3D Genomics

3D Genomics Research Services

CD Genomics provides RUO 3D genomics and chromatin architecture sequencing to connect regulatory elements to genes and mechanisms. Our portfolio spans genome-wide mapping (Hi-C/Micro-C), targeted interaction profiling (Capture-C/Capture Hi-C), protein-anchored 3D assays (HiChIP/PLAC-seq/ChIA-PET), long-read multi-contact methods (Pore-C/HiPore-C), single-cell 3D genomics, RNA–chromatin interaction mapping, R-loop profiling, and imaging validation.

Method-First Study Design

We match your research question to the right 3D assay so you generate interpretable evidence with minimal rework.

Evidence That Drives Next Steps

From discovery maps to targeted confirmation, we help you move from signals to testable hypotheses (RUO).

3D Genomics Service Portfolio
Discovery → prioritization → validation
R-loop Sequencing Service (RUO)

Profile R-loops with workflow options matched to your sample type and scientific goal—genome-wide mapping, locus-focused questions, or factor-anchored designs. CD Genomics supports DRIP-seq/DRIPc-seq/RDIP-seq, R-ChIP-seq, MaP-R, and CUT&Tag-based strategies for R-loop interrogation and mechanism studies.

Choose the right R-loop approach

Compare immunoprecipitation-based, RNaseH-based, and factor-anchored strategies for your question.

Designed for mechanism studies

Integrate R-loop maps with 3D genome structure and chromatin features to build a coherent mechanism narrative.

R-loop sequencing
Service spotlight
Trusted by leading universities, institutes, and biotech teams
National Institutes of Health (NIH)
UC San Diego
Universidade de Lisboa
Singapore Institute for Clinical Sciences
Novome Biotechnologies, Inc
Kent state university
University of Pennsylvania
Thomas Jefferson University
Unviersity of Oxford
Harvard University
UCLA
Our 3D Genomics Sequencing Services

Unbiased chromatin architecture profiling for compartments, TADs, and loops—ideal for discovery and comparative designs.

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High-signal contact enrichment at promoters or regions of interest to support V2G and enhancer assignment workflows.

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Factor-centric interaction maps for mechanistic interpretation—connect binding events to 3D contacts.

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Resolve heterogeneity and cell-state-specific 3D genome features for complex samples and mixed populations.

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Multi-way contacts plus long-read advantages for repeats/complex loci and SV/assembly scaffolding.

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Orthogonal confirmation of 3D genome hypotheses with spatial context—supporting high-confidence claims.

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Not sure which method to choose?

Tell us your goal (discovery, V2G, mechanism, SV/assembly, heterogeneity, or validation) and your sample constraints. We’ll recommend a best-fit workflow and a decision-ready plan.

Genome-wide 3D mapping
Workflow Details Best Services Genomics Trustworthy
Question → assay fit Define discovery vs comparison, expected resolution, depth constraints, and sample limits. First-pass discovery; architecture changes across conditions; genome-wide hypothesis generation. Hi-C Core, Hi-C Sequencing, Micro-C Compartments, TADs, loops, stripes; comparative maps Clear expectations for resolution and interpretability before you spend more.
Library & sequencing QC Complexity/duplication, mapping, contact yield; flag low-input and tissue risks early. Budget-sensitive projects that need “go/no-go” clarity. Hi-C Sequencing, Micro-C Depth-to-resolution expectation Early risk flags to avoid costly dead-ends (low yield, low complexity, sample limits).
Analysis & interpretation Loop/TAD/compartment calling, reproducibility, differential architecture, figure-ready outputs. Manuscript/grant deadlines; internal milestone reviews. Hi-C Sequencing, Hi-C Core Decision-ready conclusions for follow-up assays Results packaged for follow-up design and publication-ready figures.
Targeted 3D for V2G & enhancer assignment
Workflow Details Best Services Genomics Trustworthy
Target design & enrichment plan Define promoter/region panels, ROI strategy, on-target expectations, and control design. V2G, enhancer–promoter linking, regulatory region deep interrogation. Capture Targeted, Capture-C, Capture Hi-C, Promoter Capture Panel High-signal contacts at regulatory regions Panel/ROI design aligned to V2G decision logic and controls.
QC (capture-specific) On-target rate, enrichment, duplicate/complexity, reproducibility across replicates. Teams that must justify vendor outputs to PM/procurement. Capture-C, Capture Hi-C Promoter–enhancer link confidence Capture performance summarized for procurement-friendly review.
Link calling → validation path Report prioritized links, candidate genes, and a suggested validation route (3C-qPCR/ddPCR or FISH). Go/No-Go target nomination; functional follow-up planning. 3C-qPCR, 3C-ddPCR, 3D DNA-FISH Actionable V2G evidence package Validation path included (3C-qPCR/ddPCR or imaging) to strengthen conclusions.
Protein-anchored 3D for mechanism
Workflow Details Best Services Genomics Trustworthy
Factor strategy (biology → assay) Choose HiChIP vs PLAC-seq vs ChIA-PET based on factor type, enrichment need, and interpretation goals. Mechanism studies linking binding to looping; pathway-centric hypotheses. HiChIP, PLAC-seq, ChIA-PET, ChIP-loop Factor-centric loops, anchored interactions Factor choice mapped to biological interpretation and enrichment expectations.
Library QC & enrichment Assess enrichment, complexity, duplication, anchored contact quality and signal-to-noise. Projects where “interpretability” matters more than breadth. HiChIP, PLAC-seq Anchored loop maps Signal-to-noise assessed so anchored loops remain interpretable.
Mechanistic interpretation Integrate peaks + contacts; prioritize loops for perturbation/validation experiments. Cross-functional reviews (biology + translational + PM). HiChIP, ChIP-loop Evidence linking factor binding to regulation Prioritized loops ready for perturbation and mechanistic follow-up.
Long-read multi-contact & SV context
Workflow Details Best Services Genomics Trustworthy
Feasibility & design Define SV/assembly goal, repeat complexity, required multi-way information, and long-read constraints. SV interpretation, de novo scaffolding, complex loci and repeats. Pore-C, HiPore-C, T2C, Tri-C Multi-way contacts, long-range scaffolding evidence Feasibility framed around your SV/assembly question and genome complexity.
QC (long-read aware) Read length distribution, mapping strategy, contact yield, multi-contact characteristics. Teams that need confidence before expanding spend. Pore-C, HiPore-C Depth vs interpretability trade-off Long-read characteristics summarized for “expand or stop” decisions.
SV/assembly interpretation & reporting Deliver contact evidence supporting rearrangements/scaffolds; highlight regions needing orthogonal validation. Non-model organisms; complex genomes; SV-heavy disease models. Pore-C, HiPore-C, 3D DNA-FISH SV/assembly decision-ready package Evidence organized for orthogonal confirmation at complex loci.

