Mid-term Outcomes of the Supported Ross Procedure in Children, Teenagers, and Young Adults.

The Ross procedure in children, teenagers, and young adults, especially among those with a bicuspid aortic valve with aortic regurgitation, has been associated with neoaortic root dilatation and recurrence of aortic regurgitation. We have shown that at intermediate follow-up, patients who underwent a supported Ross technique were less likely to have neoaortic root dilatation. This study summarizes our most recent outcomes. This was a retrospective review of 40 consecutive pediatric and young adult patients undergoing a supported Ross procedure from 2005 to 2018. Clinical outcomes were reviewed in addition to echocardiographic measures of neoaortic dimension and neoaortic valve function. The median age at surgery was 16.0 years (range 10 - 35 years). Preoperative diagnosis was aortic regurgitation in 15 (37.5%) and mixed regurgitation/stenosis in 20 (50%). Median follow-up was 3.5 years (1.4-5.6) with 3 patients followed for more than 10 years. There were no deaths. Five patients had a reintervention, but only 1 on the aortic valve. One patient returned to the operating room on postoperative day 1 for revision of the right coronary button. Two patients required biventricular pacemakers for reduced ejection fraction. One patient developed aortic regurgitation and underwent mechanical valve replacement and another required a reintervention on the homograft with a percutaneously placed pulmonary valve replacement. At last follow-up, 39 patients had mild or less aortic regurgitation with median sinus z-score of 1.40 (0.48-2.07). Mid-term follow-up of pediatric and young adult patients undergoing a supported Ross operation for various aortic valve pathologies demonstrate excellent results with minimal neoaortic root dilation and reintervention.

Recognition of elevated blood pressure in an outpatient pediatric tertiary care setting.

OBJECTIVE: To assess the prevalence of elevated blood pressure (BP) and its identification among outpatients at a pediatric tertiary care hospital and to assess clinician attitudes towards BP management. STUDY DESIGN: A retrospective review was undertaken of electronic medical record data of visits over the course of 1 year to 10 subspecialty divisions and 3 primary care services at an urban tertiary care hospital. Interviews of division/service representatives and a clinician survey on perceived role on BP care, practices, and protocols related to BP management were conducted. Elevated BP was defined as ≥90th percentile (using US references); identification of elevated BP was defined as the presence of appropriate codes in the problem list or visit diagnoses. RESULTS: Among 29,000 patients (ages 2-17 years), 70% (those with ≥1 BP measurement) were analyzed. Patients were as follows: 50% male; 42% white, 31% Hispanic, 16% black, 5% Asian, and 5% other/missing; 52% had Medicaid insurance. A total of 64% had normal BPs, 33% had 1-2 elevated BP measurements, and 3% had ≥3 elevated BP measurements. Among those with ≥3 elevated BP measurements, the median frequency of identification by division/service was 17%; the greatest identification was for Kidney Diseases (67%), Wellness & Weight Management (60%), and Cardiology (33%). Among patients with ≥3 elevated BP measurements, 21% were identified vs 7% identified among those with 1-2 increased measurements (P<.001). All clinician survey respondents perceived self-responsibility for identification of elevated BP, but opinions varied for their role in the management of elevated BP. CONCLUSIONS: The identification of patients with elevated BP measurements was low. Strategies to increase the identification of elevated BPs in outpatient tertiary care settings are needed.

Initial steps for quality improvement of obesity care across divisions at a tertiary care pediatric hospital.

BACKGROUND: Pediatric subspecialists can participate in the care of obese children. OBJECTIVE: To describe steps to help subspecialty providers initiate quality improvement efforts in obesity care. METHODS: An anonymous patient data download, provider surveys and interviews assessed subspecialty providers' identification and perspectives of childhood obesity and gathered information on perceived roles and care strategies. Participating divisions received summary analyses of quantitative and qualitative data and met with study leaders to develop visions for division/service-specific care improvement. RESULTS: Among 13 divisions/services, subspecialists' perceived role varied by specialty; many expressed the need for cross-collaboration. All survey informants agreed that identification was the first step, and expressed interest in obtaining additional resources to improve care. CONCLUSIONS: Subspecialists were interested in improving the quality and coordination of obesity care for patients across our tertiary care setting. Developing quality improvement projects to achieve greater pediatric obesity care goals starts with engagement of providers toward better identifying and managing childhood obesity.

Screening for elevated risk of liver disease in preschool children (aged 2-5 years) being seen for obesity management.

OBJECTIVES: Elevated alanine aminotransferase can heighten concern for the presence of nonalcoholic fatty liver disease in obese children. Guidelines recommend alanine aminotransferase screening of obese children start at the age of 10 years. We examined alanine aminotransferase values routinely obtained for tertiary obesity care among preschool (2-5 years) and school-age children. METHODS: Medical records of children attending a tertiary obesity clinic and with alanine aminotransferase measured within 6 months of the initial visit were reviewed. Children with known genetic abnormalities were excluded. Children were grouped by age to focus attention on groups not covered by screening guidelines. Associations with elevated alanine aminotransferase (>30 IU/L) were examined. RESULTS: A total of 284 records were analyzed (73 preschool, 143 young school-age (6-9 years), 68 older school-age (10-11 years)). Children were primarily Hispanic and had body mass index ≥ 99th percentile (preschool children 92%, young school-age 73%, older school-age 59%). In all, 26% of preschool children had elevated alanine aminotransferase (young school-age 30%, older school-age 44%). Preschool children with elevated alanine aminotransferase had higher body mass index compared to preschool children with alanine aminotransferase ≤ 30 IU/L (median body mass index 27.8 kg/m(2) vs 24.0 kg/m(2); Mann-Whitney U test, p = 0.003), but there was no disparity for elevated alanine aminotransferase related to Hispanic ethnicity. For older children, Hispanic ethnicity, not body mass index, predicted elevated alanine aminotransferase. CONCLUSION: Alanine aminotransferase elevation was common in these preschool children. Screening severely obese children for elevated alanine aminotransferase should begin at the age of 2 years.