Early Prediction of Cognitive Deficits in Very Preterm Infants using Machine Learning and Brain Connectome
Early Prediction of Cognitive Deficits in Very Preterm Infants using Machine Learning and Brain Connectome
批准号:
9759972
负责人:
Lili He
金额:
$23.85万
依托单位国家:
美国
项目类别:
财政年份:
2018
资助国家:
美国
项目状态:
已结题
起止时间:
2018-08-08 至 2020-07-31
关键词:
5 year oldAdultAgeArtificial IntelligenceBirthBrainCaringChildChild RearingChildhood Acute Lymphocytic LeukemiaClassificationClinicalCognitiveCognitive deficitsCommunicationDataDiagnosisDiffusion Magnetic Resonance ImagingDiscriminationEarly InterventionEarly identificationEnvironmental Risk FactorExhibitsFundingGestational AgeGoalsHumanImageIndividualInfantInstitutionInterventionKnowledgeLearningMachine LearningMagnetic Resonance ImagingMedicalMindModelingMultivariate AnalysisNeonatalNeural Network SimulationNeurodevelopmental DeficitNeurodevelopmental ImpairmentNeurologicNeurologic DeficitNeuronal PlasticityOutcomeParentsPediatric HospitalsPerformancePhysiologyPopulationPremature InfantPrognostic MarkerPropertyResearchResearch SupportRestScanningScientistSocioeconomic StatusSpecificityStatistical Data InterpretationStructureSystemTechniquesTestingTimeUnited StatesValidationartificial neural networkautoencoderbasecognitive testingconnectomeconnectome datadisabilityhigh dimensionalityhigh riskhigh risk infantinterestlife-long learningmedical complicationmodel developmentneonateneurodevelopmentneuroimagingnovel strategiesoutcome predictionpreventpublic health relevancerelating to nervous systemsexsocial
中文摘要
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英文摘要
Project Summary/Abstract
The high risk of neurodevelopmental impairments is a major concern for parents and clinicians caring for
premature babies. Annually, approximately 22,000 very preterm infants
(i.e. ≤32 weeks gestational age) in the
United States develop cognitive deficits.
Efforts to target interventions to prevent neurodevelopmental
sequelae are hampered by our current inability to diagnose disabilities before the age of 3 to 5 years.
Research supports the notion that cognitive deficits may result from a perturbation of neural connection and
communication. Recent brain connectome studies in adults and older children show that abnormal network
properties are useful as prognostic biomarkers. Many of these studies have exploited machine learning models
based on brain connectome data for the prediction of a variety of neurological conditions, however this
progress has not been fully extended to the preterm population. Our preliminary studies suggest that early and
accurate prediction of cognitive deficits at an individual level is possible using machine learning models based
on brain connectome features at term corrected age (CA). We have correctly classified 91.3% of very preterm
infants at high risk of cognitive deficits with 90% specificity and 92.3% sensitivity. Our overall objective is to
develop a robust machine learning model that can analyze integrated structural and functional brain
connectome data obtained at term CA to make a prediction of later cognitive deficits in very preterm infants.
Our central hypothesis is that machine learning techniques analyzing integrated structural and functional brain
connectome features at birth can predict cognitive deficits at 2 years CA at an individual level in very preterm
infants with accuracy of greater than 90%, exceeding the performance of current classical multivariate
analyses. The two specific aims to test the central hypothesis are: 1) Develop and implement a machine
learning model to extract high-level brain connectome features and 2) Develop and validate a machine learning
framework to predict cognitive deficits. On completion of the first aim, we will explicate the brain connectome,
and extract high-dimensional connectome features that best represent the brain connectome. In the second
aim, the machine learning model we proposed will be applied in predicting both cognitive deficit (i.e. 2-class
classification) and cognitive scores on a continuous scale (i.e., regression) at 2 years CA. To quantify the
model's discrimination, we will also validate its performance in data that are not used for the model
development, and compare with the current conventional multivariate approach. The proposed research is
significant because it will increase scientific knowledge about the developing brain connectome in very preterm
infants and facilitate earlier identification of babies at high risk of neurodevelopmental deficits, allowing timely
clinical interventions for optimal cognitive outcome.
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依托单位:
海外基金