Get Help Choosing the Right 3D Genomics Method

About CD Genomics 3D Genomics

CD Genomics delivers RUO sequencing services to help research teams understand how genome structure and regulatory wiring shape gene expression. “Chromatin3D Genomics” is our dedicated 3D genomics offering—built for discovery, enhancer-to-gene evidence, mechanism studies, and validation planning across academic and biotech R&D.

  • Designed for regulatory biology: enhancer–promoter logic, mechanism, and validation routes
  • Broad method coverage: genome-wide, targeted, factor-anchored, single-cell, long-read, and imaging
  • Built for research workflows: data that supports hypotheses, figures, and next experiments (RUO)
About Us
Illumina Sequencing System

Illumina Sequencing System

Oxford Nanopore Sequencing System

Oxford Nanopore Sequencing System

Automated Liquid Handling Platform

Automated Liquid Handling Platform

High-Resolution Fluorescence Microscope

High-Resolution Fluorescence Microscope

Modern RUO laboratory environment for chromatin architecture sequencing
Laboratory & Facility Highlights (RUO)

A dedicated molecular lab environment for chromatin architecture workflows—supporting crosslinking-based 3C/Hi-C derivatives, capture enrichment, factor-anchored assays, and long-read multi-contact methods. Built for reproducible execution across study phases.

  • Dedicated spaces and workflows for 3C/Hi-C-family library construction and capture enrichment
  • Support for factor-anchored and RNA-associated protocols with appropriate handling controls
  • Short-read and long-read compatibility for discovery and complex-genome questions
  • Secure sample and data handling for RUO research projects (NDA available upon request)
Application Spotlights
V2G

A budget-sensitive V2G project used promoter-focused capture contacts to prioritize candidate genes and define a validation-ready shortlist for downstream perturbation assays.

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Mechanism

Protein-centric 3D profiling connected binding events to looping changes across conditions, producing a clear evidence chain for mechanistic interpretation and follow-up validation.

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Single-Cell

Single-cell 3D genomics resolved architecture differences across cell states, enabling confident hypotheses where bulk data obscured signal.

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3D Genomics Insights & Resources
Insights

How to select the right method based on your question, sample constraints, and resolution needs.

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Insights

A practical reference for what to request, how to interpret metrics, and when to expand a project.

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Insights

A buyer-friendly planning framework with trade-offs, recommended starting points, and expansion triggers.

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How It Works
1
Define the Question & Method Fit

We translate your biological goal into an assay choice and phased plan aligned to sample realities and decision constraints.

2
Wet-Lab Execution with Controls

Library construction follows workflow-specific controls and risk flags to keep results interpretable for your question.

3
Sequencing + Key Checkpoints

Sequencing is performed with workflow-specific checkpoints so the dataset remains interpretable for your downstream decisions.

4
Analysis + Validation Planning

Outputs are organized to support internal review, figure generation, and a clear path to targeted confirmation (RUO).

Deliverables
  • Raw data (FASTQ) + processing logs
  • Standard contact formats + analysis outputs
  • Concise report with interpretation and validation path
QC metrics (examples)
  • Valid pairs and mapping performance
  • Distance decay and achievable resolution indicators
  • On-target/enrichment metrics where applicable
Leading Your Research Forward

Enhancing your vision research capabilities.

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

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