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Treatment modality patterns and transplantation among the United States pediatric end-stage renal disease population: a longitudinal study.

Between 1985 and 1988, there were 3,393 children (Medicare insured) under age 20 who began treatment for chronic ESRD. Patterns of modality use, modality switch, mortality rates, and various aspects of transplantation were analyzed for different age and incident groups of this pediatric cohort. The pediatric cohort as a whole exhibited a distinct pattern of modality use when compared to adults in general, a point evidenced most clearly by their substantially higher rates of transplantation. Furthermore, notable differences were found within the pediatric cohort when the younger than 5, 5-9, 10-14, and 15- to 19-year-old age groups were analyzed separately. Younger pediatric patients, particularly those younger than 5 years, received peritoneal dialysis as initial ESRD therapy more frequently than their older pediatric counterparts. This result would be expected given vascular access problems often associated with very young patients. In addition, those patients younger than 5 years who began RRT with some form of hemodialysis had the highest likelihood of switching to CAPD/CCPD within the first year of therapy. Conversely, older pediatric patients were most likely to begin RRT therapy with some form of hemodialysis. By day 91, slightly over half of the 15- to 19-year-old age group was utilizing center hemodialysis; the CAPD/CCPD, other peritoneal, and functioning transplant modalities each contained about 10% of the patients with the remainder falling into the death and unknown dialysis categories. The overall pattern of switching to transplantation during the first year of RRT was similar for pediatric patients initiating RRT with center hemodialysis versus peritoneal dialysis (CAPD/CCPD), but differed by age group within each dialysis type. Pediatric patients on peritoneal dialysis were somewhat more likely to receive a transplant during the first year of ESRD compared to hemodialysis, although the difference was small. Mortality rates during the first year for patients who began treatment with center hemodialysis versus CAPD/CCPD were similar. The well-documented dominance of transplantation as a method of RRT for pediatric patients was further verified by this study. Results show that transplantation was implemented rapidly during the initial months of ESRD. Nearly 50% of surviving pediatric patients had a functioning transplant at 1 year following onset and 64% at 3 years. These percentages were exceeded for the 5- to 9-year-old age group, of which 74% had a functioning graft 3 years following onset.(ABSTRACT TRUNCATED AT 400 WORDS)

Adolescent↗

Pediatric surgery in Nigeria.

BACKGROUND: Pediatric surgery is a well-established specialty in many developed countries, but little is known about the status of the specialty in most developing countries. METHOD: The status of pediatric surgery in Nigeria was reviewed. RESULT: Nigeria currently has an estimated population of 126 million people with a growth rate of 2.8%, one half of whom are children. Pediatric surgery is a well-recognized specialty in the country. At the moment, there are 35 trained pediatric surgeons but only 26 are fully functional (1 pediatric surgeon:2.2 million children). Most of the available pediatric surgeons are in tertiary hospitals in major cities and towns. There is a well-established formal training program and certification run by the West African College of Surgeons; it takes an average of 4.5 to 6 years to train in pediatric surgery, 2 years of which must be spent in general surgery. Only 1 to 2 trainees graduate every year, and there are less than 10 trainees in the 5 accredited training centers at the moment. Funding for training is poor, and pediatric surgical research receives little or no funding. CONCLUSION: There is a need for more pediatric surgeons in Nigeria. More trainees need to be mentored and encouraged to take up the specialty. Collaboration with centers in developed countries and other parts of Africa and improved funding are necessary to improve the profile of the specialty.

Certification↗

Differences in pediatric ICU mortality risk over time.

