PubMed Health⌕ Search

Biomedical subjects

Michael A Veltri

Publications and source records attributed to Michael A Veltri.

7 recordsLinked to original sources

Decreasing errors in pediatric continuous intravenous infusions.

OBJECTIVE: To evaluate the effect of a Web-based calculator and decision-support system on infusion ordering errors and to estimate error frequency in pharmacy infusion preparation. DESIGN: Data on ordering error frequency and typology were collected before and after implementation of an online infusion ordering system. Data on pharmacy preparation errors of infusions were collected. SETTING: A children's hospital at an academic medical center. PATIENTS: None. Data were abstracted from infusion orders. INTERVENTIONS: Introduction of a voluntary-use Web-based calculator into infusion ordering workflow. Observation only. MAIN OUTCOME MEASURES: Number and type of errors in handwritten and calculator-generated orders. Number and type of errors in pharmacy infusion preparation. RESULTS: Before calculator deployment, 129 sequential handwritten infusion orders were collected over 5 weeks. After deployment, of 162 sequential infusion orders, 88% (142) were calculator-generated. Calculator-generated infusion orders contained 83% fewer (p < .001) orders containing one or more errors than handwritten orders. Calculator-generated orders contained no high-risk errors (incorrect decimal, dose, or unit of measure) when compared with handwritten orders and were associated with fewer pharmacy interventions. In 118 sequential pharmacy infusion preparations over 4 wks, there were no errors observed. CONCLUSION: A Web-based calculator reduced significantly the total number of errors and eliminated all high-risk errors in the prescribing process for continuous pediatric infusions. With no observed errors in pharmacy preparation, this study provides data to support the use of computerized ordering as an independent safe and viable method for ordering continuous pediatric infusions.

Chi-Square Distribution↗

Preventing adverse events in the pediatric intensive care unit: prospectively targeting factors that lead to intravenous potassium chloride order errors.

OBJECTIVE: To prospectively identify and reduce proximal causes of error contributing to inappropriate intravenous potassium chloride orders and reduce adverse events subsequent to these ordering errors. DESIGN: Pre-post cohort study of the reduction in both proximal causes of error and number of postinfusion elevated serum potassium levels after intervention. SETTING: Sixteen-bed, tertiary care, urban, academic pediatric intensive care unit. PATIENTS: Children 0-18 yrs old receiving intravenous potassium chloride in the pediatric intensive care unit. INTERVENTIONS: A multidisciplinary team determined proximal causes of error that were likely contributors to the occurrence of the outcome measure, elevated potassium levels after intravenous potassium chloride. A mandatory drug request form was designed for physicians ordering intravenous potassium chloride. The drug request form was designed to reduce proximal causes of error and, as a result, elevated potassium levels after intravenous potassium chloride. Demographic and laboratory data on children receiving intravenous potassium chloride in the pediatric intensive care unit and details of the drug order were analyzed. MEASUREMENTS AND MAIN RESULTS: Data from 1,492 intravenous potassium chloride administration-events before implementation of the drug request form were collected. After the drug request form was mandated, 166 consecutively completed forms were collected and analyzed. The incidence of postinfusion elevations in serum potassium decreased from a rate of 7.7% (103 of 1,341) before the drug request form to 0% (0 of 150) after the drug request form (p < .001). Proximal causes of error were also reduced. The number of patients with a creatinine >/=2 mg/dL receiving intravenous potassium chloride decreased from 28.4% to 14.2% (p < .001). The number of intravenous potassium chloride infusions administered to patients where serum potassium value was >4.5 mmol/L decreased significantly (2.9% vs. 0.0%, p < .02). The incidence rates of both verbal orders and failure to write the order in a correct format were reduced to zero. CONCLUSIONS: Simple, blame-free, system-wide interventions designed to reduce proximal causes of error can be an effective, proactive means of reducing the likelihood of medical morbidity.

Adolescent↗

Drug dosing during intermittent hemodialysis and continuous renal replacement therapy : special considerations in pediatric patients.

Chronic renal failure is, fortunately, an unusual occurrence in children; however, many children with various underlying illnesses develop acute renal failure, and transiently require renal replacement therapy - peritoneal dialysis, intermittent hemodialysis (IHD), or continuous renal replacement therapy (CRRT). As children with acute and chronic renal failure often have multiple comorbid conditions requiring drug therapy, generalists, intensivists, nephrologists, and pharmacists need to be aware of the issues surrounding the management of drug therapy in pediatric patients undergoing renal replacement therapy. This article summarizes the pharmacokinetics and dosing of many drugs commonly prescribed for pediatric patients, and focuses on the management of drug therapy in pediatric patients undergoing IHD and CRRT in the intensive care unit setting. Peritoneal dialysis is not considered in this review. Finally, a summary table with recommended initial dosages for drugs commonly encountered in pediatric patients requiring IHD or CRRT is presented.

Algorithms↗

Pilot study of antibiotic cycling in a pediatric intensive care unit.

OBJECTIVE: This pilot study was performed to determine the safety and size of effect of antibiotic cycling to reduce colonization and infection with antibiotic-resistant bacteria. DESIGN: Open, observational study. SETTING: The study was performed in a 16-bed pediatric medical-surgical intensive care unit. PATIENTS: Critically ill children requiring antibiotic therapy. INTERVENTIONS: Three antibiotic classes were systematically cycled for 3-month intervals over 18 months. Antibiotic regimens were used for all empirical therapy and continued if the bacterial isolate was susceptible. MEASUREMENTS: The primary outcome was colonization with antibiotic-resistant bacteria, determined by surveillance cultures obtained twice monthly from all patients in the unit. Rates of antibiotic-resistant, nosocomial blood stream infections, and risks of colonization over calendar time in the intensive care unit were also evaluated. MAIN RESULTS: The cycling of broad-spectrum, empirical antibiotics was safe and did not generate increased antibiotic resistance nor select for new organisms. Over the study period, the trend in prevalence of children colonized with antibiotic-resistant bacteria was from 29% to 24% (p =.41). The effect on prevalence of resistant blood stream infections was similar (p =.29). Changes in individual risks of colonization with resistant bacteria over calendar time were consistent with the ecologic effect in size and direction. CONCLUSIONS: Results of this pilot intervention suggest that cycling antibiotics may be a safe and viable strategy to minimize the emergence of antibiotic resistance in intensive care units. A definitive study will require a randomized and controlled trial of only four pediatric intensive care units over an 18-month period.

Anti-Bacterial Agents↗

Patient safety in emergency situations: A web-based pediatric arrest medication calculator.

To prevent adverse drug events for pediatric patients, increase care provider efficiency, and reduce stress for care providers, a technology tool was developed that calculates medication dosage requirements during emergency situations. This article describes a simple low-cost technological solution for improving patient safety and care-provider assurance. Follow-up studies provide validation of the technology tool.

Dose-Response Relationship, Drug↗