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Brain and Behavior Influences on Obesity Development From Infancy Through Childhood

Early Brain Development and Child Nutrition and Obesity

Status
Recruiting
Phases
Unknown
Study type
Interventional
Source
ClinicalTrials.gov
Registry ID
NCT06861868
Acronym
RESONATE
Enrollment
210
Registered
2025-03-06
Start date
2024-12-02
Completion date
2029-03-31
Last updated
2026-05-07

For informational purposes only — not medical advice. Sourced from public registries and may not reflect the latest updates. Terms

Conditions

Obesity and Overweight

Keywords

obesity, overweight, pediatric, eating behavior, appetite, neuroimaging, magnetic resonance imaging, brain development

Brief summary

The investigators project, RESONATE, aims to investigate why some children develop obesity. To do this it uses data on eating and eating-related behaviors, genetic and environmental factors, and brain structure and function. This data is collected in a sub-sample of RESONANCE, a large study of families of children from infancy through childhood. The results will lay foundations for the development of early interventions to prevent or treat obesity.

Detailed description

Obesity risk shows individual variation such that some children are more likely than others to gain excess weight. One potential reason is that, due to genetic and environmental factors, individuals vary in appetitive behaviors that drive food intake and weight. However, the neurodevelopmental mechanisms underpinning variation in appetite and weight, and effects of risk and protective factors on those outcomes, are not understood. Preliminary data from RESONANCE, the investigators large MRI cohort, suggests obesity risk factors such as maternal pre-pregnancy obesity and obesity-associated genetic variants are associated with not just heightened parent-reported child appetite and adiposity, but with altered patterns of brain structure development from infancy through early childhood. However the relevance of these findings to appetitive behaviors and development of obesity in middle childhood is unknown. This is important because obesity rates and metabolic complications increase through development, adiposity and eating habits measured in later childhood track into adulthood, and obesity is harder to treat later in development, making middle childhood a key stage for capturing outcomes with relevance for lifetime metabolic health. Further, although functional magnetic resonance imaging (MRI) studies have identified altered patterns of activation in brain appetite circuits in association with pediatric obesity and early risk factors for obesity, the predictors of altered functioning of brain appetite circuits in middle childhood are unknown. Identifying the patterns of brain development that predict obesity-promoting behaviors and brain functioning in middle childhood is essential to understand the neural mechanisms by which early obesity risk factors drive excess intake and obesity, and may help pinpoint neurobehavioral targets for early obesity prevention. Finally, although preclinical research and MRI studies of children under 9 years of age support that hypothalamic gliosis, a cellular inflammatory response, plays a role in obesity pathogenesis, it is unclear whether it occurs or impacts appetite in earlier life. For the proposed study, RESONATE, the investigators will address the above research gaps by extending the RESONANCE study to administer meal tests, behavioral and functional magnetic resonance imaging (fMRI) tasks assessing food and non-food reward and cognitive control, and weight/ adiposity measures in middle childhood, and examining hypothalamic gliosis, in a sub-sample of RESONANCE children. By combining this data with extant MRI data and extant or newly-collected data on obesity risk and protective factors, the investigators will test a multi-faceted hypothesis that prenatal, genetic and postnatal factors lead to differential early development of brain appetite circuits, which in turn gives rise to variation in appetitive behaviors and behaviors involving reward processing and cognitive control as well as altered function of brain appetite circuits, that act to influence the development of obesity into middle childhood. The investigator's long-term goal is to lay foundations for developmentally-appropriate, neurobehaviorally-informed interventions to address child obesity.

Interventions

OTHERfMRI cue reactivity task

Measures effect of food and non-food cues on brain activation

OTHERfMRI go no go task

Measures effect of food and non-food cues on inhibitory responses and brain activation

OTHERAd libitum meal test

Measures effect of exposure to multi-item buffet meal on food intake

OTHEREating in the absence of hunger test

Measures effect of exposure to palatable snacks on food intake

Sponsors

Johns Hopkins University
Lead SponsorOTHER
National Institute of Diabetes and Digestive and Kidney Diseases (NIDDK)
CollaboratorNIH
Rhode Island Hospital
CollaboratorOTHER
Hugo W. Moser Research Institute at Kennedy Krieger, Inc.
CollaboratorOTHER
University of Washington
CollaboratorOTHER

Study design

Allocation
NA
Intervention model
SINGLE_GROUP
Primary purpose
BASIC_SCIENCE
Masking
NONE

Eligibility

Sex/Gender
ALL
Age
7 Years to 12 Years
Healthy volunteers
Yes

Inclusion criteria

* Participants from the RESONANCE cohort are eligible if the participant will reach 7-12 years of age during the proposed project period and have no food allergies.

Exclusion criteria

*

Design outcomes

Primary

MeasureTime frameDescription
Meal test intake as assessed by total kilocalories consumedDay 1Total kilocalories consumed. Once at the first study visit (lab visit)
Weight/adiposity as assessed by BMIDay 1Body Mass Index z-score. Once at the first study visit (lab visit)
Food-related reward as assessed by food-related delay discounting taskDay 1Number of trials the child passes. Once, at the first study visit (lab visit)
Food-related cognitive control as assessed by food-related go/no-go taskDay 1Commission error rate. Once, at the first study visit (lab visit)
Functioning in brain appetite circuits as assessed by cue reactivity taskDuring MRI procedureActivation of striatal reward regions and fronto-cingulate control circuits during task assessing food-related reward (cue reactivity). Once, at the second study visit (MRI visit).
Functioning in brain appetite circuits as assessed by cognitive control taskDuring MRI procedureActivation of striatal reward regions and fronto-cingulate control circuits during task assessing food-related cognitive control (go/no go). Once, at the second study visit (MRI visit).

Countries

United States

Contacts

CONTACTSusan Carnell, PhD
susan.carnell@jhmi.edu410-955-7192
CONTACTViren D'Sa, MD
viren_dsa@brown.edu312-371-4178
PRINCIPAL_INVESTIGATORSusan Carnell, PhD

Johns Hopkins University

Outcome results

None listed

Source: ClinicalTrials.gov · Data processed: May 8, 2026