OBJECTIVES: To compare pediatric intensive care unit (ICU) mortality risk using models from two distinct time periods; and to discuss the implications of changing mortality risk for severity systems and quality-of-care assessment. DATA SOURCES AND SETTING: Consecutive admissions (n = 10,833) from 16 pediatric ICUs across the United States that participate in the Pediatric Critical Care Study Group were recorded prospectively. Data collection occurred during a 12-mo period beginning in January 1993. METHODS: Data collection for the development and validation of the original Pediatric Risk of Mortality (PRISM) score occurred from 1980 to 1985. The original PRISM coefficients were used to calculate mortality probabilities in the current data set. Updated estimates of mortality probabilities were calculated, using coefficients from a logistic regression analysis using the original PRISM variable set. Quality-of-care tests were performed using standardized mortality ratios. RESULTS: Risk of mortality from pediatric ICU admission improved considerably between the two periods. Overall, the reduction in mortality risk averaged 15% (p < .001). Analysis of mortality risk by age indicated a large improvement for younger infants. The mortality risk for infants <1 mo improved by 39% (p < .001). Mortality risk improved by 28% (p < .001) for infants between 1 and 12 mos. Analysis of mortality risk by principal diagnosis indicated substantial improvement in respiratory diseases, including respiratory diseases developing in the perinatal period. The mortality risk for respiratory diseases improved by 45% (p < .001). The improvement in mortality risk substantially deteriorated the calibration of the original PRISM severity system (p < .001). As a result of changing mortality risk, the standardized mortality ratios across the 16 pediatric ICUs demonstrated substantial disparities, depending on the choice of models. CONCLUSIONS: This study documents differences in pediatric ICU risk of mortality over time that are consistent with a general improvement in the quality of pediatric intensive care. Despite continued widespread use of the original PRISM, recent improvements in pediatric ICU quality of care have negated its usefulness for many intended applications, including quality-of-care assessment.

Age Distribution↗

Collaborative Pediatric Critical Care Research Network (CPCCRN).

Pediatric critical care was formally recognized as a separate subspecialty in pediatrics in 1987. Since that time the numbers of pediatric intensivists, pediatric intensive care units, and pediatric intensive care beds in the United States have increased dramatically. Research efforts have lagged behind, however, as this new discipline has struggled to identify the necessary time, funding, and other resources to pursue clinical and laboratory investigation. In April 2004, the National Center for Medical Rehabilitation Research of the National Institute for Child Health and Human Development issued a request for applications to establish the Collaborative Pediatric Critical Care Research Network (CPCCRN). The CPCCRN provides an infrastructure to pursue collaborative clinical trials and descriptive studies in pediatric critical care medicine. Six pediatric centers involving seven intensive care units and a data-coordinating center were identified through a competitive application process. Network goals include the support of collaborative clinical trials otherwise impracticable in single institutions and the establishment of a framework for developing the scientific basis for pediatric critical care practice. This article describes how the CPCCRN was established, its organization, and its goals and future plans.

Child↗

Insights in pediatric ventilation: timing of intubation, ventilatory strategies, and weaning.

PURPOSE OF REVIEW: Mechanical ventilation is a common intervention provided by pediatric intensivists. This fact notwithstanding, the management of mechanical ventilation in pediatrics is largely guided by a few pediatric trials along with careful interpretation and application of adult data. RECENT FINDINGS: A low tidal volume, pressure limited approach to mechanical ventilation as established by the Acute Respiratory Distress Syndrome Network investigators, has become the prevailing practice in pediatric intensive care. Studies by these investigators suggest that high positive end expiratory pressure and recruitment maneuvers are not uniformly beneficial. High frequency oscillatory ventilation continues to be evaluated in an attempt to provide 'open lung' ventilation. Airway pressure release ventilation is a newer mode of ventilation that may combine the 'open lung' approach with spontaneous breathing. Prone positioning was demonstrated in a recent pediatric trial to have no effect on outcome, while calfactant was found to potentially improve outcomes in pediatric acute respiratory distress syndrome. Ventilator weaning protocols may not be as useful in pediatrics as in adults. Systemic corticosteroids decrease the incidence of post extubation stridor and may reduce reintubation rates. SUMMARY: Mechanical ventilation with pressure limitation and low tidal volumes has become customary in pediatric intensive care units, and this lung protective approach will continue into the foreseeable future. Further investigation is warranted regarding use of high frequency oscillatory ventilation, airway pressure release ventilation, and surfactant to assist pediatric intensivists in application of these therapies.

