
Editorial
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These medication errors have occurred in health care facilities at least once. They will happen again—perhaps where you work. Through education and alertness of personnel and procedural safeguards, they can be avoided. You should consider publishing accounts of errors in your newsletters and/or presenting them at your inservice training programs.
Your assistance is required to continue this feature. The reports described here were received through the Institute for Safe Medication Practices (ISMP) Medication Errors Reporting Program. Any reports published by ISMP will be anonymous. Comments are also invited; the writers' names will be published if desired. ISMP may be contacted at the address shown below.
Errors, close calls, or hazardous conditions may be reported directly to ISMP through the ISMP Web site (www.ismp.org), by calling 800-FAIL-SAFE, or via e-mail at
The purpose of this feature is to heighten awareness of specific adverse drug reactions (ADRs), discuss methods of prevention, and promote reporting of ADRs to the US Food and Drug Administration's (FDA's) MedWatch program (800-FDA-1088). If you have reported an interesting, preventable ADR to MedWatch, please consider sharing the account with our readers.
The complexity of cancer chemotherapy requires that pharmacists be familiar with the complicated regimens and highly toxic agents used. This column reviews various issues related to preparing, dispensing, and administering antineoplastic therapy and to the agents, commercially available and investigational, used to treat malignant diseases.
This
Because of its activity against multidrug resistant gram-positive organisms, vancomycin is one of the antimicrobials most utilized in health care systems worldwide. Despite its widespread use, application of the pharmacodynamic principles governing vancomycin efficacy are not frequently considered in contemporary clinical practice. Although the vancomycin trough serum concentration has been used historically to assess the adequacy of a prescribed dose, data validating that this practice leads to improved patient outcomes do not exist. Alternatively, both in vitro and clinical outcomes data demonstrate improved results when an area under the concentration-time curve/minimum inhibitory concentration (AUC/MIC) of 400 mcg•h/mL or greater is achieved. This article describes the process through which individualized vancomycin dosing regimens targeting an AUC/MIC of 400 mcg•h/mL or greater, rather than trough serum concentration, at the beside can be derived. The equations, methodology, thought processes, benefits, potential pitfalls, and practical applicability of this method are specifically examined. Obtaining the actual MIC value—not an interpretation—from the microbiology laboratory and/or the MIC distribution for
Daptomycin was originally approved for the treatment of complicated skin and skin-structure infections caused by gram-positive bacteria, and recently, its indications were expanded to include bacteremia and right-sided infective endocarditis caused by
During an 11-month period, records of patients treated with daptomycin at the institution were reviewed. Cases for which complete cost data were available were included in the analysis. Outcomes were assigned to 4 categories: cured, improved, failed, or unevaluable. Hospital stay details were recorded, and antibiotic and total hospital treatment costs were calculated.
Thirty-five patients representing 37 cases were included in the review. Of those cases, 89% (33 of 37) involved documented infections with gram-positive bacteria, 22% involved confirmed methicillin-resistant
Daptomycin cured or improved most evaluable gram-positive infections. The results of this study suggest that daptomycin may be considered a therapeutic option for treatment of drug-resistant gram-positive infections.
Outline steps taken at a university teaching health system to meet The Joint Commission's (TJC's) National Patient Safety Goal (NPSG) for anticoagulation therapy.
The aim of NPSG 3E (recently renumbered as 03.05.01) was to reduce the likelihood of patient harm associated with anticoagulation therapy. Full implementation of a management program for individualization of patient care was required by January 1, 2009. University Health System (UHS) has formed an anticoagulation safety committee consisting of nurses, dieticians, pharmacists, and physicians. Monthly meetings are held to assign projects and responsibilities and to report progress of ongoing tasks. Subcommittees involving selected members have been formed to conduct in-depth evaluations of specific agenda items. The committee has defined target anticoagulants, including unfractionated heparin, enoxaparin, dalteparin, argatroban, lepirudin, fondaparinux, and warfarin. Current practice has been evaluated by gathering baseline adverse events data, performing drug utilization reviews, and analyzing usage. A timeline of progress and expected completion dates for each milestone has been created. Future tasks include developing standard protocols for all anticoagulants and ensuring consistency in discharge counseling. Recently, UHS created a new anticoagulation clinical pharmacist position, and a long-term goal is creation of an anticoagulation team. Responsibilities of this team will include therapy management, discharge counseling, staff education, and maintenance of evidence-based protocols.
Implementing a program of this caliber to meet TJC's January 2009 deadline for full implementation of a management program posed a challenge to this large teaching institution. This article outlines the steps necessary for ensuring achievement of milestone deadlines.
To identify patients colonized with methicillin-resistant
Assess the impact of an inpatient ASC protocol on prescribing of mupirocin nasal ointment for decolonization before and after protocol implementation.
A retrospective review of mupirocin inpatient prescribing and outpatient clinic requests from March 2006 through February 2007 (1 year before ASC implementation) and from March 2007 through February 2008 (1 year after ASC implementation) was conducted. Cultures for MRSA after decolonization were evaluated.
During the 24 months reviewed, 38 inpatients received mupirocin (18 before and 20 after ASC). Only 14 patients (37%) had a follow-up nasal swab (5 before and 9 after ASC). Of these patients, 5 (36%) had a positive nasal swab after the initial decolonization attempt. Ten patients (26%) had at least 1 clinical culture positive for MRSA after the initial decolonization (7 before and 3 after ASC). Outpatient requests for mupirocin increased 2.5-fold after ASC implementation. Sixty percent of the requests were not appropriate.
After implementation of the ASC protocol, there was no change in mupirocin prescribing for decolonization in the inpatient setting. However, outpatient requests—most of which were not indicated—increased. Success of decolonization cannot be assessed because follow-up nasal screening was not universally performed.
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The recent death of a well-known physician prompted a look at telehealth—specifically telepharmacy—in this installment. We begin with a discussion of the connection between telehealth and the physician. Telehealth is then addressed, looking briefly at the past and touching on several current telepharmacy activities.
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