Table 1 |
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Physiologic scoring systems developed and implemented in the emergency department setting |
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|
ED scoring system |
Reference |
Objectives and method |
Summary results |
Application |
|
|
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|
MEDS |
[61] |
Prospective cohort study in ED patients at risk for infection, using multivariate analysis to identify independent predictors of death |
Development and internal validation of a prediction rule to risk stratify ED patients at risk for infection and predict their mortality. The areas under the ROC curve were 0.82 for the derivation set (n = 2070) and 0.78 for the validation set (n = 1109) |
MEDS accurately identifies correlates of death in ED patients at risk for infection and is useful in stratification of patients according to mortality risk |
|
RAPS |
[82] |
Prospective multi-institutional study of diverse group of transported patients to define the predictive power of RAPS |
Predictive power of RAPS for mortality using the most deranged physiologic parameters pre- and post-transport was high (n = 1881), with ROC curves exhibiting predictive power similar to that of APACHE II |
RAPS is a strong predictor of mortality and is highly reliable in predicting severity of physiologic instability before and after transport |
|
REMS |
[67] |
Prospective cohort study to evaluate the accuracy of RAPS in predicting mortality and length of stay in nonsurgical ED patients. Age and SaO2 were added to RAPS to derive REMS |
REMS was superior to RAPS in predicting inpatient mortality, with area under the ROC curve of 0.85 for REMS and 0.65 for RAPS (n = 12,006) |
REMS is an excellent predictor of inpatient mortality and length of stay for a wide range of nonsurgical ED patients |
|
MEES |
[69] |
Prospective study to develop a rapid, simple scoring system to evaluate prehospital intervention based on objective parameters |
Development and evaluation of MEES as a scoring system to evaluate prehospital clinical treatment. MEES was found to be an efficient and effective method for determining the impact of ED intervention (n = 356) |
MEES is a reliable method for assessing prehospital intervention |
|
SARS |
[71] |
Prospective study to validate SARS (four-item symptom and six-item clinical) screening scores in predicting SARS in febrile ED patients in endemic areas |
Previously developed SARS screening scores (n = 70) were examined in 239 patients with fever. Eighty-two patients had SARS. The scores exhibited a combined sensitivity of 90.2% and specificity of 80.1% for SARS |
SARS screening scores are potential screening methods for SARS in mass outbreaks |
|
PRISA |
[74] |
Prospective study of pediatric severity of illness assessment, using univariate and multivariate logistic regression analyses to develop a model predicting hospital admission |
Development of PRISA as an assessment tool to predict pediatric hospital admission from the ED. Areas under the ROC curve were 0.86 and 0.83 for the development (n = 2146) and validation (n = 537) samples, respectively, in predicting pediatric ED admission |
PRISA can reliably predict pediatric hospital admission using data during the ED stay |
|
|
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APACHE, Acute Physiology and Chronic Health Evaluation; ED, emergency department; MEDS, Mortality in Emergency Department Sepsis; MEES, Mainz Emergency Evaluation Systems; PRISA, Pediatric Risk of Admission; RAPS, Rapid Acute Physiology Score; REMS, Rapid Emergency Medicine Score; ROC, receiver operating characteristic; SaO2, oxygen saturation; SARS, Severe Acute Respiratory Syndrome. |
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Hargrove and Nguyen Critical Care 2005 9:376 doi:10.1186/cc3518 |
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