Child↗

Guidelines for pediatric cancer centers.

Since the American Academy of Pediatrics published guidelines for pediatric cancer centers in 1986 and 1997, significant changes in the delivery of health care have prompted a review of the role of tertiary medical centers in the care of pediatric patients. The potential effect of these changes on the treatment and survival rates of children with cancer led to this revision. The intent of this statement is to delineate personnel and facilities that are essential to provide state-of-the-art care for children and adolescents with cancer. This statement emphasizes the importance of board-certified pediatric hematologists/oncologists, pediatric subspecialty consultants, and appropriately qualified pediatric medical subspecialists and pediatric surgical specialists overseeing the care of all pediatric and adolescent cancer patients and the need for facilities available only at a tertiary center as essential for the initial management and much of the follow-up for pediatric and adolescent cancer patients.

Adolescent↗

[Notes for a history of pediatrics].

The origins, major events and the Italian and foreign literature on the history of pediatrics are summarized. The origins of the word ''pediatrics'', the history of pediatric incunables and the first textbooks of pediatrics in Italian language are reviewed. Moreover, the foundation of the first pediatric hospital in Italy, the Italian history of academic schools in pediatrics, the first national congress and the formation of the national society of pediatrics are outlined. In 1998, on the occasion of the 100 years anniversary of the foundation of the national society of pediatrics, a special group on the history of pediatrics was formed. Finally, other topics for further studies are suggested.

England↗

Social determinants of pediatric residents' injury prevention counseling.

BACKGROUND: Social norms imparted by preceptors and the requirements necessary to pass American Board of Pediatrics' examinations are potentially important contributors to physician behavior. OBJECTIVE: To explore the relationships between perceived professional norms regarding injury prevention and the injury prevention topics discussed, and counseling strategies employed, by pediatric residents. DESIGN: A self-administered survey. SETTING: All 5 North Carolina pediatric residency programs. PARTICIPANTS: Physicians training in pediatrics or medicine-pediatrics in these programs (N = 160, 72% response rate). MAIN OUTCOME MEASURE: Correlation between perceived professional norms and self-reported content of injury prevention counseling and use of behavior change strategies. RESULTS: Although 95% of the pediatric residents reported counseling all or almost all parents with children younger than 1 year about car seat use, only 19% reported counseling this many parents about gun safety. Of the 7 behavior change strategies that residents were asked about, respondents were most likely to report "showing approval for safe behaviors" to all almost all parents (78%). Two thirds reported asking all or almost all parents about the safety of their homes. Pediatric residents' reported injury prevention counseling was correlated with their perceived professional norms regarding such counseling for most of the content areas and behavior change strategies. CONCLUSIONS: Perceived professional norms regarding injury prevention are related to pediatric residents' counseling, Preceptors should be aware that they transmit professional norms to residents. Also, the American Board of Pediatrics can increase residents' attention to injury prevention by informing them that it will be a topic included in the board examination.

Adult↗

Variation in the management of pediatric diabetic ketoacidosis by specialty training.

