Tessa Lee Crume

Dr. Tessa Lee Crume

orcid

Research Focus & Metrics

Academic Career Length

17Years (2010-Present)

(Calculated once Scilit publication data is synced: current year − year of first publication + 1)

Representative Publications

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1 June 2018 in The Journal of Pediatrics
Verified
Journal Article
Closed access
Tessa Lee CrumeTessa Lee Crume
Tessa Lee Crume
AJAshley L. Juhl
Ashley L. Juhl
ABAshley Brooks-Russell
Ashley Brooks-Russell
KHKatelyn E. Hall
Katelyn E. Hall
EWErica Wymore
Erica Wymore
LBLaura M. Borgelt
Laura M. Borgelt

9 July 2013 in Obesity
Verified
Journal Article
Open access
PDF file
Tessa Lee CrumeTessa Lee Crume
Tessa Lee Crume
ASAnn Scherzinger
Ann Scherzinger
ESElizabeth Stamm
Elizabeth Stamm
RMRobert McDuffie
Robert McDuffie
KBKimberly J. Bischoff
Kimberly J. Bischoff
DDDana Dabelea
Dana Dabelea
Objective To explore the long‐term impact of intrauterine growth restriction (IUGR) among a diverse, contemporary cohort of US children. Design and Methods A retrospective cohort of 42 children exposed to IUGR and 464 unexposed who were members of Kaiser Permanente of Colorado. Height and weight measurements since birth and measures of abdominal adiposity and insulin‐resistance were measured at an average age of 10.6 (±1.3) years. Results Infants born IUGR experienced “catch‐up growth” in the first 12 months of life at a rate of 3.58 kg/m2 compared to 2.36 kg/m2 in unexposed infants (P = 0.01). However, after 1 year of age, no differences in BMI growth velocity were observed. Nevertheless children exposed to IUGR had higher waist circumference (67.0 vs. 65.3 cm, P = 0.03), higher insulin (15.2 vs. 11.0 μU/ml, P = 0.0002), higher HOMA‐IR (2.8 vs. 2.3, P = 0.03), and lower adiponectin levels (9.0 vs. 12.0 μg/ml, P = 0.003) in adolescence, independent of other childhood and maternal factors. Conclusions Our data from a contemporary US cohort suggests that children exposed to IUGR have increased abdominal fat and increased insulin resistance biomarkers despite no differences in BMI growth patterns beyond 12 months of age. These data provide further support for the fetal programming hypothesis.

1 April 2015 in The Journal of Clinical Endocrinology & Metabolism
Verified
Journal Article
Open access
PDF file
Tessa Lee CrumeTessa Lee Crume
Tessa Lee Crume
ASAllison L. Shapiro
Allison L. Shapiro
JBJohn T. Brinton
John T. Brinton
DGDeborah H. Glueck
Deborah H. Glueck
MMMercedes Martinez
Mercedes Martinez
DDDana Dabelea
Dana Dabelea
Context: The impact of specific maternal fuels and metabolic measures during early and late gestation on neonatal body composition is not well defined. Objective: To determine how circulating maternal glucose, lipids, and insulin resistance in the first and second halves of pregnancy influence neonatal body composition. Design: A prospective pre-birth cohort enrolling pregnant women, the Healthy Start Study, was conducted, in which fasting maternal serum samples were collected twice during pregnancy to measure glucose, insulin, hemoglobin A1c, triglyceride, total cholesterol, high-density lipoprotein, and free fatty acids. Neonatal body composition was measured with air displacement plethysmography. Setting: An observational epidemiology study of pregnant women attending obstetric clinics at the University of Colorado, Anschutz Medical Center. Participants: This analysis includes 804 maternal-neonate pairs. Results: A strong positive linear relationship between maternal estimated insulin resistance (homeostasis model of assessment for insulin resistance) in the first half of pregnancy and neonatal fat mass (FM) and FM percentage (FM%) was detected, independent of prepregnancy body mass index (BMI). In the second half of pregnancy, positive linear relationships between maternal glucose levels and offspring FM and FM% were observed, independent of prepregnancy BMI. An inverse relationship was detected between high-density lipoprotein in the first half of pregnancy and FM, independent of prepregnancy BMI. Free fatty acid levels in the second half of pregnancy were positively associated with higher birth weight, independent of prepregnancy BMI. Conclusion: Maternal insulin resistance in the first half of pregnancy is highly predictive of neonatal FM%, whereas maternal glycemia, even within the normal range, is an important driver of neonatal adiposity in later pregnancy, independent of prepregnancy BMI. Our data provide additional insights on potential maternal factors responsible for fetal fat accretion and early development of adiposity.

1 November 2016 in American Journal of Obstetrics and Gynecology
Verified
Journal Article
Closed access
Tessa Lee CrumeTessa Lee Crume
Tessa Lee Crume
JBJohn T. Brinton
John T. Brinton
ASAllison Shapiro
Allison Shapiro
JKJill Kaar
Jill Kaar
DGDeborah H. Glueck
Deborah H. Glueck
DDDana Dabelea
Dana Dabelea

31 January 2012 in International Journal of Obesity
Verified
Journal Article
Open access
PDF file
Tessa Lee CrumeTessa Lee Crume
Tessa Lee Crume
LOL G Ogden
L G Ogden
EME J Mayer-Davis
E J Mayer-Davis
RHR F Hamman
R F Hamman
JNJ M Norris
J M Norris
DDD Dabelea
D Dabelea
Objective: To evaluate the influence of breast-feeding on the body mass index (BMI) growth trajectory from birth through 13 years of age among offspring of diabetic pregnancies (ODP) and offspring of non-diabetic pregnancies (ONDP) participating in the Exploring Perinatal Outcomes Among Children Study. Subjects: There were 94 ODP and 399 ONDP who had multiple BMI measures obtained from birth throughout childhood. A measure of breast milk-months was derived from maternal self-report to categorize breast-feeding status as adequate (⩾6 breast milk-months) or low (<6 breast milk-months). Mixed linear-effects models were constructed to assess the impact of breast-feeding on the BMI growth curves during infancy (birth to 27 months) and childhood (27 months to 13 years). Results: ODP who were adequately breast-fed had a slower BMI growth trajectory during childhood (P=0.047) and slower period-specific growth velocity with significant differences between 4 and 6 years of age (P=0.03) and 6 to 9 years of age (P=0.01) compared with ODP with low breast-feeding. A similar pattern was seen in the ONDP, with adequate breast-feeding associated with lower average BMI in infancy (P=0.03) and childhood (P=0.0002) and a slower growth trajectory in childhood (P=0.0002). Slower period-specific growth velocity was seen among the ONDP associated with adequate breast-feeding with significant differences between 12–26 months (P=0.02), 4–6 years (P=0.03), 6–9 years (P=0.0001) and 9–13 years of age (P<0.0001). Conclusion: Our study provides novel evidence that breast-feeding is associated with long-term effects on childhood BMI growth that extend beyond infancy into early and late childhood. Importantly, these effects are also present in the high-risk offspring, exposed to overnutrition during pregnancy. Breast-feeding in the early postnatal period may represent a critical opportunity to reduce the risk of childhood obesity.

1 August 2019 in The American Journal of Cardiology
Verified
Journal Article
Closed access
AKAmber D. Khanna
Amber D. Khanna
LDLindsey M. Duca
Lindsey M. Duca
JKJoseph D. Kay
Joseph D. Kay
JSJay Shore
Jay Shore
SKSarah L. Kelly
Sarah L. Kelly
Tessa Lee CrumeTessa Lee Crume
Tessa Lee Crume