Single-nucleus multiome ATAC plus gene expression profiling of over 1.5 million cells from 357 human prefrontal cortex samples identified cell-type-specific gene expression and cis-regulatory elements associated with aging across European and African admixed ancestry individuals aged 15 to 100 years.
Key Findings
Methods
A large-scale single-nucleus multiome dataset was generated from 357 human prefrontal cortex samples spanning ages 15 to 100 years.
Samples were derived from individuals of European and African admixed ancestry.
The final dataset consisted of paired transcriptomic and epigenomic profiles for over 1.5 million cells.
Cells were classified into seven major cell types using canonical marker genes.
Both ATAC (chromatin accessibility) and gene expression modalities were captured simultaneously per nucleus.
Results
Seven major cell types were identified and each was analyzed for features associated with aging.
Cell type classification was performed using canonical marker genes.
Each of the seven major cell types was independently analyzed for age-associated transcriptomic and epigenomic features.
The analysis spanned a broad age range from 15 to 100 years, enabling detection of age-related changes across the lifespan.
Results
Open chromatin regions were correlated with transcription factor expression to identify age-associated regulatory networks.
Chromatin accessibility data from the ATAC modality was used to identify open chromatin regions.
Correlations between open chromatin regions and transcription factor expression were computed to define regulatory networks.
These analyses were performed in a cell-type-specific manner.
The approach aimed to link epigenomic changes to transcriptional regulation associated with aging.
Results
Co-accessibility analysis identified linked peaks and genes, generating a catalog of putative cis-regulatory elements by cell type.
Co-accessibility was used to link distal open chromatin peaks to nearby genes.
The resulting catalog of putative cis-regulatory elements is organized by cell type.
This resource enables characterization of transcriptional regulation in a cell-type-specific manner.
The data are intended to generate hypotheses about how cis-regulatory elements influence and are influenced by aging and disease.
Conclusions
The multiomic dataset serves as a resource to characterize transcriptional regulation by cell type and generate hypotheses about aging and disease.
Data include both transcriptomic and epigenomic profiles for each nucleus.
The resource covers diverse ancestry backgrounds including European and African admixed individuals.
The dataset is intended to support investigation of how distinct cell-type profiles both influence and are influenced by aging and disease.
The broad age range (15–100 years) and large sample size (357 samples, >1.5 million cells) enhance the power to detect age-associated molecular changes.
Catching A, Weller C, Hu F, Bromberek S, Abbas S, Daida K, et al.. (2026). Single-nucleus multiome analysis in the human prefrontal cortex identifies gene expression and cis-regulatory elements associated with aging.. Cell reports. https://doi.org/10.1016/j.celrep.2026.117110