OBJECTIVE: To compare management strategies for pediatric diabetic ketoacidosis (DKA) among physicians with different specialty training. METHODS: We conducted a mail survey of 1000 randomly selected physicians, including 200 pediatric endocrinologists, 200 general emergency physicians, 200 pediatric emergency physicians, 200 pediatric intensivists, and 200 pediatric chief residents. We posed questions regarding a hypothetical 10-year-old patient with new onset of diabetes mellitus who is approximately 10% dehydrated but alert, with venous pH of 7.1 and serum glucose concentration of 34.7 mmol/L (625 mg/dL). Questions involved the rate of rehydration, content of intravenous fluids, insulin therapy, potassium replacement, use of sodium bicarbonate, and adjustments in therapy for decreasing serum glucose concentration. We compared responses of physicians in each specialty and used multiple regression analysis to adjust for potential confounding variables, including number of years in practice, number of children with DKA seen per month, and practice setting. RESULTS: Five hundred eighty-one physicians (58.1%) completed the survey, with responses demonstrating significant, consistent differences between specialties. Extremes of responses included the following: (1) 59% of endocrinologists vs 11% of general emergency physicians would give an initial fluid bolus of less than 20 mL/kg (odds ratio [OR], 11.7; 95% confidence interval [CI], 5.0-27.7) (P < .001); (2) 83.5% of general emergency physicians vs 42.5% of pediatric intensivists would administer an initial insulin bolus (OR, 4.1; 95% CI, 2.0-8.7) (P < .001); (3) 58.2% of pediatric intensivists vs 9% of general emergency physicians would replace fluids over a period of greater than 24 hours (OR, 14.1; 95% CI, 5.5-37.5) (P < .001); and (4) 54.3% of general emergency physicians vs 7.3% of pediatric intensivists would use potassium chloride alone for potassium replacement (OR, 10.8; 95% CI, 5.0-23.8) (P < .001). All of these differences persisted after adjusting for the potential confounding variables. CONCLUSIONS: Substantial differences exist in the management of pediatric DKA among physicians of different specialties, presumably due to differences in specialty training. These differences obscure our ability to evaluate the treatment of DKA and highlight the necessity for further studies comparing the outcomes of different treatment strategies.

Brain Edema↗

Peer-reviewed publication of clinical trials completed for pediatric exclusivity.

CONTEXT: Much of pediatric drug use is off-label because appropriate pediatric studies have not been conducted and the drugs have not been labeled by the US Food and Drug Administration (FDA) for use in children. In 1997, Congress authorized the FDA to grant extensions of marketing rights known as "pediatric exclusivity" if FDA-requested pediatric trials were conducted. As a result, there have been over 100 product labeling changes. The publication status of studies completed for pediatric exclusivity has not been evaluated. OBJECTIVE: To quantify the dissemination of results of studies conducted for pediatric exclusivity into the peer-review literature. DESIGN: Cohort study of all trials conducted for pediatric exclusivity between 1998 and 2004 as determined by MEDLINE and EMBASE searches through 2005, the subsequent labeling changes, and the publication of those studies in peer-reviewed journals. We categorized any labeling changes resulting from the studies as positive or negative for the drug under study. We then evaluated aspects of the studies and product label changes that were associated with subsequent publication in peer-reviewed medical journals. MAIN OUTCOME MEASURES: Publication of the trial data in peer-reviewed journals. RESULTS: Between 1998 and 2004, 253 studies were submitted to the FDA for pediatric exclusivity: 125 (50%) evaluated efficacy, 51 (20%) were multi-dose pharmacokinetic, 34 (13%) were single-dose pharmacokinetic, and 43 (17%) were safety studies. Labeling changes were positive for 127/253 (50%) of studies; only 113/253 (45%) were published. Efficacy studies and those with a positive labeling change were more likely to be published. CONCLUSIONS: The pediatric exclusivity program has been successful in encouraging drug studies in children. However, the dissemination of these results in the peer-reviewed literature is limited. Mechanisms to more widely disperse this information through publication warrant further evaluation.

Clinical Trials as Topic↗

Teaching of pulmonary auscultation in pediatrics: a nationwide survey of all U.S. accredited residencies.

