Literature DB >> 26492059

The Pediatric Risk of Mortality Score: Update 2015.

Murray M Pollack1, Richard Holubkov, Tomohiko Funai, J Michael Dean, John T Berger, David L Wessel, Kathleen Meert, Robert A Berg, Christopher J L Newth, Rick E Harrison, Joseph Carcillo, Heidi Dalton, Thomas Shanley, Tammara L Jenkins, Robert Tamburro.   

Abstract

OBJECTIVES: Severity of illness measures have long been used in pediatric critical care. The Pediatric Risk of Mortality is a physiologically based score used to quantify physiologic status, and when combined with other independent variables, it can compute expected mortality risk and expected morbidity risk. Although the physiologic ranges for the Pediatric Risk of Mortality variables have not changed, recent Pediatric Risk of Mortality data collection improvements have been made to adapt to new practice patterns, minimize bias, and reduce potential sources of error. These include changing the outcome to hospital survival/death for the first PICU admission only, shortening the data collection period and altering the Pediatric Risk of Mortality data collection period for patients admitted for "optimizing" care before cardiac surgery or interventional catheterization. This analysis incorporates those changes, assesses the potential for Pediatric Risk of Mortality physiologic variable subcategories to improve score performance, and recalibrates the Pediatric Risk of Mortality score, placing the algorithms (Pediatric Risk of Mortality IV) in the public domain.
DESIGN: Prospective cohort study from December 4, 2011, to April 7, 2013.
MEASUREMENTS AND MAIN RESULTS: Among 10,078 admissions, the unadjusted mortality rate was 2.7% (site range, 1.3-5.0%). Data were divided into derivation (75%) and validation (25%) sets. The new Pediatric Risk of Mortality prediction algorithm (Pediatric Risk of Mortality IV) includes the same Pediatric Risk of Mortality physiologic variable ranges with the subcategories of neurologic and nonneurologic Pediatric Risk of Mortality scores, age, admission source, cardiopulmonary arrest within 24 hours before admission, cancer, and low-risk systems of primary dysfunction. The area under the receiver operating characteristic curve for the development and validation sets was 0.88 ± 0.013 and 0.90 ± 0.018, respectively. The Hosmer-Lemeshow goodness of fit statistics indicated adequate model fit for both the development (p = 0.39) and validation (p = 0.50) sets.
CONCLUSIONS: The new Pediatric Risk of Mortality data collection methods include significant improvements that minimize the potential for bias and errors, and the new Pediatric Risk of Mortality IV algorithm for survival and death has excellent prediction performance.

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Year:  2016        PMID: 26492059      PMCID: PMC5048467          DOI: 10.1097/PCC.0000000000000558

Source DB:  PubMed          Journal:  Pediatr Crit Care Med        ISSN: 1529-7535            Impact factor:   3.624


  14 in total

1.  Score for Neonatal Acute Physiology: a physiologic severity index for neonatal intensive care.

Authors:  D K Richardson; J E Gray; M C McCormick; K Workman; D A Goldmann
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Authors:  F Shann; G Pearson; A Slater; K Wilkinson
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3.  PRISM III: an updated Pediatric Risk of Mortality score.

Authors:  M M Pollack; K M Patel; U E Ruttimann
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4.  Efficiency of intensive care. A comparative analysis of eight pediatric intensive care units.

Authors:  M M Pollack; P R Getson; U E Ruttimann; C M Steinhart; R K Kanter; R W Katz; A R Zucker; N L Glass; W A Spohn; B P Fuhrman
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6.  Predicting mortality risk for infants weighing 501 to 1500 grams at birth: a National Institutes of Health Neonatal Research Network report.

Authors:  J D Horbar; L Onstad; E Wright
Journal:  Crit Care Med       Date:  1993-01       Impact factor: 7.598

7.  Simultaneous Prediction of New Morbidity, Mortality, and Survival Without New Morbidity From Pediatric Intensive Care: A New Paradigm for Outcomes Assessment.

Authors:  Murray M Pollack; Richard Holubkov; Tomohiko Funai; John T Berger; Amy E Clark; Kathleen Meert; Robert A Berg; Joseph Carcillo; David L Wessel; Frank Moler; Heidi Dalton; Christopher J L Newth; Thomas Shanley; Rick E Harrison; Allan Doctor; Tammara L Jenkins; Robert Tamburro; J Michael Dean
Journal:  Crit Care Med       Date:  2015-08       Impact factor: 7.598

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9.  The effect of neighborhood and individual characteristics on pediatric critical illness.

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Journal:  J Community Health       Date:  2014-08

10.  Pediatric intensive care outcomes: development of new morbidities during pediatric critical care.

Authors:  Murray M Pollack; Richard Holubkov; Tomohiko Funai; Amy Clark; John T Berger; Kathleen Meert; Christopher J L Newth; Thomas Shanley; Frank Moler; Joseph Carcillo; Robert A Berg; Heidi Dalton; David L Wessel; Rick E Harrison; Allan Doctor; J Michael Dean; Tammara L Jenkins
Journal:  Pediatr Crit Care Med       Date:  2014-11       Impact factor: 3.624

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Authors:  Long V Ho; David Ledbetter; Melissa Aczon; Randall Wetzel
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4.  Predicting cardiac arrests in pediatric intensive care units.

Authors:  Murray M Pollack; Richard Holubkov; Robert A Berg; Christopher J L Newth; Kathleen L Meert; Rick E Harrison; Joseph Carcillo; Heidi Dalton; David L Wessel; J Michael Dean
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5.  Estimating Mortality Risk of Pediatric Critical Illness: A Worthy Obsession.

Authors:  Hector R Wong
Journal:  Pediatr Crit Care Med       Date:  2016-09       Impact factor: 3.624

Review 6.  Morbidity: Changing the Outcome Paradigm for Pediatric Critical Care.

Authors:  Julia A Heneghan; Murray M Pollack
Journal:  Pediatr Clin North Am       Date:  2017-10       Impact factor: 3.278

7.  Pediatric Hematopoietic Cell Transplant Patients Who Survive Critical Illness Frequently Have Significant but Recoverable Decline in Functional Status.

Authors:  Matt S Zinter; Richard Holubkov; Martina A Steurer; Christopher C Dvorak; Christine N Duncan; Anil Sapru; Robert F Tamburro; Patrick S McQuillen; Murray M Pollack
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8.  Examining 1:1 vs. 4:1 Packed Red Blood Cell to Fresh Frozen Plasma Ratio Transfusion During Pediatric Burn Excision.

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9.  Development and Performance of Electronic Pediatric Risk of Mortality and Pediatric Logistic Organ Dysfunction-2 Automated Acuity Scores.

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Journal:  Pediatr Crit Care Med       Date:  2019-08       Impact factor: 3.624

10.  Variability in Pediatric Ideal Body Weight Calculation: Implications for Lung-Protective Mechanical Ventilation Strategies in Pediatric Acute Respiratory Distress Syndrome.

Authors:  Shan L Ward; Carson M Quinn; Martina A Steurer; Kathleen D Liu; Heidi R Flori; Michael A Matthay
Journal:  Pediatr Crit Care Med       Date:  2018-12       Impact factor: 3.624

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