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Single-Cell DNA Methylation Profiling

What is single-cell DNA methylation?

Single-cell DNA methylation profiling provides a high-resolution view of how epigenetic regulation defines cell identity, lineage, and function. Unlike bulk methylation assays that average signals across many cells, single-cell approaches uncover cellular heterogeneity, revealing rare subpopulations and dynamic regulatory states that drive development, disease progression, and therapeutic response.

At the single-cell level, DNA methylation analysis allows scientists to map cell fate decisions, lineage trajectories, and epigenetic variability across tissues or within tumors. These insights are transforming developmental biology, oncology, and neurobiology, linking cell-specific methylation landscapes to functional phenotypes and gene regulation networks.

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Applications if single-cell epigenetic research

Single-cell DNA methylation technologies are revolutionizing how researchers study gene regulation and cellular diversity. They are used to:

  • Dissect cell populations and identity by defining methylation-based cell-type–specific signatures.
  • Reconstruct lineage trajectories and differentiation pathways during embryogenesis, tissue regeneration, or organoid development.
  • Investigate tumor heterogeneity and drug resistance through cell-level methylation profiling of cancer subclones and minimal residual disease.
  • Explore aging and environmental effects on individual cells’ epigenetic states and transcriptional potential.
  • Integrate multi-omic data, combining single-cell methylation with RNA-seq or ATAC-seq to link regulatory mechanisms to gene expression and chromatin accessibility.

By enabling quantitative, cell-by-cell resolution, single-cell methylation profiling provides the foundation for a new generation of precision epigenetics, offering insights into the molecular basis of health, disease, and development.

 

How Ellis Bio’s next generation bisulfite chemistry advances single-cell methylation profiling

Ellis Bio’s next-generation bisulfite technology is purpose-built for the demands of single-cell methylation studies, offering a breakthrough balance of efficiency, gentleness, and speed.

  • Ultra-Mild Reaction Conditions: Preserve DNA integrity at picogram levels, minimizing fragmentation and maximizing library yield for low-input single-cell and single-nucleus assays.

  • Uniform, Complete Conversion: Achieve minimal GC bias, ensuring accurate methylation calling across the genome.

  • Superior Reproducibility: Reduces technical variability across cells, batches, and experimental replicates, enhancing confidence in downstream clustering and differential methylation analyses.
  • Compatibility with Multi-Omic Platforms: Fully supports scWGBS, scRRBS, snmC-seq, sciMET, and combinatorial indexing workflows, as well as integration with single-cell RNA-seq and ATAC-seq for comprehensive multi-omic profiling.
Together, these advantages make Ellis Bio’s bisulfite chemistry the ideal foundation for single-cell DNA methylation profiling, empowering researchers to explore how epigenetic patterns govern cell identity, differentiation, and disease evolution with unmatched precision and reliability.

References

  1. Carter, Benjamin, and Keji Zhao. "The epigenetic basis of cellular heterogeneity." Nature Reviews Genetics.
  2. Tian, Wei, et al. "Single-cell DNA methylation and 3D genome architecture in the human brain." Science.
  3. Liu, Hanqing, et al. "Single-cell DNA methylome and 3D multi-omic atlas of the adult mouse brain." Nature.