Structured teaching of pulmonary auscultation is greatly underrepresented during internal medicine (IM) or family practice (FP) training. It is not known, however, whether this underrepresentation applies to the other major field of primary care, pediatrics. To answer this question, we surveyed all accredited U.S. residencies in pediatrics by mailing a 1-page questionnaire to 174 pediatrics program directors, and by comparing results to those previously gathered from internal medicine and family practice residencies. Pediatrics directors' response rate was 62%. More pediatrics than family practice residencies offered structured teaching of pulmonary auscultation (21.5% vs. 9.7%, P < 0.004). When compared to internal medicine programs, this difference showed a trend toward significance (21.5% for pediatrics and 14.1%, for internal medicine, P = 0.08). Teaching modalities included: lectures (91.2%); audiotapes (13%); seminars (8.3%); and miscellaneous (21.7%). University-affiliated residencies taught auscultation significantly more frequently than nonuniversity-affiliated programs (25.4% vs.10.5%, P = 0.07). Pediatrics directors gave great importance to pulmonary auscultation, and wished for more time devoted to its teaching (5.52 +/- 0.84 and 5.01 +/- 1.07, respectively, on a 1-6 scale, with 6 indicating the highest value). They also attributed great clinical importance to 13 commonly encountered pulmonary auscultatory events (all rated, on average, between 4-5.8 on a 1-6 scale, with 6 indicating highest importance). In summary, training programs in pediatrics offered significantly more structured teaching of pulmonary auscultation than IM or FP residencies. Whether this difference in teaching may have a beneficial impact on the auscultatory proficiency of pediatric residents, as compared to internal medicine and family practice trainees, needs to be determined.

Auscultation↗

How well do we prepare pediatric radiologists regarding child abuse? Results of a survey of recently trained fellows.

BACKGROUND: Pediatric radiologists serve an important role in the radiologic diagnosis, investigation, and in legal proceedings in cases of child abuse. The Society for Pediatric Radiology should evaluate and insure the adequacy of training of pediatric radiologists for this important role. OBJECTIVE: The Society for Pediatric Radiology Committee on Child Abuse, 2002, conducted a 24-question survey to evaluate the scope and perceived adequacy of training received by pediatric radiology fellows regarding the radiologic diagnosis of child abuse and the associated legal process. MATERIALS AND METHODS: Eighty-four surveys were mailed to radiologists who had completed a year in pediatric radiology fellowship training during the years 1999 and 2000. There were 33 surveys returned for an overall response of 39%. RESULTS: Respondents' perception of adequacy of training was best for the radiologic diagnosis of child abuse. The majority perceived they were not well trained in the investigative and legal processes regarding child abuse. The majority would welcome standardized training. CONCLUSION: Current pediatric radiology training programs do not sufficiently prepare pediatric radiologists for their role in the legal system regarding child abuse. A standardized program to train pediatric radiologists about the imaging diagnosis of child abuse and their role in the legal system is recommended.

Child↗

Pediatric nephrology workforce in Latin America.

Pediatric nephrology workforce issues were examined in a Latin American survey involving 14 countries. The number of children under 15 years per pediatric nephrologist varied widely among countries: Argentina, Cuba, Venezuela, and Uruguay had an unusually high number of pediatric nephrologists. Guatemala represents the opposite end of the spectrum of values (1,582.6 thousand children under 15 years per pediatric nephrologist). A significant inverse correlation was found between children under 15 years per pediatric nephrologist and national gross domestic product per capita (r=-0.52, P<0.05) and a significant correlation between children per pediatric nephrologist and infant mortality (r=0.82, P<0.005, Spearman's rank correlation coefficient). The same correlations were observed for total population per pediatric nephrologist. However, the pediatric nephrology workforce does not merely reflect national economic status. Official health care policies, market forces, and social regulations also have an influence. A study of the number of pediatric nephrologists necessary for adequate planning of care of children with renal disease in Latin America is urgently needed.

Child↗

Pediatric cardiology manpower in the 1980s.

The allocation of professional time of board-certified pediatric cardiologists in 1980 to 1981 was compared with that of pediatric cardiologists in 1967, by use of a similar questionnaire. At both times, the majority of pediatric cardiologists were in a full-time academic or hospital setting. In 1980 to 1981, the number of hours devoted to professional activities was significantly less than during the earlier period, with the reduction being principally in amount of time devoted to research, either clinical or basic, and teaching. This change has implications for manpower and the scientific aspects of pediatric cardiology. An average of 40 physicians enter pediatric cardiology yearly. With the current number of certified pediatric cardiologists, and a modest number of pediatric cardiologists who will leave the field in the next half decade, we project 900 pediatric cardiologists in 1990. A number of factors are discussed that will influence the needs for pediatric cardiologists.

