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DNA methylation is the most stable and clinically translatable epigenetic mark, regulating gene expression, cellular differentiation, and disease progression through covalent modification of DNA.

Chromatin and histone modifications form the core regulatory layer of epigenetic protein–DNA interactions, controlling chromatin state and gene accessibility across diverse biological systems.

Three-dimensional chromatin architecture determines how regulatory elements communicate with their target genes, linking distal enhancers to promoters and shaping transcriptional programs.

Epitranscriptomics and translational regulation encompass dynamic RNA modifications, transcriptome profiling, and translation dynamics that control RNA fate, protein synthesis, and immune repertoire diversity across diverse biological systems.

Single-cell and spatial epigenomics resolve epigenetic marks at cellular and tissue-level resolution, revealing cell-type-specific regulatory states and their spatial organization within intact tissues.

Core tools and enzymes provide the essential reagents—including high-performance magnetic beads, transfection reagents, and molecular enzymes (e.g., Tn5 transposase, reverse transcriptase)—that enable reliable and efficient execution of multi-omics workflows and molecular cloning.