grant

The Multi-Omic Milk (MuMi) Study: Leveraging the IMiC Platform and the CHILD Cohort to study human milk as a biological system and understand its composition, determinants and impacts on child health

Organization UNIVERSITY OF MANITOBALocation WINNIPEG, CANADAPosted 12 Aug 2022Deadline 31 Jul 2027
NIHUS FederalResearch GrantFY20250-11 years oldAI systemAddressAffectAllergyAnthropometryArtificial IntelligenceAtopic AllergyBacteriaBig DataBigDataBreast FeedingBreast MilkBreast fedBreastfedBreastfeedingBreastmilkCaringCategoriesCharacteristicsChildChild DevelopmentChild HealthChild YouthChildhoodChildren (0-21)Chronic DiseaseChronic IllnessCohort StudiesCollaborationsComputer ReasoningConcurrent StudiesDataData ScientistData SetDevelopmentEnsureEnvironmental ExposureEnvironmental FactorEnvironmental Risk FactorFatty AcidsFuture GenerationsGeneralized GrowthGeneticGestationGrantGrowthGrowth and DevelopmentGrowth and Development functionHealthHumanHuman MilkHuman Mother's MilkIndividualInfantInfant DevelopmentInfant HealthInfant and Child DevelopmentInfectionInfrastructureInternationalInvestigatorsLactationLife StyleLifestyleMachine IntelligenceMacronutrientsMacronutrients NutritionMammary Gland MilkMetadataMicronutrientsMilkMilk SubstitutesModern ManMother's MilkMothersNutrientNutritionNutrition ResearchNutritional StudyOligosaccharidesParentsPhenotypePositionPositioning AttributePregnancyProteinsResearchResearch PersonnelResearch ResourcesResearchersResolutionResourcesSamplingScientistSystemSystems BiologySystems DevelopmentTissue GrowthVariantVariationWheezingWorkatopic triadatopybiobankbiological systemsbiorepositorychronic disordercohortcomplex biological systemsdesigndesigningdevelopmentaldisease preventiondisorder preventionearly childhoodenvironmental riskfeedingimprovedinfancyinfant nutritioninfantileinnovateinnovationinnovativekidslactatinglactationallater in lifelater lifelife-style factorlifestyle factorsmachine learning based methodmachine learning methodmachine learning methodologiesmaternal milkmeta datamethod developmentmicrobial consortiamicrobial floramicrobiomemicrobiotamicrofloramultiomicsmultiple omicsmultispecies consortianovelontogenypanomicsparentpediatricprogramsresolutionsunsupervised learningunsupervised machine learningwheezeyoungster
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Full Description

PROJECT SUMMARY
Significance: Human milk (HM) has evolved over millions of years to nourish and protect human infants - yet

we know surprisingly little about its composition, variation, and function. Traditionally, HM research has focused

on individual HM components, yet HM is a complex biological system comprising thousands of components

that interact and function in combination. Moreover, while HM composition is known to be affected by maternal,

infant, and environmental factors, these are poorly understood and rarely examined simultaneously. To address

these gaps, our team is championing a multi-omics systems biology approach to study HM as a “system within

a system”, reflecting that milk itself is a system embedded within the “mother-milk-infant” triad.

Approach: This grant will leverage and unite two established HM research platforms to investigate HM and its

determinants and health impacts among 1600 mother-infant dyads using a novel multi-omic approach. The

International Milk Composition (IMiC) Consortium is a network of HM researchers and data scientists with an

established infrastructure for multi-omic HM research. CHILD is an ongoing national pregnancy cohort of 3600

children born in 2009-12. Our team has already analyzed 1600 CHILD HM samples for 19 oligosaccharides, 28

fatty acids, and hundreds of bacteria. We will now enhance the rich CHILD dataset with new multi-omic HM

analyses (20 nutrients, 15 non-nutritive bioactive proteins and thousands of metabolites) and apply

unsupervised machine learning methods to identify discrete ‘lactotypes’ (Aim 1). Next, we will leverage the rich

CHILD data to identify maternal, infant and environmental factors associated with lactotype membership and/or

individual HM components (Aim 2). Finally, we will use machine learning methods to understand how HM

composition influences microbiome development, growth, wheezing and allergies during infancy and childhood

(Aim 3).

Innovation: Integrating the CHILD and IMiC platforms will facilitate unprecedented research on HM as a

system-within-a-system and generate the world’s largest and most deeply-phenotyped mother-milk-infant

dataset (n=1600 triads with multi-omic milk profiles and rich longitudinal maternal and infant metadata). This

project will unite expert HM scientists, renowned pediatric researchers and data scientists at the forefront of

multi-omic methods development, placing the interdisciplinary MuMi team in an unrivaled position to make

novel discoveries in this space and revolutionize the way HM is studied and understood.

Grant Number: 5R01HD109859-04
NIH Institute/Center: NIH

Principal Investigator: Meghan Azad

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