Cardiology↗

Accuracy of ECG interpretation in the pediatric emergency department.

STUDY OBJECTIVE: We assess accuracy of ECG interpretation and indications for obtaining ECGs and develop a clinical classification system of ECG abnormalities. METHODS: Prospectively acquired ECG data on patients 0 to 21 years of age and presenting to our pediatric emergency department (ED) were obtained. Clinical indications were documented. The initial ECG interpretation (pediatric ED attending physician) was compared with the criterion standard (pediatric cardiologist). A blinded cardiology panel reviewed discrepancies, and a final concordance rate was determined. An ECG abnormality classification system was developed and used to categorize these abnormal ECGs. RESULTS: One thousand six hundred fifty-three ECGs from 1,501 patients, aged 2 days to 21 years (median 10.0 years), were obtained during 3.5 years. Fifty-one percent were male patients. ECG indications included chest pain (21%), seizure or syncope (18%), arrhythmias (17%), apparent life-threatening event or respiratory symptoms (16%), ingestions (10%), cardiac abnormality (10%), and miscellaneous (8%). From 1,631 ECGs, 1,160 (71%) were normal (class 0), 259 (16%) were minimally abnormal (class I), 174 (11%) were moderately abnormal (class II), and 38 (2%) were severely abnormal (class III). Kendall's tau-b test showed concordance of 0.73 (95% confidence interval 0.70 to 0.77) between pediatric ED and cardiology interpretation. The sensitivity of pediatric ED interpretation was 75%, and the specificity was 98.5%. The positive predictive value of pediatric ED interpretation was 88.3%, and the negative predictive value was 96.3%. CONCLUSION: We conclude that, overall, a high rate of concordance exists between the pediatric emergency physician's and the cardiologist's ECG interpretation. The majority of discordant ECGs are not clinically significant. However, among the clinically significant ECGs, there is a higher rate of discordance. These data suggest that review of pediatric ECGs by pediatric cardiologists may significantly reduce underdetection of clinically important ECG findings in children.

Adolescent↗

Pediatric trauma center criteria: an outcomes analysis.

BACKGROUND/PURPOSE: Trauma centers (TC) are certified based on widely accepted criteria. These specific criteria rarely are scrutinized individually. The purpose of this study was to analyze the individual components of a pediatric trauma center for their effect on outcome. METHODS: Members of the National Pediatric Trauma Registry were queried about the following: (1) separate pediatric emergency department (ED), (2) pediatric intensive care unit (PICU), (3) pediatric intensivist as PICU director, (4) pediatric surgeon as TC director, (5) in-house attending surgeon, (6) in-house pediatric emergency physician, (7) 24-hour operating room, (8) 24-hour computed tomography (CT) scan. Outcomes analyzed included mortality, length of stay, time in ED, days in PICU, and disability. Victims were stratified based on age (<7 or > or = 7 years) and severity of injury (ISS < or = 16, 17-35, > or = 36). Results were compared using Student's t test and chi2 analysis. RESULTS: A total of 59 of 74 centers responded, 18 were dropped because of low enrollment (mean, 1.6 patients). Questions 3, 4, 6, and 7 were eliminated because of skewed data. An in-house surgeon reduced the amount of time a mildly injured patient (ISS < or = 16) spent in the ED (210 v434 minutes), as did the separate pediatric ED (333 v592 minutes) and pediatric emergency physicians (344 v 507 minutes) in younger patients (> or = 7 years). An in-house surgeon reduced the morality rate in older (> or = 7) severely injured (ISS > or = 36) patients (46.7% v 56.8%; P < .05 for all). No other differences were significant. CONCLUSIONS: In-house personnel improved efficiency for the less severely injured, and an in-house attending surgeon reduced mortality in the severely injured older patient. None of the other variables were found to have a significant impact on outcome.

