Advanced search×

Genetic predisposition to adverse drug reactions in the intensive care unit.

Crit Care Med 38(6 Suppl):S106-16 (2010) PMID 20502164

Adverse drug reactions are a significant public health problem that leads to mortality, hospital admissions, an increased length of stay, increasing healthcare costs, and withdrawal of drugs from market. Intensive care unit patients are particularly vulnerable and are at an elevated risk. Critical care practitioners, regulatory agencies, and the pharmaceutical industry aggressively seek biomarkers to mitigate patient risk. The rapidly expanding field of pharmacogenomics focuses on the genetic contributions to the variability in drug response. Polymorphisms may explain why some groups of patients have the expected response to pharmacotherapy whereas others experience adverse drug reactions. Historically, genetic association studies have focused on characterizing the effects of variation in drug metabolizing enzymes on pharmacokinetics. Recent work has investigated drug transporters and the variants of genes encoding drug targets, both intended and unintended, that comprise pharmacodynamics. This has led to an appreciation of the role that genetics plays in adverse drug reactions that are either predictable extensions of a drug's known therapeutic effect or idiosyncratic.This review presents the evidence for a genetic predisposition to adverse drug reactions, focusing on gene variants producing alterations in drug pharmacokinetics and pharmacodynamics in intensive care unit patients. Genetic biomarkers with the strongest associations to adverse drug reaction risk in the intensive care unit are presented along with the medications involved. Variant genotypes and phenotypes, allelic frequencies in different populations, and clinical studies are discussed. The article also presents the current recommendations for pharmacogenetic testing in clinical practice and explores the drug, patient, research study design, regulatory, and practical issues that presently limit more widespread implementation.

DOI: 10.1097/CCM.0b013e3181de09f8
Version: za2963e q8zac q8zb3 q8zca q8zd7 q8ze2 q8zfb q8zgc

Similar articles you may find interesting…

  1. Analysis of a carbon dimer bound to a vacancy in iron using density functional theory and a new tight binding model

    arXiv:1305.1171 [cond-mat.mtrl-sci] 6 May 2013

    We Present a new TB model for C in Fe, based on our earlier work for H in Fe, Which correctly predicts the structure and energetics of the carbon dimer at a Vacancy in Fe. Moreover the model is capable of dealing with both concentrated And dilute limits of carbon in both bcc-Fe and fcc-Fe as compari...
  2. The effect of corrosion inhibitors on microbial communities associated with corrosion in a model flow cell system.

    Appl Microbiol Biotechnol (2013) PMID 23636692

    A model flow cell system was designed to investigate pitting corrosion in pipelines associated with microbial communities. A microbial inoculum producing copious amounts of H2S was enriched from an oil pipeline biofilm sample. Reservoirs containing a nutrient solution and the microbi...
  3. Examinations of Oxidation and Sulfidation of Grain Boundaries in Alloy 600 Exposed to Simulated Pressurized Water Reactor Primary Water.

    Microsc Microanal (2013) PMID 23590826

    High-resolution characterizations of intergranular attack in alloy 600 (Ni-17Cr-9Fe) exposed to 325°C simulated pressurized water reactor primary water have been conducted using a combination of scanning electron microscopy, NanoSIMS, analytical transmission electron microscopy, and...