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1
Division of Pediatric Radiology, Department of Radiology, McGovern-Davison
Children's Health Center, Rm. 1905, Duke University Health System, Box 3808,
Erwin Rd., Durham, NC 27710.
2
Division of Emergency Medicine, Departments of Surgery and Pediatrics, Duke
University Health System, Durham, NC 27710.
OBJECTIVE. CT technique should be adjusted while scanning infants and children. One format that has proven successful in simplifying pediatric care and reducing medical error is the size-based, color-coded Broselow-Luten pediatric system. This color-coded system can serve as a format for CT protocols. The purpose of this investigation was to compare variation (or error) occurrence and technologist preference for conventional and color-coded formats for pediatric multidetector body CT protocols.
MATERIALS AND METHODS. Multidetector CT examinations were set up using either a conventional or a color-coded format for a period of 6 weeks each. Variations (errors) from protocol parameters (including tube current, detector configuration, table speed, and IV contrast media dose) were tabulated. Qualitative assessment consisted of a survey of CT technologists (n = 20) for preference in six areas related to ease of use and clarity of the formats.
RESULTS. There were 44 CT examinations (n = 30 infants and children) in the conventional group and 55 CT examinations (n = 31 infants and children) in the color-coded protocol format group. Overall, the number of errors was significantly less in the color-coded group (p < 0.01), with a significantly lower error percentage in individual parameters affecting radiation dose, including tube current, detector configuration, and table speed (p < 0.05). In all areas, the color-coded format was preferred over the conventional format (p < 0.0003).
CONCLUSION. Color-coded CT formatting is an extension of a clinical color-coded system. This system provides an easy, expeditious, consistent, and preferable format for general pediatric body CT protocols. Most importantly, the color-coded system can reduce variations (errors) in the radiology department.
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