Child↗

Outcome of cardiovascular collapse in pediatric blunt trauma.

STUDY OBJECTIVES: To determine the survival and functional outcome of pediatric blunt trauma victims demonstrating cardiovascular collapse, including pulseless cardiopulmonary arrest or severe hypotension, on initial presentation in an emergency department. DESIGN: Seven-year consecutive case-control series. SETTING: Level I trauma center and university teaching hospital. PARTICIPANTS: Two thousand one hundred twenty consecutive pediatric victims of blunt trauma less than 16 years old admitted to a Level I trauma center from August 1984 through December 1991 had a mortality of 5.2%. Thirty-eight patients (1.8%) demonstrated pulseless cardiac arrest or severe hypotension (systolic blood pressure of 50 mm Hg or less) on initial presentation in the ED. INTERVENTIONS: All patients received basic and advanced life support consistent with guidelines published by the American Heart Association, American Academy of Pediatrics, and American College of Surgeons. MEASUREMENTS AND MAIN RESULTS: Survival, functional outcome, and donor status were reviewed. Outcome of ED resuscitation (death or reanimation), post-ED destination (morgue, operating room, or pediatric ICU) length of hospitalization, functional outcome after hospital discharge, time to death (time from admission to ED to declaration of death), cause of death, total hospital costs, total hospital charges, and organ donation were reviewed. There were no functional survivors among 38 pediatric victims of blunt trauma who presented to the ED in pulseless cardiac arrest or with severe hypotension. Eleven of the 12 patients who were transferred to the pediatric ICU died; the single survivor demonstrated profound neurologic impairment six years after hospitalization. Six of these 12 patients were eligible potential donors and resulted in four multiorgan donors during the seven-year study. The mean hospital unreimbursed care for the 38 study patients was $3,514 per patient. CONCLUSION: No child who presented with pulseless cardiac arrest or severe hypotension following blunt trauma achieved functional survival. Reimbursed care for pediatric victims of blunt trauma demonstrating cardiovascular collapse is disproportionately poor compared with that for pediatric patients who maintain hemodynamic integrity in the ED. Half of all patients who were stabilized sufficiently for transfer to the pediatric ICU were eligible potential organ donors. Therefore aggressive resuscitation of these patients may be justified if organ donation is seriously contemplated and aggressively pursued.

Adolescent↗

Pediatric basic and advanced life support courses: first experience in Spain.

OBJECTIVE: to evaluate the efficiency of the first experience in pediatric basic and advanced life support courses in Spain. MATERIAL AND METHODS: we have given two pediatric basic life support (PBLS) courses of 8 h each to 52 school teachers and ambulance drivers, and 10 30-h pediatric advanced life support (PALS) courses to 276 health professionals, 62 nurses and 214 physicians (80 pediatricians, 57 pediatric, anesthesiology and intensive care medicine residents, 10 general physicians and 52 emergency physicians). We developed the courses according to the guidelines for pediatric life support from the European Resuscitation Council. We performed an initial and final theoretical written test, continuous practical evaluation and a written survey about the quality of the course. RESULTS: on PBLS courses, only 12% of practitioners answered at least 80% of the questions in the initial theory test correctly, compared with 77% in the final test (P < 0.001). All the students acquired skills in basic pediatric resuscitation. In the PALS courses, only 30% of practitioners answered at least 75% of the questions in the initial test correctly (35% of physicians and 12% of nurses, P < 0.01); this percentage increased to 95.6% in the final test (96% of physicians and 93.5% of nurses, P < 0.05). Of students, 95% acquired skills in advanced pediatric resuscitation. All students and teachers considered the theoretical and practical formation received adequate. CONCLUSIONS: basic and advanced pediatric life support courses are a useful educational method for the general population, health professionals, physicians and nurses in theoretical and practical pediatric resuscitation.

Cardiopulmonary Resuscitation↗