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1 h, disease remission or the occurrence of an adverse drug reaction.
2 ight into the pathophysiology of this severe adverse drug reaction.
3  determine interindividual susceptibility to adverse drug reactions.
4 to pharmacotherapy whereas others experience adverse drug reactions.
5 orphisms that may underlie susceptibility to adverse drug reactions.
6 global analysis linking chemical features to adverse drug reactions.
7 ten inhibited by variable drug responses and adverse drug reactions.
8 e II binding compounds is essential to avoid adverse drug reactions.
9 ug pharmacokinetics, treatment efficacy, and adverse drug reactions.
10 an skin, a common target of inflammation and adverse drug reactions.
11 ficacy and reduce the number and severity of adverse drug reactions.
12 ommunity and hospital nurses in reporting of adverse drug reactions.
13  T cells involved in other serious cutaneous adverse drug reactions.
14 wn but cannot account for most idiosyncratic adverse drug reactions.
15 ehensive information on the risks of serious adverse drug reactions.
16 IV-1 RNA levels, CD4+ lymphocyte counts, and adverse drug reactions.
17 o repurpose existing drugs and identify rare adverse drug reactions.
18 the organs most commonly involved in serious adverse drug reactions.
19 ntial for serious drug-drug interactions and adverse drug reactions.
20 ovigilance system was put in place to detect adverse drug reactions.
21 alanced considering the increased tremor and adverse drug reactions.
22 actam therapy without increasing the risk of adverse drug reactions.
23 et of covariates that influenced the rate of adverse drug reactions.
24 ajor, minor, and potentially iatrogenic; and adverse drug reactions.
25 by endocrine disrupting chemicals (EDCs) and adverse drug reactions.
26 marker studies advanced the understanding of adverse drug reactions.
27 ded details of 10 and 3 reports of suspected adverse drug reactions.
28 t in drug metabolism and have been linked to adverse drug reactions.
29 ase, resistance to pathogens and the risk of adverse drug reactions.
30 h need for additional drug therapy (31%) and adverse drug reactions (18%) being the most common probl
31                       We recorded no serious adverse drug reactions; 28 adverse events, most commonly
32 < .001) without any increase in incidence of adverse drug reactions (4% vs 3%; P = .4).
33  and 1.7% for ST-Cefaz) and highest rates of adverse drug reactions (5.2% vs 4.6% for Hx-Cefaz and 4.
34                Ritonavir was associated with adverse drug reactions about twice as frequently as indi
35 ISDs owing to clinical efficacy, inefficacy, adverse drug reaction (ADR), and other medical causes.
36                                              Adverse drug reactions (ADRs) accounted for the majority
37           Two spontaneously reported serious adverse drug reactions (ADRs) and 32 spontaneously repor
38 of studies identifying HLA associations with adverse drug reactions (ADRs) and one for the examinatio
39                                              Adverse drug reactions (ADRs) are a central consideratio
40                                              Adverse drug reactions (ADRs) are a relatively common ca
41                         Immune-mediated (IM) adverse drug reactions (ADRs) are an underrecognized sou
42                                              Adverse drug reactions (ADRs) are commonplace and occur
43                                Idiosyncratic adverse drug reactions (ADRs) are one of the most common
44  aim of the study was to investigate whether adverse drug reactions (ADRs) during immunotherapy with
45                                              Adverse drug reactions (ADRs) pose critical public healt
46 rugs may be more likely to have unrecognized adverse drug reactions (ADRs) than established drugs, bu
47 , spontaneous reports do not reliably detect adverse drug reactions (ADRs) that occur widely separate
48 onvulsant carbamazepine 1 is associated with adverse drug reactions (ADRs), including hepatotoxicity;
49 A total of 14% of patients experienced minor adverse drug reactions (ADRs), of which 2 cases demonstr
50 duct were classified by the investigators as adverse drug reactions (ADRs).
51 rgy to cephalosporin or incidence of serious adverse drug reactions (ADRs).
