Inverse probability weighting is an effective method to address selection bias during the analysis of high dimensional data

Omics studies frequently use samples collected during cohort studies. Conditioning on sample availability can cause selection bias if sample availability is nonrandom. Inverse probability weighting (IPW) is purported to reduce this bias. We evaluated IPW in an epigenome‐wide analysis testing the ass...

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Published inGenetic epidemiology Vol. 45; no. 6; pp. 593 - 603
Main Authors Carry, Patrick M., Vanderlinden, Lauren A., Dong, Fran, Buckner, Teresa, Litkowski, Elizabeth, Vigers, Timothy, Norris, Jill M., Kechris, Katerina
Format Journal Article
LanguageEnglish
Published Hoboken Wiley Subscription Services, Inc 01.09.2021
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Abstract Omics studies frequently use samples collected during cohort studies. Conditioning on sample availability can cause selection bias if sample availability is nonrandom. Inverse probability weighting (IPW) is purported to reduce this bias. We evaluated IPW in an epigenome‐wide analysis testing the association between DNA methylation (261,435 probes) and age in healthy adolescent subjects (n = 114). We simulated age and sex to be correlated with sample selection and then evaluated four conditions: complete population/no selection bias (all subjects), naïve selection bias (no adjustment), and IPW selection bias (selection bias with IPW adjustment). Assuming the complete population condition represented the “truth,” we compared each condition to the complete population condition. Bias or difference in associations between age and methylation was reduced in the IPW condition versus the naïve condition. However, genomic inflation and type 1 error were higher in the IPW condition relative to the naïve condition. Postadjustment using bacon, type 1 error and inflation were similar across all conditions. Power was higher under the IPW condition compared with the naïve condition before and after inflation adjustment. IPW methods can reduce bias in genome‐wide analyses. Genomic inflation is a potential concern that can be minimized using methods that adjust for inflation.
AbstractList Omics studies frequently use samples collected during cohort studies. Conditioning on sample availability can cause selection bias if sample availability is nonrandom. Inverse probability weighting (IPW) is purported to reduce this bias. We evaluated IPW in an epigenome‐wide analysis testing the association between DNA methylation (261,435 probes) and age in healthy adolescent subjects ( n  = 114). We simulated age and sex to be correlated with sample selection and then evaluated four conditions: complete population/no selection bias (all subjects), naïve selection bias (no adjustment), and IPW selection bias (selection bias with IPW adjustment). Assuming the complete population condition represented the “truth,” we compared each condition to the complete population condition. Bias or difference in associations between age and methylation was reduced in the IPW condition versus the naïve condition. However, genomic inflation and type 1 error were higher in the IPW condition relative to the naïve condition. Postadjustment using bacon, type 1 error and inflation were similar across all conditions. Power was higher under the IPW condition compared with the naïve condition before and after inflation adjustment. IPW methods can reduce bias in genome‐wide analyses. Genomic inflation is a potential concern that can be minimized using methods that adjust for inflation.
Omics studies frequently use samples collected during cohort studies. Conditioning on sample availability can cause selection bias if sample availability is non-random. Inverse probability weighting (IPW) is purported to reduce this bias. We evaluated IPW in an epigenome wide analysis testing the association between DNA methylation (321,251 probes) and age in healthy adolescent subjects (n=114). We simulated age and sex to be correlated with sample selection and then evaluated 4 conditions: complete population/no selection bias (all subjects), naïve selection bias (no adjustment), and IPW selection bias (selection bias with IPW adjustment). Assuming the complete population condition represented the ‘truth’, we compared each condition to the complete population condition. Bias or difference in associations between age and methylation was reduced in the IPW condition versus the naïve condition. However, genomic inflation and type 1 error were higher in the IPW condition relative to the naïve condition. Post-adjustment using bacon, type 1 error and inflation were similar across all conditions. Power was higher under the IPW condition compared to the naïve condition before and after inflation adjustment. IPW methods can reduce bias in genome-wide analyses. Genomic inflation is a potential concern that can be minimized using methods that adjust for inflation.
