Evaluating the consequences of childhood adiposity on the human plasma proteome at four timepoints across the lifecourse

Abstract Applying a lifecourse approach using human genetic data, we evaluate the effect of childhood adiposity on the circulating proteome using measurements taken at four key life stages. Using lifecourse Mendelian randomization, we find genetically predicted childhood adiposity to have an effect on 8 proteins measured during childhood (mean age: 9.9 years) including increased circulating TNFSF11 which is involved in T cell-dependent immune responses. Using a mediation framework, we demonstrate that TNFSF11 confers risk of childhood-onset asthma (colocalization posterior probability =88.6%) but not adult-onset asthma (colocalization posterior probability =0.2%), highlighting its putative role as a causal intermediate between adiposity and asthma risk specific to early stages in the lifecourse. Additionally, we find that genetically predicted childhood adiposity has an independent effect on 24 proteins measured during midlife after accounting for adulthood adiposity. Of particular interest is the effect of childhood adiposity on CST6 and NOTCH3 levels in adulthood, which have been found previously to play a role in breast cancer susceptibility.

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Publication Details

Journal
Nature Communications
Published
2026-09-10
DOI
https://doi.org/10.1038/s41467-026-77097-9
Primary Topic
Adipokines, Inflammation, and Metabolic Diseases
Type
article
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article

Evaluating the consequences of childhood adiposity on the human plasma proteome at four timepoints across the lifecourse

George Davey Smith, Tom G. Richardson, Tom R. Gaunt, Grace M. Power et al.
Nature Communications
Adipokines, Inflammation, and Metabolic Diseases
article

Evaluating the consequences of childhood adiposity on the human plasma proteome at four timepoints across the lifecourse

George Davey Smith, Tom G. Richardson, Tom R. Gaunt, Grace M. Power, Torben Hansen, Lili Niu, Richard Turner, Jens-Christian Holm, Phoebe Dickson
article en

Abstract

Abstract Applying a lifecourse approach using human genetic data, we evaluate the effect of childhood adiposity on the circulating proteome using measurements taken at four key life stages. Using lifecourse Mendelian randomization, we find genetically predicted childhood adiposity to have an effect on 8 proteins measured during childhood (mean age: 9.9 years) including increased circulating TNFSF11 which is involved in T cell-dependent immune responses. Using a mediation framework, we demonstrate that TNFSF11 confers risk of childhood-onset asthma (colocalization posterior probability =88.6%) but not adult-onset asthma (colocalization posterior probability =0.2%), highlighting its putative role as a causal intermediate between adiposity and asthma risk specific to early stages in the lifecourse. Additionally, we find that genetically predicted childhood adiposity has an independent effect on 24 proteins measured during midlife after accounting for adulthood adiposity. Of particular interest is the effect of childhood adiposity on CST6 and NOTCH3 levels in adulthood, which have been found previously to play a role in breast cancer susceptibility.

Nature Communications
Openalex Percentile: Top 10%
Adipokines, Inflammation, and Metabolic Diseases
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Evaluating the consequences of childhood adiposity on the human plasma proteome at four timepoints across the lifecourse — George Davey Smith, Tom G. Richardson, et al. · Nature Communications (2026) | TGRS Research Map | TGRS