Targeted 3D Genomics & Capture Services

Maximize resolution and minimize sequencing costs with our Targeted 3D Genomics & Capture Services. From genome-wide Promoter Capture Panels for variant interpretation to ultra-high-resolution Tri-C for single-locus dissection, we provide a complete suite of enrichment strategies. Focus your sequencing power exactly where it matters—on your specific genes, GWAS intervals, or regulatory elements. RUO.

  • High Resolution: Achieve significantly deeper coverage than whole-genome Hi-C at a fraction of the cost.
  • Flexible Targeting: Choose from off-the-shelf panels (Promoter Capture) or fully custom designs (Capture Hi-C).
  • Method Diversity: Access both hybridization-based (CHi-C) and viewpoint-based (Capture-C, T2C, Tri-C) technologies.
  • Expert Design: Comprehensive support for probe selection and viewpoint optimization.
Compare Targeted Methods

Conceptual illustration of targeted chromatin capture vs whole genome Hi-C.

Overview: Precision Mapping for Specific Genomic Regions

Genome-wide Hi-C provides a global map of chromatin architecture, but for many research questions, "global" is not enough. When the goal is to fine-map a specific GWAS interval, dissect the regulatory logic of a gene cluster, or validate CRISPR-mediated structural changes, standard Hi-C often lacks the sequencing depth required to resolve fine-scale loops.

Our Targeted 3D Genomics & Capture Services solve this coverage-versus-cost dilemma. By using enrichment strategies—either hybridization-based capture or viewpoint-specific selection—we allow you to focus your sequencing reads exclusively on the genomic regions that matter to your research.

This targeted approach yields ultra-high resolution (1–5 kb or restriction fragment level) interaction maps at a fraction of the cost of deep whole-genome sequencing. Whether you need to map the interactome of thousands of promoters simultaneously or dissect the complex folding of a single developmental locus, our portfolio offers the precise tool for the job.

Why Choose Targeted 3D Genomics?

  • Cost-Efficiency: Reduce sequencing costs by 10–100x compared to deep Hi-C.
  • Ultra-High Resolution: Detect sub-TAD structures and enhancer-promoter loops that are invisible in global maps.
  • Flexible Scale: Solutions ranging from single-locus (Tri-C) to pathway-specific (T2C) and genome-wide promoters (PCHi-C).

Method Selection Guide: Which Targeted Solution Do You Need?

Targeted 3D genomics encompasses two distinct technical approaches: Hybridization Capture (using probes to pull down targets from a Hi-C library) and Viewpoint Selection (using PCR to amplify interactions from specific anchors). Use this guide to navigate to the correct service.

By Scale of Interest

  • Genome-Wide Targets (>1,000 regions): If you need to map interactions for all gene promoters or large sets of enhancers, use Hybridization Capture.
    Recommended: Promoter Capture Panel or Capture Hi-C.
  • Specific Loci (1–50 regions): If you are focused on a handful of specific genes, a GWAS risk locus, or a CRISPR target site, use Viewpoint Selection.
    Recommended: Capture-C or T2C.

By Resolution Needs

  • Standard Loop Detection: For mapping interactions between elements >5kb apart.
    Recommended: Capture Hi-C.
  • Fine-Scale Topology (Sub-TADs): For resolving complex multi-way interactions or "hub" structures within a small region.
    Recommended: Tri-C or T2C.

Flowchart for selecting targeted 3D genomics methods.

Hybridization-Based Capture Services

These methods utilize biotinylated RNA or DNA probes to enrich a standard Hi-C library for specific sequences of interest. They are ideal for high-throughput targeting of discontinuous regions.

Capture Hi-C (CHi-C)

Custom Probe Design. We design custom probe sets to enrich Hi-C libraries for your specific regions of interest—whether it's a list of 500 differentially expressed genes or a set of GWAS risk intervals. Obtain genome-wide interaction maps specifically for your targets.

Promoter Capture Panel

Off-the-Shelf Efficiency. Available for Human and Mouse genomes. These pre-designed panels target the promoters of all annotated coding genes, allowing you to map the "Promoterome" and link distal enhancers to their target genes without custom design costs.

Viewpoint-Based & PCR Approaches

These methods do not use hybridization probes. Instead, they use specific oligonucleotide primers to selectively amplify ligation junctions involving your "viewpoint" (anchor) of interest. They offer the highest possible resolution per locus.

Capture-C

High-Throughput Viewpoints. Uses oligonucleotide capture to profile interactions for hundreds of viewpoints simultaneously. Excellent for characterizing the regulatory landscape of gene pathways.

T2C (Targeted Chromatin Capture)

Cost-Effective Regional Mapping. A robust method using selective PCR and ligation to map all interactions within a specific chromosomal region. Ideal for deep analysis of specific TADs.

Tri-C

Multi-Way Interactions. A specialized variant of Chromosome Conformation Capture designed to detect simultaneous, multi-way interactions (hubs) involving a specific locus.

Comparison: Hybridization vs. Viewpoint Selection

Feature Hybridization (e.g., CHi-C) Viewpoint Selection (e.g., Capture-C)
Throughput High (Thousands of targets) Low to Medium (1–100 targets)
Resolution High (Fragment level) Ultra-High (Single restriction site)
Start-Up Cost Higher (Requires probe synthesis) Lower (Requires primer synthesis)
Sequencing Depth Moderate efficiency (Off-target reads possible) High efficiency (Near-total enrichment)
Best Application Genome-wide surveys (Promoterome, GWAS) Deep dissection of specific loci

Frequently Asked Questions

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Enhancing your vision research capabilities.

High-confidence 3D genomics services for chromatin interaction analysis and regulatory insight.

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