Omics studies frequently use samples collected during cohort studies. Conditioning on sample availability can cause selection bias if sample availability is nonrandom. Inverse probability weighting (IPW) is purported to reduce this bias. We evaluated IPW in an epigenome‐wide analysis testing the association between DNA methylation (261,435 probes) and age in healthy adolescent subjects (n = 114). We simulated age and sex to be correlated with sample selection and then evaluated four conditions: complete population/no selection bias (all subjects), naïve selection bias (no adjustment), and IPW selection bias (selection bias with IPW adjustment). Assuming the complete population condition represented the “truth,” we compared each condition to the complete population condition. Bias or difference in associations between age and methylation was reduced in the IPW condition versus the naïve condition. However, genomic inflation and type 1 error were higher in the IPW condition relative to the naïve condition. Postadjustment using bacon, type 1 error and inflation were similar across all conditions. Power was higher under the IPW condition compared with the naïve condition before and after inflation adjustment. IPW methods can reduce bias in genome‐wide analyses. Genomic inflation is a potential concern that can be minimized using methods that adjust for inflation.
Omics studies frequently use samples collected during cohort studies. Conditioning on sample availability can cause selection bias if sample availability is nonrandom. Inverse probability weighting (IPW) is purported to reduce this bias. We evaluated IPW in an epigenome-wide analysis testing the association between DNA methylation (261,435 probes) and age in healthy adolescent subjects (n = 114). We simulated age and sex to be correlated with sample selection and then evaluated four conditions: complete population/no selection bias (all subjects), naïve selection bias (no adjustment), and IPW selection bias (selection bias with IPW adjustment). Assuming the complete population condition represented the "truth," we compared each condition to the complete population condition. Bias or difference in associations between age and methylation was reduced in the IPW condition versus the naïve condition. However, genomic inflation and type 1 error were higher in the IPW condition relative to the naïve condition. Postadjustment using bacon, type 1 error and inflation were similar across all conditions. Power was higher under the IPW condition compared with the naïve condition before and after inflation adjustment. IPW methods can reduce bias in genome-wide analyses. Genomic inflation is a potential concern that can be minimized using methods that adjust for inflation.Omics studies frequently use samples collected during cohort studies. Conditioning on sample availability can cause selection bias if sample availability is nonrandom. Inverse probability weighting (IPW) is purported to reduce this bias. We evaluated IPW in an epigenome-wide analysis testing the association between DNA methylation (261,435 probes) and age in healthy adolescent subjects (n = 114). We simulated age and sex to be correlated with sample selection and then evaluated four conditions: complete population/no selection bias (all subjects), naïve selection bias (no adjustment), and IPW selection bias (selection bias with IPW adjustment). Assuming the complete population condition represented the "truth," we compared each condition to the complete population condition. Bias or difference in associations between age and methylation was reduced in the IPW condition versus the naïve condition. However, genomic inflation and type 1 error were higher in the IPW condition relative to the naïve condition. Postadjustment using bacon, type 1 error and inflation were similar across all conditions. Power was higher under the IPW condition compared with the naïve condition before and after inflation adjustment. IPW methods can reduce bias in genome-wide analyses. Genomic inflation is a potential concern that can be minimized using methods that adjust for inflation.
Author Litkowski, Elizabeth
Vanderlinden, Lauren A.
Norris, Jill M.
Dong, Fran
Vigers, Timothy
Kechris, Katerina
Buckner, Teresa
Carry, Patrick M.
AuthorAffiliation 1 Department of Epidemiology, Colorado School of Public Health, University of Colorado Anschutz Medical Campus
2 Musculoskeletal Research Center, Department of Orthopedics, University of Colorado Anschutz Medical Campus
3 Department of Biostatistics and Informatics, Colorado School of Public Health, University of Colorado Anschutz Medical Campus
4 Barbara Davis Center for Diabetes, University of Colorado Anschutz Medical Campus
AuthorAffiliation_xml – name: 2 Musculoskeletal Research Center, Department of Orthopedics, University of Colorado Anschutz Medical Campus
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  doi: 10.1007/s001250050514
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  doi: 10.1097/00001648-200009000-00011
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  doi: 10.1097/00001648-199901000-00008
– ident: e_1_2_9_16_1
  doi: 10.1002/9781119482260
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Snippet Omics studies frequently use samples collected during cohort studies. Conditioning on sample availability can cause selection bias if sample availability is...
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StartPage 593
SubjectTerms Age
Bacon
Bias
DAISY
DNA methylation
DNA probes
Genomics
inverse probability weighting
selection bias
Title Inverse probability weighting is an effective method to address selection bias during the analysis of high dimensional data
URI https://onlinelibrary.wiley.com/doi/abs/10.1002%2Fgepi.22418
https://www.proquest.com/docview/2562177461
https://www.proquest.com/docview/2541783865
https://pubmed.ncbi.nlm.nih.gov/PMC8376760
Volume 45
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