Blueprints for
  • Biology
  • Oncology
  • Cytogenomics
  • Metagenomics

Unlock a new dimension of transformative genomic discovery.

Phase Genomics’ ultra-long-range genome sequencing technology and computational tools empower scientific teams to solve some of today’s most pressing health and environmental challenges.

Detect all major types of chromosomal abnormalities (structural variants) in a single,
NGS-based assay; analyze genome and chromatin architecture; unlock information stored in FFPE samples; characterize TADs; advance precision oncology.

Read More

Deconvolute complex metagenomic samples; discover new species, strains and genes; attribute mobile genetic elements to their hosts; study the human microbiome, infectious disease, antibiotic resistance and gene function.

Read More

Construct high-quality, chromosome-scale reference genomes; resolve haplotypes and polyploidy; compare and study gene structure, function and interactions; understand biology and evolution to conserve and protect biodiversity.

Read More

News: Phase Genomics Named
Metagenomics Innovation
Of The Year for 2023 by
BioTech Breakthrough Awards

Read More

Start Building

Discover how Phase Genomics can help you reach your goals faster and unlock unprecedented insights.

Contact Us

Accelerating Breakthroughs

Thousands of scientists throughout the world apply Phase Genomics’ technology to drive new innovations and therapeutic discoveries at leading academic and research organizations and biopharmaceutical firms.

What is ultra-long-range sequencing?
How does it work?

Our Technology

Complete sample-to-insight
solutions

View All Products

Read the latest in research
featuring proximity ligation

See All Papers

Join the fast-growing
Phase community

Participate & Collaborate
  • “We’ve generated and sequenced more than 70 Phase Genomics libraries so far, leading to numerous highly contiguous plant genomes and chromatin interaction projects. We are incredibly happy with our long-standing relationship with Phase, and look forward to our continued collaborations”

    Prof. Alex Harkess

    Assistant Professor: Auburn University & Faculty Investigator: HudsonAlpha Institute for Biotechnology
  • “The direct association of mobile genetic elements with their microbial hosts in complex populations is one of the last remaining technological challenges in the microbiome space. Proximity ligation is an elegant way to overcome this obstacle and presents a promising key technology in the study of bacteriophage and antibiotic resistance biology within a microbial context.”

    Prof. Paul Plummer

    Iowa State University and Executive Director of the Institute for Antimicrobial Resistance Research and Education
  • “The level of genome completeness and contiguity yielded by this technology has transformed how we view genome projects and has enabled us to ask new biological questions.”

    Prof. Jeff Maughan

    Department of Plant & Wildlife Sciences, Brigham-Young University
  • “The thing that was fun was that [the Phase Genomics team] were definitely personally invested in our research. It wasn’t just a payment for service thing. They were genuinely interested in our results. It’s fun to work with people who are interested in the results.”

    Prof. Dr. Catherine (Katie) Peichel

    Head: Division Evolutionary Ecology, University of Bern
  • “Metagenomics has drastically accelerated virus discovery, changing our view of virus sequence space from a few hundred viruses to millions. However, the twin grand challenge — to capture full genomes and to link newly discovered viruses to their hosts — are major roadblocks for the field. Promisingly, these early findings suggest that Phase Genomics’ proximity ligation approach may solve both these problems.”

    Matthew Sullivan

    Professor of Microbiology at Ohio State University and Founding Director of OSU’s Center of Microbiome Science
As Seen In: