Productivity where it counts

Spatial biology studies continue to grow in size and complexity. The Autiva Spatial Phenotyper helps laboratories scale their research without scaling complexity. 

By integrating cyclic staining and imaging into a highly automated workflow, the system enables efficient analysis of tissue microarrays (TMAs), whole tissue sections, and larger study cohorts. Researchers can process more samples with less hands-on time, accelerating data generation and discovery.

Human tonsil, breast, and colon TMA labeled with ATTOApollo panels.
Credit: Federica Sella and Evelyn Lattmann (USZ Zurich, CH, Mitch Levesque Group)
Human tonsil, breast, and colon TMA labeled with ATTOApollo panels.
Credit: Federica Sella and Evelyn Lattmann (USZ Zurich, CH, Mitch Levesque Group)

Move from sample to spatial insight faster

Go from staining to quantitative spatial insights through a walk-away workflow that automates both staining and imaging. Process up to four slides in parallel while reducing manual intervention and workflow bottlenecks.

  • Deliver industry-leading throughput with up to 3× higher sample capacity
  • Process 24 biomarkers across four slides in less than 18 hours
Loaded Flow Cell Holder with four slides on the Autiva Spatial Phenotyper.
Loaded Flow Cell Holder with four slides on the Autiva Spatial Phenotyper.

Capture more biology per experiment

Simultaneous multi-channel imaging reduces the number of imaging cycles required, enabling researchers to generate highly multiplexed datasets more efficiently, preserve sample quality, and accelerate time to results.

  • Capture seven fluorescence channels per cycle and generate virtual H&E images with every dataset
  • Image up to 614 mm² of tissue per slide, supporting comprehensive analysis of large tissue sections in a single run
Human lung squamous cell carcinoma imaged with seven channels per cycle (six antibodies + DAPI).
Human lung squamous cell carcinoma imaged with seven channels per cycle (six antibodies + DAPI).

Spatial insights start with an image.

The Autiva Spatial Phenotyper combines Leica Microsystems' imaging heritage with a custom objective engineered specifically for spatial biology workflows. The imaging system delivers the image quality needed for accurate segmentation, phenotyping, and spatial analysis.

  • Coverslip-corrected and optimized for Flow Cell imaging
  • Color-corrected from 430 to 800 nm to support multiplex imaging across a broad fluorescence spectrum
Custom objective designed for Autiva Spatial Phenotyper.
Custom objective designed for Autiva Spatial Phenotyper.

See biology with greater confidence

High-resolution imaging resolves cellular and subcellular features across large tissue regions, enabling researchers to visualize fine morphological details and complex tissue architecture.

The dedicated optical path is optimized for spatial biology workflows, supporting accurate cell segmentation, cell identification, phenotyping, and quantitative spatial analysis. By capturing small biological structures with clarity, researchers can more effectively characterize spatial relationships and biological heterogeneity within every sample.

Human tonsil tissue section showing Ki67 (green) and DAPI (blue) with Aivia-based nuclear and nucleoli segmentation.
Human tonsil tissue section showing Ki67 (green) and DAPI (blue) with Aivia-based nuclear and nucleoli segmentation.

Built on proven high-plex expertise

The Autiva Spatial Phenotyper combines more than a decade of high-plex imaging experience from the Cell DIVE platform with Leica Microsystems' long heritage in imaging. Advanced calibration and image correction workflows help generate high-quality, analysis-ready images for spatial biology.

  • Automated registration, distortion correction, flat-field correction, and autofluorescence removal
  • THUNDER Computational Clearing enhances contrast and reduces haze to generate high contrast images
Examples of alignment/registration, autofluorescence subtraction, and THUNDER image processing before (top) and after (bottom) correction.
Examples of alignment/registration, autofluorescence subtraction, and THUNDER image processing before (top) and after (bottom) correction.

Flexibility where it counts

Start with the capabilities you need today. Grow as your science evolves.

The Autiva Platform functions as both a microscope and an open spatial biology platform. Configurable workflow settings, a 96-well reagent deck, and flexible automation architecture support a broad range of current and future spatial biology workflows.

Researchers can expand into new applications over time without being locked into one approach or replacing their system.

A flexible platform built for multiple workflows.
A flexible platform built for multiple workflows.

An ecosystem designed to expand

Grow your multiplex experiments with a reagent ecosystem designed to expand with your research. ATTOAuriga helps researchers start with validated ATTOApollo panels, flexibly reassign fluorophores using ATTOAdapt reagents, and add custom markers with ATTOConexa as research questions evolve.

The result is a standardized yet flexible approach that allows researchers to build upon validated panel content and incorporate custom markers as research needs change.

ATTOAuriga: A flexible reagent ecosystem for high-plex imaging.
ATTOAuriga: A flexible reagent ecosystem for high-plex imaging.

Transform data into discovery

Turn complex spatial images into actionable biological insight with Aivia, AI-powered image analysis software designed for spatial biology. Cell membrane segmentation converts images into individual cellular objects that can be quantified, classified, and explored in context.

Researchers can uncover patterns through heat maps, correlation plots, clustering, and phenotyping analyses, with flexible licensing options to fit their laboratory needs.

Aivia workspace showing multiplex image visualization, segmentation, and spatial analysis of human pancreas tissue.
Aivia workspace showing multiplex image visualization, segmentation, and spatial analysis of human pancreas tissue.
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