MERSCOPE Ultraᵀᴹ

Map transcripts across 3 cm2 of tissue on a single slide with MERSCOPE Ultra™, a high-resolution in situ spatial imaging platform that offers a tissue-wide view of up to 1,000 custom genes at single-cell resolution.

Why MERSCOPE Ultra?

Expansive 3.0 cm² Imaging Area

Image larger sections or multiple samples on one slide; choose FCX-L (3.0 cm²) or FCX-S (1.25 cm²) and analyze up to ~9.0 cm²/week.

Single-Molecule MERFISH 2.0

Detect RNA at subcellular resolution with high plex and target up to ~1,000 genes per experiment for discovery-scale spatial imaging.

FFPE & Fresh-Frozen Compatible

Run validated workflows that preserve morphology and spatial context across FFPE and fresh-frozen tissue for consistent results.

Integrated Analysis Pipeline

Move from acquisition to insight with Vizualizer (exploration/QC) and VPT (reproducible pipelines) optimized for MERFISH 2.0 outputs.

End-to-End, One Platform

From gene panels to reagents to instrument to analysis. We offer an integrated spatial imaging workflow that speeds setup and keeps teams aligned.

Training, Support & Services

Onboarding, applications help, and lab services when timelines demand it, backed by a global customer-success network.

Vizgen Gene Panel Design Portal

The Vizgen® Gene Panel Portal is a user-friendly web application for creating custom gene panels for the MERSCOPE® Ultra Platform.

With the Portal, you can tailor your gene panels with real-time feedback on gene suitability for MERFISH 2.0 measurements. This step-by-step guidance makes it easy to design a panel tailored to your spatial imaging needs.

From the Portal, you can:

  • Build custom MERFISH 2.0 gene panels
  • Request quotes for gene panels, reagents, and consumables
  • Download a panel’s Codebook
  • Access previously designed panels and quotes
  • Access Vizgen Customer Resources
Explore Gene Panel Design

MERSCOPE Vizualizer Software

Explore and interpret complex spatial transcriptomics datasets in Vizualizer™ with intuitive workflows that resolve spatial context at the single-cell level.

With Vizualizer™, you can:

  • View tissue images with cell segmentation and boundaries
  • Inspect detected transcripts per cell and per gene
  • Build cell × gene heatmaps and expression tables
  • Explore UMAP/t-SNE scatterplots with cluster annotations
  • Export publication-ready figures and share results
See the Vizualizer in Action

Class-Leading Sensitivity

Sub-cellular resolution paired with sample clearing reduces background, ensuring the highest transcript detection.

Platform Flexibility

Custom panels, scalable multiplexing, species versatility, and data analysis tools that work best for your workflow.

High Quality Specificity

Error-robust barcoding and correlation to scRNA-seq provide confidence.

MERFISH 2.0 Chemistry

Enables new applications with high-quality results without sacrificing sensitivity or specificity. More than 170 peer-reviewed journals and pre-prints.

Superior Cell Segmentation

Draw biologically true cell shapes and accurately localize transcripts to identify cell types.

High-Resolution Optics

Minimizes optical crowding and allows for accurate measurements in areas of high expression.

MERSCOPE Ultra Instrument Specifications

Technical Specification
MERSCOPE Ultra

Vizgen Flow Chambers Supported

FCX-S (Standard): 1.25 cm² max imageable area; FCX-L (Large): 3 cm² max imageable area

Throughput

Up to 9.0 cm² per week

Multiplex Capacity

Up to 1000 genes

Optical Resolution

Oil-immersion, high-NA objective

Lateral Resolution

100 nm pixel size

Imaging Camera

Back-thinned, cooled sCMOS

On-Instrument Storage Capacity

58 TB

Analysis PC Storage Capacity

58 TB

Illumination Source

Multi-color laser

Automated Image Processing

Transcript decoding and cell segmentation

What Our Customers Are Saying

“In my lab, we are interested in biomechanical modeling of muscle, which requires a thorough understanding of the cellular and molecular organization within the tissue. By using MERSCOPE to create organ-wide atlases, we will be able to root our models in the precise physical architecture of muscles from healthy and diseased donors.”

Pallav Kosuri

PhD, Assistant Professor, Salk Institute

FAQ

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