52 ontinue thiopurine therapy because of severe adverse drug reactions (ADRs); leukopenia is one of the
53 to clarify key terms, such as adverse event, adverse drug reaction, adverse drug event, medication er
54 d serious DILI cases reported to the Swedish Adverse Drug Reactions Advisory Committee (1970-2004) fo
55 rmining patient susceptibility to developing adverse drug reactions, although the underlying mechanis
56 lar mechanism of undesirable drug effects or adverse drug reactions among those compounds, we examine
57 iate stage) between the identification of an adverse drug reaction and the subsequent onset of drug-i
58                           Thiopurine-related adverse drug reactions and thiopurine failure are freque
59 ams was used to assess treatment completion, adverse drug reactions, and factors associated with trea
60  promiscuous drugs, polypharmacology-related adverse drug reactions, and multi-drug therapies, especi
61                                              Adverse drug reactions are a frequent culprit.
62                                              Adverse drug reactions are a significant cause of morbid
63                                              Adverse drug reactions are a significant public health p
64                                Although many adverse drug reactions are considered nonpreventable, re
65         Schemes for spontaneous reporting of adverse drug reactions are important to post-marketing s
66                                Idiosyncratic adverse drug reactions are unpredictable, dose-independe
67 ed approach to trimethoprim-sulfamethoxazole adverse drug reaction assessment and rechallenge to opti
68                                        Three adverse drug reaction assessment instruments were used t
69 objective was to determine the prevalence of adverse drug reactions associated with off-label use and
70 e, indicating that doctors should report all adverse drug reactions associated with them to the Commi
71 e phenotypes can range from life-threatening adverse drugs reactions at one end of the spectrum to eq
72 with acute adenovirus infections or systemic adverse drug reactions, but levels in patients with KD w
73 s seldom studied in other types of cutaneous adverse drug reactions (cADRs).
74 in-induced thrombocytopenia, a prothrombotic adverse drug reaction caused by immunoglobulin G directe
75 istered and the number of harmful and severe adverse drug reactions did not differ for medications us
76                                     Although adverse drug reactions do not occur more frequently with
77 s (35%) had 48 trimethoprim-sulfamethoxazole adverse drug reactions documented either at baseline or
78                             Tremor rates and adverse drug reactions favoured the placebo group.
79 the evidence for a genetic predisposition to adverse drug reactions, focusing on gene variants produc
80                                The number of adverse drug reactions for medications administered and
81 ded demographics, costs, outcomes (including adverse drug reactions, functional status, ventilator ti
82 vate platelets, leading to the prothrombotic adverse drug reaction heparin-induced thrombocytopenia (
83 e Abs are associated with an immune-mediated adverse drug reaction, heparin-induced thrombocytopenia.
84 nsight into the molecular mechanisms of this adverse drug reaction in adult patients with germ cell t
85  vs 23/27; P = .0001), with no recurrence of adverse drug reactions in 74%.
86  use as a risk factor for the development of adverse drug reactions in an adult ICU population.
87 present a novel method to better investigate adverse drug reactions in chemical space.
88                                              Adverse drug reactions in children are an important publ
89  drug testing does not predict some forms of adverse drug reactions in humans.
90 urveillance techniques to reduce the risk of adverse drug reactions in patients receiving warfarin.
91 extrapolated to calculate incidence rates of adverse drug reactions in the community from spontaneous
92 control group) or amiodarone side effects or adverse drug reactions (in the rhythm-control group).
93 c transporter genes previously implicated in adverse drug reactions including simvastatin-induced myo
94                                              Adverse drug reactions, including severe patient bleedin
95                It was found that the rate of adverse drug reactions increases by 8% for every one add
96 Toxic epidermal necrolysis (TEN) is a severe adverse drug reaction involving extensive keratinocyte d
97 ng the unintended 'off-targets' that predict adverse drug reactions is daunting by empirical methods
98  their unintended 'off-targets' that predict adverse drug reactions, is a daunting task by experiment
99 ne-induced cardiotoxicity (ACT) is a serious adverse drug reaction limiting anthracycline use and cau
100 ion in renal transplant recipients, reported adverse drug reactions may limit use and increase relian
101  an explanation for HLA-linked idiosyncratic adverse drug reactions, namely that drugs can alter the
102 rget of a given drug, creating a drug-target-adverse drug reaction network.
103 ulocytosis/granulocytopenia (CIAG), a severe adverse drug reaction occurring in up to 1% of treated i
104 Heparin-induced thrombocytopenia (HIT) is an adverse drug reaction occurring in up to 5% of patients
105 a (HIT) is a relatively common prothrombotic adverse drug reaction of unusual pathogenesis that featu
106            By integrating data sources about adverse drug reactions of drugs with an established chem
107   Drug-induced taste disturbance is a common adverse drug reaction often triggered by drug secretion
108                  Secondary outcomes included adverse drug reaction, PICC line complication, and a com
109 drug acquisition cost, and costs of treating adverse drug reactions probably or possibly related to s
110                 Three subjects reported mild adverse drug reactions related to FCM; two of these were
111                            Our institutional adverse drug reaction reporting program was used to iden
112 were used to determine the probability of an adverse drug reaction resulting from drug therapy.
113 centrations during hypothermia and increased adverse drug reaction risk complicates concurrent pharma
114 iomarkers with the strongest associations to adverse drug reaction risk in the intensive care unit ar
115 ot occur more frequently with off-label use, adverse drug reaction risk increases with each additiona
116 re subsequently discovered to have suspected adverse drug reactions (SADRs).
117                                              Adverse drug reaction screens in a kidney panel revealed
118 While recent advances in pharmacogenetics of adverse drug reactions show promise, the small size of t
119 s recent literature documenting the risk for adverse drug reactions specific to bleeding and/or clott
120                        We included 18 of 333 adverse drug reaction studies and 22 of 61 variant allel
121 reciation of the role that genetics plays in adverse drug reactions that are either predictable exten
122  objective of pharmacovigilance is to detect adverse drug reactions that are unknown or novel in term
123 ylactoid reactions are common clinical acute adverse drug reactions that can exacerbate a patient's c
124    The role of the adaptive immune system in adverse drug reactions that target the liver has not bee
125 rld Health Organization's classification for adverse drug reactions, the association between bortezom
126                      In an effort to prevent adverse drug reactions, the FDA mandates the evaluation
127 ere assessed daily for the development of an adverse drug reaction through active surveillance.
128 tcome was any clinical event described as an adverse drug reaction to one or more drugs.
129 potentially lethal, immunologically mediated adverse drug reaction to unfractionated heparin or, less
130 anges in cholesterol levels that could cause adverse drug reactions to cholesterol-lowering drugs suc
131  allele that may be associated with the rare adverse drug reaction torsades de pointes.
132                     Severity and harm of the adverse drug reaction were also assessed.
133                                     Rates of adverse drug reaction were low (<4% in both groups) but
134                      One hundred and sixteen adverse drug reactions were categorized dichotomously (F
135          The incidence and severity of other adverse drug reactions were comparable between the 2 gro
136                                              Adverse drug reactions were less common in the TMP-SMX p
137                      Discontinuations due to adverse drug reactions were lowest for TDF+FTC+RAL (1.9%
138                              The most common adverse drug reactions were ocular side effects, includi
139                                        Three adverse drug reactions were regarded as both serious and
140                                              Adverse drug reactions were reported by 1174 (35.7%) pat
141  53% (27) of 51 events classified as serious adverse drug reactions were reported.
142  severe, but no suspected unexpected serious adverse drug reactions were seen.
143 taphylococcus aureus sinusitis, and multiple adverse drug reactions whose T cells were unable to prod
144 ion of genetic variants associated with this adverse drug reaction will further our mechanistic under
145               Less than 1% of women reported adverse drug reactions, with no increase in HIV-positive

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