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ZYENRA-SPATIAL V2 · SPATIALLY BARCODED CHIP

Place molecular readouts
in tissue context.

Connect molecular signals, coordinates and tissue images with spatial barcodes to investigate expression patterns across tissue regions.

Current scope: fresh-frozen, OCT-embedded tissue. Pre-fixed tissue and FFPE are not currently accepted; spatial RNA services are under optimization and assessed per project.

Conceptual illustration of spatial coordinates and molecular readouts
  1. Tissue location
  2. Spatial coordinates
  3. Molecular information

How tissue location, spatial coordinates and molecular information connect.

RESEARCH PERSPECTIVE

Regional expression, tissue boundaries and microenvironments.

Regional differences

Which expression patterns distinguish different tissue regions?

Structural context

How do molecular signals relate to morphological boundaries and tissue structure?

Microenvironment

How can tissue position inform research into molecular signals within local cellular environments?

HOW IT WORKS

Give expression data
a spatial reference.

01

Spatial barcodes

Barcode information on the chip provides the basis for spatial association.

02

Tissue images

Retain tissue morphology through imaging for subsequent spatial alignment.

03

Molecular readouts

After sequencing, link expression information to spatial barcodes and analyze it in the context of tissue images.

V2 CHIP FORMATS

Choose capture areas
around the tissue geometry.

Two layouts share a 25 × 75 mm slide format. The diagrams illustrate the layouts; experimental configuration is confirmed for each project.

FORMAT A

Two capture areas

Two areas, each measuring 15 × 5.5 mm.

165 mm²

Total capture area

FORMAT B

One square capture area

One area measuring 10 × 10 mm.

100 mm²

Total capture area

ZYENRA-spatial v2 format parameters; effective resolution depends on tissue, diffusion and analysis settings.

WORKFLOW

From tissue section to spatial analysis.

  1. 01

    Assess and section

    Start with fresh-frozen, OCT-embedded tissue and assess morphology, RNA quality and sectioning plans.

  2. 02

    Fix, image and capture

    Perform section fixation, tissue imaging, permeabilization and capture according to the workflow.

  3. 03

    Reverse transcribe, build and sequence

    Use the assay reactions and external sequencing to obtain molecular and barcode information.

  4. 04

    Reconstruct and analyze

    Combine spatial barcodes and tissue images to study regional expression and the relevant quality metrics.

SAMPLES & SCOPE

Sample requirements and first-project assessment.

Tissue context and microenvironment research

Current sample entry point

Fresh-frozen, OCT-embedded tissue. Discuss a pilot study around tissue morphology, RNA quality, dimensions and sectioning conditions before submission.

Where does fixation occur?

Sample requirements and in-workflow fixation are separate: submitted tissue must be unfixed and fresh-frozen, while the workflow itself fixes sections after mounting. Section fixation within the workflow does not imply compatibility with pre-fixed input. The current workflow does not accept pre-fixed or paraffin-embedded samples.

How should a first project be planned?

Confirm regions of interest and sample compatibility before planning sectioning, imaging, experiments and analysis. Spatial RNA services are under optimization and assessed project by project.

Assess a spatial project

Feedback, suggestions or concerns: CEO Direct