)
32 ygenase-2 (COX-2) selectivity and to enhance drug safety by covalent attachment of an organic nitrate
33 er countries with active regulatory systems, drug safety can be adequately ensured, and brand-name pr
37 etwork from a 2009 snapshot of a widely-used drug safety database, and used it to develop PPIN models
40 y available for these novel agents regarding drug safety, effects on major cardiovascular risk factor
43 eries, suggesting limited validity to assess drug safety for pregnancy outcomes associated with prema
45 Thus, this sensor can be used to evaluate drug safety in a regime that the current cytotoxicity as
46 paper, the first in a Series of three about drug safety in oncology, we discuss evolving challenges
47 s Series paper, the third of three papers on drug safety in oncology, we review the safety and effica
51 e treatments, the need for wiser handling of drug safety issues, the credibility (or lack thereof) of
56 gned and received at least one dose of study drug; safety outcomes were assessed in all patients who
57 ere driven by concerns over side effects and drug safety, patient preference, drug availability, and
58 ble literature regarding obesity's effect on drug safety, pharmacokinetics, and dosing in obese child
59 tive and automated screening tools to assist drug safety professionals in identifying drug-event comb
60 fy potential DDIs years in advance, enabling drug safety professionals to better prioritize their lim
62 ccess among women included poor knowledge of drug safety, prohibitive costs, and self-treatment pract
65 We have developed an efficient and effective drug safety signal ranking and strengthening approach We
69 blishing a viable national program of active drug safety surveillance by using observational data.
70 pe and strengthening the capabilities of the drug safety surveillance system are among key FDA projec
71 ide a resource for diagnosis of DITP and for drug safety surveillance, we analyzed 3 distinct methods
75 by the Canadian Pharmacogenomics Network for Drug Safety using patients recruited from 5 adult oncolo
77 oups who received at least one dose of study drug; safety was assessed in all patients who received a
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