Abstract Purpose Pharmacogenomics is the study of how individual responses to medication are influenced by genetics. As medication experts, pharmacists are uniquely suited to practicing this application of precision medicine. Fundamental operational aspects of developing a pharmacy clinical pharmacogenomics practice are described, and the specific experience of a multisite health system in developing a pharmacogenomics service is discussed. Summary Considerations for the development of a clinical pharmacy–driven pharmacogenomics service include understanding testing selection, targeting the appropriate patient population, exploration of reimbursement, design of the practice, and education of the pharmacogenomics workforce. Testing can be preemptive or reactive, can occur in house or as a send-out service, and can be panel based or specific to a single gene. Pharmacogenomics is applicable to many medicine specialties, making deployment of services to strategic groups essential. Reimbursement for pharmacogenomics is variable and may pose a barrier to implementation. The demand for pharmacogenomics education for pharmacy students and as a formal postgraduate career path is growing. Pharmacogenomics service planning and implementation details for a multisite health system are described. Conclusion The practice of pharmacogenomics presents a remarkable opportunity for clinical pharmacists and health systems to improve patient care outcomes and experiences.
A trial of proficiency of nerve conduction: Greater standardization still needed
ABSTRACTIntroductionThe aim of this study was to test the proficiency (accuracy among evaluators) of measured attributes of nerve conduction (NC).MethodsExpert clinical neurophysiologists, without instruction or consensus development, from 4 different medical centers, independently assessed 8 attributes of NC in 24 patients with diabetes mellitus (DM) on consecutive days.ResultsNo significant intraobserver differences between days 1 and 2 were found, but significant interobserver differences were seen. Use of standard reference values did not correct for these observed differences.ConclusionsInterobserver variability was attributed to differences in performance of NC. It was of sufficient magnitude that it is of concern for the conduct of therapeutic trials. To deal with interrater variability in therapeutic trials, the same electromyographers should perform all NC assessments of individual patients or, preferably, NC procedures should be more standardized. A further trial is needed to test whether such standardization would eliminate interobserver variability. Muscle Nerve 48: 369–374, 2013